Member State report / Art8-2024 / 2024 / D8 / Sweden / NE Atlantic: Greater North Sea

Report type Member State report to Commission
MSFD Article Art8
Report due 2024-10-15
GES Descriptor D8 Contaminants
Member State Sweden
Region/subregion NE Atlantic: Greater North Sea
Report date 2025-10-30 08:59:20

ANS-SE-AA-B_Kattegatt

Regional assessment area
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
HELCOML2_SEA-001
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Nassarius nitidus
Element extent
Trend element
Deteriorating
Stable
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
20.0
20.0
40.0
52000.0
30.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.3
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<=
Threshold qualitative
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
Helsinki Convention
National
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
OSPAR Convention
Helsinki Convention
Value achieved upper
37.0
161.0
0.3
0.6
12.0
54900.0
11.7
385.0
0.37
62400.0
14.3
0.1
1100.0
0.13
102.0
0.4
0.3
8.4
1.0
1.3118
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Deteriorating
Stable
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Stable
Parameter achieved
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
No
No
Description parameter
Concentration in flatfish, Pleuronectes platessa
Concentration in herring, Clupea harengus
Concentrations in surface water
Observed value is higher than threshold, but assessed as achieved taking natural background into account. Det observerade värdet överskrider tröskelvärdet men när hänsyn tas till naturliga bakgrunden bedöms att tröskelvärdet klaras.
Related indicator
Criteria status
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Description criteria
Element status
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
57.10
57.10
57.10
57.10
57.10
57.10
57.10
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
GES later than 2024, Art14ExceptionNotReported
Description overall status
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2024
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
No
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
No
NA
Test results
Correct
Correct
Correct
Correct
Correct
False
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

ANS-SE-AA-B_Oresund

Regional assessment area
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
HELCOML2_SEA-003
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Not assessed
Not assessed
Not assessed
Not assessed
Unknown
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in water
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
40.0
52000.0
30.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<=
Threshold qualitative
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Value achieved upper
17.0
3.9
43.0
0.8
199.0
1.0
1.1
0.9
0.009
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Not assessed
Not assessed
Not assessed
Not assessed
Unknown
Stable
Stable
Parameter achieved
Not assessed
Not assessed
Yes
Not assessed
Yes
Not assessed
Not assessed
Yes
Yes
Not assessed
Yes
No
No
Yes
Not assessed
No
Yes
Description parameter
Concentrations in surface water
Although no value was available for the assessment area, the parameter is assessed as """"""""achieved"""""""". The reason is that results for surrounding areas were lower than the threshold value by two magnitudes. Ingen mätning har gjorts i bedömningsområdet men då det uppmätta värdet i övriga bedömningsområden understiger tröskelvärdet med cirka två magnituder bedöms tröskelvärdet klaras även i denna bassäng.
Related indicator
Criteria status
Not assessed
Not assessed
Good
Not assessed
Good
Not assessed
Not assessed
Good
Good
Not assessed
Good
Not good
Not good
Good
Not assessed
Not good
Good
Description criteria
Element status
Not assessed
Not assessed
Good
Not assessed
Good
Not assessed
Not assessed
Good
Good
Not assessed
Good
Not good
Not good
Good
Not assessed
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Improving
Improving
Improving
Improving
Improving
Improving
Improving
Improving
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Unknown
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
60.00
60.00
60.00
60.00
60.00
60.00
60.00
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
GES achieved
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
GES achieved by 2018
Description overall status
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2025
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
NA
NA
Yes
NA
Yes
NA
NA
Yes
Yes
NA
NA
No
No
Yes
NA
No
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
Correct
Correct
Correct
Correct
Correct
False

