This paper provides a comprehensive review of studies analyzing the impact of rooftop telecommunication towers on buildings subjected to seismic forces. The key focus is on performance parameters such as storey drift, node displacement, shear force, and axial force. These structures are often tall, slender, and strategically located in areas with high population density or challenging environmental conditions. As a result, they are exposed to various natural hazards, including earthquakes, which can cause significant damage and disruption to communication. Designing earthquake-resistant steel towers involves several key considerations to ensure that the structure can withstand the forces generated during an earthquake. To minimize the impact of these. ditional seismic performance enhancement methods usually aim at the use of viscous dampers to dissipate groun motions. Insights into modeling. The engineering challenge posed by the design and maintenance of Seismic-Resistant Communication Towers elevates the task from standard structural engineering to a critical discipline of national resilience and infrastructure continuity, recognizing that in the immediate aftermath of a major. With increasing urban density and the evolving threat of seismic events, the role of a Seismic Engineer has become more critical than ever.