The feet are often underestimated for their crucial role in the stability and mobility of the entire body. However, they are an essential foundation upon which the entire body structure rests, and the arches of the foot are the fundamental building blocks. The arches play a unique role in not only providing the support needed for standing and walking, but also in helping to absorb shock, maintain balance, and facilitate movement. These natural structures, composed of bones, ligaments, tendons, and muscles, provide a delicate balance between strength and flexibility, allowing the feet to adapt to varied surfaces and repeated movements.

The arches of the foot are divided into three main structures: the medial longitudinal arch , the lateral longitudinal arch , and the transverse arch . Each contributes differently to posture and movement, but together they form an integrated system that supports and distributes the body’s weight. When functioning optimally, these arches provide a stable and balanced platform that allows other parts of the body, particularly the legs and pelvis, to remain aligned and functional. Conversely, when these structures are out of balance, the entire body’s posture can be affected, leading to pain, misalignment, and mobility issues.

The arches of the foot are essential for the efficient distribution of body weight, especially when walking, running and jumping. The medial longitudinal arch, for example, is the highest and acts like a spring, absorbing impact when the foot hits the ground. It also helps maintain balance by ensuring a smooth transition from heel to toe with each step. This is crucial because the foot is under considerable pressure in everyday activities: with each step, the body’s weight is transmitted to the sole of the foot, and the arches are there to reduce shock, protecting the joints of the legs, hips and back.

In addition to shock absorption, the arches of the foot facilitate the adaptation of the foot to different surfaces. On uneven terrain, the arches allow the foot to adapt by flexing or stiffening as needed, thus avoiding imbalances and reducing the risk of twisting or spraining. The feet can thus maintain a certain stability even in unforeseen conditions, which is fundamental for injury prevention.

The arches of the foot play a central role in maintaining the body’s balance. They act as a dynamic foundation that supports other joints and muscle groups, ensuring that weight is distributed evenly. When the arches are properly aligned and functional, they contribute to a balanced posture by keeping the ankles, knees, hips and spine aligned. In contrast, fallen arches, such as those seen in flat feet, can lead to progressive misalignment of the lower limbs and spine, often leading to pain in the lower back, hips and knees.

Proper arch function also improves overall mobility. For example, well-formed arches allow for better propulsion when walking and running, making movements more efficient and less tiring. In contrast, abnormalities in the arches can reduce this efficiency, forcing the body to compensate elsewhere, often at the cost of increased fatigue and pain in other areas of the body.

The arches of the foot are a complex and ingenious architecture, designed to support the body’s weight while allowing flexibility and mobility. This arch structure of the foot is composed of three types of arches: the internal longitudinal arch , the external longitudinal arch , and the transverse arch . Each of these arches is formed by a set of bones, ligaments, and tendons that work in synergy to provide stability, resilience, and adaptability to the feet. In this section, we detail the anatomical composition of each arch and the specific structures that provide strength.

The human foot rests on three main arches, which are essential for stability, weight distribution, and mobility. These arches are: the medial longitudinal arch , the lateral longitudinal arch , and the transverse arch .
The medial longitudinal arch (green in the image) is the largest and tallest of the three. It extends from the heel to the base of the big toe and acts as a natural shock absorber to absorb shock. It is formed by bones such as the calcaneus, talus, navicular, and metatarsals.
The lateral longitudinal arch (red) is lower and located on the lateral edge of the foot. It provides stability and support, especially during walking and standing.
The transverse arch (blue) crosses the foot from side to side, connecting the bases of the metatarsals. It helps maintain the natural shape of the foot by distributing weight.
These three arches work in harmony to support the body’s weight, cushion impacts, and adapt to different surfaces. Their balance is essential to prevent foot pain and deformities, such as flat feet or high arches.

The medial longitudinal arch is the most prominent and, in fact, the one most often associated with the image of the arch of the foot. It extends from the heel (calcaneus) to the first metatarsal, passing through several intervening bones, including the talus, navicular, and cuneiform bones. This arch plays a central role in shock absorption and weight distribution throughout the foot during walking and running.

The medial longitudinal arch is one of the most important structures of the human foot. It extends from the heel (calcaneus) to the metatarsal heads, passing through essential bones such as the talus (astragalus) , navicular, cuneiform and the first three metatarsals. In the image, this arch is highlighted by a green curve that symbolizes its natural shape.
This arch plays a fundamental role in shock absorption when walking, running or even standing. It helps distribute the body’s weight in a balanced manner and ensures the stability of the foot while maintaining its flexibility. The talus (in blue in the image) is a key pivot that transmits the body’s weight to the arch.
A weakened medial longitudinal arch can lead to a collapsed foot, resulting in flat feet and various pains, particularly in the ankles, knees and spine. Conversely, an arch that is too high, called a high arch, can cause imbalance.
Maintaining this arch in good health through appropriate exercises and good plantar support is crucial to maintaining posture and comfort in everyday life.

The ligaments and tendons of this arch are essential to maintain its shape and function. Among them, the plantar calcaneonavicular ligament , also called the “plantar spring”, is fundamental to support the talus and prevent the arch from collapsing. This ligament is completed by the long plantar ligament and the short plantar ligament , which provide additional stability and protect the arch from repeated pressure. The tendons of the tibialis posterior and long flexor hallucis (big toe) muscles reinforce this arch, acting as stays that keep it in tension and allow the foot to adapt well to different terrains.

The image shows the major ligaments that make up the deltoid ligament, a key structure in ankle stability. These ligaments are located on the medial aspect of the ankle joint and connect the tibia to the bones of the foot. They provide medial stability to the ankle and resist excessive eversion movements.
Tibionavicular ligament : This ligament connects the tibia to the navicular bone. It plays a role in limiting excessive eversion and external rotation of the ankle.
Anterior tibiotalar ligament : This ligament extends from the tibia to the anterior portion of the talus. It is essential for stabilizing the tibiotarsal joint during plantar flexion.
Tibiocalcaneal ligament : This ligament connects the tibia to the calcaneus. It plays a central role in supporting the medial arch of the foot and resisting eversion forces.
Posterior tibiotalar ligament : Extending from the tibia to the posterior portion of the talus, this ligament limits excessive dorsiflexion and contributes to overall ankle stability.
Together, these ligaments act as a functional unit to protect the ankle from injury due to excessive or traumatic movements. Their integrity is crucial for the proper biomechanical function of the joint.

The proper functioning of this arch is essential for adequate distribution of loads on the foot. In the event of collapse, we observe a phenomenon of “flat foot”, where the internal arch collapses partially or completely, which can cause pain in the ankles, knees, and even in the back.