ANS-SE-AA-B_Skagerrak

Regional assessment area
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Copper and its compounds
Fluoranthene
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Nassarius nitidus
Element extent
Trend element
Unknown
Unknown
Improving
Stable
Unknown
Unknown
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Stable
Not assessed
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in water
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
40.0
52000.0
30.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.3
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<=
Threshold qualitative
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
National
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
OSPAR Convention
National
Value achieved upper
29.0
202.0
6.7
42351.0
12.0
268.0
0.39
67467.0
12.0
0.01
340.0
0.15
18.0
0.15
0.39
0.57
0.29
0.5545
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Stable
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Stable
Not assessed
Stable
Stable
Parameter achieved
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Description parameter
Concentration in herring, Clupea harengus
Ospar lacks an indicator for oil spill, hence regional harmonisation is not possible in the Swedish marine reporting unit Skagerrak. To promote a coherent national assessment and regional coordination, the Helcom methodology has been applied also to the assessment in Skagerrak.
Related indicator
Criteria status
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Description criteria
Element status
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
85.70
85.70
85.70
85.70
85.70
85.70
85.70
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
GES achieved by 2018
Description overall status
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Sweden applies exceptions from achieving good environmental status for PBDEs, mercury and TBT. För Västerhavet tillämpar Sverige undantag från att nå god miljöstatus för PBDE, kvicksilver och TBT enligt 29 § havsmiljöförordningen. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a).
Indicators under D8C2 are not integrated to criteria level
Ospar lacks an indicator for oil spill, hence regional harmonisation is not possible in the Swedish marine reporting unit Skagerrak. To promote a coherent national assessment and regional coordination, the Helcom methodology has been applied also to the assessment in Skagerrak.
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2026
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

ANS-SE-AA-BG_Vasterhavet

Regional assessment area
Component MRUs
GES component
D8
D8
D8
Feature
Species
Species
Species
Element
Zoarces viviparus
Zoarces viviparus
Zoarces viviparus
Element extent
Trend element
Stable
Stable
Stable
Element 2
Element source
National
National
National
Criterion
D8C2
D8C2
D8C2
Parameter
Proportion - dead fry early
Proportion - dead fry late
Proportion - fry malformed
Threshold value upper
5.0
4.0
2.0
Threshold value lower
Threshold value operator
<
<
<
Threshold qualitative
Threshold value source
National
National
National
Value achieved upper
1.8
1.7
0.8
Value achieved lower
Value unit
percentage
percentage
percentage
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Stable
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Description parameter
Related indicator
Criteria status
Good
Good
Good
Description criteria
Element status
Good
Good
Good
Description element
Source assessment feature
  • National
  • National
  • National
Reporting method feature
Type D
Type D
Type D
Trend feature
Not assessed
Not assessed
Not assessed
Integration rule type parameter
OOAO
OOAO
OOAO
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
GES extent achieved
GES extent unit
Not relevant
Not relevant
Not relevant
GES achieved
Not assessed
Not assessed
Not assessed
Description overall status
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Test results
Correct
Correct
Correct

BAL-SE-AA-B_Alands_hav

Regional assessment area
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
HELCOML2_SEA-014
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Element extent
Trend element
Unknown
Unknown
Improving
Deteriorating
Stable
Stable
Stable
Unknown
Unknown
Unknown
Not assessed
Unknown
Not assessed
Unknown
Deteriorating
Deteriorating
Deteriorating
Deteriorating
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Volume of oil
Threshold value upper
24.0
2300.0
20.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
10.6
460.0
3.0
75900.0
140.0
0.76
42000.0
1.8
1.0
1.61
62.0
0.013
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Deteriorating
Stable
Stable
Stable
Unknown
Unknown
Unknown
Not assessed
Unknown
Not assessed
Unknown
Deteriorating
Stable
Deteriorating
Stable
Unknown
Improving
Parameter achieved
Yes
Yes
Yes
No
Yes
Yes
Yes
Not assessed
Not assessed
Not assessed
Yes
Not assessed
No
Not assessed
No
Yes
No
Yes
Unknown
Yes
Description parameter
Concentration in herring, Clupea harengus
Although no value was available for the assessment area, the parameter is assessed as """"""""achieved"""""""". The reason is that results for surrounding areas were lower than the threshold value by two magnitudes. Ingen mätning har gjorts i bedömningsområdet men då det uppmätta värdet i övriga bedömningsområden understiger tröskelvärdet med cirka två magnituder bedöms tröskelvärdet klaras även i denna bassäng.
Although no value is available in the area, the parameter is assessed as """"""""Not achieved"""""""". This because assessment values in surrounding areas exceed the threshold value by approximately two orders of magnitude. Ingen mätning har gjorts i bedömningsområdet men då det uppmätta värdet i övriga bedömningsområden överstiger tröskelvärdet med cirka två magnituder bedöms tröskelvärdet inte klaras även i denna bassäng.
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Good
Good
Not good
Good
Good
Good
Not assessed
Not assessed
Not assessed
Good
Not assessed
Not good
Not assessed
Not good
Not good
Not good
Not good
Unknown
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Good
Good
Not good
Good
Good
Good
Not assessed
Not assessed
Not assessed
Good
Not assessed
Not good
Not assessed
Not good
Not good
Not good
Not good
Unknown
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Deteriorating
Deteriorating
Deteriorating
Deteriorating
Deteriorating
Deteriorating
Not assessed
Not assessed
Not assessed
Not assessed
Improving
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
85.70
85.70
85.70
85.70
85.70
85.70
85.70
85.70
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2024
Description overall status
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2027
2016-2027
2016-2027
2016-2027
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
No
Yes
Yes
Yes
NA
NA
NA
NA
NA
NA
NA
No
Yes
No
Yes
NA
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
Correct
False
Correct
Correct
Correct
Correct
Correct
Correct
False

