The Experts below are selected from a list of 153 Experts worldwide ranked by ideXlab platform
Bikash Mohanty - One of the best experts on this subject based on the ideXlab platform.
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Simulation of countercurrent gas–Solid heat exchanger: Effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
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simulation of countercurrent gas Solid heat exchanger effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
K.s. Rajan - One of the best experts on this subject based on the ideXlab platform.
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Simulation of countercurrent gas–Solid heat exchanger: Effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
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simulation of countercurrent gas Solid heat exchanger effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
Chang Kuk Ko - One of the best experts on this subject based on the ideXlab platform.
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fine geneRation Ratio of iron ore in the cyclone of a gas Solid circulating fluidized bed
Powder Technology, 2020Co-Authors: Woo Chang Sung, Chang Kuk KoAbstract:Abstract The geneRation of fines by attrition in fluidized bed reactors can cause problems. Thus, the objective of this study was to examine the amount of fines generated in the cyclone not only by attrition, but also by detachment of fine attached to surface according to time. Using a circulating fluidized bed (0.076 m ID × 3.7 m height), variables including cyclone inlet velocity (20.6–30.9 m/s), Solid Loading Ratio (0.5–1 kg-Solid/kg-air), and elapsed time (0.5–13 h) were investigated. The fine geneRation Ratio was analyzed by dividing it into two components: the surface particle detachment Ratio and the attrition Ratio. The surface particle detachment Ratio decreased rapidly with increasing cyclone inlet velocity and Solid Loading Ratio. The attrition Ratio was positively affected by the cyclone inlet velocity but negatively affected by the Solid Loading Ratio, as found in previous studies. As the surface particle detachment Ratio decreased with elapsed time, its contribution to the amount of fine particles generated decreased over time (73%–91% at 0.5 h and 41% at 5 h). The mass fraction produced by surface particle detachment was approximately 9% for the iron ore and 0.01% for catalyst particles.
B. Pitchumani - One of the best experts on this subject based on the ideXlab platform.
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Simulation of countercurrent gas–Solid heat exchanger: Effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
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simulation of countercurrent gas Solid heat exchanger effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
S.n. Srivastava - One of the best experts on this subject based on the ideXlab platform.
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Simulation of countercurrent gas–Solid heat exchanger: Effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.
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simulation of countercurrent gas Solid heat exchanger effect of Solid Loading Ratio and particle size
Applied Thermal Engineering, 2007Co-Authors: K.s. Rajan, S.n. Srivastava, B. Pitchumani, Bikash MohantyAbstract:Abstract Simulation of countercurrent gas–Solid heat exchanger using one-dimensional, two-fluid model has been carried out and predictions compared with experimental data reported in literature and found satisfactory. Effect of Solid Loading Ratio, particle size and their interactions on heat transfer rate, temperature profile and thermal effectiveness of gas have been studied. Heat transfer rate was found to increase with increasing Solid Loading Ratio and decreasing particle size. Higher heat recovery can be achieved for large particles at high Solid Loading Ratios, while it can be achieved with wide range of Solid Loading Ratios for small particles. Scope for further study is highlighted.