In Idlib, two prosthetics centers shifted entirely to 3D printing to handle demand conventional manufacturing could not

Syria has around 86,000 amputees. The country’s prosthetics system, divided across public facilities, private clinics, and humanitarian operators, is nowhere close to reaching them all. Private centers charge fees many families cannot pay. Humanitarian organizations provide devices free or at subsidized cost but operate on limited capacity. This is not primarily a technology problem. It is a capacity and distribution problem in a health system running under sustained damage since 2011.

Two centers in Idlib province are addressing a piece of that through 3D printing. Together they serve 100 to 150 patients a month and now rely entirely on the technology. Four more centers in the region are partially operational. Dr. Waddah Ghazi al Khatib, director of physical medicine and rehabilitation at Syria’s Ministry of Health, said the total number of functioning prosthetics centers remains far too low for the country’s needs.

What the workflow change actually means

The shift from plaster molds to digital scanning changes more than the final manufacturing step.

A traditional workflow starts with a physical cast of the residual limb, requires a qualified prosthetist to shape and fit the socket by hand, and produces a device that cannot be duplicated without repeating the full process. When materials run short or a prosthetist is unavailable, care stops.

The Idlib workflow starts with a high-resolution scan that maps pressure points and areas needing extra protection. Technicians refine the digital model, sometimes to sub-millimeter precision, then print the socket as a lightweight lattice structure designed to reduce weight without compromising durability. Mechanical components are assembled onto the shell to complete the device.

The digital file stays. It can be stored, adjusted, and reprinted when the patient’s limb changes, without starting the process over. That matters most for children, who need frequent refitting as they grow. The centers run on a combination of solar panels and the national grid. The printers are low-cost Chinese units chosen because they are easy to maintain and their parts can be repaired locally.

Rawan al Beirouti, a 29-year-old prosthetist and physiotherapist working in Idlib, said a customized prosthesis now takes about one day to produce, compared with the weeks conventional methods require.

Alaa Sabri, a 33-year-old orthopedics technician and volunteer, described the case for the shift: “Given the large number of wounded and amputees in Syria, prosthetics manufacturing can no longer rely solely on the traditional methods used in the past. We have shifted to a modern workflow that begins with digital scanning and ends with 3D printing.”

The cost difference, in specific terms

For Adnan al Raslan, whose seven-year-old daughter Salwa lost her leg to a landmine in early 2025, the difference was direct. The 3D-printed prosthesis cost her family about $100. The conventional articulated prosthetics they had previously used cost around $500 each. For a child who needs new fittings as she grows, that difference compounds.

For families like that of Abdullah al Aqdi, who lost his foot at seven months old in a bombing and has required continuous surgeries and prosthetic adjustments since, the question is not one affordable device but sustained access to care over years. The technology helps with the per-device cost and turnaround. It does not resolve the longer-term care question.

What it does not fix

Al Beirouti was direct about the limits: the approach remains at an early stage in Syria and has not achieved widespread adoption. Centers face shortages of equipment, raw materials, and trained specialists able to operate and further develop the technology.

The workflow lowers the cost and time to produce a device, but only once a trained technician is available and the equipment is running. It does not train prosthetists. It does not stabilize supply chains for resins and raw materials. And it does not address the deeper structural problem, which is that Syria’s whole rehabilitation infrastructure has operated under conflict conditions for fifteen years.

A pattern repeated in other settings

The Idlib approach fits a wider strategy that humanitarian and medical organizations have applied in several resource-constrained settings: treat the printer as local, maintainable infrastructure rather than importing finished devices from centralized manufacturing elsewhere.

In Gaza, the organization Glia has used a related approach for external fixators, combining 3D-printed components, recycled plastic, and solar-powered equipment to keep production running without a stable grid or reliable imported supply. In The Gambia, a British charity pilot co-financed by the European Union is testing whether 3D scanning produces prosthetic sockets more precisely than conventional plaster casting, where a one-millimetre error can make a device too uncomfortable to wear.

Each effort is answering the same question: how do you deliver medical hardware that normally requires expensive imported equipment and scarce specialists, in a place that has neither reliably?

What this means

The technology has removed one set of barriers. The next set is human capital: trained prosthetists and technicians who can operate and push the systems further, material supply chains that hold up under conflict conditions, and sustained humanitarian funding for the organizations running the centers.

Salwa al Raslan has a prosthesis that cost her family $100. Whether she has consistent access to refitting and care as she grows depends on whether those Idlib centers stay staffed and funded. That is a different problem from the one 3D printing solves.