Member State report / Art11 / 2014-2020 / D7 / Ireland / NE Atlantic: Celtic Seas
Report type | Member State report to Commission |
MSFD Article | Art. 11 Monitoring programmes (and Art. 17 updates) |
Report due | 2014-10-15; 2020-10-15 |
GES Descriptor | D7 Hydrographical changes |
Member State | Ireland |
Region/subregion | NE Atlantic: Celtic Seas |
Reported by | Member State |
Report date | 2013-04-30; 2021-12-08 |
Report access |
2014 data
2020 data
Monitoring programme | Monitoring programme name |
---|---|
Monitoring programme | Reference existing programme |
Monitoring programme | Marine Unit ID |
Q4e - Programme ID | |
Q4f - Programme description | |
Q5e - Natural variability | |
Q5d - Adequacy for assessment of GES | Q5d - Adequate data |
Q5d - Adequacy for assessment of GES | Q5d - Established methods |
Q5d - Adequacy for assessment of GES | Q5d - Adequate understanding of GES |
Q5d - Adequacy for assessment of GES | Q5d - Adequate capacity |
Q5f - Description of programme for GES assessment | |
Q5g - Gap-filling date for GES assessment | |
Q5h - Plans to implement monitoring for GES assessment | |
Q6a -Relevant targets | Q6a - Environmental target |
Q6a -Relevant targets | Q6a - Associated indicator |
Q6b - Adequacy for assessment of targets | Q6b_SuitableData |
Q6b - Adequacy for assessment of targets | Q6b_EstablishedMethods |
Q6b - Adequacy for assessment of targets | Q6d_AdequateCapacity |
Q6c - Target updating | |
Q6d - Description of programme for targets assessment | |
Q6e - Gap-filling date for targets assessment | |
Q6f - Plans to implement monitoring for targets assessment | |
Q7a - Relevant activities | |
Q7b - Description of monitoring of activities | |
Q7c - Relevant measures | |
Q7e - Adequacy for assessment of measures | Q7d - Adequate data |
Q7e - Adequacy for assessment of measures | Q7d - Established methods |
Q7e - Adequacy for assessment of measures | Q7d - Adequate understanding of GES |
Q7e - Adequacy for assessment of measures | Q7d - Adequate capacity |
Q7e - Adequacy for assessment of measures | Q7d - Addresses activities and pressures |
Q7e - Adequacy for assessment of measures | Q7d - Addresses effectiveness of measures |
Q7d - Description of monitoring for measures | |
Q7f - Gap-filling date for activities and measures | |
Q8a - Links to existing Monitoring Programmes | |
Reference sub-programme | Sub-programme ID |
Reference sub-programme | Sub-programme name |
Q4g - Sub-programmes | Sub-programme ID |
Q4g - Sub-programmes | Sub-programme name |
Q4k - Monitoring purpose | |
Q4l - Links of monitoring programmes of other Directives and Conventions | |
Q5c - Features | Q5c - Habitats |
Q5c - Features | Q5c - Species list |
Q5c - Features | Q5c - Physical/Chemical features |
Q5c - Features | Q5c - Pressures |
Q9a - Elements | |
Q5a - GES criteria | Relevant GES criteria |
Q5b - GES indicators | Relevant GES indicators |
Q9b - Parameters monitored (state/impact) | Species distribution |
Q9b - Parameters monitored (state/impact) | Species population size |
Q9b - Parameters monitored (state/impact) | Species population characteristics |
Q9b - Parameters monitored (state/impact) | Species impacts |
Q9b - Parameters monitored (state/impact) | Habitat distribution |
Q9b - Parameters monitored (state/impact) | Habitat extent |
Q9b - Parameters monitored (state/impact) | Habitat condition (physical-chemical) |
Q9b - Parameters monitored (state/impact) | Habitat condition (biological) |
Q9b - Parameters monitored (state/impact) | Habitat impacts |
Q9b - Parameters monitored (pressures) | Pressure input |
Q9b - Parameters monitored (pressures) | Pressure output |
Q9b - Parameters monitored (activity) | Activity |
Q9b Parameters monitored (other) | Other |
Q41 Spatial scope | |
Q4j - Description of spatial scope | |
Marine Unit IDs | |
Q4h - Temporal scope | Start date- End date |
Q9h - Temporal resolution of sampling | |
Q9c - Monitoring method | |
Q9d - Description of alteration to method | |
Q9e - Quality assurance | |
Q9f - Quality control | |
Q9g - Spatial resolution of sampling | Q9g - Proportion of area covered % |
Q9g - Spatial resolution of sampling | Q9g - No. of samples |
Q9i - Description of sample representivity | |
Q10a - Scale for aggregation of data | |
Q10b - Other scale for aggregation of data | |
Q10c - Access to monitoring data | Q10c - Data type |
Q10c - Access to monitoring data | Q10c - Data access mechanism |
Q10c - Access to monitoring data | Q10c - Data access rights |
Q10c - Access to monitoring data | Q10c - INSPIRE standard |
Q10c - Access to monitoring data | Q10c Date data are available |
Q10c - Access to monitoring data | Q10c - Data update frequency |
Q10d - Description of data access | |
Descriptor |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
D7 |
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Monitoring strategy description |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and
outer marine areas, separately. In WFD ecosystems, a Hydromorphological Quality Index
(HQI) is used to assess changes to hydrographical conditions. This integrates data from three
separate programmes; the WFD monitoring programme, OSPAR CEMP Eutrophication,
CAMP and RID monitoring programmes and a data acquisition programme for coastal
hydrographical conditions. The HQI was developed by Keogh et al., 202032 for the WFD to
assess the condition of transitional and coastal water bodies identified as being at risk from
hydromorphological pressures. Beyond coastal waters, data is collated from two programmes;
