Member State report / Art8 / 2018 / D6 / Bulgaria / Black Sea

Report type Member State report to Commission
MSFD Article Art. 8 Initial assessment (and Art. 17 updates)
Report due 2018-10-15
GES Descriptor D6 Sea-floor integrity/D1 Benthic habitats
Member State Bulgaria
Region/subregion Black Sea
Reported by Ministry of Environment and Water
Report date 2022-03-29
Report access BG_ART8_GES.xml

Emine-Sozopol (BLK-BG-AA-EmineMaslennos)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Circalittoral sand
Circalittoral sand
Circalittoral sand
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral sand
Infralittoral sand
Infralittoral sand
Element code
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitSand
HabBenCircalitSand
HabBenCircalitSand
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitSand
HabBenInfralitSand
HabBenInfralitSand
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.62
31.3
0.47
19.29
0.62
52.1
0.5
28.8
0.62
0.06
0.43
0.65
1.43
3.66
1.29
Value achieved lower
Value unit
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
23.9
6.0
165.7
11.7
0.1
0.9
697.45
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Deteriorating
Unknown
Unknown
Deteriorating
Unknown
Unknown
Deteriorating
Parameter achieved
Not assessed
Yes
No
Not assessed
Yes
Yes
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
Yes
Not assessed
Yes
Yes
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not determined whether the parameter is achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total area.
The overall extent of adverse effects is aggregated from 25.2 % D5C8 and 23.8 % D6C3 that partially overlap spatially.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects combine 12.9 % D5C8 and 14.3 % D6C3 that are aggregated spatiall in GIS and partially overlap.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects combine 34.5 % D5C8 and 32.4 % D6C3 aggregated in GIS, partially overlapping.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects are aggregated in GIS from 27.3 % D5C8 and 27.1 % D6C3, overlaping spatially.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects are aggregated in GIS from 0.2 % D5C8, 0.4 % D6C3 and 0.06 % D6C4. There is partial spatail overlap between D5C8 - D6C3.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall extent of adverse effects comes from 2.9 % D5C8 and 1.2 % D6C3 that are partially overlapping, 0.17 % D7C2 and 1.43 % D6C4. Individual adverse effects are aggregated in GIS.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Not good
Not good
Not good
Good
Good
Good
Not good
Not good
Not good
Not good
Not good
Not good
Good
Good
Good
Good
Good
Good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4, D5C8 and D7C2.
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
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
50.00
GES extent unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
Not relevant
Not relevant
Description overall status
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which is the circalittoral mud (59.6 % of the seabed). Three of the habitat types were in good status with adverse effects over 0.43 % - 19.29 %. In the rest three habitat types the adverse effects ranged over 28.81 % - 52.12 % of their total extent, therefore status was evaluated as not good. Advere effects resulted from the combined action of two main pressures - eutrophication and physical disturbance from fisheries. More considerable loss of 1.43 % was estimated for infralittoral sand. GES Extent Achieved=50% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Physical disturbance to seabed
Related targets

Galata-Emine (BLK-BG-AA-GalataEmine)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral sand
Infralittoral sand
Infralittoral sand
Element code
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitSand
HabBenInfralitSand
HabBenInfralitSand
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area value
Swept area ratio SAR
Swept area ratio
Swept area ratio
Swept area ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.05
36.1
0.24
44.6
0.29
63.1
0.04
16.3
0.62
0.05
46.1
0.02
Value achieved lower
Value unit
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
9.8
76.0
685.73
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of MRU adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Not relevant
Stable
Unknown
Unknown
Stable
Parameter achieved
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
Yes
Not assessed
Yes
No
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects come entirely from D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects extent is due to 37.7 % D5C8 and 9.2 % D6C3 with partial spatial overlap.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects are spatailly aggregated in GIS from 57.6% D5C8 and 15.4 % D6C3, which partially overlap.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Adverse effects extent is entirely due to D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects come from D5C8 and minor habitat loss of 0.05 % D6C4.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Not good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Good
Good
Good
Not good
Not good
Not good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
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
GES extent achieved
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
20.00
GES extent unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
Not relevant
Not relevant
Description overall status
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which is circalittoral mud (70.9 % of the total seabed). The only habitat type that was in good status were the infralittoral coarse sediments with proportion of adverse effects over 16.3 % of its total extent. In the rest of the habitat types the adverse effects ranged between 36.1 % - 63.1 % of their total extent, therefore their status was assessed as not good. The predominant adverse effects resulted from eutrophication. Insignificant habitat loss was determined for infralittoral sand. GES Extent Achieved=20% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
Related targets

