considered essential. The idea is that already proven mussel harvest systems could
be mounted on the motion compensated crane. With this system it should be
possible to harvest approximately 5 tons/h.
Tooling and Spars Container Support System
It is supposed that the Support Ships will be designed and built in a multi-functional
concept. For that reason a configuration with a wide deck and containers is chosen.
In this case it is assumed that for tooling, equipment and spare parts (mainly for
Wind Farm Maintenance), 18 specially prepared containers will be sufficient for
serving 2 ships.
Mussel Harvest Subsystems
The assumption is made that the existing mussel harvest systems for near shore can
be modified in such a way that they can be used for offshore, up to 3 m significant
wave height, when combined with the motion compensated crane as one system.
References
AMC Centre. (2011). DGAME. Retrieved June 3, 2016, from www.amccentre.nl/dgame
Board, R. A. (2010). Value breakdown for the offshore wind sector. Report commissioned by UK
Renewables Advisory Board.
Buck, B. H. (2002). Offshore-windparks und green aquaculture. In: K. Övermöhle & K.
P. Lehmann (Eds.), Fascination offshore—Use of renewable energies at sea. Report 2002.
Buck, B. H., Krause, G., & Rosenthal, H. (2004). Extensive open ocean aquaculture development
within wind farms in Germany: The prospect of offshore co-management and legal constraints.
Ocean and Coastal Management, 4, 95–122.
Buck, B. H., Ebeling, M. W., & Michler-Cieluch, T. (2010). Mussel cultivation as a co-use in
offshore wind farms: Potential and economic feasibility. Aquaculture Economics &
Management, 14, 255–281.
Buck, B. H., & Krause, G. (2012). Integration of aquaculture and renewable energy systems. In: R.
Meyers (Ed.), Encyclopaedia of sustainability science and technology. Springer Science
+Business Media LLC.
DOWES (2014). Dutch offshore windenergy service. Accessed March 1, 2014, at www.dowes.nl
Feargal, B. (2009). The offshore wind challenge. Cranfield University.
Gimpel, A., Stelzenmüller, V., Grote, B., Buck, B. H., Floeter, J., Núñez-Riboni, I., et al. (2015).
A GIS modelling framework to evaluate marine spatial planning scenarios: Co-location of
offshore wind farms and aquaculture in the German EEZ. Marine Policy, 55, 102–115.
Kjeldsen, K. (2009). Cost reduction and stochartic modelling of uncertainties for wind turbine
design. MSc Thesis. Aarlborg University.
Krause G., Griffin, R. M., & Buck, B. H. (2011). Perceived concerns and advocated organisational
structures of ownership supporting ‘offshore wind farm–mariculture integration’. Intech.
doi:10.5772/15825
112
C. Röckmann et al.
be mounted on the motion compensated crane. With this system it should be
possible to harvest approximately 5 tons/h.
Tooling and Spars Container Support System
It is supposed that the Support Ships will be designed and built in a multi-functional
concept. For that reason a configuration with a wide deck and containers is chosen.
In this case it is assumed that for tooling, equipment and spare parts (mainly for
Wind Farm Maintenance), 18 specially prepared containers will be sufficient for
serving 2 ships.
Mussel Harvest Subsystems
The assumption is made that the existing mussel harvest systems for near shore can
be modified in such a way that they can be used for offshore, up to 3 m significant
wave height, when combined with the motion compensated crane as one system.
References
AMC Centre. (2011). DGAME. Retrieved June 3, 2016, from www.amccentre.nl/dgame
Board, R. A. (2010). Value breakdown for the offshore wind sector. Report commissioned by UK
Renewables Advisory Board.
Buck, B. H. (2002). Offshore-windparks und green aquaculture. In: K. Övermöhle & K.
P. Lehmann (Eds.), Fascination offshore—Use of renewable energies at sea. Report 2002.
Buck, B. H., Krause, G., & Rosenthal, H. (2004). Extensive open ocean aquaculture development
within wind farms in Germany: The prospect of offshore co-management and legal constraints.
Ocean and Coastal Management, 4, 95–122.
Buck, B. H., Ebeling, M. W., & Michler-Cieluch, T. (2010). Mussel cultivation as a co-use in
offshore wind farms: Potential and economic feasibility. Aquaculture Economics &
Management, 14, 255–281.
Buck, B. H., & Krause, G. (2012). Integration of aquaculture and renewable energy systems. In: R.
Meyers (Ed.), Encyclopaedia of sustainability science and technology. Springer Science
+Business Media LLC.
DOWES (2014). Dutch offshore windenergy service. Accessed March 1, 2014, at www.dowes.nl
Feargal, B. (2009). The offshore wind challenge. Cranfield University.
Gimpel, A., Stelzenmüller, V., Grote, B., Buck, B. H., Floeter, J., Núñez-Riboni, I., et al. (2015).
A GIS modelling framework to evaluate marine spatial planning scenarios: Co-location of
offshore wind farms and aquaculture in the German EEZ. Marine Policy, 55, 102–115.
Kjeldsen, K. (2009). Cost reduction and stochartic modelling of uncertainties for wind turbine
design. MSc Thesis. Aarlborg University.
Krause G., Griffin, R. M., & Buck, B. H. (2011). Perceived concerns and advocated organisational
structures of ownership supporting ‘offshore wind farm–mariculture integration’. Intech.
doi:10.5772/15825
112
C. Röckmann et al.