Article ID | Journal | Published Year | Pages | File Type |
---|---|---|---|---|
7045740 | Applied Thermal Engineering | 2018 | 43 Pages |
Abstract
Numerical results show that heat flux flow downstream from the leading edge was dependent on geometrical parameters (size and number of channels, dimensions of fins) and the properties of air flow (incoming flow velocity, temperature and air flow morphology within the louvered fins domain). The overall heat flux difference between the leading channel and the trailing one was 73% at air velocity of 5â¯m/s, while this difference was almost 96% at 1â¯m/s for plate B. Multiport plate A had a heat flux difference between the first and the last channel of 68.7% and 93.8% at 5â¯m/s and 1â¯m/s respectively. The magnitude of heat flux at ÎTâ¯=â¯10â¯K (Tâ¯=â¯20â¯Â°C) was two times smaller compared to the case of ÎTâ¯=â¯20â¯K (Tâ¯=â¯30â¯Â°C).
Related Topics
Physical Sciences and Engineering
Chemical Engineering
Fluid Flow and Transfer Processes
Authors
D. Khovalyg, P.S. Hrnjak, A.M. Jacobi,