| Citation: | TAN Yuxin, WEI Jing, CHEN Siyu, et al. Multi-parameter optimization technology of spiral bevel gear blank[J]. Journal of Aerospace Power, 2025, 40（7）：20230636 doi: 10.13224/j.cnki.jasp.20230636
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In order to meet the lightweight requirements of high-power density spiral bevel gear transmission, a multi-parameter optimization technology for spiral bevel gear blank was proposed. Taking the tooth number, modulus, and tooth width of the gear as design variables, the minimum sum of the volume of the gear pair as the objective function, and the working condition limitations, installation conditions, and multiple strength requirements as constraints, the genetic algorithm was synthesized to realize the optimization design of spiral bevel gear blank parameters. Examples with power of 0.75 MW and 5 MW were used to verify the effectiveness of the proposed technique. The results showed that: compared with traditional design methods such as adaptive method and nonlinear mathematical programming method, the proposed technique could achieve global optimization with a success rate of 100% thanks to the adaptability and parallel ability of genetic algorithm; in addition, compared with the design requirements, the redundancy of pitch diameter and tooth width in the 0.75 MW case was 31% and 19.23%, respectively, while that in the 5 MW case was slightly more than 4.69% and 2.65%, showing that the proposed technique could provide effective design margin for designers under different design conditions.
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