Osteoarthritis is a degenerative joint disease characterized by the breakdown of joint cartilage and underlying bone, most common in joints such as the hands, knees, hips, and spine. It is often associated with symptoms like joint pain, stiffness, swelling, and reduced range of motion. As a chronic condition, OA can lead to significant discomfort and disability.

The prevalence of osteoarthritis increases with age, making it a leading cause of pain and disability among older adults. However, it is not only a disease of the elderly; certain activity levels, especially those involving high-impact sports or repetitive joint use, can also contribute to the earlier onset and progression of OA. Occupational hazards, obesity, and previous joint injuries are additional factors influencing the prevalence of OA across various age groups.

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Aberrant Movement Patterns and Their Role in OA

Aberrant Movement Patterns and Their Role in OA

Types of Detrimental Movement Patterns

Detrimental movement patterns are those that increase the risk of joint damage and contribute to the onset or progression of osteoarthritis. Understanding these patterns is essential in both preventing OA and in developing treatment strategies for those already affected.

Repetitive Strain and Overuse

Repetitive movements, particularly those involving the same joints over long periods, can lead to an overuse injury. In the workplace or in sports where certain motions are repeated frequently, the cumulative strain can surpass the joint’s ability to recover, leading to the breakdown of cartilage and the onset of OA symptoms.

Asymmetrical Loading and Unilateral Dominance

When body movements favor one side or part of the body, the result can be an asymmetrical loading pattern that places excessive stress on certain joints. This unilateral dominance can arise from habitual activities, past injuries leading to compensatory behaviors, or inherent anatomical irregularities, leading to uneven wear and tear and a higher risk for OA development (5).

Poor Posture and Its Chronic Effects

Poor posture, both in static positions such as sitting or standing and during dynamic movements, can lead to misalignment of joints. Over time, this misalignment causes abnormal stress on the joints, particularly the spine, hips, and knees, which can exacerbate the degradation of joint tissues and contribute to OA progression.

Mechanisms Linking Aberrant Movement to OA Development

The wrong types of movement can directly contribute to the onset and progression of osteoarthritis through several biomechanical and physiological pathways.

Increased Mechanical Stress on Joints

Abnormal movement patterns can lead to increased and improperly distributed mechanical stress on the joints. This stress can hasten the wear of cartilage, especially in weight-bearing joints such as the knees and hips, and can cause changes in the underlying bone structure.

The altered biomechanical environment can accelerate the wear and tear of articular cartilage, contributing to OA (13).

Acceleration of Cartilage Breakdown

Cartilage is designed to withstand certain amounts of load and stress. However, aberrant movement patterns can disrupt the normal biomechanics, increasing the rate at which cartilage wears away. Without the protective cartilage, the bones can come into direct contact, causing pain and further restricting movement. The repetitive stress exceeds the cartilage’s intrinsic repair capabilities, leading to its degeneration and the onset of OA symptoms (2).

Subchondral Bone Changes and Joint Space Narrowing

The subchondral bone, which lies beneath the cartilage, can also be affected by abnormal movements. Excessive loading can lead to increased bone density and the formation of bone spurs, while the loss of cartilage can result in the narrowing of the space between bones in a joint. These changes not only contribute to the symptoms of OA but also to its progression by altering the joint architecture and mechanics (3).

Read More: Osteoarthritis and Its Connection to Sport and Exercise

Identification and Assessment of Movement Patterns

The precise identification and assessment of movement patterns are critical for both the prevention and management of osteoarthritis (OA). By pinpointing detrimental movement patterns, clinicians and therapists can develop targeted interventions to correct these movements and reduce the progression of OA. This section delves into various methods and technologies employed to analyze and assess movement patterns.

Gait Analysis and the Identification of Abnormalities

Gait analysis is a systematic study of human walking, often used to identify abnormalities in movement that can lead to or exacerbate conditions like osteoarthritis. By assessing parameters such as stride length, cadence, and joint angles, clinicians can pinpoint detrimental patterns and address them (15).

Purpose of Gait Analysis: This process involves the assessment of the way an individual walks, looking for deviations from normal gait patterns that could indicate underlying issues or predispositions to certain conditions, including OA.

Observational Techniques: Clinicians may begin with a simple visual examination of walking patterns, noting asymmetries or irregularities in stride, limb alignment, and weight transfer.

Instrumented Gait Analysis: For a more detailed assessment, instrumented gait analysis may be used, employing tools like video, force plates, and electromyography to measure and analyze the kinetics and kinematics of gait.