Existing Regulatory Regime for Marine Activities on projects large enough to potentially alter
hydrographical conditions and the INFOMAR monitoring programme.
Climate change can also play a role in altering hydrographical conditions, including
temperature, salinity, pH, wave regime, dissolved carbon dioxide, sea level and current
regime. Alterations to the underlying ocean variables, which ecosystems and the species
therein are acclimatized to, can alter the functioning of ecosystems and impact on associated
communities and species. These elements are considered within D7 monitoring programmes. |
Coverage of GES criteria |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Gaps and plans |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Assessing D7 is realistic for offshore areas (>12 nm) and in-shore areas (<12 nm) but not for nearshore developments. Evaluating the impact of existing coastal infrastructure with respect to D7 is not currently possible due to the length of Ireland’s coastline, the numbers of coastline structures and the lack of available data on hydrographical information available for pre-development conditions. In addition, the vast majority of this development has been undertaken prior to the implementation of MSFD. It should be possible in future, after the delivery of the Marine Area Planning Bill, to collect the information required to evaluate the impact on hydrographical conditions from future coastal structures. 2. The full details and mapping of structures / pipelines / cables in the marine environment should be developed from the following sources:· Foreshore license applications relating to completed developments including build details and monitoring of the impacts associated with both construction stage and as-build
stage where relevant to both D7C1 and D11C1.
Progress towards addressing these knowledge gaps
The recently developed HQI tool allows for the determination of Hydrographical
conditions in coastal areas, and thus fills the knowledge gap relating to nearshore and inshore areas.
The maps developed for Marine Spatial Planning in Ireland’s marine areas will provide for
details of all structures licenced, in construction and will be included in future iterations
of data collated through existing regulatory regimes. |
Related targets |
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Coverage of targets |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Related measures |
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Coverage of measures |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Adequate monitoring is in place by July 2020 |
Related monitoring programmes |
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Programme code |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-01 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D05-08 |
ACS-IE-D06-01 |
ACS-IE-D06-01 |
ACS-IE-D07-01 |
ACS-IE-D07-01 |
ACS-IE-D07-01 |
ACS-IE-D07-01 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
ACS-IE-D07-02 |
Programme name |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
Water Framework Directive Monitoring Programme |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
OSPAR CEMP for Eutrophication, CAMP and RID |
INFOMAR |
INFOMAR |
Existing Regulatory Regime for Marine Activities |
Existing Regulatory Regime for Marine Activities |
Existing Regulatory Regime for Marine Activities |
Existing Regulatory Regime for Marine Activities |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Data Acquisition for coastal hydrographical conditions |
Update type |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Modified from 2014 |
Same programme as in 2014 |
Same programme as in 2014 |
Same programme as in 2014 |
Same programme as in 2014 |
Same programme as in 2014 |
Same programme as in 2014 |
New programme |
New programme |
New programme |
New programme |
New programme |
New programme |
New programme |
New programme |
Old programme codes |
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Programme description |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The Water Framework Directive (WFD) monitoring programme, coordinated by the EPA, focuses on transitional and coastal waters. This incorporates monitoring of biological (chlorophyll) and physico-chemical parameters in the water column and monitoring of opportunistic macroalgae, macrophyte communities and macro faunal communities where appropriate. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
The OSPAR CEMP provides a basis for all contracting parties to OSPAR to assess and determine eutrophication of their marine areas . The programme incorporates guidance on monitoring, quality assurance and assessment tools. It brings together data from a number of different national and regional sources to assess nutrient inputs to the marine environment and eutrophication over the common OSPAR area. This guidance is regularly reviewed to ensure the inclusion of new developments in terms of monitoring parameters and tools, such as modelling. The OSPAR CEMP encompasses three surveys that are combined into an assessment of eutrophication status. |
