Research output per year
Research output per year
Accepting PhD Students
PhD projects
The Combustion Chemistry Centre, is engaged in fundamental research on the combustion of fossil and biofuels. Combustion is the ultimate interdisciplinary field: it requires knowledge of chemistry, physics, fluid dynamics, thermodynamics and mathematics. In addition, combustion science has a well defined purpose in society today, facilitating the study and analysis of problems associated with the generation of air pollutants. C3 is concerned with the application of combustion research to the design of energy-efficient engine and gas turbine combustion systems and the impact of their use on toxic and greenhouse gas emissions, thus helping address the problems of urban air pollution and climate change.
The strategic goals of the Combustion Chemistry Centre are to:
Promote the sustainable and efficient use of energy in transport
Maximise energy efficiency and energy savings across the economy
Deliver an integrated approach to the sustainable development and use of bio-energy resources
Address global warming by reducing energy-related greenhouse gas emissions
Accelerate energy research development and innovation in support of energy goals
The coupling of experimental chemical combustion studies in our shock tubes and rapid compression machine facilities, with detailed kinetic modelling is a unique feature of our research centre. In fact, the group is the only one in Ireland producing experts in the area of combustion. With the Governments decision to license large-scale incinerators for municipal waste, trained graduates with expertise in incinerator processes will be required. Currently, C3 is the only centre in Ireland with the expertise to train researchers for this growing industry.
Prof Currans research interest lies in the study of the chemistry of how fuels burn in combustors in order to increase efficiency and reduce emissions for a cleaner world. 92% of the worlds energy demand is currently being satisfied through the burning of fossil fuels such as oil, coal and gas, in order to provide electricity, heat homes and fuel transport. In Ireland the situation is even more pronounced with about 98% of energy provided by fossil fuel combustion, of which nearly 90% is imported from countries as far away as Russia and Columbia. In addition, fossil fuel resources are finite and so alternative energy sources are becoming increasingly important. An understanding of how all fuels, both fossil and biofuels, burn at a molecular level with regards to the nature and speed of the chemical reactions that take place, together with the associated energy release and fluid flows is fundamental in designing cleaner and more efficient combustion devices such as engines and gas turbines. Prof Currans distinguished career ProfCurran received his PhD degree in 1994 from NUIG in experimental and numerical studies of combustion kinetics. He served as a research scientist in combustion modelling from 1994 to 1999 at Lawrence Livermore National Laboratory, California (LLNL). In 1999, he returned to Ireland as a lecturer in Physical Chemistry at Galway-Mayo Institute of Technology while continuing to consult with LLNL and performing collaborative research at NUIG from 2001 to 2005. He was appointed as a lecturer in Physical Chemistry in NUIG in October 2005, became a Senior Lecturer in 2009 and was promoted to professor in 2013. He was awarded a DSc by Research from the National University of Ireland in October 2011. He became a member of the Royal Irish Academy in May 2015 and an inaugural Fellow of the Combustion Institute in 2018. He is on the editorial board of the Proceedings of Combustion Institute and Progress in Energy and Combustion Science and a past member of the editorial board of Combustion and Flame. Prof Curranhas beennamed by Thomson Reuters (now Clarivate) as being among the top 1% of researchers cited in his field worldwide every year from 2014 to 2022. He was awarded the Boyle Higgins Gold Medal for Chemistry by the Institute of Chemistry in Ireland in April 2017 and the Yakov B. Zeldovich Gold Medal from the Combustion Institute in July 2022.The Combustion Chemistry Centre applies experimental, chemical kinetic and ab-initio research methods to the understanding of fuels combustion. Experiments are performed in rapid compression machines and in shock tubes to simulate the physical conditions of temperature and pressure encountered in engines and gas turbines. These experimental data form the basis for the validation of detailed chemical kinetic mechanisms that describe the elementary reactions responsible for fuel oxidation leading to the formation of intermediates and the final products of fuel combustion, carbon dioxide and water.The detailed chemical kinetic mechanisms produced are combined with computational fluid dynamic codes and used by industry in their research and design laboratories to design cleaner, more efficient combustors. For example, the composition of natural gas can vary greatly depending on its origin. Experiments to optimize combustor design for different natural gas compositions experimentally can cost turbine manufacturers hundreds of thousands of euro, while our experiments and chemical kinetic simulations cost a small fraction by comparison. Companies are increasingly interested in the effects on combustion properties of blending biofuels with fossil fuels.Industrial partners such as the Swiss division of power generator Alstom, the Canadian power generation arm of Siemens (previously Rolls Royce Canada Ltd), Saudi Arabian oil company, Saudi Aramco, and the automotive manufacturers Renault, Ford, Caterpillar, Cummins, Wabtec and Convergent science have all fund the Combustion Chemistry Centre. The Combustion Chemistry Centre comprises, Prof Henry Curran as director, with four post-doctoral researchers andfour PhD students. Its international collaborators include Lawrence Livermore National Laboratory (CA), Argonne National Laboratory (Il), Princeton University (NJ), Imperial College London, CNRS-Orleans, University of Nancy among others.
In 2015, UN member states agreed to 17 global Sustainable Development Goals (SDGs) to end poverty, protect the planet and ensure prosperity for all. This person’s work contributes towards the following SDG(s):
BSc., Ph.D, D.Sc., MRIA
Lecturer (Physical Chemistry), NUI Galway
1 Oct 2005 → …
Research output: Contribution to a Journal (Peer & Non Peer) › Article › peer-review
Research output: Contribution to a Journal (Peer & Non Peer) › Article › peer-review
Research output: Contribution to a Journal (Peer & Non Peer) › Article › peer-review
Research output: Contribution to a Journal (Peer & Non Peer) › Article › peer-review
Research output: Contribution to a Journal (Peer & Non Peer) › Article › peer-review
Curran, H. (Primary Supervisor)
Activity: Other › Current Postgraduates (Research) Supervised
Curran, H. (Primary Supervisor)
Activity: Other › Current Postgraduates (Research) Supervised
Curran, H. (Member of editorial board)
Activity: Reviews and editorial work › Reviews & Editorial work
Curran, H. (Member)
Activity: Membership › Membership of board
Curran, H. (Member)
Activity: Membership › Membership of board
Curran, H. (Recipient), 2009
Prize: Honorary award