High Power Laser and Particle Beams, Volume. 34, Issue 6, 063001(2022)
Design of high efficiency forced air cooling heat dissipation system for collector of high-power klystron
Figures & Tables(16)
Fig. 3. Effect of thickness, width and number of cooling fins on heat dissipation of collector
Fig. 4. Temperature distribution nephogram of collector under different heat dissipation modes
Fig. 5. Temperature variation of cooling fins at different positions
Fig. 7. Effect of inner radius of duct on heat dissipation of collector
Fig. 8. Variation of wind speed in the duct without ventilation seat
Fig. 10. Diagram of fan characteristic curve and duct characteristic curve
Table 1. Physical parameters of air
View tableView in ArticleTable 1. Physical parameters of air
T/℃ $ \rho $ ${C}_{{\rm{p}}}$ $\; \mu $ 30 1.165 0.24 18.6×10−6
Table 2. Structural parameters of air cooling collector system
View tableView in ArticleTable 2. Structural parameters of air cooling collector system
$ \mathit{K} $ d/mm A/mm2 $ {\mathit{A}}_{0} $ L/mm 6691 8 13324 20612 400
Table 3. Comparison of experimental test and simulation analysis results
View tableView in ArticleTable 3. Comparison of experimental test and simulation analysis results
method maximum temperature/℃ minimum temperature/℃ mean temperature/℃ experimental test 191.6 55.4 110.8 simulation analysis 195.2 53.8 116.2
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Lei Lei, Yu Zhou, Dongping Gao, Quanju Shi. Design of high efficiency forced air cooling heat dissipation system for collector of high-power klystron[J]. High Power Laser and Particle Beams, 2022, 34(6): 063001
Paper Information
Category: High Power Microwave Technology
Received: Dec. 29, 2021
Accepted: Mar. 3, 2022
Published Online: Jun. 2, 2022
The Author Email: Dongping Gao (dongpinggao@mail.ie.ac.cn)
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