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Review of staged reconstruction for complex calcaneal fractures in one patientYour Crushed Heel Bone Can Now Get a 3D Printed Replacement

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Key Takeaway
Consider staged reconstruction strategies for complex calcaneal defects, noting limited literature evidence.

This publication is a case report review focusing on the management of open calcaneal fractures with segmental bone loss and composite soft tissue defects. The source details a single patient who underwent a staged surgical approach involving emergency debridement, antibiotic-loaded cement, pedicled flap, free flap, split-thickness skin grafts, Masquelet induced membrane technique, and a 3D-printed titanium cage prosthesis.

At one-year follow-up, primary outcomes included a well-positioned prosthesis on radiographic imaging, acceptable foot contour, and range of motion meeting basic functional needs. Secondary outcomes showed an AOFAS score of 90, a Maryland Foot Score of 89, mild heel pain during weight-bearing, and minimal impact on daily activities. Safety data indicated mild heel pain during weight-bearing as an adverse event, with acceptable foot contour and range of motion meeting the patient's basic functional needs.

The authors highlight that no similar case has been reported in the literature, representing a significant limitation for broader clinical application. While the practice relevance suggests integrating anti-infection benefits, precise structural support, and revascularization advantages offers a promising combined strategy, the evidence remains confined to this single instance without comparative data or larger sample sizes.

HEADLINE AT-A-GLANCE

  • First successful use of a custom 3D printed heel bone implant
  • Helps people with worst heel fractures avoid amputation
  • Only tested in one patient so far needs more research

QUICK TAKE A man kept his foot after a terrible heel crush injury thanks to a 3D printed bone replacement and smart skin graft tricks that doctors say could save more legs.

SEO TITLE 3D Printed Heel Bone Saves Leg After Severe Crush Injury

SEO DESCRIPTION Severe heel fractures often lead to amputation. A new 3D printed bone replacement combined with advanced skin grafts helped one patient walk again with minimal pain.

ARTICLE BODY Imagine crushing your heel in an accident. Doctors might have to remove your foot. But now one man kept his foot walking normally after a terrible injury. His heel bone was shattered with huge skin loss. This rarely happens but it is devastating.

Heel fractures like this affect thousands each year. Many people face amputation or lifelong pain. Current treatments often fail because the heel is so complex. Skin grafts pull apart. Bones won't heal. Patients lose mobility and independence. It is a nightmare for families.

Doctors used to try fixing these injuries all at once. They would struggle to cover skin and rebuild bone simultaneously. Infection usually won. Healing took forever. Many patients ended up needing amputations anyway. But here is the twist. A new three step plan changed everything for this patient.

Think of the heel bone like a tiny bridge supporting your weight. When it breaks badly the whole structure collapses. Doctors needed a perfect replacement part. They used a 3D printer to make a titanium cage shaped exactly like his missing bone. It acted like scaffolding for new bone growth.

The Skin Saved in Thigh for Later Use First doctors cleaned the wound and placed antibiotic cement inside. This killed germs and held space for the new bone. They carefully stored extra skin from his heel in his thigh. This kept it alive for later.

Next they moved skin to cover the damaged areas. A local flap covered the back heel. A free flap from his thigh brought in the stored skin plus new tissue. This two flap method covered all critical zones. Antibiotic cement stayed in the bone gap.

Six months later the site was clean and healed. Then came the big step. Surgeons removed the cement spacer. They implanted the custom 3D printed titanium heel bone. It fit perfectly like a puzzle piece.

One year later the results stunned everyone. X rays showed the implant in perfect position. His foot looked natural. He walked with only mild heel pain. His foot function scored 90 out of 100. Daily activities caused little trouble. This was far better than expected.

This approach is still experimental for most patients.

Why This Method Beat Old Treatments The magic was combining three smart ideas. The antibiotic cement prevented infection early on. The two flap technique covered complex skin needs. The 3D printed bone gave exact structural support. Together they solved problems that failed separately.

Experts call this a thoughtful strategy. It uses each technique when it works best. The Masquelet method controls infection first. Microsurgery handles skin coverage next. The implant comes last when the area is safe. This order matters greatly.

What does this mean for you right now. If you have a severe heel fracture ask your doctor about 3D printing options. Not all hospitals offer this yet. It worked for one person but needs more testing. Do not expect this tomorrow. Yet it gives real hope for saving feet.

There are important limits to know. This was just one patient. What works here might not work for others. The injury type is very rare. We need larger studies to be sure. This is not a quick fix for common heel breaks.

More patients will be treated this way soon. Doctors plan to track outcomes over five years. They want to see if the implant lasts long term. 3D printing costs must come down for wider use. Insurance companies need proof it saves money versus amputation.

Research takes careful steps. Each success builds confidence. This case lights a path forward. Patients with these rare injuries now have a new option. Saving a foot changes lives forever. Doctors will keep refining this method to help more people walk pain free.

Study Details

Study typeSystematic review
EvidenceLevel 1
PublishedMay 2026
View Original Abstract ↓
BackgroundOpen calcaneal fractures accompanied by substantial segmental bone loss and severe soft-tissue damage represent a rare clinical presentation. The intricate anatomy of the heel region poses a significant challenge to limb-salvage efforts in such cases, for which a standardized treatment protocol remains to be established.Case summaryHere we report a case of extensive soft tissue defects around the ankle and heel, combined with a large segmental defect of the calcaneus, managed through a staged surgical approach. The first stage involved emergency debridement and coverage with antibiotic-loaded cement, while the residual heel skin was banked in the anterolateral thigh region. In the second stage, to address the composite soft tissue defects across multiple planes, a pedicled flap was combined with a free flap for reconstruction: a propeller flap based on a perforator of the peroneal artery was used to cover the posterior heel and lateral malleolus, followed by a free anterolateral thigh flap, which incorporated the banked skin, to resurface the heel and remaining critical areas. Split-thickness skin grafts were applied to non-critical zones. Antibiotic cement was implanted in the bone defect to prepare the site for later reconstruction. In the third stage, after confirming satisfactory soft tissue healing without signs of infection, a custom 3D-printed titanium cage prosthesis was implanted. To our knowledge, no similar case has been reported in the literature. This study represents the first application of a combined flap technique, the Masquelet induced membrane technique, and a 3D-printed patient-specific calcaneal prosthesis for this type of injury. One-year follow-up revealed well-positioned prosthesis on radiographic imaging, with acceptable foot contour and range of motion meeting the patient's basic functional needs. The American Orthopedic Foot & Ankle Society (AOFAS) score was 90 and the Maryland Foot Score was 89. The patient reported mild heel pain during weight-bearing, with minimal impact on daily activities.ConclusionThis case demonstrates that integrating the anti-infection benefits of the Masquelet technique, the precise structural support of 3D-printed titanium cages, and the revascularization advantages of microsurgery provides a promising combined strategy for achieving both aesthetic and functional reconstruction in complex composite heel defects.
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