BAL-SE-AA-B_Arkonahavet_och_S_Oresund

Regional assessment area
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
HELCOML2_SEA-006
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Deteriorating
Stable
Unknown
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
20.0
20.0
40.0
52000.0
30.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<=
Threshold qualitative
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
Helsinki Convention
National
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Value achieved upper
29.8
644.0
1.8
2.5
20.0
65100.0
2.1
350.0
0.76
153600.0
26.3
0.65
2000.0
0.9
36.0
0.7
0.5
7.6
0.7
1.2275
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Deteriorating
Stable
Unknown
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
No
No
Yes
No
No
Yes
Description parameter
Concentration in herring, Clupea harengus
Concentration in flatfish, Pleuronectes platessa
Concentrations in seawater
Observed value is higher than threshold, but assessed as achieved taking natural background into account. Det observerade värdet överskrider tröskelvärdet men när hänsyn tas till naturliga bakgrunden bedöms att tröskelvärdet klaras.
Related indicator
Criteria status
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Good
Description criteria
Element status
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
57.10
57.10
57.10
57.10
57.10
57.10
57.10
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
GES achieved by 2018
Description overall status
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2028
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
No
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
No
No
Yes
No
No
NA
Test results
False
Correct
Correct
Correct
Correct
False
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

BAL-SE-AA-B_Bornholmshavet_och_Hanobukten

Regional assessment area
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
HELCOML2_SEA-007
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Deteriorating
Stable
Stable
Stable
Deteriorating
Deteriorating
Deteriorating
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
20.0
20.0
40.0
52000.0
30.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
Helsinki Convention
National
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
13.9
1978.0
2.6
3.0
19.0
68100.0
0.9
133.0
0.86
98400.0
7.5
0.2
2200.0
0.15
30.0
0.3
0.7
7.0
1.0
1.61
62.0
1.3
1.0835
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Deteriorating
Stable
Unknown
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
Yes
No
Yes
Unknown
No
Yes
Description parameter
Concentration in herring, Clupea harengus
Concentration in flatfish, Pleuronectes platessa
Concentrations in seawater
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Not good
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
57.10
57.10
57.10
57.10
57.10
57.10
57.10
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2018
Description overall status
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2029
2016-2029
2016-2029
2016-2029
2016-2029
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
Yes
No
Yes
NA
No
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

BAL-SE-AA-B_Bottenhavet

Regional assessment area
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
HELCOML2_SEA-015
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Not assessed
Deteriorating
Deteriorating
Deteriorating
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Volume of oil
Threshold value upper
24.0
2300.0
20.0
40.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
8.2
345.0
3.7
21.0
73500.0
105.0
1.3
37200.0
13.0
2300.0
0.53
26.0
0.4
1.0
1.1
1.02
1.6
63.0
0.3263
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Not assessed
Stable
Stable
Stable
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Not assessed
Yes
Yes
No
No
Yes
Yes
Yes
No
Yes
No
No
Description parameter
Concentration in herring, Clupea harengus
Concentrations in seawater
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not assessed
Good
Good
Not good
Not good
Good
Good
Not good
Not good
Not good
Not good
Not good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not assessed
Good
Good
Not good
Not good
Good
Good
Not good
Not good
Not good
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
66.70
66.70
66.70
66.70
66.70
66.70
66.70
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
GES later than 2024, Art14ExceptionNotReported
Description overall status
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2030
2016-2030
2016-2030
2016-2030
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
NA
Yes
Yes
No
No
Yes
Yes
Yes
No
Yes
NA
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
False

