Sports Biomechanics

Biomechanics uses techniques including mathematical modelling, computer simulations, direct measurements and the application of biomechanical principles to enhance sport performance and reduce injury. It can be applied to a wide variety of sport and exercise activities in order to:

• Identify optimal movement patterns to improve sport-specific techniques.
• Analyse muscular recruitment and loading to determine the safest method of performing a particular task/movement.
• Assist in developing proper movement habits which can be maintained long term (maximising performance and minimising injury risk).
• Analyse sport and exercise equipment e.g. shoes, surfaces, racquets, etc.

Biomechanical testing can take place in the lab or in the field, during training or competition. There are a wide variety of testing procedures in biomechanics depending on the sport and the skill being investigated within the sport. Testing methodology is determined based on the problem that needs to be answered and in consultation with the coach and athlete. Some typical biomechanical testing methods are:

• 3D Analysis. Appropriate for many sports especially those involving complex body movements and where very accurate, detailed information is needed. Typically 3D analysis is done using high speed 3D marker-based motion capture analysis systems in a lab but technology is also advancing the area of markerless motion analysis.
• Force Plate Analysis. Generally used for analysing walking, running, and landing activities and used in conjunction with 3D motion analysis systems. Useful for determining impact, braking, and propulsive forces; calculating joint kinetics; and weight transfer in dynamic activities.
• High Speed Video Analysis. High speed cameras, such as Photron, can operate up to 1000Hz. Very useful for qualitative analysis of high-speed movements and impacts.
• Electromyography (EMG). Used for measuring muscle activity. Often combined with 3D motion analysis and force plate testing. Mostly used for higher level analysis.
• Competition Analysis. Competition analysis where relevant performance variables are determined, e.g. in athletics: split times, stride rate/length; in rowing/kayaking: splits, stroke length/rate.
• Inertial Sensors (Accelerometers and gyroscopes). Used to determine the technical characteristics of an athlete’s motion in field-based settings.

The path to becoming a biomechanist can be varied. The main path is generally via an undergraduate degree in Human Movement, Sport, Exercise Science, Biomedical Engineering, or similar, then progressing to a PhD by way of an Honours or Master’s degree in biomechanics.

Typically, substantial progress towards, or completion of, a PhD in the biomechanics field is needed to be competitive for sports biomechanics jobs.

In August 2020 the Australian Institute of Sport (AIS) released the Sports Science Sports Medicine Practitioner Minimum Standards. These standards represent the mandatory minimum standards for Sport Science Sports Medicine (SSSM) staff and contractors providing services to National Sporting Organisations (NSOs) that are subject to the AIS SSSM Best Practice Principles via their Sport Investment Agreement. Additionally, they will inform the minimum personnel requirements for the National Institute Network (NIN) in SSSM.