HiDEF. Supergen 3 HDPS Renewal Core and Pluses

Project: Research

Description

The HiDEF consortium will explore highly decentralised energy futures. At the core of this is a sustainable electricity supply system that makes optimum use of decentralised assets and in which energy consumers participate actively in appropriately structured decentralised markets. This major change from the present arrangement, where most consumers are passive users of externally supplied energy services, will require new attitudes to energy and new ways working. The technical, market and social aspects of this transformation will be addressed in detail by the multi-disciplinary consortium that has been formed to embrace power system engineers, experts in electricity markets and researchers aware of the social and perceptual challenges. The technical developments that underpin the changes outlined above are the development of new high efficiency micro-CHP units (including the latest high temperature solid oxide fuel cells), the development of ever cheaper PV and micro-wind systems and the role out of smart electricity meters that will facilitate the involvement of even domestic consumers in demand side management. As time varying renewable sources become increasing prevalent in electricity supply, both in the form of small decentralised generators, and in the form of major offshore wind farms, tidal and wave energy installations, the role of highly decentralised load management will become ever more important. In addition the power electronic interfaces of decentralised generators can be used to provide more than just power - with suitable control other important network services like local voltage control, and even system frequency control, can be contributed. The consortium builds on the important work undertaken by the Highly Distributed Power Systems (HDPS) project that established base line models for the new technologies, developed suitable scenarios, and developed the cell concept of delivery.

Key findings

The HiDEF project's stated aim is to design the "future power system that delivers sustainability and security through the widespread deployment of distributed energy resources and thus contributes to national and international ambition for a low carbon future." New research tools and extensive computational results have been provided to assist the industry and also other academic researchers take forward this technology.
StatusFinished
Effective start/end date1/07/0930/09/13

Funding

  • EPSRC (Engineering and Physical Sciences Research Council): £4,254,178.00

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Electricity
Offshore wind farms
Social aspects
Energy resources
Electric power systems
Solid oxide fuel cells (SOFC)
Power electronics
Voltage control
Sustainable development
Engineers
Carbon
Industry
Temperature
Power markets
Demand side management