Functional Movement Screenings

Screening Tests: These screenings often include a series of exercises designed to assess strength, flexibility, stability, and mobility. They can identify limitations or asymmetries in movement that could contribute to the development of OA.

Application in Various Populations: Functional Movement Screen (FMS) is a tool used to evaluate movement patterns that are key to normal function. By screening these patterns, the FMS can identify functional limitations and asymmetries which have been shown to contribute to the development of OA (4).

Outcome Use: The results from these screenings can guide targeted interventions, such as corrective exercise programs, to address any deficits and potentially reduce the risk of joint wear.

The Use of Technology in Movement Pattern Analysis

Motion Capture Systems: Advanced technology like motion capture systems allow for a detailed analysis of movement patterns. These technologies can measure the three-dimensional movement of the human body and the forces exerted by the muscles and on the joints during movement, providing valuable information for the diagnosis and management of OA (7).

Pressure Sensors: These sensors can be placed in shoes or on platforms to measure the distribution of weight and pressure through the feet and legs during walking, running, or standing.

Wearable Technology: Devices such as accelerometers and gyroscopes can be worn to provide continuous data on an individual’s movement patterns in their everyday environment, offering insights into daily movement habits and biomechanics.

Mobile Applications: There are various apps that can track movement and provide feedback, allowing individuals to monitor their movement patterns in real-time and make adjustments as needed.

Integration with Rehabilitation: The data from technology-assisted movement analysis can be integrated into personalized rehabilitation programs, offering a tailored approach to managing and preventing OA.

Read More: The Importance of Warm-Up Exercises in Osteoarthritis Care

Movement Patterns in the Progression of OA

This section explores how certain movement patterns may contribute to the progression of osteoarthritis (OA), the interplay between muscle function and joint health, and the potential long-term impacts of compensatory movements.

Studies Linking Specific Movement Patterns to OA Progression

Longitudinal Research: Longitudinal studies have been pivotal in understanding how movement patterns affect the progression of OA. For example, research following individuals over time has indicated that abnormal gait mechanics, such as increased knee adduction moment, are predictive of OA progression (11).

Biomechanical Models: Biomechanical models have been used to study the effects of movement patterns on joint loads. According to these models, changes in joint kinematics may play a major role in the onset and progression of osteoarthritis (OA) by increasing the stress placed on articular cartilage.

Epidemiological Evidence: Epidemiological studies have identified risk factors for OA progression, such as obesity and joint injury, which are often related to movement patterns and biomechanical stress (6).

The Role of Muscle Weakness and Imbalance

Quadriceps Strength: Weakness in the quadriceps can lead to instability in the knee joint, increasing the risk of OA. Conversely, excessive strength in comparison to the hamstrings can also lead to abnormal joint loading. A robust body of evidence supports the relationship between quadriceps strength and knee OA. Weaker quadriceps can lead to a higher risk for the development and progression of OA (14).

Core Stability: Core stability is crucial for maintaining the alignment and reducing the load on lower limb joints. The strength and stability of the core muscles are essential for maintaining proper alignment and movement patterns, thereby reducing the risk of compensatory movements that can lead to OA in the lower back and lower extremities (9).

Muscle Imbalance: Asymmetrical muscle strength can lead to uneven joint loading. Studies have demonstrated that such imbalances, particularly around the hip, can contribute to the development of knee OA.

Read More: The Role of Broccoli in Alleviating Osteoarthritis Symptoms

Compensatory Movements and Their Long-Term Effects

Adaptive Strategies: Individuals often develop compensatory movement strategies in response to pain or weakness. While these adaptations may initially reduce discomfort, they can lead to abnormal stress on joints and soft tissues, perpetuating a cycle of pain and dysfunction. For example, limping to off-load a painful knee can result in hip and back pain (10).

Joint Overload: Compensatory movements such as altered gait can lead to joint overload, especially on the contralateral side, accelerating the OA process (12).

Postural Changes: Changes in posture due to muscle weakness and joint pain can lead to alterations in the biomechanical loading patterns across the joints, influencing OA progression.

Altered Kinematics: These compensatory movements can cause changes in the way joints move, leading to altered gait patterns and changes in the kinematics of the affected and adjacent joints, potentially accelerating OA progression (1).

Corrective Strategies and Rehabilitation

Effective management of osteoarthritis (OA) often requires a multifaceted approach that includes corrective strategies and rehabilitation to address detrimental movement patterns and facilitate pain relief and improved function.