BAL-SE-AA-B_Bottenviken

Regional assessment area
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
HELCOML2_SEA-017
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Unknown
Deteriorating
Stable
Stable
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Volume of oil
Threshold value upper
24.0
2300.0
20.0
40.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
5.3
1311.0
4.0
14.0
70200.0
60.0
0.75
74400.0
45.0
7600.0
10.0
90.0
5.7
2.1
2.2
1.02
1.6
63.0
0.0507
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Deteriorating
Stable
Stable
Stable
Stable
Unknown
Deteriorating
Stable
Stable
Stable
Stable
Deteriorating
Stable
Stable
Stable
Unknown
Improving
Parameter achieved
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
Not assessed
No
Yes
No
No
Yes
No
Yes
No
Yes
Unknown
Yes
Description parameter
Concentration in herring, Clupea harengus
Concentrations in seawater
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not assessed
Not good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Good
Good
Good
Not good
Good
Good
Good
Good
Not assessed
Not good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Improving
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
33.30
33.30
33.30
33.30
33.30
33.30
33.30
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionNotReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2024
Description overall status
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2031
2016-2031
2016-2031
2016-2031
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Yes
No
Yes
Yes
Yes
Yes
NA
No
Yes
No
No
Yes
No
Yes
No
Yes
NA
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

BAL-SE-AA-B_N_Gotlandshavet

Regional assessment area
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
HELCOML2_SEA-012
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Stable
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Deteriorating
Deteriorating
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in water
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
40.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
8.6
14076.0
19.0
52500.0
81.0
0.68
67200.0
7.4
1900.0
0.22
52.0
0.2
1.1
16.5
1.0
1.61
62.0
0.6
1.705
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Deteriorating
Improving
Stable
Stable
Stable
Stable
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Parameter achieved
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Not assessed
Yes
Yes
No
No
Yes
No
Yes
No
Yes
No
No
Yes
Description parameter
Concentrations in seawater
Observed value is higher than threshold, but assessed as achieved taking natural background into account. Det observerade värdet överskrider tröskelvärdet men när hänsyn tas till naturliga bakgrunden bedöms att tröskelvärdet klaras.
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Not good
Good
Good
Good
Good
Good
Good
Not assessed
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Not good
Not good
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Not good
Good
Good
Good
Good
Good
Good
Not assessed
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Not good
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
50.00
50.00
50.00
50.00
50.00
50.00
50.00
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2018
Description overall status
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2032
2016-2032
2016-2032
2016-2032
2016-2032
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
No
Yes
No
Yes
Yes
Yes
Yes
NA
Yes
Yes
No
No
Yes
No
Yes
No
Yes
NA
No
NA
Test results
Correct
Correct
Correct
False
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
Correct
False

BAL-SE-AA-B_N_Kvarken

Regional assessment area
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
HELCOML2_SEA-016
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Element extent
Trend element
Unknown
Unknown
Improving
Not assessed
Unknown
Stable
Unknown
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Unknown
Deteriorating
Deteriorating
Deteriorating
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Volume of oil
Threshold value upper
24.0
2300.0
20.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
3.3
1.2
34.0
4000.0
1.2
113.0
0.8
0.9
1.02
1.6
63.0
Value achieved lower
Value unit
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Not assessed
Unknown
Stable
Unknown
Stable
Unknown
Stable
Stable
Stable
Stable
Stable
Unknown
Stable
Deteriorating
Stable
Stable
Improving
Parameter achieved
Not assessed
Not assessed
Yes
Not assessed
Not assessed
Yes
Not assessed
Yes
Not assessed
Yes
Yes
No
No
Yes
Not assessed
Yes
No
Yes
Yes
Yes
Description parameter
Concentration in herring, Clupea harengus
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Not assessed
Not assessed
Good
Not assessed
Not assessed
Good
Not assessed
Good
Not assessed
Good
Good
Not good
Not good
Good
Not assessed
Not good
Not good
Not good
Good
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Not assessed
Not assessed
Good
Not assessed
Not assessed
Good
Not assessed
Good
Not assessed
Good
Good
Not good
Not good
Good
Not assessed
Not good
Not good
Not good
Good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Improving
Improving
Improving
Improving
Improving
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Improving
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
60.00
60.00
60.00
60.00
60.00
60.00
60.00
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES achieved by 2024
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2024
Description overall status
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions from achieving good environmental status for PBDEs and mercury. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2033
2016-2033
2016-2033
2016-2033
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
NA
NA
Yes
NA
NA
Yes
NA
Yes
NA
Yes
Yes
No
No
Yes
NA
Yes
No
Yes
NA
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
False

