Royal Air Force School of Aviation Medicine

Royal Air Force School of Aviation Medicine. It is the principal centre within the Royal Air Force for the study, teaching, and advancement of aviation medicine and related human sciences. The school provides essential training for medical officers, aircrew, and other specialists, ensuring the physiological readiness and safety of personnel operating in the demanding aerospace environment. Its work encompasses research, operational support, and the development of life-saving equipment and procedures for both military and civilian aviation.

History

The origins of the school trace back to the pioneering work of the Royal Flying Corps during the First World War, which established the need for specialized medical oversight. Following recommendations from the Haddon Committee, the Royal Air Force formally established its Central Medical Establishment in 1919. The modern institution was officially formed in 1945 at RAF Farnborough, consolidating earlier expertise developed during the Second World War, including crucial work on problems like hypoxia and G-LOC. It relocated to its current home at RAF Henlow in 1996, following the closure of the RAF Institute of Aviation Medicine at Farnborough, merging their respective functions and heritage.

Role and functions

The school's primary role is to sustain the operational effectiveness of Royal Air Force aircrew through applied human sciences. Its key functions include the physiological training of all RAF aircrew, including instruction in ejection seat procedures, spatial disorientation, and survival medicine. It provides expert consultancy in aviation medicine to the Ministry of Defence and supports NATO allies. Furthermore, it conducts mandatory aeromedical training for Royal Air Force medical officers and Royal Navy and British Army aviation medics, and oversees the RAF Centre of Aviation Medicine.

Training and courses

The institution delivers a comprehensive suite of courses centered on the human factors in flight. All aircrew undergo the rigorous Aircrew Initial Training Course, which includes practical modules in the hypobaric chamber and human centrifuge. For medical professionals, it runs the definitive Aviation Medicine Course for Royal Air Force medical officers, which is essential for qualification as a Flight Medical Officer. Specialized training is also provided in areas such as flight nursing, aeromedical evacuation, and the management of in-flight medical emergencies.

Facilities and location

Based at RAF Henlow in Bedfordshire, the school operates a range of advanced simulation and research facilities. These include a modern hypobaric chamber complex for simulating high-altitude conditions, a human centrifuge to study G-force effects, and various spatial disorientation trainers. The site also houses specialist laboratories for research into thermal physiology, night vision systems, and cockpit ergonomics. Its location within the larger RAF Henlow station provides integrated support and access to adjacent Defence Science and Technology Laboratory expertise.

Notable personnel

Throughout its history, the school has been associated with leading figures in aerospace medicine. Early influence came from Sir Harold Whittingham, its first commandant and later Director-General of the RAF Medical Services. Professor John Ernsting, a renowned physiologist, made seminal contributions to the understanding of oxygen requirements and decompression sickness. Other significant figures include Air Vice-Marshal David Morris, who contributed to cold-weather survival research, and Group Captain William K. Stewart, an expert in acceleration physiology.

Research and contributions

The school has a distinguished record of research that has defined modern aviation safety. Its studies on G-force protection led directly to the development of the anti-g straining maneuver and advanced anti-g suits. Pioneering work on hypoxia and decompression sickness established critical safety protocols for high-altitude flight. More recent contributions include research into the physiological impacts of night vision goggles, aircrew helmet design, and the human factors challenges of operating advanced aircraft like the Eurofighter Typhoon and Lockheed Martin F-35 Lightning II.