Unlike the medial longitudinal arch, the lateral longitudinal arch is lower and more rigid. It extends from the heel to the fifth metatarsal, connecting the calcaneus, cuboid, and fifth metatarsal bones. This arch provides lateral support and acts as a balance point for the medial arch, providing a solid foundation for the foot.

The external longitudinal arch is an important structure of the human foot, although not as high as the medial arch. It extends from the calcaneus (heel) to the fifth metatarsal , passing through key bones such as the cuboid (highlighted in the image). This arch is represented here by a blue curve that highlights its natural position.
Its main function is to provide stability to the foot in contact with the ground. Unlike the medial arch, which absorbs shock, the external arch plays a more static role and supports the body’s weight when walking, running or standing for long periods. This stability is particularly important on uneven surfaces.
A weakened external longitudinal arch can lead to postural imbalances and lateral foot pain. Conditions such as flat feet can affect this structure, reducing its stabilizing role. On the other hand, an excessively rigid arch can cause additional stress.
To preserve this arch, it is important to wear suitable shoes and perform foot strengthening exercises. A good balance between flexibility and support is essential to ensure optimal functionality of this part of the foot.

Although less flexible than the medial longitudinal arch, the lateral arch is still essential for stability. The ligaments that support this arch are the long plantar ligament (shared with the medial arch) and the cuboid-metatarsal ligaments . These stabilizing structures help the foot stay aligned and prevent lateral instability when moving. The peroneus longus muscle also plays a key role in maintaining this arch, providing longitudinal tension that prevents lateral collapse.

If this arch malfunctions, such as with injuries to the long plantar ligament, the foot may become laterally instable, increasing the risk of ankle sprains and injuries.

The transverse arch, on the other hand, is located at the forefoot, just behind the heads of the metatarsals. It is made up of the five metatarsals as well as some tarsal bones, including the cuneiform and cuboid bones. This arch is transverse (i.e. horizontal in relation to the others), and its main function is to distribute the body’s weight evenly between the inside and outside of the foot.

The transverse arch of the foot is an essential structure for its stability and load distribution. Located at the level of the intermediate cuneiform (in red in the image), it crosses the foot from one edge to the other, connecting the bases of the metatarsals. This arch plays a major role in maintaining the anatomical shape of the foot by ensuring a balanced distribution of body weight during movement.
The image compares this structure to a stone arch with a keystone . Similarly, the intermediate cuneiform acts as a central key that stabilizes the transverse arch. This comparison perfectly illustrates the importance of this keystone in preventing arch collapse
. The transverse arch provides the flexibility needed to absorb the pressures generated during walking and physical activities. It also allows the foot to adapt to uneven surfaces by distributing force evenly.
A collapse of this arch can cause pain in the metatarsals and contribute to deformities such as transverse flatfoot . Wearing suitable insoles and strengthening exercises help preserve this vital structure for a healthy and functional foot .

This arch also allows the foot to adapt to surface variations and ensures an even distribution of pressure. It is supported by the deep transverse metatarsal ligament , which prevents the metatarsal heads from spreading too far apart, thus ensuring stability of the forefoot. The tendons of the interosseous muscles, which are located between the metatarsals, also play a role in maintaining this arch by preventing the forefoot from being crushed.

When this arch is weak, you may experience pain in the forefoot, known as metatarsalgia , as well as calluses under the metatarsal heads due to excess pressure. Support for this arch is especially important for those who spend a lot of time on their feet or who perform repetitive movements that stress the forefoot.

Although each arch has its own anatomical and functional specificities, they do not work in isolation. Together, they form an interconnected system that allows the foot to respond to loads and adapt to different surfaces and movements. The ligaments and tendons of the three arches work together to create a balance between rigidity and flexibility, providing a stable and dynamic foundation for the body.

Muscles and ligaments also play an important role in maintaining the integrity of the entire arch. For example, the intrinsic muscles of the foot (such as the flexor digitorum brevis) and the extrinsic muscles (such as the tibialis posterior and peroneus longus) are activated together to adjust the tension on the arches and provide dynamic support to the foot.

The arches of the foot play a fundamental role in body dynamics, contributing to stability, shock absorption, and mobility. They are more than just passive structures; they act as shock absorbers and load distributors, allowing the body to move in a fluid and balanced manner. In this section, we will explore how the arches of the foot contribute to weight distribution, shock absorption, and overall body balance, and how they facilitate optimal mobility.

The arches of the foot help to distribute the body’s weight effectively, especially during walking, running or jumping movements. This distribution is crucial, as it prevents specific areas of the foot from supporting excessive loads, which could lead to pain or injury. The internal longitudinal arch, which is higher and more elastic, plays a major role in this process, distributing the weight over the entire plantar surface. It allows loads to be transferred from the heel to the forefoot and prevents pressure from being concentrated on a single area.

With each step, the body’s weight is distributed across the three arches, which act as interconnected structures. The internal and external longitudinal arch work together to distribute weight between the inside and outside of the foot, while the transverse arch distributes weight laterally, from the outside to the inside. This allows for even dissipation of loads, reducing muscle fatigue and protecting the ankle, knee and hip joints from excessive compressive forces.

In walking or running conditions, the weight exerted on the foot can reach several times the body weight, depending on the intensity of the activity. The arches therefore allow the foot to support these forces without compromising balance, thanks to a judicious distribution of loads. This process is essential to reduce stress on bones and joints, and it also prevents injuries due to chronic overload.

The arches of the foot play a crucial role in shock absorption, providing protection to the joints and muscles of the body. In particular, the internal longitudinal arch works like a spring, compressing slightly with each impact to absorb the forces that occur when the foot hits the ground. This compression process helps dissipate energy that would otherwise travel up the body, potentially causing joint pain or long-term trauma.

The external longitudinal arch, although more rigid, also contributes to cushioning, providing a solid base that stabilizes the foot and prevents excessive lateral movements upon impact. This cushioning is essential for high-impact activities, such as running or jumping, as it reduces the force transmitted to other parts of the body, particularly the knees and hips.

The shock-absorbing role of the arches is particularly important for maintaining joint health and reducing the risk of overload injuries, such as plantar fasciitis or stress fractures. By absorbing shock, the arches protect the soft tissues and bones of the foot, allowing for faster recovery after intense exertion and limiting progressive damage due to repeated impacts.

The arches of the foot are not just about distributing weight and absorbing shock: they are also crucial for maintaining balance and promoting efficient mobility. They create a stable base for the entire body, allowing the ankles, knees, and pelvis to work in harmony. By facilitating postural alignment, they help the body maintain a stable position even when moving, which is essential for preventing imbalances and falls.

The internal longitudinal arch plays a key role in this balance by ensuring a good connection with the ground, especially during rotational movements or changes of direction. The external arch, which is more rigid, provides lateral stability that prevents unwanted twisting of the foot. Together, these two longitudinal arches provide a reliable base for lateral and frontal movements, which is particularly useful in demanding sports and physical activities.