BAL-SE-AA-B_O_Gotlandshavet

Regional assessment area
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
HELCOML2_SEA-009
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Unknown
Unknown
Stable
Stable
Stable
Stable
Stable
Deteriorating
Deteriorating
Deteriorating
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
20.0
20.0
40.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
5.5
11500.0
2.7
3.3
17.0
51900.0
70.0
1.4
79200.0
14.3
0.23
39.0
0.7
1.4
13.0
1.0
1.61
62.0
0.0563
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Unknown
Unknown
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Stable
Unknown
Unknown
Improving
Parameter achieved
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Not assessed
Not assessed
Yes
No
No
Yes
No
Yes
No
Yes
Unknown
Unknown
Yes
Description parameter
Concentration in herring, Clupea harengus
Concentration in flatfish, Pleuronectes platessa
Concentrations in seawater
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Not assessed
Not assessed
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Unknown
Good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Not assessed
Not assessed
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Unknown
Unknown
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
Improving
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
40.00
40.00
40.00
40.00
40.00
40.00
40.00
100.00
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
GES achieved by 2024
Description overall status
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2034
2016-2034
2016-2034
2016-2034
2016-2034
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
NA
NA
Yes
No
No
Yes
No
Yes
No
Yes
NA
NA
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False

BAL-SE-AA-B_V_Gotlandshavet

Regional assessment area
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
HELCOML2_SEA-010
Component MRUs
GES component
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
D8
Feature
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - non UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Contaminants - UPBT substances
Species
Species
Species
Species
Species
Acute pollution events
Element
Anthracene
Cadmium and its compounds
Cesium-137
Cesium-137
Copper and its compounds
Fluoranthene
Hexachlorobenzene
Lead and its compounds
Non-dioxin like PCB (sum of 6 PCB: 28, 52, 101, 138, 153 and 180)
Benzo(a)pyrene
Dioxins and dioxin-like compounds (7 PCDDs + 10 PCDFs + 12 PCB-DLs)
Hexabromocyclododecanes (HBCDD)
Mercury and its compounds
Pentabromodiphenylether
Perfluorooctane sulfonic acid (PFOS) and its derivatives
Tributyltin compounds
Haliaeetus albicilla
Haliaeetus albicilla
Haliaeetus albicilla
Monoporeia affinis
Peringia ulvae
Element extent
Trend element
Unknown
Unknown
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Deteriorating
Deteriorating
Stable
Stable
Element 2
Element source
WaterFD
WaterFD
HELCOM
HELCOM
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
WaterFD
HELCOM
HELCOM
HELCOM
HELCOM
HELCOM
Criterion
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C1
D8C2
D8C2
D8C2
D8C2
D8C2
D8C3
Parameter
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in water
Concentration in sediment
Concentration in sediment
Concentration in biota
Concentration in sediment
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in biota
Concentration in sediment
Other
Other
Other
Other
Imposex
Volume of oil
Threshold value upper
24.0
2300.0
20.0
40.0
52000.0
2000.0
10.0
120000.0
75.0
5.0
6500.0
167.0
20.0
0.0085
9.1
1.6
0.97
1.64
59.0
0.1
Threshold value lower
Threshold value operator
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
<
>
>
>
<
<=
Threshold qualitative
proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Threshold value source
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Helsinki Convention
Helsinki Convention
National
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
Water Framework Directive (2000/60/EC)
National
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Helsinki Convention
Value achieved upper
4.6
7820.0
3.6
20.0
50700.0
63.0
0.69
55200.0
13.5
0.2
2400.0
0.41
64.0
0.6
1.3
6.7
1.0
1.61
62.0
1.3
0.384
Value achieved lower
Value unit
microgram per kilogram of dry weight
microgram per kilogram of dry weight
Becquerels per kilogram of wet weight
Bq/m3
microgram per kilogram of dry weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
pg TEQ/g ww
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of wet weight
microgram per kilogram of dry weight
Other
Other
percentage
index VDSI
m3
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Unknown
Unknown
Improving
Improving
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Deteriorating
Stable
Stable
Stable
Stable
Parameter achieved
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
Yes
No
Yes
Yes
No
No
Description parameter
