Unlock the power of advanced ceramics with precision stereolithography technology for high-performance, complex, and detailed technical 3D printed ceramic parts.
Overview
Ceramic Stereolithography (SLA) is an advanced additive manufacturing technology that enables the production of high-precision, complex technical ceramic parts without molds or machining. By using ready-to-print ceramic pastes and a top-down stereolithography process, SLA delivers exceptional detail, consistency, and strength while reducing material waste and post-processing. Ideal for aerospace, medical, electronics, and research applications, it opens new possibilities for functional, high-performance ceramic components.
Benefits & Advantages
Explore the unique advantages of using SLA technology for high-quality ceramic part production.
01
Exceptional Design Freedom
Create intricate geometries, complex structures, and fine details impossible with traditional ceramics.
02
Support-Free Printing
Top-down stereolithography enables printing no support attached to the parts , reducing post-processing and saving time.
03
Consistent Precision
Achieve repeatable accuracy and dimensional stability across multiple builds.
04
Material Efficiency
Minimize ceramic waste with refillable cartridges and optimized paste usage.
05
Reduced Production Steps
No molds or machining required, streamlining manufacturing from design to final part.
06
Enhanced Mechanical Properties
Produce dense, strong ceramic parts with exceptional thermal and chemical resistance.
Discover what makes Ceramic Stereolithography a game-changing solution in additive manufacturing.
01
Layer-by-Layer Fabrication
Builds parts from sliced 3D models with high structural integrity.
02
Wide Material Range
Ready-to-use pastes like alumina, zirconia, and hydroxyapatite for diverse applications.
03
High-Resolution Printing
Delivers fine details, sharp edges, and smooth surfaces for functional ceramics.
04
Industrial Scalability
Adaptable from lab-scale prototyping to large-scale serial production.
05
Easy Material Feeding
Cartridge system allows simple refilling during the print cycle.
06
Proven Reliability
Consistent output with minimal manual intervention, ensuring long-term efficiency.
Ceramic Stereolithography technology serves below given industries
Explore our advanced Ceramic Stereolithography 3D printers built for precision and production.
3DCeram C101 EASY FAB
Precision Ceramic 3D Printing for R&D and Scalable Production
The C101 EASY FAB is a high-precision ceramic 3D printer for labs and research teams, offering support-free SLA printing, automatic slurry control, and seamless scale-up to large-format platforms.
Versatile Ceramic 3D Printer for Prototyping & Small-Series Production
The C900 FLEX is a high-performance ceramic 3D printer offering precision, repeatable accuracy, and scalable production. Its flexible workflow and multi-size build platforms support diverse ceramic applications.
The C3601 ULTIMATE is an industrial ceramic 3D printer with a large 600×600×300 mm build platform and top-down SLA. It delivers high-precision, mass-production ceramic parts efficiently.
Industrial Ceramic 3D Printing for Scalable Production
The C1000 FLEXMATIC is an industrial ceramic 3D printer offering large-format, support-free printing with semi-automated, continuous production. Ideal for high-performance, reliable manufacturing workflows
Precision Ceramic 3D Printing for Research & Innovation
A compact ceramic 3D printer for research and R&D, offering high-accuracy laser SLA and customizable, material-efficient printing for advanced ceramic development.
Alumina (Al₂O₃) is a versatile ceramic with excellent high‑temperature strength, thermal conductivity, electrical resistivity, hardness, wear resistance, and chemical stability—ideal for advanced industrial parts, electrical insulators, and high‑temperature structural components.
Alumina Toughened Zirconia
Alumina‑toughened zirconia (ATZ) is a biocompatible, high‑strength ceramic with excellent wear resistance and thermal shock tolerance—ideal for demanding biomedical implants, prosthetics, and rugged industrial components requiring long‑lasting performance.
Silicore
Silicore is a silica‑based ceramic engineered for foundry cores, offering high mechanical strength and a porous structure that enhances leachability in complex geometries—ideal for precision casting, shell molds, and demanding metal casting applications
Zirconia 8Y
8 mol% yttria‑stabilized zirconia (8YSZ) is a high‑performance ceramic engineered for fuel cell applications, offering excellent ionic conductivity, thermal stability, and mechanical strength—ideal for solid oxide fuel cells and advanced energy systems.
TCP
Tricalcium Phosphate (TCP) is a bioceramic widely used for medical implants and bone repair, especially for replicating spinal structures due to its excellent biocompatibility and similarity to natural bone composition.
Silice SiO2
Silica (SiO₂) ceramic offers excellent thermal stability and precision, making it ideal for foundry cores, investment casting applications, and optical components where high temperature resistance, dimensional accuracy, and surface quality are critical.
HAP
Hydroxyapatite/TCP is a bioactive ceramic with a chemical composition similar to natural bone, ideal for biomedical applications. It promotes excellent osteointegration, making it suitable for bone grafts, implants, and regenerative solutions.
Silicon Nitride
Silicon nitride is one of the hardest and most durable technical ceramics, with high resistance to thermal shock, wear, and corrosion. It is used in pumps, valves, semiconductors, and other components.
Aluminium Nitride
Aluminium Nitride (AlN) is a high‑performance ceramic offering exceptional mechanical strength, excellent thermal conductivity, and electrical insulation—ideal for advanced electronics, power modules, substrates, and components requiring reliable heat management and dielectric performance.
Advanced software for design preparation, print optimization, and seamless workflow integration.
CPS 2.0
Optimize your SLA printing workflow with intuitive, powerful software—like CPS 2.0 and Build-It—that prepare, verify, and manage print jobs for ceramics and resins. CPS 2.0 offers multi-machine connectivity, role-based access, and a streamlined “click & print” interface to reduce errors and boost productivity. Build-It (a plug-in for CPS 2.0) adds advanced preparation tools—error healing, support generation, scaling, compensation, and orientation controls—to simplify file setup and reduce operator effort.
