Tailored holds • Any style • Every level

UBETA

Climbing holds generated, not cast — a full spread of styles and types, made to order. Pick from our library, request something new, or co-develop exactly what your wall needs.

Get early access
UBETA.COM — EST. 2026
01

Meet your climbers
how they actually climb.

Jugs, crimps, pinches, slopers, feet — and a widening range of styles and types within each. Every shape is generated parametrically, so it can be dialled to a grade, an angle, and a hand. Not a fixed catalogue of whatever we happened to mold.

One maker for every user, every type, every style. Setting a comp, kitting out a training board, or building your first home wall — we meet you where you are.

02

Three ways to get what you need.

However specific your wall is, there’s a way in.

Pick

Choose from our library — profile, size, and grade to suit the wall and the climbers on it. Made to order once you’ve chosen.

Request

Need something that isn’t there yet? Tell us. We generate it, inspect it, and a person signs it off before it ever ships.

Co-develop

Working toward something specific? We’ll build it with you — geometry shaped around your wall, your comp, or your training programme.

03

Where this is going.

Two capabilities under development. We’d rather build them with climbers than at them.

Under development

Holds that exist once

One-off geometry generated for a single wall, carrying a seed number no other hold will ever share.

Under development

Real rock, replicated

Train on a named line before you travel. The crux move waiting for you on your trip, bolted to your home wall — so you arrive having already tried it.

Want to help build either of these? We’re looking for gyms, setters, and climbers to test and co-develop. Email labs@ubeta.com.

04

Single holds, or the whole set.

Hold by hold

Order exactly the profiles, sizes, and grades you want, one at a time.

Or by the route

Tell us the route type and the difficulty you’re setting for, and we’ll build the set to match.

Made & checked

Printed to order, checked against our geometry and printability standards, signed off by a person, then shipped.

05
Hold Types
Jugs, crimps, pinches, slopers, feet — and growing
Range
Across the V-grade spectrum, beginner to advanced
Ordering
Single holds, full sets, or co-developed custom
Geometry
Generated parametrically, made to order
Mounting
Configurable per order — bolt + spinner screw, or screw-only
Process
Additive manufacturing (3D printed)
06

Building our own proof.

We’re building a destructive test rig and running our testing programme to EN 12572-3:2017 — the European standard for climbing holds — while pursuing third-party certification. Our own numbers get published here as the rig comes online.

What we can point to today is independent research into 3D-printed holds as a category. Other people’s holds, not ours — and encouraging.

9.6×

Safety Factor

Independent mechanical engineering research tested 3D-printed holds to failure at 2,599 lbf — 9.6 times the Climbing Wall Association’s design load for an un-roped climber.

Independent research — not UBETA holds.
+21%

Stronger Than Traditional

In head-to-head destructive testing against polyurethane holds of identical geometry, 3D-printed holds averaged 21% higher breaking strength.

Independent research — not UBETA holds.
3–5×

Industry Standard

The climbing wall industry asks for a safety factor of 3 to 5 times the design load, giving 3D-printed holds as a category real headroom above that bar.

Climbing Wall Association — not UBETA holds.
07

Be first on the wall.

Early access and launch pricing when we open for orders.

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Sources
O, K. “3D Printed Climbing Holds — Strength Tested.” Independent graduate research, Mechanical Engineering. January 2025. Destructive load testing, n=5 per batch, ASTM-aligned methodology.
Climbing Wall Association. “General Specification for the Design and Engineering of Artificial Climbing Structures.” First Edition, 2009. Revised 2022. Table 1: Live Loads.
Hertel, J.S., Kwon, Y.W., Sachau, D. “Cyclic Fatigue Failure of Perforated 3D-Printed Polylactide Specimens by Inserted Pin Loading.” Materials, Vol. 17, No. 22. November 2024.
Ghavidel, A.K. et al. “Investigation of Interlayer Interface Strength and Print Morphology Effects in Fused Deposition Modeling 3D-Printed PLA.” Polymers, 2022.