INFOMAR is a 20-year programme to map the physical, chemical and biological features of Ireland’s seabed. The project is funded by the Department of the Environment, Climate and Communications and jointly managed by Geological Survey Ireland and the Marine Institute, and is a successor to the Irish National Seabed Survey (INSS) programme. The objective of this mapping programme is the creation of open source integrated map and data products relating to the physico-chemical and biological features of the seabed in Irish waters. These data products are integral components supporting assessment of the status and sensitivity of seabed habitats with respect to existing and potential future impacts and pressures. The programme collaborates on major international hydrographic projects such as INIS Hydro, the Atlantic Ocean Research Alliance and EMODNET. For the last ten years, INFOMAR has contributed seafloor substrate data to the EMODnet Geology project initiated by the European Commission in response to the EU's Green Paper on Future Maritime Policy. |
INFOMAR is a 20-year programme to map the physical, chemical and biological features of Ireland’s seabed. The project is funded by the Department of the Environment, Climate and Communications and jointly managed by Geological Survey Ireland and the Marine Institute, and is a successor to the Irish National Seabed Survey (INSS) programme. The objective of this mapping programme is the creation of open source integrated map and data products relating to the physico-chemical and biological features of the seabed in Irish waters. These data products are integral components supporting assessment of the status and sensitivity of seabed habitats with respect to existing and potential future impacts and pressures. The programme collaborates on major international hydrographic projects such as INIS Hydro, the Atlantic Ocean Research Alliance and EMODNET. For the last ten years, INFOMAR has contributed seafloor substrate data to the EMODnet Geology project initiated by the European Commission in response to the EU's Green Paper on Future Maritime Policy. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either at a broad scale or by acting cumulatively with other existing or proposed developments, will be assessed through the collation of data for Environmental Impact Assessments (EIA), Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the Habitats Directive (HD) processes, as part of the existing impact assessment required under regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a proposed development project or activity. At present, data is collated through a number of consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either at a broad scale or by acting cumulatively with other existing or proposed developments, will be assessed through the collation of data for Environmental Impact Assessments (EIA), Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the Habitats Directive (HD) processes, as part of the existing impact assessment required under regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a proposed development project or activity. At present, data is collated through a number of consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either at a broad scale or by acting cumulatively with other existing or proposed developments, will be assessed through the collation of data for Environmental Impact Assessments (EIA), Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the Habitats Directive (HD) processes, as part of the existing impact assessment required under regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a proposed development project or activity. At present, data is collated through a number of consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either at a broad scale or by acting cumulatively with other existing or proposed developments, will be assessed through the collation of data for Environmental Impact Assessments (EIA), Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the Habitats Directive (HD) processes, as part of the existing impact assessment required under regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a proposed development project or activity. At present, data is collated through a number of consent authorities. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
Ireland considers hydrographical conditions in WFD coastal and transitional ecosystems, and outer marine areas, separately. In WFD ecosystems a Hydromorphological Quality Index (HQI) is used to assess changes to hydrographical conditions. This integrates data from three separate programmes WFD monitoring, OSPAR CEMP Eutrophication, CAMP and RID monitoring programmes and this programme, a data acquisition monitoring programme for coastal hydrographical conditions. |
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Monitoring details |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Physico-chemical, chlorophyll and phytoplankton monitoring of Irish estuaries is undertaken once during winter and 3 times during the productive period between May and September. Samples for the analysis of chlorophyll and nutrients are collected using a 2-litre Hydrobios Ruttner bottle at the surface and 0.5 m above the bottom. Dissolved Oxygen saturation together with temperature, salinity and depth are recorded using a Hydrolab datasonde CTD. Where possible stations are monitored twice during the day to capture tidal variation. Samples for the measurement of chlorophyll, are filtered using Whatman GF/C glassfibre filters and stored overnight in the dark to prevent photo-degradation. Pigments are measured using fluorometry. The frequency, composition and intensity of phytoplankton blooms are also monitored. Ammonia, total oxidized nitrogen and molybdate reactive phosphorus are measured according to Standard Methods for the Examination of Water and Wastewater (2005).