Kaliakra-Galata (BLK-BG-AA-KaliakraGalata)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral mixed sediment
Infralittoral mixed sediment
Infralittoral mixed sediment
Infralittoral sand
Infralittoral sand
Infralittoral sand
Element code
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitMxdSed
HabBenInfralitMxdSed
HabBenInfralitMxdSed
HabBenInfralitSand
HabBenInfralitSand
HabBenInfralitSand
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area ratio
Swept Area Ratio
Swept area ratio SAR
Swept Area Ratio
Swept area ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.42
61.0
0.37
81.5
0.34
0.62
38.2
0.28
36.4
0.34
0.61
52.1
0.69
Value achieved lower
Value unit
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
86.7
72.8
0.3
0.4
0.2
801.43
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Deteriorating
Unknown
Unknown
Stable
Unknown
Unknown
Deteriorating
Unknown
Unknown
Deteriorating
Parameter achieved
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Oveall adverse effects integrate 13.2 % D5C8 and 53.9 % D6C3 aggregated spatally in GIS with partial overlap of the individual adverse effects.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects come from 73.9 % D5C8 and 13.3 % D6C3, partially overlapping spatially. Aggregated in GIS.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects are aggregated from 35.8 % D5C8, 3.0 % D6C3 and 0.62 % D6C4 with partial spatiall overlap of D5C8 and D6C3.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects are mainly from 35.3 % D5C8, while physical disturbance extent is only 0.8 % D6C3. The difference of the overall adverse effects % between the spatial aggregation in GIS and the arythmetic sum is due to GIS procedures.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects are aggregated from 51.1 % D5C8, 0.6 % D6C3 that partially overlap spatially and 0.61 % D6C4.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
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
GES extent achieved
GES extent unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
Not relevant
Not relevant
Description overall status
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 5 representative broad habitat types of the seabed sediments, the most extensive of which are the circalittoral mud (66.7 % of the total seabed) and circalittoral mixed sediments (19.6 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 36.4 % and 81.5 % of the total extent of the habitat types. Therefore, the status of all habitats was assessed as not good. The predominant adverse effects resulted from eutrophication, apart from the circalittoral mixed sediments, where the main pressure was from physical disturbance from fisheries. Habitat loss < 1 % from the total habitat extent was evaluated for the infralittoral coarse sediments and the infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical loss of the seabed
  • Physical disturbance to seabed
Related targets

Sozopol-Rezovo (BLK-BG-AA-MaslennosRezovo)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Circalittoral sand
Circalittoral sand
Circalittoral sand
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral sand
Infralittoral sand
Infralittoral sand
Element code
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitSand
HabBenCircalitSand
HabBenCircalitSand
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitSand
HabBenInfralitSand
HabBenInfralitSand
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept area ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.14
19.5
0.12
22.17
0.18
17.0
0.03
15.6
0.02
46.6
0.03
0.34
18.9
0.12
Value achieved lower
Value unit
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
94.43
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Parameter achieved
Not assessed
Yes
Yes
Not assessed
Yes
No
Not assessed
Yes
Yes
Not assessed
Yes
Yes
Not assessed
Yes
No
Not assessed
Yes
Yes
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total area.
The adverse effects are entirely due to uetrophication effects assessed under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total area.
The adverse effects are due entirely to eutrophication effects assessed under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The adverse effects are entirely due to eutrophication effects assessed under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of adverse effects is entirely due to eutrophication effects assessed under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total area.
The adverse effects extent is entirely from D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total area.
The adverse effects extent is almost entirely due to eutrophication effects - 18.7 % D5C8 and insignificant habitat loss - 0.34 % D6C4 from coatal structures.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Good
Good
Good
Not good
Not good
Not good
Good
Good
Good
Good
Good
Good
Not good
Not good
Not good
Good
Good
Good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
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
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
33.00
GES extent unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
Not relevant
Not relevant
Description overall status
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are circalittoral mud (23.9 % of the total seabed) and circalittoral coarse sediments (21.6 % of the total seabed). Four of the habitat types were in good status with proportion of adverse effects ranging over 15.6 % - 19.5 % of their total extent. In two of the habitat types the status was not good with proportion of adverse effects ranging over 22.7 % - 46.6 % of their total extent. In both of them the adverse effects resulted from eutrophication. Unlike the rest of the coastal MRUs there were no adverse effects associated with physical disturbance from fisheries. Insignificant loss was estimated for infralittoral sand. GES Extent Achieved=67% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
Related targets

