Abstract:With the rapid deployment of satellite Internet constellations and the continuous advancement of deep-space exploration missions, traditional aerospace telemetry, tracking, and control (TT C) systems are facing significant challenges, including insufficient measurement and control resources, limited network coordination capability, and inadequate measurement accuracy and data transmission capacity to meet future mission requirements. To address the demands of long-term management of large-scale low Earth orbit (LEO) constellations and the requirements for high-precision measurement and high-rate data transmission in deep-space exploration, this paper reviews the current development status of China"s aerospace TT C technologies and analyzes the major challenges confronting future TT C systems. On this basis, a novel TT C architecture oriented toward next-generation space missions is proposed by integrating emerging technologies such as phased-array antennas, multi-beam TT C, cloud computing, artificial intelligence, broadband antenna arraying, and laser communications. The proposed framework encompasses all-domain multi-target TT C technology, ubiquitous networked TT C systems, broadband antenna array reception technology, and integrated laser/radio-frequency (RF) TT C communication technology. Furthermore, the development trends, application scenarios, and implementation challenges of these key technologies are systematically analyzed. The results indicate that resource pooling, intelligent task scheduling, multi-station cooperative measurement, and optoelectronic integrated communications will become the primary development directions of future aerospace TT C systems. This study provides a valuable technical reference for the construction of China"s next-generation aerospace TT C infrastructure.