The transverse arch, located under the front arch of the foot, is also important for balance because it ensures an even distribution of pressure between the metatarsals. This allows the foot to remain stable even on uneven surfaces and reduces the likelihood of imbalances. A strong transverse arch also improves toe mobility, making movements more fluid and natural.

The three arches therefore allow the foot to act as a dynamic lever that helps propel the body forward when walking or running. By maintaining optimal shape and adapted mobility, the arches allow a smooth transition between the impact and propulsion phases, which improves physical performance and reduces fatigue. This feature is crucial for fast and repetitive movements, as it maximizes the efficiency of movement by minimizing energy loss.

The arches of the foot, essential for stability, load distribution and mobility, are vulnerable to imbalances and dysfunctions that can alter their role in the body. These imbalances can have multiple causes and lead to pain, loss of stability and postural problems. Two of the most common imbalances are flat feet and high arches, each with their own characteristics, causes and health consequences. Here is a breakdown of the main types of arch dysfunctions, their origins and the impact they can have on the body.

1. Flat Feet (or Collapsed Arch)
Flat feet, or collapsed arch, is a condition where the inner arch of the foot is lower or almost non-existent, causing the foot to be in almost complete contact with the ground. In some people, this phenomenon is visible from childhood, while in others it may manifest itself gradually with age or after an injury. Flat feet can be flexible, where the arch is present at rest but flattens under load, or rigid, where the arch remains collapsed even without load. This condition changes the distribution of pressure under the foot and can lead to pain, as the foot loses its natural ability to absorb shock and adapt to surfaces.

2. High Arch Foot
Unlike flat feet, high arch foot is characterized by an excessively high internal longitudinal arch. This type of arch causes an abnormal distribution of loads, with more support on the front and back of the foot, while the arch of the foot remains less stressed. High arch feet are often more rigid, which reduces their cushioning capacity and makes them more susceptible to injury. As a result, specific areas of the foot are constantly overloaded, promoting the appearance of pain, calluses and even stress fractures.

3. Failed Transverse Arch (or Metatarsalgia)
Another common imbalance involves the transverse arch, located in the forefoot, just behind the toes. A collapsed arch places excess pressure on the metatarsal heads (the bones at the front of the foot), leading to pain and discomfort when walking. This type of imbalance can lead to metatarsalgia, a painful inflammation of the forefoot, which can be made worse by ill-fitting shoes or prolonged standing.

Other types of imbalances:

1. Hypermobility of the Arches

Hypermobility of the arches is an imbalance characterized by excessive flexibility of the ligaments and tendons that support the arches of the foot. Unlike flat feet, the arch may appear normal at rest, but it collapses easily under load. This hypermobility causes the arch to temporarily collapse, causing instability when walking or running. It can also lead to pain and muscle fatigue in the feet and legs as the muscles have to compensate for the lack of stability. This imbalance is often seen in people with general ligament hyperlaxity and can be aggravated by repetitive movements or activities that require increased stability.

Causes and Consequences:
Hypermobility of the arches is often linked to genetic factors or conditions such as Ehlers-Danlos syndrome, which affects the strength of connective tissues. It can lead to chronic pain, frequent sprains and excessive fatigue, as the feet have to work harder to maintain balance.

2. Lateral Arch Instability

Lateral arch instability, or instability of the outer edge of the foot, occurs when the outer longitudinal arch fails to provide adequate support. This imbalance makes the foot more vulnerable to twisting outward, increasing the risk of lateral ankle sprains. The lateral arch should normally provide a stable base for the foot, especially during pivoting or rotating movements. When this arch is unstable, the body is thrown off balance and can lead to pain, not only in the feet, but also in the legs and hips.

Causes and Consequences:
This imbalance can be caused by weakened lateral ligaments, old injury, or misalignment of the bones in the foot. It can cause discomfort or pain in the outer edge of the foot, and repeated injuries to the ankle due to reduced lateral stability.

3. Pied Valgus (hyperpronation)

Pes valgus, often called “hyperpronation,” occurs when the foot rolls excessively inward, causing the inner arch to collapse. Hyperpronation is common in people with flat feet, but it can also occur independently. This imbalance causes the entire foot to be misaligned, causing overload on the inner side and inward rotation of the knees (genu valgum). This movement creates a compensation chain that can affect the knees, hips, and lower back.

Causes and Consequences:
Hyperpronation is often caused by muscle weakness in the feet or legs, poor posture, or wearing improper footwear. Consequences include pain in the ankles, knees, and lower back, as well as increased fatigue due to the added stress on the joints.

4. Pied Varus (supination excessive)

Varus foot, or excessive supination, is an imbalance in which the foot rolls outward, placing the body weight on the outer edge of the foot. This type of imbalance is the opposite of valgus foot. In this condition, the inner arch is usually high, preventing good contact with the ground. Varus foot is often associated with high arches, but it can also occur in people without excessive arches. This imbalance increases the risk of lateral instability injuries, such as ankle sprains, and can cause overload on the outer legs.

Causes and Consequences:
Excessive supination can be due to structural abnormalities, muscular imbalances or lack of flexibility in the feet. It leads to muscle fatigue in the calves and pain in the knees and hips as the body compensates for the lack of stability.

5. Diabetic Foot

Diabetic foot is a type of imbalance that occurs in people with diabetes, due to complications such as peripheral neuropathy and poor blood circulation. With no sensation in the feet, people with diabetic neuropathy may not feel injuries or pressure on specific areas of the foot. This can lead to uneven distribution of loads and abnormal pressure points, leading to deformities such as pes cavus or collapsed arches.

Causes and Consequences:
Diabetes affects the nerves and blood vessels, causing sensory and circulatory problems. This causes an imbalance of the arches due to progressive damage and lack of natural tissue support. Consequences include ulcerations, infections and severe deformities, requiring specific care and monitoring to avoid serious complications.

6. Contracted Foot Syndrome

Contracted foot syndrome is characterized by excessive contraction of the tendons in the foot, which changes the natural alignment of the arch. This type of imbalance can be caused by muscle spasms, excessive tension, or a neurological imbalance that causes the tendons to shorten and the arch to be in an unnatural position. Contracted foot can make walking painful and difficult because the tendon structures put unusual pressure on the bones and joints of the foot.

Causes and Consequences:
Contracted foot syndrome is often linked to neurological conditions, injuries, or muscle and tendon imbalances. This imbalance can lead to acute pain, limited mobility, and progressive foot deformities if left untreated.

