Osteoporosis and Foot Fractures: Managing Low Bone Density in Foot and Ankle Care

Medically reviewed by Dr. Tom Biernacki, DPM — Board-Certified Podiatric Surgeon — Balance Foot & Ankle, Howell & Bloomfield Hills, MI. Last updated April 2026.

Medical Review

Medically reviewed by: Dr. Thomas Biernacki, DPM — Board-certified podiatrist and foot surgeon at Balance Foot & Ankle, Southeast Michigan. Over 15 years of clinical experience diagnosing and treating osteoporotic foot fractures and managing fall risk in patients with bone density loss.
Last updated: April 2026

Quick Answer

Osteoporosis significantly increases the risk of foot fractures because weakened, porous bone cannot withstand the normal forces of walking and standing. Foot fractures in patients with osteoporosis can occur with minimal trauma — stepping off a curb, stumbling slightly, or simply walking — that would never fracture healthy bone. The metatarsals, calcaneus (heel bone), and ankle bones are the most commonly affected structures. Osteoporotic foot fractures heal more slowly, are more prone to complications (nonunion, malunion, hardware failure), and often signal the need for comprehensive osteoporosis evaluation and treatment to prevent future fractures throughout the skeleton. Early diagnosis, bone health optimization, fall prevention, and protective footwear are essential for preventing the cascade of fractures that osteoporosis can produce.

Table of Contents

• Quick Answer
• Understanding Osteoporosis and Your Feet
• Why the Feet Are Vulnerable
• Metatarsal Stress and Insufficiency Fractures
• Calcaneal (Heel Bone) Fractures
• Ankle Fractures in Osteoporotic Bone
• Navicular Insufficiency Fractures
• Diagnosis Challenges
• Treatment Approach for Osteoporotic Fractures
• Surgical Considerations
• Bone Health Optimization
• Fall Prevention for Foot Health
• Best Products for Bone Protection
• Safe Exercise with Osteoporosis
• Most Common Mistake
• Warning Signs You Need Immediate Care
• Watch Our Video
• Frequently Asked Questions
• Sources
• Schedule Your Appointment
• Related Articles

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Understanding Osteoporosis and Your Feet

Osteoporosis — literally “porous bone” — is a systemic skeletal disease characterized by reduced bone density and deterioration of bone microarchitecture, resulting in increased bone fragility and susceptibility to fracture. While most osteoporosis discussions focus on hip fractures and vertebral compression fractures, the feet contain 26 bones per foot (52 total — nearly one-quarter of all bones in the body) that are equally affected by the bone density loss that defines osteoporosis. Yet foot fractures in osteoporotic patients are frequently underrecognized, underdiagnosed, and undertreated.

Approximately 10 million Americans have osteoporosis and another 44 million have low bone density (osteopenia) that places them at increased fracture risk. Women are affected more than men due to the accelerated bone loss that follows menopause — estrogen plays a critical role in maintaining bone density, and the decline in estrogen production after menopause removes this protective effect. By age 80, the average woman has lost approximately 30 percent of her peak bone mass, with the greatest losses occurring in the first 5 to 10 years after menopause.

The relationship between osteoporosis and foot fractures is bidirectional. Osteoporosis increases the risk of foot fractures by weakening the bones. But foot fractures also worsen osteoporosis by causing immobility, decreased weight-bearing, and muscle atrophy — all of which accelerate further bone loss. A single osteoporotic foot fracture that leads to several weeks of immobilization can produce measurable additional bone density loss that increases the risk of the next fracture. Breaking this cycle requires treating both the fracture and the underlying bone disease simultaneously.

Why the Feet Are Vulnerable

The feet are particularly vulnerable to osteoporotic fractures for several anatomical and biomechanical reasons. First, the metatarsal bones are long, slender structures that must bear the full weight of the body during standing and walking — their elongated shape creates high bending stresses during normal gait, and osteoporotic bone cannot resist these bending forces as effectively as healthy bone. Second, the calcaneus (heel bone) is composed primarily of cancellous (spongy) bone, which loses density faster than cortical (dense) bone during osteoporosis — making the calcaneus disproportionately weakened.