In specific water bodies where opportunistic green macroalgae occur these are also monitored. This is undertaken using a protocol developed to comply with the Water Framework Directive requirements for monitoring and assessing elevated growths of macroalgae in estuarine and coastal waters (Scanlan et al. 2007). In situ surveys of opportunistic macroalgal blooms in each water body are undertaken once annually during the period of peak growth (June–September).
In specific areas, the monitoring of macroalgae takes place and consists of two elements, a quantitative assessment of rocky shore seaweed communities using a reduced species list and an evaluation of the extent and abundance of attached opportunistic algal blooms.
Seagrass communities are known to respond to environmental pressures such as increased nutrient loading and physical disturbance. An Ecological Quality Ratio (EQR) based on the taxonomic composition, spatial extent and bed density has been developed for WFD assessment. This is applied only in areas where seagrass beds are found and are thought to respond to nutrient pressures (Wilkes et al., 2017).
Composition and abundance of benthic invertebrates is assessed using the Infaunal Quality Index (IQI). This multi-metric index was developed by the UK-Ireland Benthic Invertebrate subgroup of the UK-Ireland Marine Task Team. The IQI describes ecological status based on the composition and abundance of soft sediment infaunal communities. |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
Marine Institute – sampling and analytical methods
Annual winter nutrient sampling is carried out in January/February on board the RV Celtic Voyager for coastal surveys and on the RV Celtic Explorer for surveys across the shelf and the Rockall Trough. Over the last two decades, the sampling programme has evolved with coverage initially focusing on the Western Irish Sea but subsequently extending into the Celtic Sea. The current winter environmental programme includes sampling for dissolved inorganic nutrients around the entire Irish coast (coastal water focus) biennially, along with a number of offshore transects completed. Nutrients samples are also collected during Celtic Voyager hydrographic surveys along 53 Degrees N (shelf) and across the Rockall Trough. Actual winter sampling is highly weather dependent. Given the weather dependence and evolution of sampling approaches, caution must be exercised in comparing summary results from year to year for given areas.
Comprehensive Atmospheric Monitoring Programme (CAMP)
The OSPAR Comprehensive Atmospheric Monitoring Programme (CAMP) consists of coastal atmospheric monitoring stations where monitoring data are estimated to represent marine atmospheric deposition conditions. Ireland has one atmospheric monitoring station reporting data under the OSPAR CAMP situated in Valentia (51º56' N 10º15' W). The monitoring protocol followed is in line with OSPAR CAMP principles. These data contribute to regional and sub-regional assessments as carried out via OSPAR. The data complement additional modelling-based estimates to give depositions for the North East Atlantic area.
Riverine Inputs and Direct Discharges (RID)
Riverine samples for physico-chemical parameters are taken monthly to align with the national Water Framework Directive monitoring programme. Samples are returned directly to the laboratory on the day of sampling or the following morning by courier and analysed within 24 hours of collection. Samples are analysed for nutrient concentrations (Nitrogen and Phosphorus) and metals (Cadmium, Mercury, lead Copper, Zinc) and PAH which are reported under Descriptor 8 (contaminants). Continuous monitoring data from hydrometric stations enables the determination of discharge flows from 19 of the largest Irish catchments. The loads of the different substances are calculated as the product of the flow-weighted annual mean concentration and the annual flow, in accordance with the RID principles (OSPAR 1998). |
INFOMAR (Integrated Mapping For the Sustainable Development of Ireland’s Marine Resource) is the national seabed mapping programme (2006-2026 inclusive), which aims to map the physical, chemical and biological features of Ireland’s seabed. The project is funded by the Department of the Environment, Climate and Communications and jointly managed by Geological Survey Ireland and the Marine Institute, and is a successor to the Irish National Seabed Survey (INSS) programme.
The objective of this mapping programme is the creation of open source integrated map and data products relating to the physico-chemical and biological features of the seabed in Irish waters. These data products are integral components supporting assessment of the status and sensitivity of seabed habitats with respect to existing and potential future impacts and pressures.
The programme partners collaborate on major international ecosystem assessment and seabed mapping related projects including Mission Atlantic (H2020) and CHERISH (Ireland-Wales 2014-2020 Programme). For the last ten years, INFOMAR has contributed seabed characterisation data to the EMODnet Geology, Habitats and Bathymetry projects initiated by the European Commission, in response to the EU's Green Paper on Future Maritime Policy. |
INFOMAR (Integrated Mapping For the Sustainable Development of Ireland’s Marine Resource) is the national seabed mapping programme (2006-2026 inclusive), which aims to map the physical, chemical and biological features of Ireland’s seabed. The project is funded by the Department of the Environment, Climate and Communications and jointly managed by Geological Survey Ireland and the Marine Institute, and is a successor to the Irish National Seabed Survey (INSS) programme.
