Nur Mazlini Razali
Research Subjects
Nur Mazlini Razali has a total of 15 co-authors. Here are the top co-authors by number of shared publications:
A. Salmiaton
1 shared publication- Hasril Hasini
Department of Mechanical Engineering, College of Engineering, Putrajaya Campus, Universiti Tenaga Nasional, Jalan IKRAM-UNITEN, Kajang 43000, Malaysia
1 shared publication - Istiyak Amin Santo
Multimedia University,Faculty of AI and Engineering,Cyberjaya,Malaysia
1 shared publication - It Ee Lee
Multimedia University
1 shared publication Lukeman Yusoff
1 shared publicationM. Safa Gamal
1 shared publication
Latest Publications
- Open Access
- 6 January 2026
- Published by Elsevier in Energy Reports
- Vol. 15, 108907
Tri-objective co-optimization of waste-cooking-oil biodiesel using machine learning, NSGA-II, and life-cycle assessment
- 6 January 2026
- Published by Elsevier in Energy Reports
- Vol. 15, 108907
Open AccessTri-objective co-optimization of waste-cooking-oil biodiesel using machine learning, NSGA-II, and life-cycle assessment
- 1 December 2009
- Published by Institute of Electrical and Electronics Engineers (IEEE)
- p. 177-183
Impact of tangential burner firing angle on combustion characteristics of large scale coal-fired boiler
Combustion characteristics in large scale boilers are influenced by a number of factors such as coal properties and burner operating conditions. Burner firing angle for example, will affect the fireball size and locations of heat release which affect the formation of ash slagging in a tangentially fired furnace. In this study, a computational fluid dynamics (CFD) simulation of coal combustion in a tangentially fired 700 MW power plant was developed to investigate the impact of burner firing angles on the flame profile in the furnace. The model was developed based on the two-phase flow model, coal devolatilization, char burnout model, discrete particle tracking and radiation heat transfer. The firing angles were changed by ±5° from the base angle of 43° and 55°. The study shows that firing angles have significant effect on the size of the flame fireball and the concentric fireball arrangement. Increasing the firing angle resulted in a larger fireball size with a region of low temperature at the core of the fireball. The simulation also shows that the flow profile becomes more stable with increasing firing angle, regardless of burner elevations. The results presented in this paper may enhance the understanding the complex relation between burner operating condition such as firing angle on flow patterns and combustion processes in a tangentially fired boilers.
- 1 December 2009
- Published by Institute of Electrical and Electronics Engineers (IEEE)
- p. 177-183
Impact of tangential burner firing angle on combustion characteristics of large scale coal-fired boiler
Combustion characteristics in large scale boilers are influenced by a number of factors such as coal properties and burner operating conditions. Burner firing angle for example, will affect the fireball size and locations of heat release which affect the formation of ash slagging in a tangentially fired furnace. In this study, a computational fluid dynamics (CFD) simulation of coal combustion in a tangentially fired 700 MW power plant was developed to investigate the impact of burner firing angles on the flame profile in the furnace. The model was developed based on the two-phase flow model, coal devolatilization, char burnout model, discrete particle tracking and radiation heat transfer. The firing angles were changed by ±5° from the base angle of 43° and 55°. The study shows that firing angles have significant effect on the size of the flame fireball and the concentric fireball arrangement. Increasing the firing angle resulted in a larger fireball size with a region of low temperature at the core of the fireball. The simulation also shows that the flow profile becomes more stable with increasing firing angle, regardless of burner elevations. The results presented in this paper may enhance the understanding the complex relation between burner operating condition such as firing angle on flow patterns and combustion processes in a tangentially fired boilers.