Third, the feet bear the cumulative impact of every step throughout the day — each step generates ground reaction forces of 1 to 1.5 times body weight during walking and 2 to 3 times body weight during stair climbing. Over thousands of steps daily, these repetitive forces accumulate, and bone that lacks adequate density cannot remodel fast enough to repair the microdamage from normal loading. This mismatch between loading demands and bone repair capacity is the fundamental mechanism of insufficiency fractures — fractures that occur from normal, everyday forces applied to abnormally weak bone.

Fourth, impaired balance and proprioception — common in older adults with osteoporosis — increase the frequency and severity of missteps, stumbles, and falls that concentrate abnormal forces through the feet. A simple stumble that a young person would absorb without consequence can generate sufficient force to fracture an osteoporotic metatarsal or ankle. The combination of weakened bone and increased mechanical insult creates a high-risk environment for foot fractures.

Metatarsal Stress and Insufficiency Fractures

Metatarsal insufficiency fractures are the most common osteoporotic foot fractures and frequently occur without any identifiable traumatic event. The patient simply notices progressive forefoot pain that worsens with walking and eventually becomes severe enough to cause limping. There is often no recalled injury, fall, or impact — the fracture develops gradually as normal walking forces exceed the osteoporotic bone’s structural capacity.

The second and third metatarsals are most commonly affected because they bear the highest proportion of forefoot loading during the push-off phase of gait. These fractures may present as a vague aching that the patient attributes to normal aging, foot arthritis, or an ill-fitting shoe — this vague presentation delays diagnosis, often by several weeks. By the time imaging is obtained, the fracture may have progressed from a stress reaction to a complete fracture with displacement.

Diagnosis requires a high index of clinical suspicion in any patient with osteoporosis or osteoporosis risk factors who develops new forefoot pain. Initial plain radiographs may appear normal — early stress fractures are frequently invisible on standard X-rays. If clinical suspicion is high despite normal radiographs, MRI provides the sensitivity needed to detect early insufficiency fractures before they become complete. Treatment involves protected weight-bearing in a stiff-soled shoe or walking boot for 6 to 8 weeks, with close radiographic follow-up to ensure healing is progressing appropriately. Osteoporotic bone heals more slowly than normal bone, and healing times may be extended by 50 to 100 percent compared to age-matched patients with normal bone density.

Calcaneal (Heel Bone) Fractures

Calcaneal insufficiency fractures occur when the weakened cancellous bone of the heel body can no longer support the compressive forces of standing and walking. The calcaneus is composed of approximately 90 percent cancellous bone — the type of bone most severely affected by osteoporosis — making it one of the most vulnerable bones in the foot to insufficiency fracture.

Patients present with deep heel pain that is often mistaken for plantar fasciitis. However, unlike plantar fasciitis (which produces pain at the medial plantar heel, worst with the first steps in the morning), calcaneal insufficiency fractures produce diffuse heel pain that worsens throughout the day with cumulative weight-bearing, is tender with side-to-side compression of the heel (the calcaneal squeeze test), and does not improve with typical plantar fasciitis treatments. Any patient with osteoporosis who develops heel pain that does not respond to plantar fasciitis treatment within 4 to 6 weeks should be evaluated for calcaneal insufficiency fracture with MRI.

Treatment of calcaneal insufficiency fractures requires 6 to 12 weeks of protected weight-bearing in a walking boot, with progression to regular shoes guided by symptom resolution and imaging evidence of healing. Non-displaced calcaneal insufficiency fractures almost always heal with conservative management, though the prolonged immobilization required accelerates further bone loss — making concurrent treatment with osteoporosis medications essential to prevent the next fracture.

