The behavior of impact-loaded reinforced concrete structures has piqued the interest of many people because to its relevance to various sectors, including structural design, infrastructure protection, and civil engineering. This research seeks to offer a thorough understanding of the dynamic behavior of reinforced concrete under impact loading circumstances. The study looks at the fundamental mechanics of how reinforced concrete reacts to unexpected, high-energy loads. It investigates the qualities of the material, structural designs, and other elements. This paper covers the issues of impact loading on reinforced concrete structures by combining data from theoretical models, empirical studies, and numerical simulations. Important subjects discussed include strain rate effects, fragmentation, and spalling, three dynamic failure mechanisms in concrete materials subjected to rapid stress. Study is also done on the impact structure's overall performance as a function of material properties, types of reinforcement, and system organization. The advances in modeling strategies and analytical approaches for analyzing and forecasting reinforced concrete building responses to impact loads are also highlighted in this review. By using these techniques, designers may create designs that are stronger and more resilient to impact. Future research paths are based on the synthesis of previously published information and the identification of knowledge gaps in the field of reinforced concrete structure behavior under impact loading. In the conclusion, this research advances our knowledge of reinforced concrete's dynamic behavior and provides suggestions for bolstering the security and resilience of buildings exposed to impact events.