Biomechanics

Biomechanics emphasizes the application of mechanical principles—from design and solid mechanics to fluid mechanics, mechanical control, and thermal sciences—in solving clinical and biological challenges.

Biomechanics and mechanobiology analyze the mechanics of biological processes from cells to tissues, to larger systems like musculoskeletal and cardiovascular systems. We bring together mechanical and civil engineers, basic biomedical scientists and clinicians from fields such as orthopedics, physiotherapy, sports medicine and orthodontics to advance health and medicine through diverse perspectives and expertise.

Find faculty members who specialize in biomechanics

Possible Careers

  • Forensic engineering consulting
  • Medical device design and commercialization
  • Rehabilitation engineer
  • Sports biomechanist
  • Ergonomist/human factors engineer
  • Gait analysis specialist
  • Occupational biomechanist
  • Tissue engineer

Areas of Specialization

Explore the specialized areas where our transformative research is creating real-world solutions and shaping the future of medicine.

Cellular-Level Biomechanics

Cellular biomechanics addresses the interactions of physical forces with cells of different origin, including bone, cartilage, meniscus, cardiac, vasculature and muscle, as well as cancer. The questions studied are relevant to cell mechano-responsiveness (how cells sense mechanical forces), mechano-transduction (how mechanical signals are translated to biological signals) and mechano-adaptation (how cells change under the influence of mechanical forces). We develop novel methods of precise force application and methods for cell monitoring such as:.

  • Single-cell studies
  • Simulated microgravity
  • High-speed live cell imaging

Tissue Biomechanics

Tissue biomechanics is the study of the mechanical properties and behaviours of biological tissues under various forces and conditions. It involves understanding how tissues like skin, muscles, tendons, bone and organs respond to stresses and strains. This field combines principles from biology, mechanics and materials science to analyze and predict how tissues function and interact in both health and disease. Applications can range from designing medical implants and prosthetics to improving rehabilitation techniques and understanding injury mechanisms.

Biomechanics of Human Movements

Human movement biomechanics is the study of the mechanical principles and processes underlying human motion. It involves analyzing how forces and torques affect the body’s structures, including bones, muscles and joints, to understand how movements are produced and controlled. This field combines principles from mechanics, anatomy and physiology to assess and optimize performance, prevent injuries and improve rehabilitation strategies. It encompasses a wide range of activities, from everyday movements like walking and lifting to complex athletic performances.