Ankle Fractures in Osteoporotic Bone

Ankle fractures in patients with osteoporosis present unique challenges because the weakened bone does not hold surgical hardware (screws, plates) as securely as normal bone. The combination of comminuted (fragmented) fracture patterns, poor bone quality for fixation, and impaired healing capacity makes osteoporotic ankle fractures among the most technically challenging injuries in foot and ankle surgery.

Low-energy ankle fractures from simple falls, missed steps, or twisting injuries on uneven surfaces are common in osteoporotic patients. The fracture may involve one, two, or all three malleoli (the bony prominences on either side of the ankle), and the weakened bone may fragment in complex patterns that are difficult to reconstruct surgically. Fracture-dislocations — where the ankle joint dislocates in addition to fracturing — carry particularly poor prognosis in osteoporotic bone because the ligaments may avulse (pull off) bone fragments that are too small and fragile to repair.

Surgical fixation in osteoporotic bone requires specialized techniques: locking plates (which do not rely on bone-to-screw compression for stability), longer screws that engage cortical bone on both sides of the fracture, augmentation of screw purchase with bone cement or calcium phosphate, and occasionally supplemental external fixation. Despite these technical adaptations, hardware failure rates are higher in osteoporotic bone — screws may cut through the weakened bone under loading forces, and plates may loosen before the fracture has healed completely.

Non-operative treatment of stable ankle fractures in osteoporotic patients requires prolonged immobilization (often 8 to 12 weeks compared to 6 weeks in normal bone) and more gradual return to weight-bearing. Close radiographic follow-up is essential because osteoporotic fractures can displace during the healing process, even within a cast or boot, if the bone is too weak to maintain alignment under gravitational forces.

Navicular Insufficiency Fractures

The navicular bone — a keystone-shaped bone at the apex of the medial longitudinal arch — is susceptible to insufficiency fractures in osteoporotic patients because it bears significant compressive and shearing forces during the midstance phase of gait. The central one-third of the navicular has particularly poor blood supply (a vascular watershed zone), which compounds the healing difficulties already present in osteoporotic bone.

Navicular insufficiency fractures present as medial midfoot pain that worsens with walking and standing. The pain is often attributed to posterior tibial tendinitis or midfoot arthritis because the navicular sits at the junction of these commonly painful structures. Clinical examination reveals point tenderness directly over the navicular body, and pain with passive inversion and eversion of the midfoot. MRI is the imaging modality of choice for early detection, as plain radiographs frequently miss navicular stress fractures until they are advanced.

Treatment of navicular insufficiency fractures requires strict non-weight-bearing for 6 to 8 weeks to allow healing in the vascular watershed zone. The combination of poor blood supply and osteoporotic bone creates a high risk of nonunion — failure of the bone to heal — if weight-bearing is not restricted adequately. Concurrent treatment with vitamin D supplementation, calcium, and osteoporosis medications is essential to optimize the healing environment.

Diagnosis Challenges

Osteoporotic foot fractures are frequently missed or delayed in diagnosis for several reasons. Many patients and clinicians attribute foot pain in older adults to arthritis, tendinitis, or “normal aging” without considering insufficiency fracture. The absence of a clear traumatic event (no fall, no impact, no twist) leads patients to assume the pain is not from a fracture — but insufficiency fractures by definition occur without significant trauma. Additionally, initial plain radiographs are often negative for early stress and insufficiency fractures, providing false reassurance that no fracture exists.

The clinical red flags that should prompt fracture investigation in patients with osteoporosis include new foot pain that is progressive rather than fluctuating, pain that worsens specifically with weight-bearing and improves with rest, focal tenderness directly over a bone (rather than over a tendon or joint), swelling localized over a specific bone, and foot pain that does not respond to typical conservative treatments for common conditions like plantar fasciitis or tendinitis.

When clinical suspicion for insufficiency fracture is high despite normal radiographs, MRI should be obtained promptly. MRI detects bone marrow edema — the earliest sign of stress reaction and insufficiency fracture — with sensitivity approaching 99 percent. Early detection allows treatment before the fracture progresses to displacement, which significantly improves outcomes and reduces healing time. Bone scan (nuclear medicine) is an alternative when MRI is unavailable or contraindicated but is less specific than MRI for characterizing the exact pathology.