Physical Therapy Interventions to Correct Movement Patterns

Physical therapy (PT) plays a central role in the management of osteoarthritis by correcting dysfunctional movement patterns. PT interventions aim to restore normal joint kinematics, reduce pain, and improve function. Exercise therapy, specifically tailored to the patient’s needs, has been shown to reduce symptoms and improve quality of life (8).

Strengthening and Conditioning Programs

Targeted exercise programs are tailored to increase the strength of muscles surrounding the affected joints, thereby enhancing joint support and stability. For example, quadriceps strengthening is beneficial for patients with knee OA. Conditioning exercises also aim to improve overall fitness, which can reduce the stress on joints during everyday activities.

Balance and Proprioception Training

Poor balance and proprioception can lead to falls and abnormal joint loading, increasing the risk of OA progression. Training programs are designed to enhance the body’s ability to sense joint position and movement, which is crucial for maintaining stability and proper joint alignment during activities. Balance and proprioceptive exercises can help in the rehabilitation of individuals with OA, potentially slowing disease progression by improving joint position sense and reducing the risk of falls. Exercises may include the use of balance boards, stability exercises, and tai chi.

Motor Control and Neuromuscular Reeducation

Neuromuscular reeducation programs focus on improving the coordination of muscle groups and enhancing motor control to support proper joint movement and reduce the load on the affected joints

Orthotic Supports and Braces

Orthotic devices, including insoles and braces, can be used to correct misalignment and redistribute load across a joint, thus reducing pain and preventing further joint damage. Insoles may be used to correct flat feet or excessive pronation, which can contribute to knee OA, while braces can provide external stability to joints, reducing pain and improving function.

Surgical Interventions and Their Role in Altering Movement Patterns

Indications for Surgery: Surgical options are considered when conservative management does not sufficiently relieve pain or improve function, or when there is significant structural damage to the joint.

Types of Surgeries: Common surgical interventions include arthroscopic procedures to clean out joint debris, osteotomies to correct bone alignment, and joint replacement surgeries for advanced OA.

Post-Surgical Rehabilitation: Following surgery, rehabilitation is crucial to restore movement patterns and avoid the compensatory behaviors that can develop from prolonged pre-operative pain and dysfunction. Rehabilitation typically includes a graduated exercise program to regain strength, flexibility, and proper joint mechanics.

Impact on Movement Patterns: Surgical interventions aim to reduce pain and restore normal joint function, which in turn can lead to more normal movement patterns and a reduction in compensatory movements that might cause other problems.

Long-Term Management: Post-surgery, patients may need to modify activities and continue with a maintenance exercise program to preserve joint function and prevent future issues.

Read More: Exploring the Role of Immune Cells in Detecting and Repairing Osteoarthritis-Induced Cartilage Damage

Correction Therapy (SDM) for OA


Structural Diagnosis and Management (SDM) is a specialized manual technique in physiotherapy, particularly renowned for its effectiveness in addressing osteoarthritis (OA). This approach combines a variety of therapeutic modalities, including manipulation, muscle activation, stretching, muscle press-pull techniques, strengthening, and joint mobilization, to offer a comprehensive treatment strategy. SDM is particularly effective in correcting aberrant movement patterns that contribute to the progression and exacerbation of OA.

At the Agrani specialized manipulation therapy centre, SDM is not just about alleviating symptoms; it focuses on restoring optimal joint function. The technique’s holistic approach ensures that each intervention is tailored to the individual needs of the patient, targeting the root cause of their discomfort. The emphasis is on improving joint alignment and mobility, which directly impacts movement patterns often compromised in OA patients.

Through targeted muscle activation and strengthening exercises, SDM builds support around affected joints, reducing strain and improving movement efficiency. Stretching exercises are incorporated to enhance joint flexibility, crucial for maintaining functional movement patterns and reducing stiffness associated with OA. Additionally, muscle press-pull actions are used to promote better joint stability and movement control.

One of the key benefits of SDM is its ability to correct aberrant movements that can exacerbate joint wear and tear in OA. By adjusting these patterns, the technique helps reduce pain and prevent further joint damage. The comprehensive approach of SDM not only focuses on symptomatic relief but also aims at enhancing overall joint function, contributing to a better quality of life for OA patients.

At the Agrani Centre, the expertise in SDM means patients receive care that is both expert and innovative. The center’s approach is personalized, meeting the unique needs of each patient and ensuring that the interventions effectively address the root cause of discomfort. This holistic treatment philosophy recognizes that OA affects more than just joints, aiming to restore not just physical function but also to improve the overall lifestyle of patients.