The objective of this mapping programme is the creation of open source integrated map and data products relating to the physico-chemical and biological features of the seabed in Irish waters. These data products are integral components supporting assessment of the status and sensitivity of seabed habitats with respect to existing and potential future impacts and pressures.
The programme partners collaborate on major international ecosystem assessment and seabed mapping related projects including Mission Atlantic (H2020) and CHERISH (Ireland-Wales 2014-2020 Programme). For the last ten years, INFOMAR has contributed seabed characterisation data to the EMODnet Geology, Habitats and Bathymetry projects initiated by the European Commission, in response to the EU's Green Paper on Future Maritime Policy. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either
at a broad scale or by acting cumulatively with other existing or proposed developments, will
be assessed through the collation of data for Environmental Impact Assessments (EIA),
Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the
Habitats Directive (HD) processes, as part of the existing impact assessment required under
regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a
proposed development project or activity. At present, data is collated through a number of
consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either
at a broad scale or by acting cumulatively with other existing or proposed developments, will
be assessed through the collation of data for Environmental Impact Assessments (EIA),
Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the
Habitats Directive (HD) processes, as part of the existing impact assessment required under
regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a
proposed development project or activity. At present, data is collated through a number of
consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either
at a broad scale or by acting cumulatively with other existing or proposed developments, will
be assessed through the collation of data for Environmental Impact Assessments (EIA),
Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the
Habitats Directive (HD) processes, as part of the existing impact assessment required under
regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a
proposed development project or activity. At present, data is collated through a number of
consent authorities. |
Plans or projects large enough to have the potential to alter hydrographical conditions, either
at a broad scale or by acting cumulatively with other existing or proposed developments, will
be assessed through the collation of data for Environmental Impact Assessments (EIA),
Strategic Environmental Assessments (SEA), the Water Framework Directive (WFD) and the
Habitats Directive (HD) processes, as part of the existing impact assessment required under
regulations in place in Ireland. Any additional physical monitoring is likely to be specific to a
proposed development project or activity. At present, data is collated through a number of
consent authorities. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
Features |
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Eutrophication
|
Eutrophication
|
Input of nutrients – diffuse sources, point sources, atmospheric deposition
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) – diffuse sources, point sources, atmospheric deposition, acute events
|
Eutrophication
|
Benthic broad habitats
|
Physical and hydrological characteristics
|
Extraction of oil and gas, including infrastructure
|
Transmission of electricity and communications (cables)
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Extraction of oil and gas, including infrastructure
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Canalisation and other watercourse modifications
|
Coastal defence and flood protection
|
Land claim
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Loss of, or change to, natural biological communities due to cultivation of animal or plant species
|
Hydrographical changes
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Eutrophication
|
Eutrophication
|
Input of nutrients – diffuse sources, point sources, atmospheric deposition
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) – diffuse sources, point sources, atmospheric deposition, acute events
|
Eutrophication
|
Benthic broad habitats
|
Physical and hydrological characteristics
|
Extraction of oil and gas, including infrastructure
|
Transmission of electricity and communications (cables)
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Extraction of oil and gas, including infrastructure
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Canalisation and other watercourse modifications
|
Coastal defence and flood protection
|
Land claim
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Loss of, or change to, natural biological communities due to cultivation of animal or plant species
|
Hydrographical changes
|
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Eutrophication
|
Eutrophication
|
Input of nutrients – diffuse sources, point sources, atmospheric deposition
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) – diffuse sources, point sources, atmospheric deposition, acute events
|
Eutrophication
|
Benthic broad habitats
|
Physical and hydrological characteristics
|
Extraction of oil and gas, including infrastructure
|
Transmission of electricity and communications (cables)
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Extraction of oil and gas, including infrastructure
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Canalisation and other watercourse modifications
|
Coastal defence and flood protection
|
Land claim
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Loss of, or change to, natural biological communities due to cultivation of animal or plant species
|
Hydrographical changes
|
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Hydrographical changes
|
Eutrophication
|
Eutrophication
|
Input of nutrients – diffuse sources, point sources, atmospheric deposition
|
Eutrophication
|
Eutrophication
|
Hydrographical changes
|
Input of other substances (e.g. synthetic substances, non-synthetic substances, radionuclides) – diffuse sources, point sources, atmospheric deposition, acute events
|
Eutrophication
|
Benthic broad habitats
|