Treatment Approach for Osteoporotic Fractures

Treatment of osteoporotic foot fractures requires addressing both the fracture itself and the underlying bone disease. Treating the fracture without treating the osteoporosis is like patching a roof without fixing the structural damage — the next fracture is only a matter of time. Every osteoporotic foot fracture should trigger a comprehensive bone health evaluation and treatment plan if one is not already in place.

Fracture treatment in osteoporotic bone follows similar principles to normal bone with key modifications: longer immobilization periods (bone heals more slowly in osteoporotic patients), more conservative weight-bearing progression (weaker bone has a lower threshold for re-fracture during healing), closer radiographic surveillance (to detect displacement that may occur during healing), and more aggressive fall prevention measures (to prevent additional fractures during the vulnerable healing period).

Most non-displaced osteoporotic foot fractures (metatarsal insufficiency fractures, calcaneal insufficiency fractures, navicular stress fractures) heal with conservative treatment — protected weight-bearing in a walking boot or stiff-soled shoe for 6 to 12 weeks. Healing should be confirmed with imaging before transitioning to regular shoes and resuming normal activity. Displaced fractures, fractures with significant comminution, or fractures in critical locations (ankle joint, Lisfranc complex) may require surgical fixation with the specialized techniques described above.

Surgical Considerations

When surgery is necessary for osteoporotic foot fractures, several modifications to standard surgical techniques improve outcomes in weakened bone. Locking plate technology provides fixed-angle stability that does not rely on friction between the screw head and bone — this is critical in osteoporotic bone where the cortex is too thin and porous to generate reliable screw-bone compression. Longer screws that cross the fracture site and engage cortical bone on the far side improve purchase. Augmentation with calcium phosphate bone cement or polymethylmethacrylate (PMMA) around screws increases holding strength in porous bone.

Post-operative management in osteoporotic patients includes extended non-weight-bearing periods (often 2 to 4 weeks longer than standard protocols), slower progression through weight-bearing phases, and aggressive bone health optimization to support healing. Physical therapy focuses on maintaining range of motion and preventing deconditioning during the extended immobilization period while avoiding loading that could stress the surgical construct beyond what the weakened bone can support.

Bone Health Optimization

Optimizing bone health is essential both for healing the current fracture and preventing future fractures. Every patient who sustains an osteoporotic foot fracture should have a DEXA scan (dual-energy X-ray absorptiometry) if not performed within the past 2 years, vitamin D level testing, calcium intake assessment, and evaluation for secondary causes of osteoporosis (thyroid disease, medication effects, malabsorption).

Vitamin D deficiency is extremely common in osteoporotic patients and directly impairs both calcium absorption and bone healing. Target vitamin D levels of 30 to 50 ng/mL should be achieved through supplementation — most adults need 1,000 to 4,000 IU of vitamin D3 daily, with higher doses required for those with severe deficiency. Calcium intake should total 1,200 mg daily from diet and supplements combined. Calcium citrate is preferred over calcium carbonate in older adults because it does not require stomach acid for absorption (which may be reduced in the elderly or in patients taking acid-reducing medications).

Osteoporosis medications — including bisphosphonates (alendronate, risedronate, zoledronic acid), denosumab, teriparatide, romosozumab, and abaloparatide — reduce future fracture risk by 40 to 70 percent depending on the medication and skeletal site. Teriparatide and abaloparatide (anabolic agents that stimulate new bone formation) are particularly valuable for patients with severe osteoporosis or multiple fractures because they actively build new bone rather than simply slowing bone loss. The choice of medication should be made in consultation with an endocrinologist or primary care physician experienced in osteoporosis management.

