Myrmecophilous beetles have evolved diverse strategies that facilitate their persistence within socially structured ant nest environments. Among these, the acquisition of host-derived Cuticular Hydrocarbons (CHCs) represents a key mechanism mediating chemical similarity between guest organisms and host colony members. Repeated physical contact and socially mediated interactions, including grooming behavior, may promote the transfer and maintenance of colony-specific CHC profiles onto the beetle epicuticle, thereby reducing detection by nestmate workers. The reduction or loss of endogenous CHC biosynthesis may further increase guest reliance on host-derived chemical cues, enhancing physiological stability under nest-associated environmental conditions such as desiccation risk. Comparative analyses of specialist and generalist myrmecophilous beetles indicate that accurate chemical mimicry is associated with higher levels of host specificity and social integration, whereas less specialized guest species tend to exhibit lower chemical resemblance to host recognition cues. In addition to chemical integration, microbial symbiont sharing between ants and their associated beetles may influence tolerance thresholds and ecological persistence within socially regulated nest environments. Recent conceptual frameworks further suggest that ant–beetle associations should be interpreted as a continuum of ecological interactions, ranging from opportunistic nest cohabitation to highly specialized host-dependent relationships. This perspective is supported by evidence from multiple beetle lineages, including Staphylinidae, Scarabaeidae, and Tenebrionidae, in which varying degrees of behavioral, chemical, and environmentally mediated integration have been documented. Together, these findings support a conceptual model in which ant–beetle interactions reflect a dynamic spectrum of behavioral, chemical, microbial, and ecological integration strategies shaping the persistence and evolution of socially integrated guest species.