Author:
Castellucci Valeria,Strömstedt Erland
Abstract
Abstract. Low-frequency sea level variability can be a critical
factor for several wave energy converter (WEC) systems, for instance, linear
systems with a limited stroke length. Consequently, when investigating
suitable areas for deployment of those WEC systems, sea level variability
should be taken into account. In order to facilitate wave energy developers
finding the most suitable areas for wave energy park installations, this
paper describes a study that gives them additional information by exploring
the annual and monthly variability of the sea level in the Baltic Sea and
adjacent seawaters, with a focus on the Swedish Exclusive Economic Zone. Overall,
10 years of reanalysis data from the Copernicus project have been used to
conduct this investigation. The results are presented by means of maps
showing the maximum range and the standard deviation of the sea level with a
horizontal spatial resolution of about 1 km. A case study illustrates how
the results can be used by the WEC developers to limit the energy absorption
loss of their devices due to sea level variation. Depending on the WEC
technology one wants to examine, the results lead to different conclusions.
For the Uppsala point absorber L12 and the sea state considered in the case
study, the most suitable sites where to deploy WEC parks from a sea level
variation viewpoint are found in the Gotland basins and in the Bothnian Sea,
where the energy loss due to sea level variations is negligible.
Subject
Cell Biology,Developmental Biology,Embryology,Anatomy
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