Insoles for the shoes you actually wear every day.
Long commutes, standing desks, casual walks — no special training needed. Answer a few simple questions and get a comfortable, custom-fit insole printed in flexible TPU, ready to drop into any shoe.
Free preview · No card required · Only pay on download
Design custom insoles.
No scanner.
No CAD.
Generate a custom insole STL in under 10 minutes — guided questions in, lattice-reinforced TPU geometry out. No scanner, no CAD, no plaster. Print at home or send to a service.
Who it's for
One tool.
Three types of users.
Whether you're printing your first pair or running a clinical case load — the same parametric engine, the right amount of control.
Full orthotic vocabulary. No CAD required.
Arch height, heel-cup depth, varus/valgus posting, medial skive, flange width — all exposed as direct numeric inputs. Go from intake to downloadable STL in under 10 minutes per patient.
High-volume design with versioned history.
Studio Pack includes 6+ month credit validity, full parameter access, saved design history, and dashboard. Built for steady case volume without per-seat CAD licensing.
How it works
A smart guided system,
not a CAD tool.
You describe the insole in natural language. The system infers the right parameters — arch height, heel cup, skive, posting, lattice density, material — and generates a print-ready STL. If you know what you want, override any value. If you don't, just print.
STEP 01 · basic profileroutine • arch • wear
STEP 02 · symptoms & activitiespain zones • priority
Overview
A parametric workshop for
your feet.
Most insole tools are either rigid templates or require a full 3D scan rig. Ergono3D lives in between: a web app that captures the measurements that actually matter, then computes a print-ready STL, lattice-reinforced geometry tuned to your biomechanical goals.
Heel-cup depth, skives, posting, flanges.
All of the parameters a podiatrist would write on a prescription form — exposed as direct numeric inputs, not buried in a CAD tool.
Tuned for sub-10s sprinters. And everyone else.
Insole profiles co-designed with biomechanists who work with elite athletes. Stiffness zones, rocker geometry, forefoot plate geometry included.
TPU 85A / 90A / 95A out of the box.
Every STL is clean, shell-stable, and pre-validated for common slicers. No mesh cleanup. No support nightmares.
End to end
Print. Wear. Refine.
Export a custom insole STL from Ergono3D, print it on any TPU-capable FDM printer, then wear-test and refine the parameters until the fit feels right.
In the wild
What comes
off the bed.
Real pairs printed with Ergono3D STL exports and default TPU slicer profiles. Same parametric generator, different materials, colour blends, and lattice densities.
FLEET · four pairs
TPU 85A / 90A / 95A
gyroid 28 — 42%
real print finish
Workflow
Four steps. Under ten minutes.
No calipers. No CAD suite. Answer a few guided questions and walk away with a print-ready STL — then refine as you go.
Profile
Answer guided questions about your daily use, arch type, pain zones, activities, and shoe type. No measurements needed.
Generate
The system computes a lattice-reinforced insole geometry tuned to your inputs — typically under 90 seconds. Tweak any parameter manually if you want.
Download the STL, slice, and print on any TPU-capable FDM. Slicer profiles included for Bambu, Prusa, and Ultimaker.
Iterate
Wear-test and refine. Every generation is versioned — adjust a single parameter, re-generate, and compare against the previous run. No starting over.
Control surface
Every insole parameter, agent-guided.
Ergono3D starts from an expert-designed base insole shell, then layers adjustable controls on top: heel cups, skives, posting, flanges, arch geometry, and met pads. Our Agent helps individuals and clinics quickly find reasonable parameters, then iteratively update them as fit and comfort evolve.
forefoot_varus_postVarus wedge under the metatarsal heads — corrects forefoot supination.0° — 4°
forefoot_valgus_postValgus wedge under the metatarsal heads — corrects forefoot pronation.0° — 4°
arch_heightMedial longitudinal arch lift relative to the baseline last.0 — 10 mm
arch_lengthAnterior extent of the arch support along the medial column.0 — 50%
medial_flangeMedial side-wall extension for first-ray stability.0 — 2 mm
lateral_flangeLateral side-wall extension for fifth-ray stability.0 — 2 mm
heel_cup_depthDepth of the posterior cradle around the calcaneus.0 — 10 mm
rearfoot_varus_postExternal varus posting under the heel to resist pronation.0° — 4°
rearfoot_valgus_postExternal valgus posting under the heel to resist supination.0° — 4°
lateral_heel_skiveLateral wedge ground into the heel for rearfoot correction.0 — 2 mm
medial_heel_skiveMedial wedge ground into the heel for rearfoot varus correction.0 — 2 mm
met_padMetatarsal dome — offloads pressure from the metatarsal heads.Y / N
Clinic · Kazakhstan
Prosthetics and orthotics clinic context: printed insole workflows for real patient-facing fabrication, not a concept render.
— @prosthetic_serol · Instagram
Maker · United States
A maker-facing print workflow: practical TPU printing, slicer tuning, and real-world iteration from the desktop 3D-printing community.
— r/3Dprinting · Reddit maker threadFree tier
Generate your first
insole on the house.
Five preview generations, no download — perfect for trying the fit of our parameter set against a real foot before committing.