基于文章提出的欧米伽空间太阳能电站（OMEGA-SSPS）创新设计，作者团队研制了世界首个全链路、全系统的OMEGA-SSPS 地面演示验证系统。第一，提出了OMEGA 2.0 创新设计方案。第二，建立了聚光、光电转换与发射天线的场耦合理论模型与系统优化设计 模型。第三，提出了兼顾高波束收集效率（BCE）与圆环阶梯型微波波形的设计理论与方法。 第四，提出了聚光镜对日定向与发射天线对接收天线定向的控制策略与方法。第五，提出了 高效散热的仿生设计与拓扑优化的理论与方法。第六，探明了提高接收天线接收、整流与合 成效率的途径与方法。第七，突破了面向波束指向控制的高精度测量技术。第八，设计并研 制了灵巧的机械结构。第九，研制的全链路与全系统的地面验证系统，可实现从实时跟踪太 阳、高倍聚光、光电转换、微波转换与发射、直至微波接收整流的全过程实验，得到了满意 的结果。

This study systematically introduces the development of the world’s first full-link and full-system ground demonstration and verification system for the OMEGA space solar power satellite (SSPS). First, the OMEGA 2.0 innovation design was proposed. Second, field-coupling theoretical models of sunlight concentration, photoelectric conversion, and transmitting antennas were established, and a systematic optimization design method was proposed. Third, a beam waveform optimization methodology considering both a high beam collection efficiency and a circular stepped beam shape was proposed. Fourth, a control strategy was developed to control the condenser pointing toward the sun while maintaining the transmitting antenna toward the rectenna. Fifth, a high-efficiency heat radiator design method based on bionics and topology optimization was proposed. Sixth, a method for improving the rectenna array’s reception, rectification, and direct current (DC) power synthesis efficiencies is presented. Seventh, high-precision measurement technology for high-accuracy beam-pointing control was developed. Eighth, a smart mechanical structure was designed and developed. Finally, the developed SSPS ground demonstration and verification system has the capacity for sun tracking, a high concentration ratio, photoelectric conversion, microwave conversion and emission, microwave reception, and rectification, and thus satisfactory results were obtained.