Trioneer

Bikes / Carbon–Ti Hybrid

Carbon–Ti Hybrid

The precision of titanium. The performance of carbon.

3D-printed titanium joints integrated with premium T1100 filament winding tubes.

Manifesto

Carbon–Ti Hybrid is Trioneer's flagship answer to a simple observation: no single material is best everywhere on a frame. Titanium is placed where precision and load transfer matter most; carbon is placed where stiffness and weight matter most.

The Purpose

For riders who want the flagship expression of Trioneer's engineering — a structure that treats titanium and carbon as complementary materials rather than competing ones.

Material Architecture

How It's Built

3D-printed titanium joints handle load transfer, structural complexity and precision fitment at the junctions, while T1100 carbon tubes are bonded into those joints where stiffness, weight and laminate control matter most.

Key Engineering Details

What Sets This Platform Apart

  • 01

    3D Printed Titanium Joint

    Additive titanium junctions manage complex load paths at the head tube, seat cluster and bottom bracket.

  • 02

    T1100 Carbon Tube with Filament Winding & High-Pressure Molding

    Precision-wound high-modulus carbon fibers, pressure-molded for superior compaction, stiffness, strength, structural consistency, and optimized weight.

  • 03

    Integrated Seat Mast

    Engineered for precise power transfer, reduced weight, and a clean aerodynamic profile, seamlessly blending carbon performance with Trioneer’s distinctive Carbon-Ti craftsmanship.

  • 04

    3D Bespoke Dropout Hanger

    Precision 3D-printed titanium, engineered for superior stiffness, accuracy, durability, and personalized high-end craftsmanship.

  • 05

    Precision Bottom Bracket

    The bottom bracket junction is printed and machined for a precise, creak-free interface.

  • 06

    Internal Cable Routing

    Housing and hydraulic lines route internally through the titanium joints and carbon tubes.

Geometry

Built Around Rider Position

Carbon–Ti Hybrid frame geometry diagram
SizeRider Height (cm)Seat Tube (mm)Effective Top Tube (mm)Head Tube (mm)Head Angle (°)Seat Angle (°)Fork Length (mm)Fork Offset (mm)Chainstay (mm)Front Center (mm)BB Drop (mm)Stack (mm)Reach (mm)Standover Height (mm)Crankarm Length (mm)Stem Length Suggestion (mm)STR
XS/47155–167448.5515.510071.574.537745405570.774506.7372.5721.4160/16580/901.36
S/52165–175467537.611572.374.037745405583.273526.4386.7739.5165/17090/1001.36
M/54172–185480.8552.313572.573.637745405593.272545.2392.5752.11701001.39
L/56182–192502.0565.615273.073.337745405598.872563.1397.3775172.51101.42
XL/58190–195522580.017573.373.037745405610.572586.2405795.01751201.45
XXL/61193550.0601.019073.372.537745405621.772598.5412.0820.01751201.45

Personalization

Make It Yours

Choose a starting configuration below. Every detail is confirmed with you individually during the Bespoke Process.

Joint Finish

Carbon Weave

Accent

Logo Style

Submit Your Fit Data

Your configuration: As-Printed Texture · Gloss Uni-Directional · Copper Red · Laser-Etched Joint

Testing & Validation

The titanium-to-carbon bonded interface is validated through simulation, bench testing and physical prototypes before production.

Simulation

Load cases and structural behaviour are modelled before anything is cut or printed.

Physical Prototyping

Prototype units are built to confirm fit, structure and manufacturing process.

Bench Testing

Completed structures are tested for alignment, strength and durability.

Gallery

Ready to Build Your Carbon–Ti Hybrid?

Begin with a private consultation, request pricing, or submit your fit data to start the Bespoke Process.