Physical and hydrological characteristics
|
Extraction of oil and gas, including infrastructure
|
Transmission of electricity and communications (cables)
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Extraction of oil and gas, including infrastructure
|
Renewable energy generation (wind, wave and tidal power), including infrastructure
|
Canalisation and other watercourse modifications
|
Coastal defence and flood protection
|
Land claim
|
Restructuring of seabed morphology, including dredging and depositing of materials
|
Loss of, or change to, natural biological communities due to cultivation of animal or plant species
|
Hydrographical changes
|
|
Elements |
|
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GES criteria |
D5C1 |
D5C2 |
D5C5 |
D5C6 |
D5C7 |
D5C8 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
NotRelevan |
D5C1 |
D5C1 |
D5C2 |
D5C5 |
D7C1 |
D8C1 |
NotRelevan |
D6C4 |
NotRelevan |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
D7C1 |
Parameters |
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Parameter Other |
Index |
Index |
Index |
time |
temperature |
concentration |
Deposition, Freshwater Input rates |
Deposition, freshwater input |
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Spatial scope |
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Marine reporting units |
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Temporal scope (start date - end date) |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
2006-9999 |
1989-9999 |
1989-9999 |
1989-9999 |
1989-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
2019-9999 |
Monitoring frequency |
Other |
Other |
Other |
Other |
Other |
Other |
Other |
Other |
Other |
Other |
Other |
Yearly |
Yearly |
Yearly |
Yearly |
Yearly |
Yearly |
Yearly |
Continually |
Continually |
As needed |
As needed |
As needed |
As needed |
6-yearly |
6-yearly |
6-yearly |
6-yearly |
6-yearly |
6-yearly |
6-yearly |
6-yearly |
Monitoring type |
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Monitoring method |
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Monitoring method other |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
McGovern et al., 2002: https://oar.marine.ie/handle/10793/222
2016 WES Cruise Report: https://oar.marine.ie/handle/10793/1154
EPA Status of Ireland’s Climate, 2012 Report: https://www.epa.ie/publications/research/climate-change/ccrp-report-26.php
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP)
JAMP Guideline on methods and criteria for harmonised sampling and analysis of PAHs in air and precipitation
JAMP Guidelines for the sampling and analysis of mercury in air and precipitation
Guidance for the Comprehensive Atmospheric Monitoring Programme (CAMP) (Agreement 2015-04). |
International Hydrographic Organization Standards for Hydrographic Surveys |
International Hydrographic Organization Standards for Hydrographic Surveys |
Searches are carried out on the Irish foreshore license database, for consents permitting activities that could potentially lead to changes in hydrographical changes. Information on Dredging and Dumping at Sea, beyond coastal waters is also collated. |
Searches are carried out on the Irish foreshore license database, for consents permitting activities that could potentially lead to changes in hydrographical changes. Information on Dredging and Dumping at Sea, beyond coastal waters is also collated. |
Searches are carried out on the Irish foreshore license database, for consents permitting activities that could potentially lead to changes in hydrographical changes. Information on Dredging and Dumping at Sea, beyond coastal waters is also collated. |
Searches are carried out on the Irish foreshore license database, for consents permitting activities that could potentially lead to changes in hydrographical changes. Information on Dredging and Dumping at Sea, beyond coastal waters is also collated. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
The ACS-IE-D07-02 monitoring programme collates data on 6 of HQI metrics and part of a 7th HQI metric, from information gathered from GIS layers and other sources. This includes the following HQI metrics; shoreline alternation, presence or absence of barriers, bed disturbance, change in habitat, change in tidal regime, change in wave regime, changes in river flow. |
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Quality control |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025 for analytical methods
Methods and results have been inter-calibrated under the WFD
National SOPs for in situ sampling methodology |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
ISO 17025, Quasimeme PT scheme, validated methods, SOPs, analytical quality control samples, e.g. CRMs
For the CAMP quality assurance the recommendation is to refer to the procedures within the QA/QC programme of EMEP. Information regarding the procedures for quality assurance of EMEP for precipitation, for air and for aerosol can be found at http://www.nilu.no/projects/ccc/qa/index.htm |
Data are acquired in accordance with International Hydrographic Office Standards, and in compliance with Marine Institute Data Quality Management Framework. |
Data are acquired in accordance with International Hydrographic Office Standards, and in compliance with Marine Institute Data Quality Management Framework. |
Quality control is undertaken at national database level |
Quality control is undertaken at national database level |
Quality control is undertaken at national database level |
Quality control is undertaken at national database level |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data is quality controlled in the EPA GIS database. |
Data management |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
Data held nationally in EPA database and also in ICES |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
ICES database
OSPAR Database
EBAS Database
Data also held nationally in the Marine Institute Database |
Data Management in the Marine Institute is focused on: people (ensuring the roles for Data Management across the Institute are assigned appropriately and adequately resourced); processes (including ensuring a framework for reproducible high quality data processes are in place across the Institute) and technology (with an operational stream based around the Microsoft SQL Server and Esri ArcGIS product families and a research and development stream).
