The South African construction industry struggles to reduce energy use due to reliance on traditional designs and the slow adoption of new technologies. Gyroscopes, known for their rotating objects that defy gravity, work through angular momentum, creating a stabilising effect called gyroscopic precession, which aids stability and control used in aviation and manufacturing sectors. Like other innovations such as cardboard tubes, biomaterials, and carbon fibre wraps, this study explores how gyroscopic-inspired technology can improve energy resilience in South African construction. Using a qualitative approach through bibliometric analysis and from keywords such as “energy”, “management”, “efficiency”, “building”, “gyroscope”, and “resilience’ across all fields, 46 papers were extracted in English language from the VosViewer software. Findings showed that integrating gyroscopic principles could enhance building adaptability, lower energy consumption, and boost resilience, especially in areas with variable climates. Additionally, gyroscopic design could help buildings better withstand seismic activity, which is significant in areas prone to such events, like South Africa. However, there are limitations, as real-world applications in the construction industry are still scarce, and gyroscopic technology is in early development for construction. Further research is needed through case studies and pilot projects in South Africa to assess practical effectiveness. The study concludes that gyroscopic-inspired technology shows promise for energy-efficient, resilient buildings. Also, it promotes a digitalised and innovative approach within the South African construction industry.