Stress fractures are injuries to bones, secondary to chronic stress or overload. Stress fractures are more common in women than men. The bones of the foot are under constant load. If there is not proper support for high or chronic loads to the bones, they can weaken and begin to develop a small crack known as a stress fracture. Rest, proper nutrition, evaluation of vitamin D levels, and immobilization are early effective treatments.
For more severe stress fractures or chronic, non-healing fractures regenerative treatments can be very helpful delivering quick healing to these injuries. Piezo and LLLT (Laser Therapy) can stimulate rapid bone healing. Additionally, Bio-D (hPM) injections for bone mass are able to quickly mend injured bones which is ideal for the chronic or non-healing bone injury.
Typical symptoms of any foot stress fracture or ankle stress fracture may include pain, swelling, and sometimes bruising. If you believe that you have an ankle or foot stress fracture, call Hecker Sports and Regenerative Medicine Fort Collins, and we will get you in immediately.
A fracture in the foot generally comes in two forms: stress fractures and bone fractures. Stress fractures most often occur in forefoot bones extending from the toes to the middle of the foot. A stress fracture is a tiny fissure or crack that is in the bone surface.
This injury can happen with swift escalations in exercise (activities like walking or running for longer times or distances), incorrect training techniques, or it could be a change in the surface you are exercising on.
Bone fractures are breaks that extend through the entire bone. These types of fractures can result in a bone that no longer lines up or can be stable, where it is a “clean break” through the bone without any displacement. Bone fractures are from trauma: from twisting or dropping a heavy object on your foot.
A broken bone that does not break through the skin is called a closed fracture. A broken bone that breaks through the skin is called an open fracture.
Because of complex foot structures, there are other more specific types of fractures that can happen. The ankle – foot relationship can become compromised by an ankle-twisting injury, which can tear the tendon that is attached and pull a small piece of the bone away from where it belongs.
Because the relationship between the foot and ankle is very complex, it is imperative to have a skilled podiatrist examine the damage to determine the root cause of the pain or symptoms you may be experiencing. Hecker Sports and Regenerative Medicine helps to unravel complex ankle and foot conditions, offering patients cost-effective and non-surgical options.
Dr. Hecker listens carefully to your symptoms, your habits and delivers an accurate diagnosis of your condition. Hecker Sports and Regenerative Medicine Fort Collins partners with you to determine the best course of treatment.
Dr. Hecker graduated Colorado State University in Fort Collins before completing his Doctor of Podiatric Medicine degree from the Dr. William M. Scholl College of Podiatric Medicine in Chicago. He completed a two-year podiatric surgical residency at St. Mary's of Nazareth Hospital in Chicago, before entering private practice in 1996.
Since then he as developed effective regenerative and non-surgical treatments for all types of biomechanical injuries and chronic pain.
More about Thomas Hecker DPM and his team.
The procedures we offer at Hecker Sports and Regenerative Medicine are comparatively inexpensive and are much more complete having a substantial recovery than other treatments.
There are a lot of people who are not good candidates for surgery simply because of where they are in life, like having to take three months off for surgery.
Our protocols allow patients to recover well without necessarily having to take time off of work. We are here to get patients better in the midst of doing “life”.
Hecker Sports and Regenerative Medicine is doing more that just helping to make a body better or building a better scar; we’re restoring the tissue back to its whole, how it was originally intended to function.