Much of this activity is takes place under the Marine Institute’s Data Management Quality Management Framework, which is aligned with ISOO9001:2015 and has been accredited by the International Data and Information Exchange of UNESCO’s Intergovernmental Oceanographic Commission. This framework covers end-user requirements; data management planning; documenting data processes and procedures; cataloguing datasets; and reviewing and evaluating the operation of data processes.
The Marine Institute publishes many of its datasets openly online in line with national Open Data Strategy and the upcoming requirements of the Public Sector Information Directive, either via a data broker software server (in particular the Erddap tool created by the US National Oceanographic and Atmospheric Administration and available at http://erddap.marine.ie) or through web mapping services. Many of these datasets are visualised either through Ireland’s Marine Atlas (http://atlas.marine.ie). These sites provide a demonstration of the Marine Institute’s data holdings and data capabilities. A full inventory of publicly available datasets from the Marine Institute can be found at http://data.marine.ie, and any data which are not available through online services can be requested via email to datareqeusts@marine.ie. |
Data Management in the Marine Institute is focused on: people (ensuring the roles for Data Management across the Institute are assigned appropriately and adequately resourced); processes (including ensuring a framework for reproducible high quality data processes are in place across the Institute) and technology (with an operational stream based around the Microsoft SQL Server and Esri ArcGIS product families and a research and development stream).
Much of this activity is takes place under the Marine Institute’s Data Management Quality Management Framework, which is aligned with ISOO9001:2015 and has been accredited by the International Data and Information Exchange of UNESCO’s Intergovernmental Oceanographic Commission. This framework covers end-user requirements; data management planning; documenting data processes and procedures; cataloguing datasets; and reviewing and evaluating the operation of data processes.
The Marine Institute publishes many of its datasets openly online in line with national Open Data Strategy and the upcoming requirements of the Public Sector Information Directive, either via a data broker software server (in particular the Erddap tool created by the US National Oceanographic and Atmospheric Administration and available at http://erddap.marine.ie) or through web mapping services. Many of these datasets are visualised either through Ireland’s Marine Atlas (http://atlas.marine.ie). These sites provide a demonstration of the Marine Institute’s data holdings and data capabilities. A full inventory of publicly available datasets from the Marine Institute can be found at http://data.marine.ie, and any data which are not available through online services can be requested via email to datareqeusts@marine.ie. |
Data held nationally in EPA and government databases
OSPAR Reports Dredged Material |
Data held nationally in EPA and government databases
OSPAR Reports Dredged Material |
Data held nationally in EPA and government databases
OSPAR Reports Dredged Material |
Data held nationally in EPA and government databases
OSPAR Reports Dredged Material |
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data held nationally in EPA as GIS layers
|
Data access |
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Related indicator/name |
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Contact |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Robert Wilkes r.wilkes@epa.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Garvan O’Donnell
garvan.odonnell@marine.ie |
Tommy Furey, thomas.furey@marine.ie |
Tommy Furey, thomas.furey@marine.ie |
Sorcha Ni Longphuirt
sorcha.nilongphuirt@housing.gov.ie |
Sorcha Ni Longphuirt
sorcha.nilongphuirt@housing.gov.ie |
Sorcha Ni Longphuirt
sorcha.nilongphuirt@housing.gov.ie |
Sorcha Ni Longphuirt
sorcha.nilongphuirt@housing.gov.ie |
John Keogh |
John Keogh |
John Keogh |
John Keogh |
John Keogh |
John Keogh |
John Keogh |
John Keogh |
References |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Scanlan C.M., J. Foden, E. Wells, and M.A. Best. 2007. The monitoring of opportunistic macroalgal blooms for the water framework directive. Marine Pollution Bulletin55: 162–17
Toner, P., Bowman, J., Clabby, K., Lucey, J., McGarrigle, M., Concannon, C., Clenaghan, C., Cunningham, P., Delaney, J., O'Boyle, S., MacCárthaigh, M., Craig, M. and Quinn, R. (2005). Water Quality in Ireland 2001-2003. Water Quality in Ireland. Wexford, Environmental Protection Agency.
