Ceramic Binder Jetting
— Complex Ceramic Parts Without Tooling
Produce high-performance ceramic components directly from CAD — no molds, no machining, no limits on geometry. SiC, Alumina, Zirconia. 8–12 L/h throughput. From R&D prototypes to production volumes. Upload your file — we will show you what is possible.

Why Binder Jetting for Ceramics?
Traditional ceramic manufacturing requires expensive tooling — dry pressing dies, injection molds, or slip casting setups. Binder Jetting eliminates all of that. Print complex geometries directly, then sinter to full density.
Binder Jetting
This Service
- Tooling: None. Zero.
- Complexity: Unlimited — internal channels OK
- Lead time: 10–15 days
- Min. order: 1 piece
- Design changes: Update CAD, re-print
- Materials: SiC, Al²O³, ZrO², composites
- Cost at low volume: Lowest
Traditional Ceramics
Pressing / Slip Casting / Injection
- Tooling: $5K–$50K+
- Complexity: Simple shapes only
- Lead time: 6–12 weeks (tooling)
- Min. order: 500–1,000+
- Design changes: New tooling = new cost
- Materials: Standard grades
- Cost at low volume: Prohibitive
CNC Machining Ceramic
Green / Sintered Machining
- Tooling: None, but high tool wear
- Complexity: Limited by tool access
- Lead time: 1–3 weeks
- Min. order: 1 piece
- Design changes: Re-program
- Materials: Machinable grades only
- Cost at low volume: High (diamond tooling)
Ceramic Materials We Print
All materials are qualified on our in-house BJ equipment with dedicated binder formulations and validated sintering profiles.
Silicon Carbide (SiC)
Our most mature ceramic material. 9.5 Mohs hardness, 120 W/mK thermal conductivity, oxidation-resistant to 1600°C. Semiconductor wafer handling, armor, mechanical seals, heat exchangers.
Alumina (Al²O³)
Excellent electrical insulation and chemical stability. Cost-effective general-purpose technical ceramic. Substrates, insulators, pump components, medical prosthetics.
Zirconia (ZrO²)
High fracture toughness, thermal shock resistance. Dental frameworks, cutting tools, oxygen sensors, thermal barrier coatings.
Ceramic Matrix Composites
SiC/SiC and C/SiC via BJ preform + melt infiltration. Aerospace thermal protection, braking systems, nuclear fuel cladding.
Soluble Ceramic Cores
Water-soluble investment casting cores for turbine blade cooling passages. Geometries impossible with traditional core injection molding.
Custom Ceramic Development
Proprietary powder? We formulate a custom binder and sintering profile. 5 binder families, 20+ formulations. 4–8 week qualification.
Why Outsource Ceramic BJ to 3DPTEK?
3DPTEK combines 30+ years of AM expertise with in-house binder development and ISO-certified production.
Two advanced ceramic materials on one platform. SiC for wear parts, armor, semiconductor. Al2O3 for electrical insulation, medical, chemical processing.
Dedicated ceramic mode on J400P with CU02 binder. 50% faster than metal mode. Production-scale capacity without production-scale investment.
Traditional ceramic manufacturing requires expensive molds and dies. BJ prints directly — zero tooling for complex geometries impossible with pressing or slip casting.
From STL to sintered ceramic part in 10 business days. Iterate designs rapidly without tooling delays.
Where Ceramic Binder Jetting Delivers
Applications where the combination of complex geometry, hard ceramics, and low-to-medium volumes makes BJ the clear winner.
🔌 Semiconductor Equipment
SiC wafer handling components, plasma-resistant chamber parts, electrostatic chucks. High-purity SiC — no metallic contamination. Complex internal channels for gas distribution and thermal management printed directly.
⚙ Wear-Resistant Components
SiC and alumina pump seals, bearing sleeves, valve seats, sandblasting nozzles. BJ enables internal features that would otherwise require expensive diamond grinding — at a fraction of the cost.
🏥 Medical Ceramics
Zirconia dental crowns and bridges, alumina femoral heads, custom ceramic surgical guides. ISO 13485 certified production. Patient-specific geometry without custom tooling.
🔥 High-Temperature Furnace Hardware
SiC kiln furniture, thermocouple protection tubes, crucibles. Sustained operation at 1200–1600°C in oxidizing atmospheres. Complex shapes printed to near-net — minimal post-sintering grinding.
✈ Aerospace CMCs
SiC/SiC composite preforms for turbine shrouds, thermal protection tiles, radomes. BJ preform + PIP or CVI infiltration. Complex fiber architecture impossible with layup techniques.
🔧 Investment Casting Cores
Water-soluble ceramic cores for single-crystal turbine blade casting. BJ enables serpentine cooling passages impossible with traditional core injection. Dissolved out after casting — zero mechanical extraction.
⚡ Electronics & Sensors
Alumina substrates and insulators with integrated mounting features. Sensor housings for harsh environments. BJ prints the complete geometry — no post-machining of brittle ceramic needed.
🌎 Nuclear & Energy
SiC/SiC accident-tolerant fuel cladding, fusion first-wall components, CSP receiver tubes. Radiation-resistant ceramics with complex coolant channel geometries.
🛠 General Industrial Ceramics
Custom insulators, spacers, guides, and fixtures. When you need 50 pieces of a ceramic part that doesn't exist off-the-shelf — BJ prints them in 2 weeks with zero tooling investment.
Our Binder Jetting Ceramic Equipment
3DPTEK's J400P and J800P binder jetting systems print ceramics on the same platform as metal — paired with proprietary ceramic binders and sintering profiles developed in-house. From SiC to alumina to zirconia — we print, debind, and sinter under one quality system.

