Carbon Dioxide and Alkanes as Electron-sink and Source in a Solar Nanocell: towards Tandem Photosynthesis of Carbon Monoxide and Methanol

Lead Research Organisation: University of Nottingham
Department Name: Sch of Chemistry

Abstract

A major solar energy challenge is the goal of artificial synthesis in which sunlight is used to generate fuels or high energy chemicals. Natural photosynthesis uses solar energy to generate dioxygen and carbohydrates from carbon dioxide and water, but the targets of artificial photosynthesis can be more diverse. Our vision is to create a solar nano-device which will drive the coupled photo-conversion of methane and carbon dioxide into methanol and carbon monoxide respectively. This challenging target differs fundamentally from the familiar one of splitting water into hydrogen and oxygen. Our target offers products both on the oxidation and the reduction sides that are significant fuels or feedstocks. The photocatalytic reduction of CO2 and oxidation of alkanes represent long-standing goals of great complexity, but we base our concepts on well-established principles. We break down the goals into individual components, each of which is highly challenging within its own right and delivery of each would constitute a major breakthrough. The challenges will be met by a team of scientists, integrated across the four centres of Manchester, Nottingham, York and Norwich, who lead teams with expertise in photophysics, nanoscience, photochemistry, electrochemistry and synthesis. Thus these researchers will seek to establish the science required to underpin technologies that will allow the conversion of abundant and environmentally damaging feedstocks into products of high economic value by constructing a new class of solar device capable of driving green chemical reactions.
 
Description New catalysts for CO2 reduction were made and studied and fast spectroscopy provided key insight into understanding catalyst operation for photochemical CO2 reduction.
Exploitation Route Currently, the impact is mainly in the academic community
Sectors Chemicals

 
Description People - trained a PDRA who is now a rising research in a UK defence research establishment where his training on this grant is proving to be highly useful articular the use of spectroscopy. These results have been used in the academic community addressing issues of solar energy, particularly CO2 reduction and understanding electron and energy transfer in complex metal systems
First Year Of Impact 2013
 
Description RCUK Research Complex
Amount £1,491,903 (GBP)
Funding ID EP/I01974X/1 
Organisation Engineering and Physical Sciences Research Council (EPSRC) 
Sector Public
Country United Kingdom
Start 03/2011 
End 02/2016