Yes. Orthotics are frequently used to support efficient biomechanics in athletes.
Understanding how the foot functions during movement is essential for clinicians working in podiatry, sports medicine, and rehabilitation.
The foot is a complex mechanical structure responsible for absorbing impact, stabilizing the body, and generating propulsion during walking and running. Because it serves as the primary interface between the body and the ground, its biomechanics influence the entire lower limb and even the spine.
Advances in clinical research, biomechanics, and technology have significantly improved how clinicians evaluate and treat foot-related conditions.
This Knowledge Hub brings together key insights from decades of clinical experience in:
The goal of this resource is to provide clinicians with a clear and structured overview of how orthotic therapy can support efficient movement and improve patient outcomes.
— Philippe Legaré, DPM Frédéric Gremillet, DPM
Foot biomechanics describes how the bones, joints, muscles, and ligaments of the foot interact during movement.
Because the foot contains 26 bones and 33 joints, its mechanical behavior is highly complex. During every step, the foot must perform multiple functions simultaneously:
Even small variations in foot mechanics can influence how forces travel through the ankle, knee, hip, and spine.
Understanding these relationships is essential for diagnosing movement-related problems and developing effective treatment strategies.
Orthotic therapy focuses on improving how the foot interacts with the ground during movement.
Custom orthotics are medical devices designed to influence biomechanics by redistributing forces and guiding motion patterns.
Unlike mass-produced insoles that primarily provide cushioning, orthotics are typically prescribed following clinical evaluation and are designed to address specific biomechanical needs.
Orthotics are often used in combination with other interventions such as rehabilitation exercises, gait retraining, and footwear adjustments.
Orthotic design has evolved significantly as clinicians have gained a deeper understanding of movement science.
Earlier orthotic designs often focused primarily on structural support. Modern approaches increasingly aim to support natural movement patterns while maintaining mechanical stability.
Advances in materials, digital scanning technologies, and biomechanical analysis tools are helping clinicians design more precise and personalized orthotic solutions.
These innovations are transforming how orthotic therapy is integrated into modern clinical practice.
Orthotics are used in a variety of clinical contexts, from sports medicine to post-surgical rehabilitation.
Because the foot plays a central role in the kinetic chain, modifying how forces move through the foot can influence stress on the ankle, knee, and hip.
Clinicians may incorporate orthotics into treatment strategies for conditions such as:
Orthotics are typically integrated with rehabilitation programs and movement training.
The future of orthotic therapy lies in combining clinical expertise with technological innovation.
New tools are allowing clinicians to better analyze movement patterns, measure mechanical loading, and design orthotic solutions tailored to individual patients.
At the same time, treatment approaches are increasingly focused on improving movement efficiency rather than simply correcting structural alignment.
This evolution reflects a broader shift toward movement-based treatment strategies in modern podiatry and sports medicine.
Yes. Orthotics are frequently used to support efficient biomechanics in athletes.
Orthotics may benefit individuals with biomechanical dysfunction, sports injuries, or certain rehabilitation needs.
Orthotics help redistribute forces and guide motion patterns during gait.
Custom orthotics are medical devices designed to influence foot biomechanics and support efficient movement.
Foot biomechanics studies how the structures of the foot move and interact during walking and running.
Explanation High-performance athletes place exceptional demands on their musculoskeletal system. Training loads, competition intensity, and repetitive movements can increase the...
Explanation Knee pain is often associated with factors such as joint overload, muscular imbalance, or structural changes. However, clinicians increasingly...
Explanation Athletes place significant mechanical demands on their feet during training and competition. Running, jumping, cutting, and rapid changes of...
Explanation Post-surgical rehabilitation of the foot and ankle requires careful management of biomechanical forces during the healing process. After foot...
Explanation Technological innovation has significantly improved how clinicians study and understand human movement. In biomechanics, modern tools allow clinicians to...
Explanation Orthotic therapy continues to evolve as clinicians gain a deeper understanding of biomechanics and movement science. Several trends are...
Explanation Orthotics can generally be described as either static or dynamic, depending on how they interact with the foot during...
Explanation Orthotic therapy has evolved significantly over the past several decades as clinicians have developed a deeper understanding of foot...
Explanation For many patients, orthotics represent a significant investment, which often leads to the question: are they worth it? The...
Explanation Orthotics work by influencing how forces are distributed across the foot during movement. When the foot contacts the ground,...
Explanation Orthotics and insoles are often confused, but they serve different purposes. Insoles are typically mass-produced products designed to provide...
Explanation Custom orthotics are medical devices designed to support and influence the biomechanics of the foot during standing, walking, and...
Explanation Many people assume that foot pain originates directly from a specific structure in the foot. However, clinical observation often...
Explanation The human body functions as a connected system of joints and muscles often referred to as the kinetic chain....
Explanation The foot serves as the primary interface between the human body and the ground. Every step we take begins...
Explanation Foot biomechanics refers to the study of how the structures of the foot move and interact with the rest...
Context / Clinic Challenge Most patients own more than one pair of shoes — yet their orthotics typically live in...
Context / Clinic Challenge For podiatry clinics, reliability isn’t just about timely deliveries — it’s about consistency and confidence. Every...
Context / Clinic Challenge Many podiatry clinics face a recurring challenge: orthotic adjustments. Every return, remake, or fine-tuning not only...
Introduction: Long-standing expertise meets innovation Tony Abbott, D.Ch., based in Ontario, has been practicing for over 30 years. With a loyal...