For Prosthetics & ORTHOTICS

Carbon Without Compromise.

We help you bring innovative prostheses and orthoses to market, with carbon components built to serve your patients for years.

Person with a carbon fiber prosthetic leg standing on a cliff edge overlooking the landscape
Predictable
BEhavior under load
+60%
HIGHER LOADS vs prepreg
ISO 9001:2015
CERTIFIED
Person with a carbon fiber prosthetic leg standing on a cliff edge overlooking the landscape
Applications
Clinician fitting a myoelectric prosthetic hand and forearm socket on a young woman
Arm Prosthetics
Forearm links and connecting brackets. Stiff under lifting and torsion, light on the residual limb.
Man walking on a gravel path with a transtibial prosthetic leg and running blade foot.
Leg Prosthetics
Footplates and spring elements for prosthetic feet. Carrying full body weight and returning energy at every step.
Woman wearing a hinged range of motion knee brace, stretching her leg outdoors.
Knee Braces
Uprights, side bars, and hinge plates. Stiff where the joint needs support, light enough to wear all day.
Child in an ankle foot orthosis walking with a frame while a physiotherapist supports her.
Knee, Ankle & Foot Orthoses
Posterior struts and footplates for (K)AFOs. Components that carry full body weight through every step, for years.
This Is For You

If This Sounds Familiar.

Reimbursement is under pressure, but our part costs don't drop.

We know what patients need but lack in-house composite expertise to turn that into better products.

A man in a white lab coat working on assembling a prosthetic leg at a workbench with tools hanging on a pegboard and other prosthetic parts on the table.

Some carbon parts fail within months, and every warranty replacement costs us.

There are not enough composite technicians to keep up with demand.

what you get

Reliable Parts That Scale.

Design sketch of a carbon fiber prosthetic foot with footplate, spring element and metal connector
01
Identical Parts, Every Time

With robotic production, every part matches the last. Our simulation predicts performance under load before the first part is made, so fewer early failures.

02
Swap The Part, Not The Aid

We help you design modular aids. A worn component is replaced, not the whole aid.

03
A Cost Path That Fits Reimbursement

Reimbursement is under pressure. Robotic production brings your part cost down as volume grows.

04
More Capacity, Same Team

We take composite work off your bench. Your technicians stay with patients while you take on more demand.

05
One Design, Many Patients

Same geometry, different stiffness levels. We only change the fiber orientation to fit each patient's needs.

IFP-TEchnology

Fiber Along Load Paths.

With Infinite Fiber Placement (IFP), a robot lays continuous fiber along your part's load paths. Every part comes out identical: strong where it carries load, light everywhere else.
IFP Vs. prepreg

Higher Loads, Predictable Failure.

Load test of an orthotic component: IFP holds 1352 N and fails gradually, prepreg breaks suddenly at 843 N

One orthotic component, built two ways, tested to failure under identical conditions. The prepreg part breaks suddenly at 843 N, without warning. IFP holds 1352 N, then bends another 30 mm before it lets go. The patient gets more margin when a step goes wrong, and a device that shows wear before it fails.

Customers

What Our Customers Say.

Thomas Gast, MD at Fior & Gentz

“Our patients depend on their orthoses every day. Durability and reliability are must-haves. Holy Technologies helps us build parts with superior mechanical performance that hold up to daily use, giving patients the ability to move with confidence.”

Thomas Gast // Managing Director, Fior & Gentz Neuro Orthotics
Your Composite Innovation Partner
Holy Technologies engineer reviewing the fiber layout of a carbon composite component
1
Product Design

We design your carbon component: requirements, load case simulation, size and stiffness definition from patient data, and fiber layout. Your product knowledge, our composite expertise.

Technician inspecting a carbon fiber prototype in the lab
2
Prototyping & Validation

Functional prototypes in 12 weeks, tested against your requirements and benchmarks until the part is ready for market.

Holy Technologies IFP factory in Hamburg
3
Ramp-Up To Volume

First batches for your market tests, then a clear ramp-up plan and reliable delivery windows for your launch. Identical parts, with part cost that drops as volume grows.

GET STARTED

Your Free Consultation

We assess the innovation potential of your products together.

Book Here
NDAs available
Response within 24h
Two Holy Technologies team members conduct a digital component simulation
FAQ

What Others Wanted To Know.