Research objectives
The Institute of Clean Combustion Science and Technology team aims to achieve clean and efficient combustion by coupling clean combustion theory with high efficiency and low pollution combustion technology. Combustion heating and power generation are the main utilization methods of primary energy in China, and carbon-based solid fuels such as coal and biomass will produce a large amount of pollutants such as NOx, SOx and Hg in the combustion process, which will cause serious harm to the environment. With the rapid development of China's economy, our country's demand for energy is more and more, and the pollution caused by fuel combustion is becoming more and more prominent, so it is urgent to recognize the transformation law of N, S and Hg in combustion process from the combustion mechanism, and to realize the deep emission reduction of NOx, SOx and Hg. The research team focused on fuel structure and reactivity, the evolution of N, S, Hg and other elements, key scientific issues such as the formation mechanism of NOx, SOx, Hg and other pollutants, using Raman, FT-ICR-MS, in situ infrared with advanced testing technology and computer-aided optimization numerical experiments, the research on clean combustion theory is deeply carried out, and the research results are used for the diagnosis and transformation of the combustion site, combined with low-nitrogen, SCR denitration and other technologies to achieve clean and efficient combustion of fuel.
Research direction
Carbon-based fuel structure and reactivity: establishing the relationship between physical and chemical structure and thermal reaction characteristics of carbon-based fuels;
Formation mechanism and control technology of combustion pollutants: reveal the evolution of N, S, Hg and other elements in the high temperature reaction process, and propose the formation mechanism and inhibition strategy of NOx, SOx, Hg and other pollutants;
Clean, efficient, low-carbon combustion new technology and its system development: establish a new combustion process and study the efficiency of the system, pollutant generation characteristics.
Team members
Name |
Title |
Research Area |
E-mail |
Xiang Jun |
Professor, Ph.D. |
Coal structure and reactivity; formation mechanism and control technology of coal combustion pollutants; supercritical CO2 cycle power generation system |
xiangjun@hust.edu.cn |
Hu Song |
Professor, Ph.D. |
Coal/biomass structure and reactivity; biomass pyrolysis/combustion/gasification characteristics research; solid waste harmless heat treatment mechanism and application technology |
hssh30@163.com |
Yang Haiping |
Professor, Ph.D. |
Biomass pyrolysis polygeneration mechanism and characteristics research; biomass high quality utilization new technology |
yhping2002@163.com |
Su Sheng |
Associate professor, Ph.D. |
Oxygen-enriched combustion mechanism and pollutant emission characteristics; supercritical CO2 cycle power generation system; CO2 capture and utilization technology |
susheng_2003@163.com |
Wang Yi |
Associate professor, Ph.D. |
High-quality conversion mechanism and utilization of biomass/coal-based tar; research on biomass and coal co-firing characteristics; efficient and low-pollution utilization technology of gas cookers |
alenwang@hust.edu.cn |
Jiang Long |
Ph.D. |
Biomass catalytic conversion; bio-oil/alternative fuel combustion mechanism CO2 capture |
betjl@163.com |
Xu Kai |
Ph.D. |
Carbon-based fuel structure and reactivity, oxy-combustion and CCUS technology, high temperature corrosion and coking mechanism of coal-fired boilers |
shajia0711@126.com |
He Limo |
Ph.D. |
Advanced thermal conversion technology for biomass, catalytic tar reforming and preparation of carbon materials |
limo_615@163.com |
Xu Jun |
Ph.D. |
Raman spectroscopy study on the chemical structure of carbon-based solid fuels; CO2 capture and utilization technology; efficient use of coal and biomass |
xujun_sklcc@hust.edu.cn |