Titanium 3D Printing

30-60 Days to Finished Parts and JIT Capabilities
SILCA 3D Printing (3DP) was created with technology in mind and innovation and creativity at heart. With the goal to make titanium accessible through additive manufacturing (AM), our team has grown and developed to be world specialists in our field. As a group, we are always looking for new ways of viewing the world, and finding new improvements to the current ‘norm’. We aim to help our customers reach their full potential with metal AM.

SERVICES TAILORED TO YOUR NEEDS

Metal cylindrical levers standing upright in neat rows, connected to toothed gears and linkages, mounted on a worn base—part of an old mechanical control panel.

Clean Sheet Design

The SILCA Design Team has more than 30 patents across the Zipp and SILCA brands. They have completed custom design work for world tour teams, pro triathletes, national teams, and over a dozen bicycle and component brands. If you are interested in pursuing clean sheet design, a simple hand sketch or an image board is all that is needed to begin. After a startup call, our team will quote the design process and provide an estimated timeline for your project.

We have experience with nearly every component involved in cycling, including, lugs, dropouts, yokes, cranks, handlebars, wheels, stems, and more. Pricing for CAD and Engineering Services is generally quoted per hour with a not-to-exceed value for each phase of design.
Video on 3D Titanium Printing
A 3D-printed metal bracket displays an internal honeycomb lattice; it rests on a dark surface against a neutral background, exposing lightweight structural cavities and circular mounting holes.

Design Optimization For Printing

If you haven't printed in titanium before, its quite backward from traditional engineering thinking. Our team has extensive experience with design for additive manufacture (DFAM), and we offer these services to help mitigate some of the cost associated with prototyping a new part in Ti - 6/4 .

If you have an existing CAD model you need quoted for 3D printing, thermal stress during the build is often your biggest enemy. During DFAM, we run what is essentially a thermal FEA of your part. This layer-by-layer analysis is looking for thermal risk, and from there we can make design changes or highlight potential issues as suggestions for your designer/engineer.

Taking this service will generally lower your build cost as we can print with reduced support material as the thermal analysis shows us exactly how much support is needed and where. In some cases, we’ve reduced support by as much as 60%. The cost of this service is billed at a flat rate per part, which you generally save in the first couple of builds through reduced likelihood of thermal cracking/shifting and reduced support material usage.
Bicycle dropout component — sectioned to reveal gyroid lattice infill and hollow chambers — displayed in a CAD/lattice-design software interface with parameter panels on the left.

Advanced Shelling & Infill Creation

Silca works with an implicit modeling software called nTopology where we do everything from FEA driven shelling to advanced infill generation. Using nTopology, our team can take your existing CAD model through a light weighting protocol to remove excess material from low stress regions while reinforcing higher stress regions. This process can dramatically reduce peak stresses while increasing stiffness and dimensional stability.

For this service, we generally quote a not-to-exceed price based on our prior experience
Object: Two large Renishaw RenAM 500Q industrial 3D printers. Action: stand side-by-side. Context: housed in a workshop against a cinderblock wall, connected to cooling units and nearby tool cabinets.

Two Full Capacity 3D Printers

SILCA operates Renishaw AM500Q machines that can run 24 hours / 7 days a week to meet demand with impeccable accuracy for a wide range of product options. While we primarily cater to the cycling industry; if you have a 3D model, we can bring your vision to life or provide a competitive option for your titanium parts needs.

Surface Finishing

A wide variety of surface finishing methods can be applied to 3D printed titanium parts to improve their appearance and mechanical properties. Some of the finishing options we offer include:
Object: a small conical pile of fine, light-colored granules. Action: it rests as a densely packed, textured mound. Context: placed on a dark surface with a blurred dark background.
Media Blasting
This involves using a high-pressure stream of abrasive particles to remove surface imperfections and improve the part's surface finish.
A pile of small conical compressed pellets stacked in a loose mound, photographed close-up on a flat black surface with neutral studio lighting.
High Velocity Tumbling
This process involves tumbling parts in a ceramic media abrasive to achieve a smoother, polished finish on the final part.
Cerakote® Coatings
Cerakote is an high performance ceramic coating that is sprayed onto parts at a thickness of around 0.001".  SILCA uses H-Series Cerakote which is available in hundreds of colors.
A shallow mound of short, shiny silver metal rods (pin-like pellets) lies scattered on a dark surface, shown in a tight close-up macro photograph.
Spin Burnishing
This is a cold working process where parts are burnished in steel pins at a high velocity.  This can help compressive stresses on the surface and improve fatigue resistance.
A carbon track bicycle with deep disc wheels is being inspected as a crouched person adjusts the chain and crank on a wooden indoor velodrome track.

Understanding Your Pricing Options

We aim to provide maximum transparency relative to cost. Our pricing structure is driven primarily by the weight of each part plus the weight of the sacrificial support needed for printing. Because of this, an upfront investment in engineering and light weighting can often save a considerable expense over the long run.
Surface finishing requirements, vacuum heat treatment, and post machining operations are factored into quotes when necessary. SILCA works closely with a NADCAP certified aerospace heat treat provider and we generally have parts heading to heat treat every two weeks.

When needing a heat-treated part before the standard 4-week window, we do offer rush services. The Alex Dowsett hour record chain stay was designed, printed, heat treated, and shipped in under seven days.

We also offer JIT stock management with proper forecasting to minimize lead times and MOQs. Other variables that affect costs include larger production volumes, plate quantity ordering, and build to build consistency.
Metal 3D‑printed brackets stand upright on support posts, arranged in rows on a rectangular build plate, photographed against a plain white background.

No. 22 Bicycles

Silca worked with No. 22 Bicycles on the creation of a titanium stem as light as the leading carbon-integrated stem offerings, but with considerable increases in strength, stiffness, and durability. Hidden faceplate bolts, cleanly integrated steerer tube clamping, and a matching, bespoke titanium headset, turn the front end of every No. 22 into a work of art.

Request the No22 Case Study
Bicycle frame junction — a matte silver bottom-bracket shell with seat tube and chainstays converging, revealing smooth welds and the threaded shell interior against a dark, blurred background.

Chumba Bicycles - Chainstay Yoke

Sendero (Model) - Titanium Chainstay Coke
Allows 29x2.6” tires and
36T chainring compatibility
Request the Chumba Case Study
Gold-painted bicycle rear dropout holding the axle; chain meshes with the multi-gear cassette while the rear derailleur and spokes sit nearby in a close-up workshop shot.

Stein & Fenton Bicycles - Lugs

Six 3D-printed titanium lugs bonded to hand-laid carbon tubing leads to an eye-catching blend of modern technology and individual craftsmanship.
Request the Stein & Fenton Case Study