The intricate relationship between movement patterns and osteoarthritis (OA) underscores the importance of early detection, proper management, and preventive care in addressing this prevalent condition. Research has consistently shown that specific movement patterns can exacerbate the progression of OA, while corrective strategies and rehabilitation can alleviate symptoms and improve quality of life. Early intervention, particularly in modifying harmful movement patterns through physical therapy and lifestyle changes, stands out as a critical component in the management of OA.

For individuals already suffering from OA, or those at heightened risk, this analysis highlights the imperative to adopt lifestyle modifications that promote joint health, engage in regular, tailored exercise, and utilize supportive devices as necessary to maintain functional movement. The educational component cannot be overstressed, as informed individuals are more likely to engage in proactive measures to protect their joint health.

The call to action extends to researchers and healthcare providers to continue advancing our understanding of OA and to develop more personalized and effective interventions. With the ongoing integration of technology in medical practice, the future holds promise for more nuanced and accessible treatment options. Technology also offers a platform for widespread patient education, providing individuals with the knowledge and tools needed to take an active role in managing their joint health.

As we look forward, it is crucial to support the momentum of research in biomechanics, personalized medicine, and technological applications in the field of OA. These endeavors are not just academic pursuits; they are essential steps toward enhancing the lives of millions affected by this debilitating disease. Through continued efforts in research and patient education, there is potential to transform the narrative of OA from one of inevitable decline to one of manageable, and often preventable, condition.


  1. What are movement patterns, and how do they relate to osteoarthritis?

    Movement patterns refer to the way we move our bodies during daily activities, sports, and exercise. They relate to osteoarthritis (OA) because improper or repetitive movement patterns can put undue stress on joints, potentially leading to or exacerbating OA. Good movement patterns help distribute forces evenly across the joints, reducing wear and tear on the cartilage.

  2. Can changing my movement patterns prevent osteoarthritis?

    Yes, to some extent. Modifying movement patterns to ensure proper alignment and balance can reduce the stress on joints, potentially slowing the progression of OA or even preventing it. This includes maintaining good posture, using proper techniques during physical activities, and engaging in exercises that strengthen muscles around the joints.

  3. What role does posture play in osteoarthritis?

    Posture plays a significant role in managing and preventing OA. Poor posture can lead to misalignment, increasing stress and strain on certain joints. Over time, this can accelerate the wear and tear process leading to OA. Good posture helps in evenly distributing body weight and reducing joint stress.

  4. Are certain types of exercise better for preventing osteoarthritis?

    Low-impact exercises like swimming, walking, and cycling are generally better for joint health as they provide the benefits of exercise without putting excessive stress on the joints. Strengthening and flexibility exercises are also beneficial as they improve muscle support around the joints and enhance range of motion.

  5. How does obesity affect movement patterns and osteoarthritis?

    Obesity can significantly impact movement patterns by increasing the load on weight-bearing joints like the knees and hips. This added stress can lead to joint wear and tear, accelerating the development of OA. Maintaining a healthy weight can reduce joint stress and improve movement patterns.

  6. Can physical therapy help in correcting movement patterns to manage OA?

    Absolutely. Physical therapists can assess individual movement patterns and identify abnormalities. They can then develop a personalized exercise program to strengthen muscles, improve flexibility, and correct movement patterns, thereby helping to manage OA symptoms and prevent further joint damage.

  7. Is walking good for osteoarthritis?

    Walking can be beneficial for individuals with OA, as it is a low-impact exercise that helps maintain joint flexibility and muscle strength. However, it’s important to wear supportive footwear and to walk on relatively flat surfaces to minimize joint stress.

  8. Can yoga and Pilates help with osteoarthritis?

    Yes, yoga and Pilates can be very helpful for those with OA. These activities enhance flexibility, strengthen muscles, and improve balance and body awareness, which can lead to improved movement patterns and reduced joint stress.

  9. How important is muscle strength in preventing osteoarthritis?

    Muscle strength is crucial in preventing and managing OA. Strong muscles support the joints, absorb shock, and help distribute the forces exerted on the body during movement, reducing the load on joints and slowing down the degeneration of joint cartilage.

  10. Can ergonomic adjustments help in reducing the risk of osteoarthritis?

    Yes, making ergonomic adjustments in the workplace and at home can help reduce the risk of OA. Ergonomics aim to optimize the environment to fit the individual’s needs, thereby promoting healthier movement patterns and reducing joint strain during daily activities.


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