3DCeram Sinto: Ceramic SLA 3D Printers and Process

3DCeram Sinto: Ceramic SLA 3D Printers and Process

Ceramic SLA printers, slurries and process support from a Limoges-based technical ceramics provider.

What is 3DCeram Sinto: Ceramic SLA 3D Printers and Process

3DCeram Sinto is a 3D printing process provider for technical ceramics, based in Limoges, France, and part of the Sinto group since 2017. The company builds ceramic stereolithography (SLA) printers, develops its own ceramic slurries, and offers maintenance, training and printing software alongside the machines. Its stated focus areas are industry (defence, automotive), aerospace and aeronautics (foundry cores, mirrors) and biomedical work such as cranial implants. The printer range covers the C101 EASY LAB for development and research through to prototyping, the C1000 FLEXMATIC described as a semi-automatic line for industrial users, and the C3601 ULTIMATE for large parts. A desktop extrusion machine, the M.A.T., handles technical ceramic filaments and some metals such as copper and stainless steel. Materials are catalogued under the 3DMIX name as oxide and non-oxide ceramics, with alumina, zirconia, silicon nitride, cordierite, aluminium nitride and zirconia 8Y listed, and custom formulations developed on request.

3DCeram Sinto is a 3D printing process provider for technical ceramics, based in Limoges, France, and part of the Sinto group since 2017. The company builds ceramic stereolithography (SLA) printers, develops its own ceramic slurries, and offers maintenance, training and printing software alongside the machines. Its stated focus areas are industry (defence, automotive), aerospace and aeronautics (foundry cores, mirrors) and biomedical work such as cranial implants. The printer range covers the C101 EASY LAB for development and research through to prototyping, the C1000 FLEXMATIC described as a semi-automatic line for industrial users, and the C3601 ULTIMATE for large parts. A desktop extrusion machine, the M.A.T., handles technical ceramic filaments and some metals such as copper and stainless steel. Materials are catalogued under the 3DMIX name as oxide and non-oxide ceramics, with alumina, zirconia, silicon nitride, cordierite, aluminium nitride and zirconia 8Y listed, and custom formulations developed on request.

Suppose a small lab wants to prototype a zirconia component with internal channels that would be awkward to mill, then validate the same geometry before committing to a production route. The documented workflow may fit because 3DCeram positions the C101 EASY LAB for development and research through to prototyping, and because SLA is described as producing complex geometries without expensive tooling. The constraint to plan around is that ceramic parts are not finished when they leave the printer: the process includes debinding and sintering, and 3DCeram offers firing and cleaning as part of its service offer, so the lab needs either that service or its own furnace capacity. As an adoption check, pick one representative part, confirm with 3DCeram which 3DMIX ceramic suits the specification, print and then complete the debind-and-sinter route, and compare the finished part against the drawing. The observable result is a sintered ceramic part whose measured dimensions and material grade you can document before scaling the design to a larger machine such as the C1000 FLEXMATIC.

Key features

  • Covers the full ceramic process, not just hardware: printers, in-house slurries, firing and cleaning services, maintenance and training.
  • Printer range is segmented by job, from the C101 EASY LAB for development work to the C1000 FLEXMATIC for semi-automatic industrial production and the C3601 ULTIMATE for large parts.
  • 3DMIX catalogue lists both oxide and non-oxide ceramics, including alumina, zirconia, silicon nitride, cordierite, aluminium nitride and zirconia 8Y, with custom formulations developed on demand.
  • Extrusion options beyond SLA: the desktop M.A.T. handles technical ceramic filaments and some metals such as copper and stainless steel.
  • Documented application experience in aerospace and defence, biomedical implants, foundry cores and industrial parts.

Popular models

  • C101 EASY LAB — positioned for development and research through to prototyping, with the stated possibility to develop your own process.
  • C1000 FLEXMATIC — described as an industrial ceramic 3D printer designed for cost-effective manufacturing and as a semi-automatic line for industrial users.
  • C3601 ULTIMATE — listed for printing large parts; note the official pages also use the spelling C3600 Ultimate.
  • M.A.T. — desktop extrusion printer for technical ceramic filaments and some metals such as copper and stainless steel.

Use cases

  • Research groups and universities developing their own ceramic printing process on the C101 EASY LAB.
  • Industrial manufacturers evaluating semi-automatic ceramic production on the C1000 FLEXMATIC.
  • Aerospace and defence teams working on satellite components, optical instruments and foundry cores for turbine blades.
  • Biomedical projects such as cranial or jawbone implants and bone substitutes produced in small series.
  • Labs that want to test ceramic extrusion with technical filaments or metals on the M.A.T. before committing to SLA.

Things to consider

  • No pricing, build volume, layer height or throughput figures are published on the pages reviewed, so machine selection needs a direct specification request.
  • The model name appears as both C3601 ULTIMATE and C3600 Ultimate across official pages; confirm the correct designation before ordering or quoting.
  • Ceramic SLA parts require debinding and sintering, so in-house production means additional furnace and process capability beyond the printer.
  • The who-are-we page still carries a 2009-2020 copyright line, so some company details there may lag current information.
  • Aimed at industrial, biomedical and research buyers; there is no consumer or hobbyist offering.

Frequently asked questions

Which 3DCeram printer is intended for development work rather than production?

The C101 EASY LAB is the model 3DCeram positions for development and research through to prototyping, and its page states the possibility to develop your own process. The C1000 FLEXMATIC is described instead as a semi-automatic line for industrial users, and the C3601 ULTIMATE is listed for large parts.

Does a 3DCeram ceramic part come off the printer finished?

No. The ceramic SLA process described by 3DCeram includes debinding and sintering after printing, and the company lists firing ceramics and cleaning among its services. Plan for that post-processing step, either through 3DCeram or with your own furnace capacity.

What software does 3DCeram provide with its printers?

3DCeram names Build-it, CPS 2.0 and CERIA, described as an artificial intelligence solution, as software integrated into its ceramic printing process. The reviewed pages do not state licensing, pricing or how each package is obtained, so ask 3DCeram directly.

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