7. Rigid Foot (osteoarthritis of the feet)

Rigid foot is an imbalance where the joints of the foot lose their flexibility and become stiff. This lack of flexibility can be due to degenerative conditions such as osteoarthritis or inflammatory conditions, such as arthritis. When the foot loses mobility, the arches become unable to absorb shock and adapt to varying surfaces, which can lead to joint pain, postural imbalance and difficulty moving.

Causes and Consequences:
Stiff feet often result from joint deterioration due to aging, previous trauma, or inflammatory conditions. Consequences include significant discomfort when walking, increased load on other joints (ankles, knees, hips), and an increased risk of lower back pain.

8. Partial Collapsed Arch (subtle flat foot)

A partial collapse of the arch, often called “subtle flatfoot,” occurs when the arch flattens slightly under load but remains visible. This type of flatfoot is often less noticeable visually, but it can still cause pain and increased fatigue because the arch is not stable enough to absorb shock effectively. This condition is common in people who have a predisposition to ligament or muscle weakness in the foot.

Causes and Consequences:
Partially collapsed arch can be caused by muscle weakness, ligament injury or anatomical changes due to age. This imbalance leads to a progressive loss of shock absorption capacity and can cause plantar pain, muscle tension and posture problems.

9. Unstable or Hypermobile Foot (ligament laxity)

Unstable foot, or hypermobile foot, is characterized by excessive flexibility of the ligaments, which makes the arches unstable under load. This hypermobility leads to a lack of control of the foot when walking or running, making it difficult to maintain good balance. This type of imbalance is often associated with recurring pain and injuries, especially in physical activities that require great stability of the feet.

Causes and Consequences:
Ligament laxity, or hypermobility, is often genetic but can be aggravated by injury or poor training. Consequences include increased fatigue, frequent foot and ankle pain, and increased susceptibility to sprains and injuries due to foot instability.

10. Hammer Toe Syndrome (Toe Deformity)

Hammertoe syndrome primarily affects the toes, which bend abnormally downward, affecting the alignment of the arch. This deformity can cause uneven pressure distribution under the foot, disrupting the natural balance of the arches. As a result, the transverse arch can collapse, and painful pressure points can develop under the metatarsal heads, making walking uncomfortable.

Causes and Consequences:
Hammertoe can be caused by prolonged wearing of tight or high-heeled shoes, trauma, or neurological conditions. Consequences include pain in the forefoot, discomfort when walking, and an unbalanced distribution of pressure, which can affect the entire foot.

11. Hallux Valgus (oignon)

Hallux valgus, or “bunion,” is a lateral deviation of the first phalanx of the big toe, which can disrupt the function of the arches. When hallux valgus develops, it distorts the transverse arch, altering the natural balance of the foot. This imbalance can cause overloading of the other toes and increased tension on the internal longitudinal arch, making walking painful and sometimes difficult.

Causes and Consequences:
Causes of hallux valgus include genetic predisposition, wearing narrow or high-heeled shoes, and postural imbalances. Consequences include pain in the forefoot, difficulty moving, and sometimes chronic inflammation around the big toe joint.

12. Arch in Postural Overload

Postural overload arch is an imbalance caused by prolonged incorrect postures, which alter the distribution of loads on the foot. For example, a person who tends to stand with overload on the heels may develop a progressive collapse of the longitudinal arch. This imbalance is not necessarily permanent, but it can cause pain and tension if the posture is not corrected.

Causes and Consequences:
This imbalance is caused by prolonged poor posture, often associated with work habits (e.g. prolonged standing). Consequences include pain in the heels and inner arch, excessive fatigue and progressive impact on the muscles and ligaments of the foot.

13. Collapsing Arch of a Foot (Asymmetrical Foot)

A collapsed arch in one foot is an imbalance where only one arch is collapsed, while the other foot maintains its normal structure. This type of imbalance is often caused by natural anatomical differences or injuries that affect one foot more than the other. This asymmetry creates a postural imbalance, forcing the joints to compensate to maintain body alignment.

Causes and Consequences:
A collapsed arch in one foot can be caused by a specific injury, structural abnormalities, or body misalignment. Consequences include asymmetry in gait, overload on the unaffected foot, and chronic pain in the lower back and hips due to postural compensation.

14. Arch Collapse Due to Gravity (Fat Foot Syndrome)

This syndrome, also called “tired foot,” is manifested by a temporary collapse of the arches when the foot is stressed for long periods of time. It is particularly common in people who spend many hours on their feet. With fatigue, the ligaments and muscles temporarily weaken, causing a collapse of the arches. This imbalance may be temporary, but it leads to pain and instability if the feet are not properly supported.

Causes and Consequences:
This syndrome is mainly caused by muscle fatigue due to prolonged standing without adequate support. Consequences include diffuse pain in the feet and loss of stability, as well as increased muscle fatigue that can extend to the legs and lower back.

Imbalances in the arches of the foot can be caused by a variety of factors, including genetic, biomechanical, and environmental.

1. Genetic Factors
Some people are predisposed to arch imbalances due to genetic factors. For example, having a family member with flat or high arches can increase the risk of developing the same type of imbalance. Variations in the structure of the bones, ligaments, or tendons of the foot, often inherited, influence the shape and function of the arches. Congenital abnormalities, such as rigid flat feet present from birth, are also the result of genetic characteristics.

2. Poor posture and bad habits
Adopting poor posture, whether when walking, running or even standing, can gradually affect the structure of the arches. Habits such as standing in hyperpronation (where the foot collapses inwards) or excessive supination (where the foot leans outwards) influence the distribution of forces on the arches and can cause imbalances. Wearing poorly fitting shoes, especially those with inadequate support or high heels, is also a common cause of arch imbalances.

3. Injuries and trauma
Foot injuries, such as sprains, fractures or ligament tears, can weaken the supporting structures of the arches and cause dysfunction. An injury to the posterior tibial tendon, for example, which supports the medial arch, can lead to progressive collapse of the arch. Repeated or poorly treated injuries, especially during intense physical activities, also increase the risk of imbalance.

4. Aging and Diseases
As we age, the ligaments and tendons of the foot can weaken, and the muscles can lose their tone. This natural process can cause the arches, especially the medial longitudinal arch, to gradually collapse, leading to adult flatfoot. Certain diseases, such as arthritis, inflammatory diseases, or neurological conditions, can also contribute to the loss of stability of the structures that support the arches of the foot.

Arch imbalances and dysfunctions are not limited to localized foot pain. They impact the entire body and can cause multiple health problems, as the feet are the basis of body posture.

1. Foot and Leg Pain
People with flat feet or high arches may experience pain under the foot, in the metatarsals, heel, or even toes. This pain is often caused by overloading certain areas of the foot that are not designed to handle such pressure. Pain can also extend to the ankles, knees, and hips, as these joints have to compensate for the imbalance of the arches.

