Featured

Biomechanics and its related study deal with the forces that act against the body and affect things like our movement. In podiatry, biomechanics are studied to determine the movement of the ankle, toes, and the foot, as well as the forces that impact them. Podiatrists who train in this specialty are able to effectively diagnose and treat conditions that affect people’s everyday movement.

Regardless of your lifestyle, age, or any other factors, many people experience foot problems throughout their lives. Twists and turns, improper balance, and added weight are just a few of the things that can add stress to the feet. These issues can also limit our bodies’ mobility that we often take for granted. Pain in the feet and ankles can also trickle up towards the lower legs, knees, hip, and even back area. This affects the way you move around on a daily basis.

Biomechanics and its related study deal with forces that act against the body and affect things like our movement. In podiatry, biomechanics are studied to determine the movement of the ankle, toes, and the foot, as well as the forces that impact them. Podiatrists who train in this specialty are able to effectively diagnose and treat conditions that affect people’s everyday movement.

Regardless of your lifestyle, age, or any other factors, many people experience foot problems throughout their lives. Twists and turns, improper balance, and added weight are just a few of the things that can add stress to the feet. These issues can also limit our bodies’ mobility that we often take for granted. Pain in the feet and ankles can also trickle up towards the lower legs, knees, hip, and even back area. This affects the way you move around on a daily basis.

The history of studying biomechanics dates back to ancient Egypt at around 3000 B.C., where evidence of professional foot care has been recorded. Throughout the centuries, advances in technology, science, and an understanding of the human body led to more accurate diagnosis of conditions such as corns for example. In 1974, biomechanics garnered a large audience when Merton Root founded Root Lab to make custom orthotics. He proposed that corrections of certain conditions could be implemented to gain strength and coordination in the area. Due to his research, we still use his basic principle of foot orthotics to this day.

As technology has improved, so have the therapeutic processes that allow us to correct deficiencies in our natural biomechanics. Computers can now provide accurate readings of the forces, movements, and patterns of the foot and lower leg. Critical treatment options can be provided to patients now who suffer from problems that cause their biomechanics to not function naturally. The best results are now possible thanks to 3D modeling and computing technologies that can take readings and also map out what treatment will do to the affected areas.

These advanced corrective methods were able to come to light thanks to an increase in both the technologies surrounding biomechanics and also the knowledge of how they work naturally. For example, shoe orthotics are able to treat walking inabilities by realigning the posture deviations in patients caused by hip or back problems. Understanding foot biomechanics can help improve movement and eliminate pain, stopping further stress to the foot. Speak with your podiatrist if you have any of these problems.

According to the American Diabetes Association (ADA), diabetes is a condition that affects approximately 23.6 million Americans.  Around 750,000 new cases are diagnosed each year, and the disease’s most common form, Type 2 diabetes, makes up for 90 to 95 percent of these cases.  Type 2 diabetes is especially prevalent among older Americans, those who are obese, and those who lead sedentary lifestyles.

Complications of the disease may lead to several foot and ankle-related conditions.  The loss of nerve sensation, or neuropathy, can cause diabetics to lose feeling at the bottom of the feet and therefore leave them unaware of pain, pressure, and heat.  Decreased circulation is another complication of diabetes that can slow down the healing of wounds and injuries; this can lead to the development of foot ulcers.

To prevent foot ulcers from forming, diabetics should examine their feet every day for small cuts and wear shoes that curtail pressure.  Constant monitoring for the risk factors associated with ulcer formation can allow for early detection and therefore lessen the possibility of ulcers or, even worse, amputation.  The removal of calluses and ingrown toenails should be left to the podiatrist to avoid improper removal and possible infection.

Diabetic patients may also experience foot deformities due to complications in their feet, such as limited joint mobility, muscle atrophy, and decreased fat padding.  These complications can increase pressure in certain areas of the foot, which in turn can cause certain deformities, such as hammertoe, to form.  Another deformity, Charcot foot, develops due to the collapsing of microfractures in the bones of the feet.  The resulting deformity is a foot that is flattened and wider in appearance.

