Fengnian Shi
Current Organizations / Institutes
The organizations/institutes from the scholar's latest article
Research Subjects
Fengnian Shi has a total of 15 co-authors. Here are the top co-authors by number of shared publications:
Weining Xie
2 shared publications- Weiran Zuo
Zijin School of Geology and Mining, Fuzhou University, Fuzhou 350108, China
2 shared publications - Biao Li
Virginia Tech, Min & Minerals Engn Dept, Blacksburg, VA 24060 USA
1 shared publication Cheng Luo
1 shared publicationEmmy Manlapig
The University of Queensland, Sustainable Minerals Institute, Julius Kruttschnitt Mineral Research Centre, Brisbane, Australia
1 shared publicationHaifeng Wang
1 shared publication
Latest Publications
- 1 January 2020
- Published by Elsevier in Minerals Engineering
- Vol. 146
Selective weakening of mineralised synthetic particles by high voltage pulses
- 1 January 2020
- Published by Elsevier in Minerals Engineering
- Vol. 146
Selective weakening of mineralised synthetic particles by high voltage pulses
- 17 October 2014
- Published by Taylor & Francis in International Journal of Coal Preparation and Utilization
- Vol. 35 (2) , 51-62
Energy-Size Reduction of Coals in the Hardgrove Machine
To simulate the grinding process in an industrial vertical spindle mill, the Hardgrove mill was fitted with a power-measuring meter to investigate the breakage characterizations of different narrow size fractions of coal. Power consumption in the grinding process was precisely recorded at the sampling frequency of 1 second with the help of sampling software for power. The experimental results indicated that the energy input for grinding decreased with increases in time for each sample. Changes in the weight percentage in the top-size interval showed that the first-order law was not satisfied to describe the total grinding process. The new produced fine coal had a negative effect on the breakage behavior of coarse particles. But removal of −0.09 mm size can help to increase the energy input for grinding and the generating rate of −0.09 mm also accelerated in turn. The relationship between t10 and energy input can be described by the classical breakage function. Specific energy consumed by raw coal with a small size was higher when subjected to the same value of t10, due to the relatively higher specific surface area of ground coal at the same breakage ratio of 10.
- 17 October 2014
- Published by Taylor & Francis in International Journal of Coal Preparation and Utilization
- Vol. 35 (2) , 51-62
Energy-Size Reduction of Coals in the Hardgrove Machine
To simulate the grinding process in an industrial vertical spindle mill, the Hardgrove mill was fitted with a power-measuring meter to investigate the breakage characterizations of different narrow size fractions of coal. Power consumption in the grinding process was precisely recorded at the sampling frequency of 1 second with the help of sampling software for power. The experimental results indicated that the energy input for grinding decreased with increases in time for each sample. Changes in the weight percentage in the top-size interval showed that the first-order law was not satisfied to describe the total grinding process. The new produced fine coal had a negative effect on the breakage behavior of coarse particles. But removal of −0.09 mm size can help to increase the energy input for grinding and the generating rate of −0.09 mm also accelerated in turn. The relationship between t10 and energy input can be described by the classical breakage function. Specific energy consumed by raw coal with a small size was higher when subjected to the same value of t10, due to the relatively higher specific surface area of ground coal at the same breakage ratio of 10.
- 7 April 2014
- Published by Wiley in Chemical Engineering & Technology
- Vol. 37 (5) , 765-769
Progress and Challenges in Electrical Comminution by High‐Voltage Pulses
The recent progress in electrical comminution using high‐voltage pulses and the technical challenges in order to bring this technology to the mining industry are outlined. Pre‐weakening ore particles and preferential liberation of minerals at coarse sizes are the two major research outcomes that may have potential benefits for the industry. A particle pre‐weakening characterization method by single‐particle/single‐pulse test has been developed. The emerging challenges for the mining industry to realize the benefits of this novel comminution technology include scale‐up for industrial application, hybrid circuit design, maximization of pulse‐induced cracks, and study of the downstream processing effects.
- 7 April 2014
- Published by Wiley in Chemical Engineering & Technology
- Vol. 37 (5) , 765-769
Progress and Challenges in Electrical Comminution by High‐Voltage Pulses
The recent progress in electrical comminution using high‐voltage pulses and the technical challenges in order to bring this technology to the mining industry are outlined. Pre‐weakening ore particles and preferential liberation of minerals at coarse sizes are the two major research outcomes that may have potential benefits for the industry. A particle pre‐weakening characterization method by single‐particle/single‐pulse test has been developed. The emerging challenges for the mining industry to realize the benefits of this novel comminution technology include scale‐up for industrial application, hybrid circuit design, maximization of pulse‐induced cracks, and study of the downstream processing effects.