2. Instability and increased risk of injury
An imbalance in the arches, especially a flat foot, can lead to general instability of the foot. This increases the risk of twisting, sprains, and even fractures. People with imbalances in their arches are also more likely to suffer from repetitive motion injuries, such as stress fractures.

3. Impact on posture
Imbalanced feet affect posture by disrupting the alignment of the ankles, knees, hips, and spine. Flat feet, for example, tend to promote internal rotation of the knees (valgus), which can lead to pain and tension in the upper joints. High cavus feet, on the other hand, are often associated with lower back pain due to increased stiffness in the arch, which limits shock absorption and transfers more pressure to the upper body.

Other consequences:

1. Localized and Diffuse Pain

Imbalances in the arches of the foot are a common source of pain, not only in the plantar area, but also in the ankles, knees, hips and even the back. These pains can be acute or chronic and are often due to overloading certain parts of the foot and other joints that must compensate for the imbalance.

  • Plantar pain : Fallen arches, especially in flat feet, cause increased pressure on the soft tissues of the sole of the foot. This can lead to widespread pain, called plantar pain, that becomes more intense when walking or during prolonged standing activities.
  • Plantar fasciitis : Collapse of the medial longitudinal arch can put excess pressure on the plantar fascia, the connective tissue that supports the arch of the foot. This often leads to a painful inflammation called plantar fasciitis, characterized by severe heel pain, especially upon waking in the morning.
  • Joint pain : Imbalances in the arches of the foot, whether it’s flat feet, high arches, or overpronation, often force other joints to compensate. This can cause pain in the ankles, knees, hips, and lower back. Over the long term, these imbalances can also accelerate joint wear, increasing the risk of osteoarthritis.

2. Instability and Increased Risk of Injury

Arch imbalances compromise the natural stability of the foot, which can make people more prone to falls and injuries.

  • Lateral instability : A foot with a collapsed external longitudinal arch, or with a hyperpronated foot, is more unstable laterally, increasing the risk of ankle twists and sprains. These injuries can become frequent and even chronic if the arches are not properly supported.
  • Repetitive sprains : Imbalances, especially those related to hypermobility or partial collapse, make the foot vulnerable to repeated sprains. Increased instability in the foot forces the ligaments and surrounding muscles to work harder to compensate, increasing the risk of injury from sudden or unexpected movements.
  • Stress Fracture Risk : High arches and feet with a collapsed arch are more likely to suffer stress fractures. These fractures are caused by repetitive overloading of the bones, which becomes difficult to manage when the arches no longer function as a natural shock absorber.

3. Impact on Posture and Body Alignment

The feet are the foundation of the body, and imbalances in the arches can cause a cascade of compensations that affect overall alignment and posture. Misaligned feet not only impact the position of the knees and hips, but also the spine, which can lead to chronic pain and muscle tension.

  • Knee misalignment : Hyperpronation, for example, forces the knees to turn inward, creating an “X” alignment called genu valgum. This misalignment increases pressure on the inside of the knee, leading to pain and, in the long term, osteoarthritis. High-arched feet, on the other hand, promote an “O” alignment (genu varum), where the knees turn outward, which can cause pain on the outer parts of the knee.
  • Hip and Pelvic Issues : Imbalances in the arches also affect the position of the hips and pelvis. A flat foot can cause the hips to rotate internally, which affects pelvic balance. Conversely, a high arch can cause the pelvis to tilt. These pelvic misalignments create tension in the lumbar muscles and can cause lower back pain.
  • Lower Back Pain : Postural compensations due to imbalances in the arches of the foot often extend up the spine. In particular, the lower back experiences additional stress to maintain body balance. This stress can lead to chronic lower back pain as the muscles and joints of the spine are forced to compensate for dysfunctions in the feet.

4. Fatigue and Decreased Physical Resistance

Imbalances in the arches make movement less efficient because the body must expend more energy to maintain balance. This increased energy expenditure causes fatigue more quickly and decreased endurance.

  • Increased muscle fatigue : The lack of stability and cushioning in the arches causes the leg and back muscles to work harder to compensate for imbalances. This leads to increased muscle fatigue, even during everyday activities such as walking or standing.
  • Decreased physical endurance : Because of the extra energy required to maintain balance, people with arch imbalances often have reduced endurance. This can affect their ability to engage in prolonged physical activity and stand or walk for long periods of time without feeling tired or sore.

5. Progressive Foot Deformation and Callus Formation

Imbalances in the arches can also lead to deformities of the feet, toes and the formation of calluses due to overloading of certain areas.

  • Toe deformities : Imbalances, such as flat or high arched feet, increase pressure on certain parts of the foot, which promotes the development of deformities such as hammertoes or clawtoes. These deformities are not only painful, but they also affect the mobility of the foot.
  • Calluses and corns : When weight distribution is unbalanced, certain areas of the foot become overloaded, causing the skin to thicken and calluses or corns to form. These calluses can become painful when walking, and they are a sign of uneven pressure distribution under the foot.

6. Internal Torsion of the Tibia (in case of flat feet)

In the case of flat feet, the collapse of the internal longitudinal arch causes the foot to rotate excessively inward (pronation), which causes an internal twisting of the tibia . This abnormal rotation of the tibia affects the alignment of the knee and increases the pressure on the internal ligaments of the knee, which can lead to pain and instability.

  • Consequence : The inwardly rotating tibia puts stress on the knee, which can lead to pain in the knee area and even meniscus problems in the long term.

7. External Torsion of the Femur (related to flat feet)

When the foot is flat, the knee and femur often compensate by twisting externally to try to restore body balance. This can cause misalignment of the lower limb, with the knee rotating outward, which changes the distribution of loads in the joint.

  • Consequence : This external twist disrupts the body’s natural alignment, causing pain in the hip and pelvis. It can also worsen lower back pain as the spine compensates for the misalignment.

8. Lower back pain (lumbago)

Imbalances in the arches of the foot, especially flat feet, are often associated with lower back pain (lumbago). This is because when the feet do not adequately support the spine, it creates tension in the lower back to maintain posture.

  • Consequence : Lower back pain can become chronic if the imbalance is not treated, because the lower back must compensate for the lack of support from the feet.

9. Muscle Contractures in the Calves

With a high arch or flat foot, the calf muscles are often put under extra strain to stabilize the foot. This can lead to muscle tightness , cramps, and pain in the calves.

  • Consequence : Contractures in the calves reduce leg flexibility, affect the quality of walking and increase muscle fatigue.

10. Patellofemoral Syndrome (Pain in Front of Knee)

Misalignment due to arch imbalances often changes the orientation of the kneecap (patella), causing patellofemoral pain syndrome . This condition causes pain in the front of the knee, especially when going up and down stairs.

