Energy Yield Optimisation for a 600 MW Tidal Array - Bucher, Ralf
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The tidal effects are driven by the gravitational force exerted by the moon (68%) and the sun (32%) upon the earth at a rate of about 3.7 TW. At a present global electricity production of 17,400 TWh/year and an estimated marine current resource of 800 TWh/year, this carbon-free generation method could provide about 5% of the world's electricity demand. Due to the complex marine environment, the design of commercial-scale tidal arrays represents a challenging task. To prepare for fact-based investment decisions, the representation of the tidal regime in a wide-area 3D flow model and capacious…mehr

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Produktbeschreibung
The tidal effects are driven by the gravitational force exerted by the moon (68%) and the sun (32%) upon the earth at a rate of about 3.7 TW. At a present global electricity production of 17,400 TWh/year and an estimated marine current resource of 800 TWh/year, this carbon-free generation method could provide about 5% of the world's electricity demand. Due to the complex marine environment, the design of commercial-scale tidal arrays represents a challenging task. To prepare for fact-based investment decisions, the representation of the tidal regime in a wide-area 3D flow model and capacious computer calculations for optimising the scheme layout and rating are required. The differing risk/reward preferences and financial capabilities of potential investors can be taken into account in early stages by the examination of the 'installed capacity/capacity factor'-ratio. Based on the fundamental insight gained during the investigation of the performance characteristics of an envisaged600 MW tidal array in Korea, financially attractive park configurations were identified. The described concepts shall serve developers and investors to de-risk their projects in the feasibility stage.
Autorenporträt
Ralf Bucher is electrical power engineer and holds an MSc in environmental engineering. After his employment as electronics engineer at Voith Siemens Hydro, he joined Lahmeyer International in 2001 where he acts a project manager. His academic research at the University of Edinburgh focusses on strategic risk management for marine energy projects.