3DPTEK-J400P
Compact production BJ for ceramics. 380 × 380 × 300 mm build volume with up to 5.3 L/h silicon carbide throughput and 0.1–0.3 mm layers — qualified for SiC, alumina and zirconia from R&D batches to serial production.

3DPTEK-J800P
Flagship large-format BJ with an 800 × 500 × 400 mm build and four printheads. Silicon carbide at up to 12 L/h with ±0.1 mm accuracy — production ceramic parts without tooling.
Click any printer for full specs on our Metal 3D Printer equipment page.
BJ Ceramic Case Examples
3D Printed SiC Impeller
Silicon carbide impeller green body printed directly from CAD. Complex blade geometries achieved without tooling, then sintered to full density.
3D Printed SiC Optical Mirror
Near‑net‑shape SiC optical reflector green body with lightweight core structure, printed without tooling and ready for sintering and polishing.
3D Printed SiC Brake Disc
SiC brake disc green body with integrated cooling features, near‑net‑shape printed for sintering. Offers high hardness and thermal stability.
Certifications — Verified Quality Systems
All centers certified
Medical device QMS — dental/medical ceramics
EU and Eurasian market access
Including ceramic binder and sintering IP
Ceramic Binder Jetting at Scale — The 3DPTEK Advantage
We do not just print ceramic parts — we design the printers, formulate custom binders (CU02 ceramic series), and control the entire debinding and sintering chain in-house.
🏆 Technology & Materials
- Self-designed BJ ceramic printers — J160R, J400P, J800P
- CU02 ceramic binder — high green strength, low residue after sintering
- SiC and Alumina ceramics qualified with documented processes
- 1.8m large-format ceramic BJ capability
- AFSWin3DP-L V1.0 proprietary control software
🏰 Production & Quality
- 8–12 L/h ceramic throughput on J800P
- 30+ years in additive manufacturing (since 1994)
- 320+ patents in 3D printing technology
- ISO 9001 certified processes
- Full traceability: green part → debinding → sintering → finished ceramic
Throughput
Qualified
Ceramic BJ
Formulations
Frequently Asked Questions
Silicon carbide (SiC), alumina (Al2O3), and zirconia (ZrO2) are our production-qualified materials. We also print ceramic matrix composite preforms (SiC/SiC, C/SiC) and water-soluble ceramic cores for investment casting. For proprietary powders, we develop custom binder formulations — typically 4–8 weeks to qualify a new material.
Up to approximately 800×500×400mm in the green state (J800P). After sintering, parts shrink predictably ~15–25% depending on material. Final dimensions up to ~640×400×320mm for SiC. Larger assemblies can be produced by joining multiple segments.
Print resolution: 400–1200 dpi. After sintering, dimensional accuracy is typically within ±1–2% accounting for predictable shrinkage (compensated in the CAD model). For tighter tolerances, we offer post-sintering diamond grinding and polishing.
No. From single R&D prototype parts (J160R) to full production runs (J800P), the same process and quality standards apply. Single prototypes typically ship in 10–15 business days.
For 1–10,000 parts, BJ is typically more cost-effective than pressing, slip casting, or injection molding — because tooling is eliminated. For very high volumes (>50,000 identical parts), traditional pressing may be cheaper per part. BJ is especially competitive for complex geometries where traditional tooling would be expensive or impossible to fabricate. Contact us for a part-specific comparison.
Upload your STL/STEP file at Get a Quote or email sales@lyafs.com. Our engineers will evaluate printability, recommend a ceramic material, and provide a detailed quote — typically within 24 hours on business days.
Minimum wall thickness: 0.3-0.5mm for SiC, 0.5-1.0mm for Al2O3 (depending on geometry). Layer thickness: 0.1-0.3mm. Post-sintering shrinkage is compensated in software. We provide as-printed and sintered tolerance data with every job.