  • Consequence : Patellofemoral pain limits physical activity, which can negatively impact mobility and endurance.

11. Leg Length Inequality

Arch imbalances, especially if present in only one foot, can cause an apparent leg length discrepancy . This height difference causes the pelvis to tilt to one side, creating imbalances throughout the body.

  • Consequence : This inequality causes pain in the hips and lower back and can cause posture problems in the long term.

12. Achilles tendonitis

An imbalance of the arches can also lead to Achilles tendonitis , especially in people who have flat feet or hyperpronation. This type of tendonitis is caused by overloading the tendon due to poor alignment of the foot.

  • Consequence : Achilles tendonitis causes pain above the heel and can limit ankle mobility, making walking or running difficult.

13. Hip Pain (Ilio-Tibial Band Syndrome)

People with an imbalance of the arches, such as flat feet, may develop iliotibial band syndrome , where the band (a ligament that runs along the outer side of the thigh) is overused to stabilize the knee and pelvis.

  • Consequence : This syndrome causes pain in the hip and along the outer side of the thigh, especially when walking, running or climbing stairs.

14. Weakening of Postural Muscles

Imbalances in the arches force the body to compensate by using more postural muscles, such as those in the abdomen and lower back. Over time, this causes the postural muscles to weaken and fatigue prematurely , making it difficult to maintain body alignment.

  • Consequence : Weakened postural muscles lead to poor general posture, lower back pain and reduced physical endurance.

15. Peroneal Nerve Syndrome

Overpronation and flat feet can also compress the peroneal nerve , which runs along the outside of the leg, causing numbness, pain, and sometimes muscle weakness in the foot and ankle.

Consequence : Peroneal nerve syndrome can reduce the ability to flex the

Diagnosis of foot arch problems is essential to identify imbalances that can affect stability, mobility and posture. An accurate and rapid diagnosis allows us to better understand the source of pain and dysfunction, and to implement appropriate treatments to prevent more serious complications. Several diagnostic techniques are used, including physical examination, medical imaging and gait analysis. These approaches, often combined, offer a complete view of the condition of the foot arches and their impact on posture and locomotion.

A physical exam is the first step in diagnosing arch problems. The doctor or podiatrist will usually start by looking at the shape of the foot while standing and lying down. This can help visually detect abnormalities such as flat feet (where the arch is collapsed) or high arches (where the arch is too high). The professional may also look at the position of the toes, ankles, and heels to look for signs of hyperpronation (excessive internal rotation of the foot) or supination (excessive external rotation).

Physical tests often include specific maneuvers to assess the flexibility and stability of the arches. A common test is to have the patient stand on tiptoe to observe whether the inner arch rises. If the arch remains collapsed during this movement, this usually indicates a rigid flat foot, while a rise in the arch suggests a flexible flat foot.

Another useful test is assessing leg length and knee alignment, as imbalances in the arches can cause apparent differences in leg length and impact overall posture. The healthcare professional may also check joint mobility in the ankle, toes, and knees, as arch issues can directly impact the flexibility and range of motion of these joints.

Medical imaging is frequently used to obtain a more detailed view of the structure of the bones, ligaments, and joints of the foot. X-rays are the most commonly requested images, particularly to observe the bones of the internal and external longitudinal arch. On an X-ray, it is possible to measure the angle of the arch and detect structural abnormalities such as a collapsed talus (bone located in the internal arch) or a deviation of the metatarsal bones in the case of a collapsed transverse arch.

MRI (magnetic resonance imaging) is sometimes used for more in-depth investigations, especially if persistent pain suggests inflammation or injury to soft tissues, such as the plantar fascia or Achilles tendons. It is particularly useful for evaluating conditions such as plantar fasciitis, which is often associated with a collapsed medial arch, or tears in the tendons that support the arch, such as the posterior tibial tendon.

Ultrasound is another useful imaging method for examining the tendon and ligament structures of the foot. It allows real-time observation of the condition of the tendons and detection of microtears or inflammation in the supporting structures of the arches. This technique is non-invasive, rapid, and can be repeated regularly to monitor the evolution of certain inflammatory or degenerative conditions.

Gait analysis, or biomechanics, is an advanced diagnostic technique that involves observing the movement of the foot and body while walking. It is performed in specialized centers and often uses treadmills equipped with pressure sensors and cameras to analyze weight distribution, the angle of rotation of the foot, and the duration of contact of the different parts of the foot with the ground. This analysis allows for a detailed assessment of imbalances in the arches and their impact on gait.

The results of gait analysis can be used to determine whether a patient has hyperpronation, supination or asymmetrical load distribution on the foot. This type of analysis is particularly important for athletes or for people suffering from persistent pain in the feet, knees or back. The data obtained can be used to design custom orthoses, adapted to the specific dynamics of the foot, to correct the observed imbalances and improve comfort and gait performance.

Early diagnosis of foot arch imbalances is crucial to avoid complications and chronic pain. An untreated imbalance can, over time, cause progressive foot deformities, joint pain and muscle tension in the legs, hips and back. Arch imbalances can also cause postural disorders that affect the entire biomechanics of the body, leading to chronic lower back pain (such as lumbago), knee pain syndromes (patellofemoral syndrome) or tendonitis in the legs and feet.

Early diagnosis allows action to be taken before imbalances become structural pathologies that are difficult to treat. For example, a flat foot detected at a young age can be corrected with strengthening exercises, specific stretches and adapted orthotics, reducing the risk of future complications. Similarly, people with a pes cavus can benefit from preventive orthopedic support, which protects them from stress fractures and chronic pain related to overloading of the metatarsals.

Finally, early diagnosis is particularly beneficial for active people, such as athletes, who put a lot of strain on their feet. Early detection and management of an imbalance can prevent overuse injuries, improve performance, and preserve the integrity of the joints and muscles involved in the movement.

Imbalances in the arches of the foot can have significant consequences for posture, mobility and daily comfort. In order to prevent and correct these imbalances, it is essential to combine strengthening exercises, postural hygiene advice, wearing suitable shoes and, in some cases, the use of orthotic insoles or foot orthoses. These approaches can not only improve the stability and flexibility of the feet, but also reduce pain and prevent more serious complications.

Targeted strengthening and stretching exercises are an effective method to prevent and correct imbalances in the arches of the foot. By working the muscles, tendons and ligaments of the foot, these exercises help stabilize the arches and maintain proper alignment.