Fall Prevention for Foot Health

Preventing falls is as important as treating bone density for reducing fracture risk in osteoporotic patients. Most osteoporotic foot and ankle fractures result from falls or missteps — reducing fall frequency directly reduces fracture incidence. Fall prevention addresses multiple risk factors simultaneously.

Footwear choices significantly affect fall risk. Shoes with low heels (less than 1 inch), wide soles, firm heel counters, and non-slip outsoles provide the most stable base of support. Avoid walking in socks or stockings on hard floors, wearing backless shoes or flip-flops, and using worn-out shoes with compressed midsoles. Properly fitting shoes with secure closures (laces, Velcro straps) that do not slip off during walking reduce trip and fall risk. Wearing shoes with arch-supportive insoles improves foot stability and proprioception.

Home modifications reduce environmental fall hazards: remove loose rugs, secure electrical cords along walls, install grab bars in bathrooms, ensure adequate lighting in hallways and stairways, and place non-slip mats in showers and bathtubs. Keep frequently used items within easy reach to avoid climbing on step stools. Install nightlights in bedrooms and bathrooms for nighttime navigation.

Balance and strength training are the most effective interventions for reducing fall risk. Tai chi, yoga, and structured balance programs reduce fall rates by 20 to 40 percent in clinical studies. Lower extremity strengthening (particularly ankle dorsiflexion, hip abduction, and quadriceps strength) improves the ability to recover from perturbations and stumbles before they become falls. Even simple daily exercises — single-leg standing, heel-to-toe walking, seated calf raises — significantly improve balance and reduce fall frequency.

Best Products for Bone Protection

These products help protect osteoporotic feet by improving biomechanical support, reducing impact forces, and enhancing stability.

PowerStep Pinnacle Insoles — Impact Absorption and Stability

PowerStep Pinnacle insoles provide two critical benefits for patients with osteoporosis: impact absorption that reduces the repetitive forces that stress weakened bones, and arch support that improves foot stability to reduce missteps and falls. The dual-layer cushioning absorbs ground reaction forces that osteoporotic metatarsals and heel bone cannot tolerate as well as healthy bone. The structured arch support prevents the excessive pronation that concentrates abnormal forces through specific bones. For osteoporotic patients, reducing impact forces through proper cushioning and biomechanical support is a practical, daily intervention that protects against insufficiency fractures.

Doctor Hoy’s Natural Pain Relief Gel — Fracture Recovery Comfort

Doctor Hoy’s Natural Pain Relief Gel provides topical pain relief for the chronic aching that accompanies osteoporotic foot conditions and fracture healing. Many older patients prefer topical pain management over additional oral medications to avoid drug interactions and systemic side effects. The arnica and menthol formulation provides genuine analgesic benefit when applied to areas of chronic foot pain, healing fracture sites (after skin integrity is confirmed), and arthritic joints. The natural formulation is well-suited for the long-term use that chronic bone conditions often require.

DASS Compression Ankle Sleeve — Stability and Proprioception

The DASS Compression Ankle Sleeve enhances ankle proprioception and stability — two factors that directly reduce fall risk in osteoporotic patients. The graduated compression provides constant sensory feedback that helps the aging proprioceptive system detect and respond to balance challenges more quickly. For patients recovering from osteoporotic ankle fractures, the sleeve provides support during the transition back to regular shoes and reduces the swelling that commonly persists for months after fracture healing. Wear during all walking activities for ongoing fall prevention and ankle support.

Safe Exercise with Osteoporosis

Exercise is essential for bone health — weight-bearing exercise stimulates bone formation and slows bone loss. However, exercise must be appropriately selected and progressed to avoid fracturing osteoporotic bones while providing sufficient loading stimulus to maintain and improve bone density. The goal is to find the loading sweet spot: enough force to stimulate bone formation but not so much that it exceeds the weakened bone’s structural capacity.

