Chun Shun Cheung
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Previous Organizations / Institutes
The organizations / institutes from the scholar's other articles in the past ten years
Research Subjects
Research Interests
Chun Shun Cheung has a total of 145 co-authors. Here are the top co-authors by number of shared publications:
- Chun Wah Leung
Department of Mechanical Engineering, The Hong Kong Polytechnic University, Hong Kong, China
62 shared publications - Zuohua Huang
State Key Laboratory of Multiphase Flow in Power Engineering, Xi’an Jiaotong University, Xi’an 710049, China
27 shared publications - Hai Sheng Zhen
The Mechanical and Electrical Engineering College, Hainan University, Haikou 570228, China
23 shared publications - Tat Leung Chan
Hong Kong Polytech Univ, Dept Mech Engn, Kowloon, Hong Kong, Peoples R China
19 shared publications Zhen Huang
18 shared publicationsLei Zhu
10 shared publications
Latest Publications
- 18 January 2021
- Published by Taylor & Francis in International Journal of Green Energy
- Vol. 18 (5) , 474-489
Impact of fueling methods on the combustion and cyclic variability in a compression ignition engine
This study aims to explore the impacts of the blending, fumigating, and combined fumigating+blending (F + B) methods, compared to the diesel method, on the engine combustion and cyclic variability parameters under five engine loads and speeds. The diesel and blending methods created heterogeneous combustion, while the fumigating and F + B methods created homogeneous+heterogeneous combustion. A fixed fuel composition of diesel-biodiesel-ethanol (D80B5E15, volume %) was used for the blending, fumigating, and F + B methods to maintain the same overall fuel composition for the comparison. It is found that all examined fueling methods have no pre-ignition and a similar trend for cumulative heat release fractions under all tested conditions. The blending method has similar, while the fumigating method has slightly longer overall combustion progression (from ignition delay to 95% of heat release) up to about 3 °CA in contrast to the diesel method. Compared to the diesel method, the blending (47.2 and 43.6%) and fumigating (22.3 and 22.2%) methods have longer premixed combustion phase, however a shorter diffusion combustion phase is achieved only by the blending method (−19.1 and −19.5%) and the fumigating method has no effect (1.7 and −1.3%) on it, according to the average results from five loads and speeds, respectively. Also, the blending (6.6 and 8.8%) and fumigating (26.3 and 53.5%) methods cause increase in COVIMEP. While, the blending method (9.2 and 6%) causes increase in COVMax(dP/dθ), and the fumigating method (−2.7 and −2.9%) leads to drop in COVMax(dP/dθ). The F + B method gets the results in between those of the fumigating and the blending methods.
- 18 January 2021
- Published by Taylor & Francis in International Journal of Green Energy
- Vol. 18 (5) , 474-489
Impact of fueling methods on the combustion and cyclic variability in a compression ignition engine
This study aims to explore the impacts of the blending, fumigating, and combined fumigating+blending (F + B) methods, compared to the diesel method, on the engine combustion and cyclic variability parameters under five engine loads and speeds. The diesel and blending methods created heterogeneous combustion, while the fumigating and F + B methods created homogeneous+heterogeneous combustion. A fixed fuel composition of diesel-biodiesel-ethanol (D80B5E15, volume %) was used for the blending, fumigating, and F + B methods to maintain the same overall fuel composition for the comparison. It is found that all examined fueling methods have no pre-ignition and a similar trend for cumulative heat release fractions under all tested conditions. The blending method has similar, while the fumigating method has slightly longer overall combustion progression (from ignition delay to 95% of heat release) up to about 3 °CA in contrast to the diesel method. Compared to the diesel method, the blending (47.2 and 43.6%) and fumigating (22.3 and 22.2%) methods have longer premixed combustion phase, however a shorter diffusion combustion phase is achieved only by the blending method (−19.1 and −19.5%) and the fumigating method has no effect (1.7 and −1.3%) on it, according to the average results from five loads and speeds, respectively. Also, the blending (6.6 and 8.8%) and fumigating (26.3 and 53.5%) methods cause increase in COVIMEP. While, the blending method (9.2 and 6%) causes increase in COVMax(dP/dθ), and the fumigating method (−2.7 and −2.9%) leads to drop in COVMax(dP/dθ). The F + B method gets the results in between those of the fumigating and the blending methods.
- 1 September 2017
- Published by Elsevier in Journal of Aerosol Science
- Vol. 111, 51-64
A comparative analysis of chemical components and cell toxicity properties of solid and semi-volatile PM from diesel and biodiesel blend
- 1 September 2017
- Published by Elsevier in Journal of Aerosol Science
- Vol. 111, 51-64
A comparative analysis of chemical components and cell toxicity properties of solid and semi-volatile PM from diesel and biodiesel blend
- 1 March 2017
- Published by Elsevier in Atmospheric Pollution Research
- Vol. 8 (2) , 209-220
Effects of oxygenated fuels on the particle-phase compounds emitted from a diesel engine
- 1 March 2017
- Published by Elsevier in Atmospheric Pollution Research
- Vol. 8 (2) , 209-220
Effects of oxygenated fuels on the particle-phase compounds emitted from a diesel engine
- 1 February 2017
- Published by Elsevier in Journal of Aerosol Science
- Vol. 104, 32-42
Effects of engine load and dilution conditions on gas-particle partitioning of primary organic aerosol emitted from a light-duty diesel engine
- 1 February 2017
- Published by Elsevier in Journal of Aerosol Science
- Vol. 104, 32-42
Effects of engine load and dilution conditions on gas-particle partitioning of primary organic aerosol emitted from a light-duty diesel engine