  • Plantar Fascia Stretches : For those with flat feet or those prone to plantar fasciitis, plantar fascia stretches are especially beneficial. Simply sit down, pull your toes toward you with your hand, and hold the stretch for 15 to 30 seconds. This exercise helps improve flexibility in the arch of the foot and reduces tension.
  • Strengthening the intrinsic muscles of the foot : The small muscles that support the arches are often weak. Exercises such as picking up small objects with the toes, scrunching (squeezing the toes together to scrunch a towel), and plantar flexion arch stretches are effective. These exercises strengthen the muscles that support the medial longitudinal arch and help prevent arch collapse.
  • Balance exercises : Balance training, such as standing on one leg or using a balance board, stimulates the stabilizing muscles in the feet and improves proprioception. These exercises are especially helpful for people with imbalances and can help strengthen supporting muscles, reduce instability, and prevent sprains.
  • Calf and Achilles Stretches : Hyperpronation, which is common in people with flat feet, is often associated with tightness in the calves and Achilles tendon. Stretching these muscles can help improve foot alignment. A simple stretch involves standing facing a wall with one leg behind you and pushing your heels toward the floor.
  • Arch Exercise (or “doming”) : This exercise specifically strengthens the inner arch by contracting the muscles without bending the toes. To perform this exercise, keep your toes on the ground and try to raise the arch by bringing the ball of your foot and heel together. This movement strengthens the inner arch muscles, which helps maintain proper form.

These exercises should be practiced regularly to achieve lasting results and can be combined with other approaches to maximize their effectiveness.

Good postural hygiene and wearing suitable footwear play a crucial role in preventing and correcting arch imbalances. Body posture, as well as the type of footwear, can directly influence the health of the feet and arches.

  • Maintaining Correct Posture : Aligned posture reduces pressure on the feet and promotes harmonious balance between joints. It is important to maintain an upright posture, with relaxed shoulders and aligned hips. Poor posture, such as overpronation or supination, can accentuate imbalances and increase the risk of pain and injury.
  • Supportive shoes : Choosing the right shoes is essential for people with arch imbalances. Shoes should have good arch support, a cushioned sole, and a wide toe box to allow for even weight distribution. Shoes that are too soft or unsupportive, such as flat sandals or high heels, are not suitable for people with flat or high arched feet. They can worsen imbalances and cause additional pain.
  • Footwear suitable for physical activities : For active people or athletes, specific shoes are recommended. Running shoes with good cushioning and arch support help absorb shock and stabilize the foot. It is also advisable to choose shoes according to the type of foot (flat, neutral or high arch) to maximize support and prevent injuries.
  • Alternate shoes : Alternating shoes on a daily basis can help prevent foot fatigue and reduce pressure on certain areas. It also helps to avoid stressing your feet in the same way all the time, which is beneficial for muscle balance and arch health.

Orthotics and foot orthotics are medical devices designed to correct arch imbalances and provide additional support where needed. They are often prescribed by healthcare professionals, such as podiatrists, and can be custom-fitted to meet each patient’s individual needs.

  • Role of orthotics : Orthotics support the arches of the foot by redistributing pressure and correcting misalignments. They help stabilize the foot and reduce pain by cushioning shock and correcting excessive pronation or supination. The insoles are made according to the specific characteristics of the foot, such as the shape of the arch, the angle of pronation, and can be worn in most types of shoes.
  • Flat Foot Orthotics : For flat feet, foot orthotics help support the internal longitudinal arch, reducing plantar fatigue and pain. They improve posture and help compensate for arch collapse, reducing joint pain associated with flat feet.
  • Orthotics for high arches : For people with high arches, orthotics provide additional support in the arch area, which helps balance the distribution of loads. These orthotics also reduce pressure on the heels and metatarsal heads, areas that are often painful in people with excessive arches.
  • Injury Prevention and Performance Improvement : Orthotic insoles are particularly beneficial for active individuals and athletes, as they minimize the risk of repetitive impact injuries and improve foot stability. By helping to maintain proper alignment, they help reduce chronic pain, improve posture, and increase physical performance.

Osteopathy plays an important role in the prevention, correction and treatment of imbalances of the arches of the foot. This holistic therapeutic approach considers the feet as an essential basis for the balance of the body and aims to restore the mobility and functionality of the anatomical structures through manual manipulation techniques. Osteopathy thus makes it possible to treat arch dysfunctions by taking into account their impact on the entire body, and it proves particularly effective in relieving pain and restoring mobility by working on imbalances in a holistic manner.

In osteopathy, the arches of the foot are seen as a structural and functional foundation. When the arches are out of balance, they can cause pain and problems in other parts of the body, such as the knees, hips, and lower back. The osteopathic approach relies on a thorough assessment to determine the specific imbalances of each arch (internal longitudinal, external longitudinal, and transverse) and to understand how they impact the patient’s posture and mobility.

The osteopath observes the patient’s overall posture, how they stand, walk, and any misalignments in the lower limbs. The analysis helps identify whether pain or dysfunction is related to flat feet, high arches, or other postural imbalances. The osteopath also assesses the flexibility of the foot joints and examines tension in soft tissues, such as tendons, ligaments, and fascia. Once the imbalances are identified, the osteopath develops a personalized treatment plan aimed at restoring balance and functionality to the arches.

Osteopathy uses different manipulation techniques to correct arch dysfunctions and improve foot mobility and comfort. These manipulations are gentle and precise, designed to release tension, stimulate blood circulation, and allow better alignment of structures.

  • Joint manipulation : These techniques are used to restore mobility to the joints of the foot and promote optimal alignment. In cases of flat feet, for example, joint manipulation can help restore a better position of the talus, a key bone of the medial longitudinal arch. This realignment helps support the arch and reduce pain and instability.
  • Myofascial techniques : Fascia, the connective tissues surrounding muscles, tendons and ligaments, play a vital role in supporting the arches. In cases of high arches, where the fascia can be too tight, myofascial techniques can release tension and restore flexibility to the arch. These techniques are useful for loosening the plantar fascia, reducing pain and promoting better weight distribution.
  • Soft tissue mobilizations : This type of manipulation is used to treat tendons and muscles, particularly in cases of tendonitis or plantar fasciitis, often associated with imbalances in the arches. By working on the calf muscles, the Achilles tendon and the intrinsic muscles of the foot, the osteopath helps to release areas of tension and strengthen the support structures.
  • Postural rebalancing techniques : The osteopath also works on the legs, pelvis and spine to correct postural compensations caused by imbalances in the arches. By realigning the entire body, these techniques help reduce pain related to internal torsion of the tibia or external torsion of the femur often associated with flat feet.