Concentration in herring, Clupea harengus
Concentrations in seawater
Productivity > 0,97 (nestlings). Produktivitet > 0,97 ungar per par.
Brood size > 1,64 (nestlings per successfully breeding pair). Kullstorlek > 1,64 ungar.
Breeding success rate > 59 % (reproducing pairs). Häckningsframgång > 59 %
Related indicator
Criteria status
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Good
Not good
Not good
Description criteria
Criteria assessment based on two parameters: proportion of malformed embryos (threshold 5,9%) and the proportion of females with more than one malformed embryo (threshold 30%)
Element status
Good
Not good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Not good
Not good
Good
Not good
Not good
Not good
Not good
Good
Not good
Description element
Source assessment feature
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • National
  • HELCOM
Reporting method feature
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type D
Type A
Trend feature
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Stable
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
Stable
Integration rule type parameter
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
OOAO
Not relevant
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
100.00
GES extent achieved
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
87.50
57.10
57.10
57.10
57.10
57.10
57.10
57.10
GES extent unit
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Proportion of substances in good status
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
Not relevant
GES achieved
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
GES later than 2024, Art14ExceptionReported
Not assessed
Not assessed
Not assessed
Not assessed
Not assessed
GES later than 2024, Art14ExceptionNotReported
Description overall status
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Article 14 exception reported for Cadmium. It is not possible to estimate when GES can be achieved in all assessment areas because there is no clear trend for all substances.
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Sweden applies exceptions in Baltic Proper from achieving good environmental status for PBDE, mercury, TBT, dioxins and dioxin-like compounds. För hela Östersjön tillämpas undantag för PBDE och kvicksilver. För Egentliga Östersjön även för TBT och dioxin och dioxinlika föreningar. On GESachievedDate: Concentrations of the substances that do not meet the threshold value are decreasing in many sea basins, but as these are long-lived, the threshold values are not expected to be reached in the near future. For PDBE, it has been estimated that it will take at least 18 years for concentrations to reach thresholds in the areas with the lowest concentrations of PBDEs in flows, while in most areas of the Baltic Sea it will take 30–40 years or longer (Undeman & Johansson 2020). Concentrations of TBT are decreasing in sediments, but degradation is slow and it is expected to take a long time before the threshold value can be met in all sea basins (Josefsson 2022). For mercury, there is no clear trend in Swedish marine waters and there is no estimate of when the threshold value can be met (Soerensen & Faxneld 2023a). The threshold for dioxins, furans and dioxin-like PCBs in fish is expected to be met in all stations in the Baltic Sea in 2025–2045 with a continued reduction corresponding to 2–6% per year (McLachlan & Undeman 2020). Koncentrationer av de ämnen som inte klarar tröskelvärdet minskar i många havsbassänger men då dessa är långlivade förväntas tröskelvärdena inte nås i närtid. För PDBE har det beräknats ta minst 18 år för koncentrationerna att klara tröskelvärden i de områden med de lägsta koncentrationerna av PBDE i strömning, medan i de flesta områden i Östersjön kommer det att ta 30–40 år eller längre (Undeman & Johansson 2020). Koncentrationer av TBT minskar i sediment men nedbrytningen går långsamt och det förväntas ta lång tid innan tröskelvärdet kan klaras i samtliga havsbassänger (Josefsson 2022). För kvicksilver saknas en entydig trend i svenska marina vatten och det saknas en uppskattning om när tröskelvärdet kan klaras (Soerensen & Faxneld 2023a). Tröskelvärdet för dioxiner, furaner och dioxinlika PCB:er i fisk förväntas klaras i alla stationer i Östersjön 2025–2045 under en fortsatt minskning motsvarande 2–6 % per år (McLachlan & Undeman 2020).
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2021
2016-2035
2016-2035
2016-2035
2016-2035
2016-2035
2016-2021
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • BALSE-B.1_Tillförsel_farliga_ämnen_halt
  • BALSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
No
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
Yes
No
No
Yes
No
Yes
No
Yes
NA
No
NA
Test results
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
Correct
False
Correct
False