Shelf (BLK-BG-AA-Shelf)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Offshore circalittoral mixed sediment
Offshore circalittoral mixed sediment
Offshore circalittoral mixed sediment
Offshore circalittoral mud
Offshore circalittoral mud
Offshore circalittoral mud
Element code
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenOffshMxdSed
HabBenOffshMxdSed
HabBenOffshMxdSed
HabBenOffshMud
HabBenOffshMud
HabBenOffshMud
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area ratio
SAR
Swept area ratio
Swept area ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.16
20.0
0.56
17.1
0.18
5.3
0.39
6.8
Value achieved lower
Value unit
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
4.7
6676.92
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Parameter achieved
Not assessed
Yes
Yes
Not assessed
Yes
Yes
Not assessed
Yes
Yes
Not assessed
Yes
Yes
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of adverse effects is enirely due to eutrophication effects assessed uder D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall adverse effects extend is aggregated in GIS from 16 % D5C8 and 2 % D6C3, partially overlapping
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of adverse effects come from eutrophication asessed under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of adverse effects is mostly due to eutrophication assessed under D5C8 and very insiginificant contribution of physical disturbance effects - 0.2 % D6C3.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Good
Contributes to assessment of another criterion/ele
Good
Good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
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
GES extent achieved
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 unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
GES achieved
Not relevant
Not relevant
Description overall status
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
There are four representative types of habitats, the most extensive of which are offshore circalittoral mixed sediments (33.3 % of the total seabed) and circalittoral mud (31.0 % of the total seabed). All habitat types were in good status with proportion of adverse effects ranging over 5.3 % - 20 % of their total extent. Good habitat status resulted from limitted eutrophication effects and absent physical disturbance. Among all MRUs, the shelf stands out as the single with overall good status under Descriptors D6 Sea-floor integrity/D1 Biodiversity - benthic habitats. GES Extent Achieved=100% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Physical disturbance to seabed
Related targets

Sivriburun-Kaliakra (BLK-BG-AA-SivriburunKaliakra)