Feedback shows that osteopathy provides significant results in the treatment of imbalances in the arches of the foot, particularly for people suffering from chronic pain or functional limitations. Here are some concrete examples of cases where osteopathy has proven beneficial:

  • Painful Flatfoot Case : A patient with flatfoot and chronic plantar fasciitis consulted an osteopath for persistent heel and bottom of foot pain. After several manipulation sessions to realign the arch and release tension in the plantar fascia, the patient reported a significant decrease in pain and improved foot stability, allowing him to resume daily activities without discomfort.
  • Pes cavus and knee pain : A patient suffering from pes cavus had developed knee pain due to overloading of the metatarsal heads. The osteopath worked on the fascia and joints of the foot to improve the flexibility of the arch and also manipulated the knees to reduce tension. After a few sessions, the patient felt better walking comfort and reduced knee pain.
  • Postural correction following an excessively pronated foot : An athlete suffering from lower back pain and repeated ankle twists due to hyperpronation was treated by an osteopath. By working on both the feet and the postural compensations in the lower back and legs, the osteopath helped to reduce the lower back pain and improve ankle stability, allowing the patient to regain better balance and a more stable posture.

The results of osteopathy in correcting arch dysfunctions are often positive, providing not only pain relief, but also improved mobility and quality of life. Osteopathy’s ability to treat problems at the source, by addressing dysfunctions in a holistic context, makes this approach a valuable asset for the health of the arches of the foot and for the prevention of complications. Conclusion: Taking Care of Your Arches for an Active Life

The arches of the foot play a crucial role in maintaining stability, cushioning, and mobility of the body. Good health of the arches is essential to avoid pain, maintain postural alignment, and allow a smooth and balanced gait. Whether through prevention or corrective techniques, it is possible to maintain or restore the health of the feet to enjoy an active life without pain.

Key points to maintain balanced arches include a combination of proactive care and tailored measures. Strengthening and stretching exercises for the muscles and tendons of the foot are essential to strengthen the arches and prevent their collapse. At the same time, the importance of good postural hygiene and wearing suitable footwear cannot be underestimated; they play a major role in distributing loads and maintaining posture. For people with pronounced imbalances, the use of orthopedic insoles or custom-made foot orthoses is recommended to correct dysfunctions and improve comfort. Finally, osteopathy offers a complementary therapeutic approach, allowing mobility to be restored and pain to be relieved by working on the anatomical structures of the foot in a comprehensive manner.

To ensure the health of your arches and prevent pain, here are some recommendations:

  1. Incorporate strengthening exercises : Spend a few minutes a day doing foot strengthening and stretching exercises, especially if you have a history of plantar imbalances or pain.
  2. Choose appropriate footwear : Choose shoes with good arch support, adequate cushioning and a wide enough toe box to avoid compressing your feet.
  3. Adopt correct posture : Good posture reduces excess load on the feet. Be sure to walk with straight hip and shoulder alignment to distribute weight evenly.
  4. Use orthotics if needed : If you have specific imbalances or pain, consult a podiatrist to assess the need for custom orthotics.
  5. Consult an osteopath : In the event of persistent pain or postural problems related to the arches, osteopathy can offer relief and correction by working on all the musculoskeletal structures.

By taking care of your arches, you can improve your stability, protect your joints, and maintain your long-term mobility. These simple but effective actions contribute not only to the health of your feet, but also to that of your entire body, allowing you to live a full, active and pain-free life.

References on the Anatomy and Function of the Arches of the Foot

  1. Gray, H., & Standring, S. (2008). Gray’s Anatomy: The Anatomical Basis of Clinical Practice. Churchill Livingstone.
    • A reference work detailing the anatomy of the feet, arches, and structures involved in foot support and function.
  2. McPoil, T. G., & Cornwall, M. W. (1994). « Relationship between neutral subtalar joint position and pattern of rearfoot motion during walking. » Foot & Ankle International, 15(3), 141-145.
    • This article explores foot biomechanics and the relationships between foot joint position and gait, providing insights into the effects of arch imbalances.

References on Diagnostic Techniques

  1. Gough, P. S., & Tennent, T. D. (2007). « The impact of foot posture on lower limb injury in adult athletes. » Journal of Foot and Ankle Research, 1, 26-34.
    • A study on the impact of foot imbalances on injuries, addressing methods of assessment and diagnosis.
  2. Nester, C., & Bowker, P. (2000). « The use of three-dimensional gait analysis in the examination of foot and ankle pathology. » Journal of Foot and Ankle Research, 10(3), 237-246.
    • This document covers gait analysis techniques and their application in the diagnosis of foot pathologies.

References on Exercises and Prevention of Arch Imbalances

  1. Mulligan, E. P., & Cook, P. G. (2013). « The Effect of Foot Orthoses on the Kinematics and Kinetics of the Lower Limb. » Journal of Orthopaedic & Sports Physical Therapy, 43(2), 105-112.
    • This study examines the impact of orthotic insoles and rehabilitation exercises to prevent and treat foot arch imbalances.
  2. Tiberio, D. (1988). « The Effect of Excessive Pronation on Lower Extremity Injury in Athletes. » Journal of Orthopaedic & Sports Physical Therapy, 27(3), 197-202.
    • An in-depth article on the relationship between overpronation and injury, as well as corrective exercises to support the arches.

References on the Role of Osteopathy and Orthotics in Foot Health

  1. Gélis, A., Dupeyron, A., & Pelissier, J. (2011). « Rehabilitation and prevention of musculoskeletal disorders related to foot biomechanics. » Annals of Physical and Rehabilitation Medicine, 54(5), 327-335.
    • An article that explores the importance of osteopathic treatments and orthotics in the prevention and treatment of musculoskeletal dysfunctions.
  2. Lederman, E. (2010). Fundamentals of Manual Therapy: Musculoskeletal Articular Dysfunction. Churchill Livingstone.
    • This book offers a comprehensive approach to manual techniques, including osteopathic techniques for joint dysfunctions, including those of the feet.
  3. Roukis, T. S., & Scherer, P. R. (1995). « The Effectiveness of Functional Foot Orthoses in the Treatment of Lower Extremity Musculoskeletal Pathology. » Journal of the American Podiatric Medical Association, 85(5), 199-208.
    • A study on the effectiveness of functional orthoses in the treatment of arch imbalances and associated pathologies of the lower limb.

References on Adapted Shoes and Postural Hygiene

  1. Barnes, R., Wheat, J. S., & Milner, C. E. (2012). « Footwear and its impact on foot and lower limb function in individuals with flat and high-arched feet. » Journal of Foot and Ankle Research, 5(1), 4.
    • This article discusses the influence of footwear on foot function in people with flat feet and high arches, and offers recommendations for appropriate footwear.
  2. Rome, K., & Brown, C. (2004). « Randomized Clinical Trial Into the Impact of Biomechanical Foot Orthoses on Knee Pain and Function. » Arthritis Care & Research, 51(3), 466-474.
    • Study on the impact of orthoses and adapted shoes on pain and dysfunction, particularly at the knee level.