Laser-induced forward transfer (LIFT) is a high-precision, non-contact manufacturing technique driven by laser energy. By precisely controlling the directional transfer of donor materials to receiver substrates, it enables rapid fabrication of complex micro/nano-scale structures. With growing demands for lightweight structures and functional integration in the aerospace field, LIFT demonstrates unique application advantages. This paper systematically presents the working principles and critical process parameters of LIFT. It focuses on exploring its application potential in key components such as conformal antennas, heating grids, and frequency selective surfaces. The study objectively identifies current technical challenges in practical applications, including deposition bonding strength, patterning precision, and largescale curved surface manufacturing, while proposing potential solutions. This research provides theoretical references for the design and manufacturing of next-generation intelligent skin systems for aircraft, contributing to the advancement of aerospace equipment toward intelligent and multifunctional development.