Laing O'Rourke Chair in Systems Engineering.
Systems approaches to optimising the outturn performance of buildings and other complex mechanical and electrical systems. Understanding the onset of unsustainable development and how this might be best included in risk assessments particularly for large complex systems such as cities.
Previously Chief Scientist and Policy Director in DOE, DETR and DTLR and until 2005 Chief Scientific Adviser to the Office of the Deputy Prime Minister. Responsibilities included UK Climate Change policy including the Intergovernmental panel on Climate Change, the Framework Convention and its Kyoto Protocol, the UK's first National Air Quality Strategy; policy on the safe release of genetically modified organisms and chemicals into the environment, and policy on the disposal of radioactive and other wastes. Council Member of the NERC from 1988 to 2001. Head of the Mechanical and Electrical Engineering Division Building Research Establishment in 1978, including projects such as the BRE low energy office.
Joined Imperial as BP/Royal Academy of Engineering Professor in Engineering for Sustainable Development in 2002. Convened the BP Advanced Energy in Buildings Programme on the Imperial campus, which looked at the technologies that will determine building energy consumption thirty years from now. Co-director BP Urban Energy Systems project .
Became Director Laing O'Rourke Centre for Systems Engineering and Innovation in 2010. Published in the fields of engineering, environment modelling and analysis, energy and resource economics, knowledge management and risk. Served on the Commission for Environmental Markets and Economic Performance. Board Member EC Joint Research Centre (to 2011).
He has been a Member of the Gas & Electricity Markets Authority (Ofgem) since 2009. President Chartered Institution of Building Services 2012, and UK Delegate to REHVA. He is a Professorial Associate at SOAS.
Fisk DJ, Optimising heating system structure using exergy Branch and Bound, Building Services Engineering Research and Technology,
et al., Informing low carbon HVAC systems modelling and design, using a Global Sensitivity analysis framework, ASME 2016 Power and Energy
et al., Characterising the impact of HVAC design variables on buildings energy performance, using a Global Sensitivity Analysis framework, CLIMA 2016 - 12th REHVA World Congress