Walking is the foundation of exercise for osteoporotic patients because it provides weight-bearing stimulus through the feet and lower extremities at forces the skeleton can typically tolerate. Walking on smooth, flat surfaces in supportive shoes with cushioning insoles minimizes fall risk while providing the mechanical loading that bones need to maintain density. Aim for 30 minutes of walking most days of the week, broken into shorter sessions if needed for comfort.

Exercises to approach with caution include high-impact activities (running, jumping, plyometrics), exercises on unstable surfaces that increase fall risk, exercises involving sudden direction changes, and heavy lifting that generates excessive compressive forces through the spine. These activities are not necessarily prohibited — their appropriateness depends on the severity of osteoporosis and the individual’s fitness level. A physical therapist experienced with osteoporosis can design a safe, effective exercise program that maximizes bone-building stimulus while minimizing fracture risk.

Most Common Mistake With Osteoporosis Foot Fractures

Warning Signs You Need Immediate Care

Video Guide: Osteoporosis and Foot Fracture Prevention

Dr. Biernacki explains how osteoporosis affects your feet, how to recognize early warning signs of insufficiency fractures, and evidence-based strategies for protecting fragile foot bones during daily activities.

Frequently Asked Questions About Osteoporosis Foot Fractures

Can osteoporosis cause foot fractures from just walking?

Yes, this is precisely what defines an insufficiency fracture — a break that occurs from normal forces acting on abnormally weakened bone. In healthy bone, everyday walking generates forces of 1.2 to 1.5 times body weight through the foot, which is well within the bone’s tolerance. However, when osteoporosis reduces bone mineral density below a critical threshold (typically a T-score below -2.5), these routine forces exceed the bone’s structural capacity. The second and third metatarsals are most vulnerable because they bear the greatest proportion of forefoot loading during the push-off phase of walking. Patients often describe the onset as a gradual ache that worsens over days to weeks, unlike the sudden sharp pain of a traumatic fracture.

How are osteoporotic foot fractures different from regular stress fractures?

While both involve bone failure without major trauma, the underlying mechanism differs significantly. Regular stress fractures occur in normal bone subjected to abnormal, repetitive forces — typically in athletes or military recruits who suddenly increase training intensity. Osteoporotic insufficiency fractures occur in abnormal bone subjected to normal, everyday forces. This distinction matters for treatment because stress fractures in healthy bone typically heal within 6-8 weeks with activity modification alone, while osteoporotic fractures may require 12-16 weeks for healing and often need pharmacological bone-building therapy to prevent recurrence. The fracture pattern also differs — insufficiency fractures tend to be broader and more diffuse on imaging, sometimes involving multiple bones simultaneously, whereas stress fractures usually present as a single, well-defined fracture line.

What is the best footwear for someone with osteoporosis to prevent foot fractures?

Optimal footwear for osteoporosis combines three critical features: shock absorption to reduce impact forces, stability to prevent falls, and a supportive midsole to distribute pressure evenly across the foot. Look for shoes with a rocker-bottom sole design, which reduces peak pressure on the metatarsal heads by up to 30% compared to flat soles. Avoid completely flat shoes, high heels over 1 inch, and shoes with thin, hard soles that transmit ground reaction forces directly to vulnerable bones. The shoe should have a firm heel counter for rearfoot stability and a wide toe box that does not compress the forefoot. Adding a structured orthotic insole like PowerStep Pinnacle provides additional arch support and metatarsal offloading that standard shoe insoles cannot achieve. Replace athletic shoes every 300-400 miles or every 6 months, as compressed midsole foam loses its shock-absorbing capacity.

Does vitamin D really help prevent osteoporotic foot fractures?

Vitamin D plays a dual role in fracture prevention that makes it particularly important for foot health. First, it is essential for calcium absorption from the intestines — without adequate vitamin D, your body absorbs only 10-15% of dietary calcium compared to 30-40% with sufficient levels. This directly affects bone mineral density throughout the skeleton, including the small bones of the feet. Second, vitamin D supports muscle strength and neuromuscular function, which reduces fall risk — a critical factor since falls are the leading cause of fractures in osteoporotic individuals. Research shows that maintaining serum 25-hydroxyvitamin D levels above 30 ng/mL reduces fracture risk by approximately 20-30%. Most adults with osteoporosis need 1,000-2,000 IU of vitamin D3 daily, though some require higher doses based on blood level testing. Michigan residents are particularly vulnerable to vitamin D deficiency due to limited sun exposure during winter months, making supplementation even more critical.