To help minimize pressure and prevent the development of these diabetes-related foot and ankle conditions, your podiatrist may consider using orthotics or special shoes.  Charcot foot may be treated using walkers, custom orthotic insoles, or non-weight-bearing or rigid weight-bearing casts or braces.  In more serious cases, surgery may be considered to treat more developed deformities.  Ulcers can be further cared for with the help of proper diet, medication to control glucose, intensive wound care, and infection treatment.

Our bones are important aspects of our body and they are constantly changing. The heavier the workload for a bone, the more likely it is that calcium will be placed in it. When a bone isn’t used often, there won’t be much calcium within it. When stress from repetitive loads prevent the bone from being able to repair itself, cracks will start to form. Stress fractures are defined as cracks in a bone that result from repetitive force, such as overuse.

The most common cause of stress fractures is a sudden increase in intensity and duration of physical activity. For example, if you begin to run long distances without working your way into doing so, you will be more likely to develop a stress fracture.

Common symptoms of stress fractures are pain and swelling near the weight bearing area on the injured bone. When initial x-rays are performed, it is possible that the fracture will not show up. However, once the stress on the area continues, the damage will increase, and the fracture will be severe enough to show up on an x-ray. Certain parts of the foot are more likely to develop stress fractures than others. Areas that typically have these fractures are: the metatarsals, the navicular bone, the calcaneus, tibia, and fibula.

Since women are at an increased risk of developing osteoporosis, they are twice as likely as men to sustain a stress fracture. Additionally, old age causes a decrease in bone mineral density which is why elderly people are also likely to develop these fractures.

It is important for you to be professionally diagnosed by a podiatrist if you suspect you have a stress fracture, because there are other injuries that can easily be mistaken for a fracture.  Sprains, strains, shin splints, plantar fasciitis, and Morton’s neuroma can all easily be mistaken for stress fractures in the foot. Your podiatrist will likely ask you a series of questions to determine what type of pain you are experiencing. These questions will help your doctor identify whether you have a stress fracture.

The best method of treatment for a stress fracture is rest. Additionally, a walking boot, cast, or crutches, will help rest the area that is injured. The typical healing time for stress fractures is 4-12 weeks, however this depends on which bone is involved.

One out of ten broken bones is reported to be in the feet. When an object crushes, bends, or stretches the bone beyond acceptable ranges, bones break. A break in the foot is either a fracture or a straight break.

The location of any break can tell you how the break happened. Toes, for instance, break typically as a result of something being kicked hard and with great force. Heel breaks almost always are a result of an improper landing from a tall height. Twists or sprains are the other two frequent occurrences. As with all usual breaks, they result from unexpected accident or sudden injury. As with stress fractures, breaks form as a process over time from repeated stress on already present cracks. Runners, dancers, and gymnasts are the usual athletes who receive this type of break. Stress fractures result from incredible pressure on the feet. It is no surprise these athletes bear the majority of reported fractures.

Pain, swelling, bruising, and redness are all indicative of the typical symptoms from a broken foot. Severe pain—to the point of not being able to walk—usually depends on the location of the break in the foot. Toes are on the lower scale of pain threshold, but heels are high, as are a few other particular bones. As the severity of the broken foot increases, symptoms like blueness, numbness, misshaping of the foot, cuts, or deformities will become apparent. These symptoms indicate the need to see a medical professional with access to an x-ray facility.

Prior to seeing a specialist, precautions should be taken to reduce pain and swelling. Elevate and stabilize the foot, and refrain from moving it. Immobilization of the foot is the next priority, so creating a homemade splint is acceptable. Keep in mind that while creating a splint, any increase of pain or cutting off blood circulation means that the splint should be removed immediately. Use ice to decrease swelling and relieve pain symptoms.

When dealing with a medical center, the patient should note that the treatment can vary. The treatment will depend on the severity of the fracture and the cause of the break. Crutches, splits, or casts are common treatments while surgery has been known to be used in more severe cases in order to repair the break in the bones.