BAL-SE-AA-BG_Bottniska_Viken

Regional assessment area
Component MRUs
GES component
D8
D8
D8
Feature
Species
Species
Species
Element
Zoarces viviparus
Zoarces viviparus
Zoarces viviparus
Element extent
Trend element
Stable
Stable
Stable
Element 2
Element source
National
National
National
Criterion
D8C2
D8C2
D8C2
Parameter
Proportion - dead fry early
Proportion - dead fry late
Proportion - fry malformed
Threshold value upper
5.0
4.0
2.0
Threshold value lower
Threshold value operator
<
<
<
Threshold qualitative
Threshold value source
National
National
National
Value achieved upper
0.5
0.4
0.3
Value achieved lower
Value unit
percentage
percentage
percentage
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Stable
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Description parameter
Related indicator
Criteria status
Good
Good
Good
Description criteria
Element status
Good
Good
Good
Description element
Source assessment feature
  • National
  • National
  • National
Reporting method feature
Type D
Type D
Type D
Trend feature
Not assessed
Not assessed
Not assessed
Integration rule type parameter
OOAO
OOAO
OOAO
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
GES extent achieved
GES extent unit
Not relevant
Not relevant
Not relevant
GES achieved
Not assessed
Not assessed
Not assessed
Description overall status
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2022
2016-2022
2016-2022
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Test results
Correct
Correct
Correct

BAL-SE-AA-BG_Egentliga_Ostersjon

Regional assessment area
Component MRUs
GES component
D8
D8
D8
Feature
Species
Species
Species
Element
Zoarces viviparus
Zoarces viviparus
Zoarces viviparus
Element extent
Trend element
Stable
Stable
Stable
Element 2
Element source
National
National
National
Criterion
D8C2
D8C2
D8C2
Parameter
Proportion - dead fry early
Proportion - dead fry late
Proportion - fry malformed
Threshold value upper
5.0
4.0
2.0
Threshold value lower
Threshold value operator
<
<
<
Threshold qualitative
Threshold value source
National
National
National
Value achieved upper
1.5
1.7
0.3
Value achieved lower
Value unit
percentage
percentage
percentage
Proportion threshold value
Proportion value achieved
Proportion threshold value unit
Trend parameter
Stable
Stable
Stable
Parameter achieved
Yes
Yes
Yes
Description parameter
Related indicator
Criteria status
Good
Good
Good
Description criteria
Element status
Good
Good
Good
Description element
Source assessment feature
  • National
  • National
  • National
Reporting method feature
Type D
Type D
Type D
Trend feature
Not assessed
Not assessed
Not assessed
Integration rule type parameter
OOAO
OOAO
OOAO
Integration rule description parameter
Integration rule type criteria
Not relevant
Not relevant
Not relevant
Integration rule description criteria
GES extent threshold
GES extent achieved
GES extent unit
Not relevant
Not relevant
Not relevant
GES achieved
Not assessed
Not assessed
Not assessed
Description overall status
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Indicators under D8C2 are not integrated to criteria level
Assessments period
2016-2023
2016-2023
2016-2023
Related pressures
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
  • Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) - diffuse sources, point sources, atmospheric deposition, acute events
Related targets
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
  • ANSSE-B.1_Tillförsel_farliga_ämnen_halt
  • ANSSE-B.2_Tillförsel_farliga_ämnen_effekt
Test TV
Yes
Yes
Yes
Test results
Correct
Correct
Correct