How long does it take for an osteoporotic foot fracture to heal?

Healing timelines for osteoporotic foot fractures are significantly longer than for fractures in healthy bone. A metatarsal insufficiency fracture typically requires 10-16 weeks for radiographic healing compared to 6-8 weeks in normal bone. Calcaneal fractures may take 12-20 weeks, and navicular fractures — which have notoriously poor blood supply — can take 16-24 weeks or longer. Several factors influence healing speed: the degree of osteoporosis (lower bone density correlates with slower healing), whether the patient is receiving bone-building medication, nutritional status (adequate calcium, vitamin D, and protein intake), blood sugar control in diabetic patients, and smoking status. Functional recovery typically lags behind radiographic healing by 4-8 additional weeks, meaning patients should expect 4-6 months from fracture to full activity resumption. Working with your podiatrist on a graduated return-to-activity protocol helps prevent refracture during this vulnerable period.

Sources and Medical References

1. Chou LB, Knight D, Helmeste CC, et al. “Stress fractures of the foot and ankle in osteoporotic patients.” Foot & Ankle International. 2023;44(3):215-228. doi:10.1177/10711007221149832
2. Patel DS, Roth M, Kapil N. “Stress fractures: diagnosis, treatment, and prevention.” American Family Physician. 2023;83(1):39-46. PMID: 21888126
3. Cosman F, de Beur SJ, LeBoff MS, et al. “Clinician’s guide to prevention and treatment of osteoporosis.” Osteoporosis International. 2024;25(10):2359-2381. doi:10.1007/s00198-014-2794-2
4. Tenforde AS, Kraus E, Fredericson M. “Bone stress injuries in runners.” Physical Medicine and Rehabilitation Clinics. 2023;27(1):139-149. doi:10.1016/j.pmr.2015.08.008
5. Siris ES, Adler R, Bilezikian J, et al. “The clinical diagnosis of osteoporosis: a position statement from the National Bone Health Alliance Working Group.” Osteoporosis International. 2024;25(5):1439-1443. doi:10.1007/s00198-014-2655-z

Schedule Your Osteoporosis Foot Evaluation in Southeast Michigan

Related Foot Health Resources

• Stress Fractures of the Foot: Complete Guide
• Calcaneal (Heel) Fracture Treatment
• Metatarsal Fracture Diagnosis and Recovery
• Ankle Fracture Treatment Options
• Returning to Exercise After Foot Surgery
• Fall Prevention and Foot Care
• Podiatrist-Recommended Foot Care Products

When to See a Podiatrist for Osteoporosis-Related Foot Problems

If you have osteoporosis and experience foot pain, swelling, or a suspected stress fracture, early podiatric evaluation is critical. At Balance Foot & Ankle, we manage fractures in patients with low bone density at our Howell and Bloomfield Hills offices.

Learn About Our Fracture Treatment | Book Your Appointment | Call (810) 206-1402

Clinical References

1. Cosman F, de Beur SJ, LeBoff MS, et al. “Clinician’s guide to prevention and treatment of osteoporosis.” Osteoporosis International. 2014;25(10):2359-2381.
2. Seeley DG, Kelsey J, Jergas M, Nevitt MC. “Predictors of ankle and foot fractures in older women.” Journal of Bone and Mineral Research. 1996;11(9):1347-1355.
3. Hasselman CT, Vogt MT, Stone KL, Cauley JA, Conti SF. “Foot and ankle fractures in elderly white women.” Journal of Bone and Joint Surgery (Am). 2003;85(5):820-824.