GES component
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
D6
Feature
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Benthic broad habitats
Physical disturbance to seabed
Physical loss of the seabed
Element
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral coarse sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mixed sediment
Circalittoral mud
Circalittoral mud
Circalittoral mud
Circalittoral sand
Circalittoral sand
Circalittoral sand
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral coarse sediment
Infralittoral sand
Infralittoral sand
Infralittoral sand
Element code
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitCoarSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMxdSed
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitMud
HabBenCircalitSand
HabBenCircalitSand
HabBenCircalitSand
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitCoarSed
HabBenInfralitSand
HabBenInfralitSand
HabBenInfralitSand
Element code source
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Habitats (D1-D6) http://dd.eionet.europa.eu/vocabulary/msfd/broadHabitatTypes/view
Element 2
Element 2 code
Element 2 code source
Element source
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
EU
Criterion
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C3
D6C4
D6C5
D6C2
D6C1
Parameter
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Extent
Other
Extent
Parameter other
Swept area ratio
Swept Area Ratio SAR
Swept area ratio SAR
Swept area ratio
Swept Area Ratio
Swept Area Ratio
Swept Area Ratio
Threshold value upper
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
0.2
5.0
20.0
Threshold value lower
Threshold qualitative
Threshold value source
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
National
Threshold value source other
Value achieved upper
0.59
100.0
0.01
99.3
0.59
94.3
0.58
80.7
0.48
49.0
1.24
65.5
0.03
Value achieved lower
Value unit
ratio
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
percentage
percentage
ratio
square kilometre
Value unit other
Proportion threshold value
Proportion value achieved
1.2
19.0
10.9
0.8
19.4
110.05
Proportion threshold value unit
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of habitat adversely affected
extent in km2 of pressure
Trend
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Unknown
Unknown
Stable
Parameter achieved
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Yes
No
Not assessed
Not assessed
Description parameter
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of overall adverse effects is 100 % of the total extent, from which 59 % from D5C8 and 40 % from D6C3. 1 % difference is due to GIS aggregation procedures.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The oveall adverse effects extent is 99.3 % from the habitat extent, all of which from D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall extent of adverse effects is 94.3 % from the total habitat extent, from which 58.4 % from D5C8 and 46.4% from D6C3 with partial overlap. Individual adverse effects were aggregated spatially in GIS.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
Overall adverse effects extent is due to 43.6 % D5C8 and 72.2 % D6C3 with partial spatial overlap.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The extent of advese effects 49 % of the total habitat extent, from which 49 % under D5C8.
There is no extent threshold determined over which SAR threshold shall be achieved, therefore it is not assessed whether the parameter was achieved. The extent of adverse effects under D6C3 contributes to D6C5 under which the overall extent threshold of adverse effects is set at maximum 20 % of the total habitat area.
The overall extent of adverse effects is 65.5 5 of the habitat extent, from which 27.5 from D5C8 and 49.2 % from D6C3 with partial overlap. Individual adverse effects were aggregated in GIS.
There are no thresholds for good status set for the indicators, therefore "not assessed" is filled in, although the extent of seabed physically disturbed is evaluated quantitatively.
There are no thresholds set for the parameter/indicator, therefore "not assessed" is filled in, although the extent of seabed loss is evaluated quantitatively.
Related indicator
Criteria status
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Contributes to assessment of another criterion/ele
Good
Not good
Not assessed
Not assessed
Description criteria
Physical disturbance extent (km2) from fhisheris with mobile bottom-contacting gears (MBCG) was assessed using the Swept Area Ratio (SAR) methodological approach. Fisheries with MBCG is considered as the main human activity that causes the most significant physical disturbance to the seabed in the Bulgarian Black Sea. Vessel Monitoring System (VMS) data for 2013-2017 was analysed to reconstruct the trawling lines of all fishing vessels equipped with MBCG. SAR was calculated in a grid with cell size 0.5x0.5 km. The extent of physical disturbance was calculated by summing the cells with average SAR >0. The results for the extent of the physical presure contribute to assessing criterion D6C3.
Physical loss extent (km2) from man-made coastal structures that caused seabed sealing or land reclamation including from hydrographic changes was assessed in relation to a baseline extent in 1981-1983. The results contribute to the assessment of habitat loss under criterion D6C4.
Element status
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Not good
Description element
Integration rule type parameter
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description parameter
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Swept Area Ratio is used as indicator for assessing adverse effects under D6C3. Multi-metric index M-AMBI(n) is used for assesing D5C8, D7C2. Extent in square kilometers is used for habitat loss under D6C4. Polygon shapes are created in GIS for not good status according to thresholds of SAR and M-AMBI(n) and for habitat loss and then merged to created a shape of overall adverse effects.
Integration rule type criteria
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
SPATIAL
Integration rule description criteria
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
Spatial aggregation of shapes files for adverse effects from pressures under criteria D6C3, C6C4 and D5C8.
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
GES extent unit
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
Proportion of habitats in good status
GES achieved
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
GES expected to be achieved later than 2020, no Article 14 exception reported
Not relevant
Not relevant
Description overall status
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
There are 6 representative broad habitat types of the seabed sediments, the most extensive of which are the infralittoral sand (25.2 % of the total seabed) and circalittoral mud (26.1 % of the total seabed). The extent of overall adverse effects from anthropogenic pressures ranged between 49.0% and 100 % of the total extent of the habitat types, therefore they were all in not good status. The predominant adverse effects resulted from eutrophication and physical disturbance from fisheries. Habitat loss is negligible and only of infralittoral sand. GES Extent Achieved=0% (GES Extent Threshold=100)
Assessments period
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
2012-2017
Related pressures
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Input of nutrients - diffuse sources, point sources, atmospheric deposition
  • Physical disturbance to seabed
  • Physical disturbance to seabed
Related targets