[1] [1] Yan P, Yang Y, She W, et al. Widefield large aperture optical system design f groundbased photoelectric detection [C]9th International Symposium on Advanced Optical Manufacturing Testing Technologies: Large Mirrs Telescopes, 2019, 10837: 230236.

[2] [2] Chen J Q. Principle Design of Astronomical Telescopes[M]. Nanjing: Nanjing University Press, 2020.

[3] X Cheng, C Liu. Optical and mechanical performance and feasibility analysis of meter-level corrector lenses for survey telescope. Photonics, 10, 422(2023).

[4] M Shao, L Zhang, X Jia. Optomechanical integrated optimization of a lightweight mirror for space cameras. Appl Opt, 60, 539-546(2021).

[5] D Ma. Recommended conceptual optical system design for China’s large optical-infrared telescope (LOT). Opt Express, 26, 108-119(2018).

[6] Y L Peng, Y F Dai, S Y Chen. Research on the support and gravitational deformation of large aperture primary mirror of space telescopes. Key Eng Mater, 516, 181-185(2012).

[7] [7] Lasles M, Hugot E, Ferrari M, et al. Space Active Optics: toward optimized crecting mirrs f future large spacebne observaties [C]Optical Design Engineering IV, 2011, 8167: 320328.

[8] H Kihm, H S Yang, I K Moon, et al. Adjustable bipod flexures for mounting mirrors in a space telescope. Appl Opt, 51, 7776-7783(2012).

[9] L Wei, L Zhang, X Gong, et al. Design and optimization for main support structure of a large-area off-axis three-mirror space camera. Appl Opt, 56, 1094-1100(2017).

[10] R Lu, J Yuan, G Wei, et al. Optimization design of energy-saving mixed flow pump based on MIGA-RBF algorithm. Machines, 9, 365(2021).

[11] Q Liu, S X Wang, F X Tian, et al. Research on integrated design method of high-precision space-based active optical large-caliber splicing mirror drive and support. Optik, 204, 163849(2020).

[12] T Huo, J Yu, H Zhao. Design of a kinematic flexure mount for precision instruments based on stiffness characteristics of flexural pivot. Mech Mach Theory, 150, 103868(2020).

[13] Y Wang, P Wang, S Zhang. Research and design of kinematic support flexibility for metal mirror. Optik, 241, 166386(2021).

[14] Q Liu, L J Zhou, H Bao, et al. Design and analysis of three-dimensional compliant structure suitable for integrated design of support and drive of space optical mirror. Optik, 225, 165757(2021).

[15] Z Jin, G Cheng, Y Pang, et al. Multi-objective parameter optimization of flexible support system of optical mirror. Appl Sci, 11, 8071(2021).

[16] L M Rios, N V Sahinidis. Derivative-free optimization: a review of algorithms and comparison of software implementations. J Glob Optim, 56, 1247-1293(2013).

[17] X Dai, H Xian, J Tang, et al. Modification of the support and active correction method for an experimental thin primary mirror. J Mod Optic, 66, 1841-1849(2019).

[18] B Song, D Lyu, J Jiang. Optimization of composite ring stiffened cylindrical hulls for unmanned underwater vehicles using multi-island genetic algorithm. J Reinf Plast Comp, 37, 668-684(2018).

[19] Z Zhang, B Wu, L Wu, et al. Optimization of the bionic wing shape of tidal turbines using multi-island genetic algorithm. Machines, 11, 43(2022).

[20] S Liu, K Zheng, H Li, et al. Multi-objective optimization of process parameters in longitudinal-torsional ultrasonic vibration face grinding CFRP. Machines, 11, 935(2023).