面向批量化平板卫星布局优化设计OA

To meet the requirements of low-cost and high-efficiency constellation deployment,flat-panel satellite configurations have gradually emerged as the mainstream architecture for next-gen-eration mass-produced satellites owing to their compact form structural advantages that facilitate stacked launch.To address the challenges of layout design for flat-panel satellites under mass production conditions,a system modeling and optimization method focused on assembly consis-tency and multi-objective optimization is proposed.First,the modular design characteristics are analyzed to identify key influencing factors such as geometry,thermal control,power supply,and interface constraints.Subsequently,a two-dimensional layout modeling framework that sup-ports optimization is established,incorporating layout region modeling,parameter modeling,wiring topology modeling,and thermal priority modeling.On this basis,a multi-objective heu-ristic optimization procedure is implemented to generate and evaluate typical motherboard layout schemes.Finally,simulation experiments are conducted to verify the effectiveness of the pro-posed model in terms of wiring length reduction,thermal control path optimization,and system-level coordination enhancement.The results demonstrate that the proposed method enables intel-ligent layout design with high reusability and strong constraint adaptability,thereby providing feasible support for the batch assembly and automated design of flat-panel satellites.