dr junwang tang
- Roberts Building
- Chemical Engineering
- WC1E 7JE
- Reader in Energy
- Dept of Chemical Engineering
- Faculty of Engineering Science
- Artificial photosynthesis/ Artificial leaves: Mimicking natural green plants, the aim of the research is to synthesise renewable and clean energy by carbon-free and neutral carbon photochemical processes, including solar hydrogen synthesis by photolysis of water and alcohols production by CO2 photoreduction. The core of the research is the development of efficient inorganic semiconductor photocatalysts with controllable structures and morphologies to facilitate charge seperation and utilisation.
hybrid solar cell: Composed of inorganic nanostructured and porous film coupling with an organic
polymer, the hybrid solar cell potentially features robustness and low cost for
solar energy conversion to electricity. The research currently focuses on fabrication of visible-responsive robust nanorods film as charge acceptor and light absorber and engineering of the new prototype solar cell.
- Fundamental understanding of solar fuels generation: Semiconductor development for photocatalyis has to date been largely empirical, with only limited studies of the underlying mechanisms. My group is in parallel undertaking mechanistic studies to understand the basic photochemical processes by time-resolved spectroscopies, which is fed back to further direct material modification for solar fuel synthesis.
- Nano- & Bio-materials: The research is aimed at utilising the diverse technologies in my group, e.g. sol-gel, chemical deposition, electrochemical, hydrothermal and in particular microwave-prompted microfluidic approaches to prepare biomaterials with controlled pore size and morphology, as well as grow films on different substrates for use in drug delivery and tissue engineering.
- Microwave-assisted heterogeneous catalysis: The research work is coupling microwave irradiation with heterogeneous catalysis by using special reactors and a novel microwave-absorbing (MW) catalysts in a home-built system. This enables both microwave heating and microwave discharge assisted heterogeneous catalysis, such as for deNOx and deSOx .
- CO2 photoconverion to fuels
- Nanomaterials synthesis by microwave promoted microfluidic system
- wastewater treatment by photocatalysis
A microwave promoted continuous flow approach to self-assembled hierarchical hematite superstructures
Visible-light driven water splitting over BiFeO
3 photoanodes grown via the LPCVD reaction of [Bi(OtBu) 3] and [Fe(OtBu) 3] 2 and enhanced with a surface nickel oxygen evolution catalyst
Photocatalytic mineralisation of herbicide 2,4,5-trichlorophenoxyacetic acid: enhanced performance by triple junction Cu-TiO2-Cu2O and the underlying reaction mechanism
A method for synthesis of renewable Cu
2O junction composite electrodes and their photoelectrochemical properties
2010CLTHE_1Certificate in Learning and Teaching in HE Part 1N/A
2001PhDDoctor of PhilosophyChinese Academy of Sciences
1998MScMaster of ScienceChinese Academy of Sciences
1995BScBachelor of ScienceNortheastern University
Dr Tang obtained his PhD in Physical
Chemistry from the State Key Laboratory of Catalysis, Dalian
Institute of Chemical Physics, China in 2001. After that, he was appointed as a NIMS researcher and JSPS fellow at the National
Institute for Materials Science (NIMS) Japan, working on solar fuels synthesis and
photocatalytic organic contaminant decomposition.
In 2005 he moved to the Department of Chemistry, Imperial College London as a senior Research Associate focusing on mechanistic studies of solar fuel production by time-resolved spectroscopy. In 2009, Dr. Tang joined the Department of Chemical Engineering at UCL as a Lecturer and became an Honorary Lecturer in the Department of Chemistry, Imperial College London.
- dr savio moniz
- dr enhong cao