Wan, A. H. L., Wilkes, R. J., Heesch, S., Bermejo, R., Johnson, M. P. and Morrison, L. (2017). Assessment and Characterisation of Ireland's Green Tides (Ulva Species).
PLoS ONE 12(1): e0169049. 10.1371/journal.pone.0169049
E. Wells, M. Wilkinson, P. Wood and C. Scanlan, 2007. The use of macroalgae species richness and composition on intertidal rocky seashores in the assessment of ecological quality under the European Water Framework Directive. Marine Pollution Bulletin. 55, 151 – 161.
Practitioners guide to the Infaunal Quality Index. Water framework Directive: Transitional and Coastal Waters.
Wilkes, R., Bennion, M., McQuaid, N., Beer, C., McCullough-Annett, G., Colhoun, K., Inger, R. and Morrison, L. (2017). Intertidal seagrass in Ireland: Pressures, WFD status and an assessment of trace element contamination in intertidal habitats using Zostera noltei. Ecological Indicators 82: 117-130.
Keogh, J., Wilkes, R., & O’Boyle, S. 2020. A new index for the assessment of hydromorphology in transitional and coastal waters around Ireland. Marine Pollution Bulletin, Volume 151 |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
Marine Institute winter sampling: McGrath, T., Kivimäe, C., McGovern, E., Cave, R. R. and Joyce, E. (2013). Winter measurements of oceanic biogeochemical parameters in the Rockall Trough (2009–2012). Earth Syst. Sci. Data 5(2): 375-383. 10.5194/essd-5-375-2013
RID: O'Boyle et al., 2016 https://www.jstor.org/stable/10.3318/bioe.2016.23?refreqid=excelsior%3A20bf35d911276e7fc177949c7321ed61#metadata_info_tab_contents OSPAR, 1998 Principles of the Comprehensive Study on Riverine Inputs and Direct Discharges (RID).19985, OSPAR Commission, London. 18 pp
CAMP: https://www.ospar.org/work-areas/hasec/hazardous-substances/camp
OSPAR Common procedure for the assessment of Eutrophication : https://www.ospar.org/work-areas/hasec/eutrophication/common-procedure
McGovern, E., Monaghan, E., Bloxham, M., Rowe, A., Duffy, C., Quinn, Á., McHugh, B., McMahon, T., Smyth, M., Naughton, M., McManus, M. and Nixon, E. (2002) Winter nutrient monitoring of the western Irish Sea – 1990–2000, Marine Environment and Health Series No. 4, 2002, Marine Institute: Dublin. |
EPA (2012) Dumping at Sea - Dumping Site Selection
Guidance Note. A Small Scale Study for the Environmental
Protection Agency (Ireland) under the Science, Technology,
Research & Innovation for the Environment (STRIVE)
Programme 2007 – 2013
Produced by AQUAFACT International Services Ltd.
https://www.epa.ie/publications/research/small--scalestudies/Dumping-at-Sea-Site-Selection-Guidance-Note.pdf |
EPA (2012) Dumping at Sea - Dumping Site Selection
Guidance Note. A Small Scale Study for the Environmental
Protection Agency (Ireland) under the Science, Technology,
Research & Innovation for the Environment (STRIVE)
Programme 2007 – 2013
Produced by AQUAFACT International Services Ltd.
https://www.epa.ie/publications/research/small--scalestudies/Dumping-at-Sea-Site-Selection-Guidance-Note.pdf |
EPA (2012) Dumping at Sea - Dumping Site Selection
Guidance Note. A Small Scale Study for the Environmental
Protection Agency (Ireland) under the Science, Technology,
Research & Innovation for the Environment (STRIVE)
Programme 2007 – 2013
Produced by AQUAFACT International Services Ltd.
https://www.epa.ie/publications/research/small--scalestudies/Dumping-at-Sea-Site-Selection-Guidance-Note.pdf |
EPA (2012) Dumping at Sea - Dumping Site Selection
Guidance Note. A Small Scale Study for the Environmental
Protection Agency (Ireland) under the Science, Technology,
Research & Innovation for the Environment (STRIVE)
Programme 2007 – 2013
Produced by AQUAFACT International Services Ltd.
https://www.epa.ie/publications/research/small--scalestudies/Dumping-at-Sea-Site-Selection-Guidance-Note.pdf |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |
j.keogh@epa.ie |