Research
ADT ceramic 3D printing solutions support universities, research institutes, and laboratories in developing new materials, complex structures, and advanced ceramic components for research and experimentation.
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Ceramic Additive Manufacturing Solutions
From material development to industrial production, ADT provides ceramic 3D printers, materials, printing services, and process support.
Printers
DLP, DIW and SLA ceramic 3D printing technologies for research and production.
New
TOP-DOWN DLP
Mini
High-precision 20μm ceramic 3D printing at an exceptional value for research and education.
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TOP-DOWN DLP
Standard
Research-level 50μm precision, industrial 700 layers/hour speed — for experimentation and mass production.
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BOTTOM-UP DLP
Multi-Material
Multi-material, 25μm precision — the preferred 3D printing platform for advanced materials research.
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TOP-DOWN DLP
Laboratory
25μm precision, high success rate, 100Pa·s compatibility — a ceramic 3D printer tailored for scientific research.
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TOP-DOWN DLP
Industry
Bigger, faster, more stable — up to 295×184×120 mm, up to 600 layers/hour for research and mass production.
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BOTTOM-UP DLP
Starter
5–20 mL material start, easy operation, ideal for material development.
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DIW
3D Printer
Designed for research, combining high precision with broad material compatibility.
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SLA
Ceramic 3D Printer
Laser forming with exceptional surface finish and dimensional stability.
Learn More →Materials
Tackle any problem with our industry-leading ceramic materials.
Material
Oxide Ceramics
Alumina and zirconia slurries with excellent high-temperature and corrosion resistance.
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Material
Non-oxide Ceramics
Silicon carbide and silicon nitride with wear resistance, thermal conductivity and chemical stability.
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Material
Bioceramics
HAP and TCP with excellent biocompatibility for dental and bone repair.
Learn More →Applications
From basic research to industrial development and production applications, ADT ceramic 3D printing technology helps researchers and engineers explore new materials, structures, and advanced ceramic applications.
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Industry
ADT ceramic 3D printing solutions support industrial R&D teams and manufacturers in developing ceramic components, optimizing production processes, and bringing advanced ceramic applications from development to production.
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Ceramic 3D printing services
Need ceramic parts but don't have a printer? ADT offers professional ceramic 3D printing services, covering slurry preparation, model design, printing, sintering, and final delivery.
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Training & Technical support
Get the knowledge, tools, and support needed to operate your ADT system effectively, including hands-on training, software and parameter packages, application guidance, and after-sales support.
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From outsourced ceramic 3D printing to technical training and after-sales support, ADT helps researchers and engineers move from materials exploration to successful ceramic production.
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Real parts printed on ADT ceramic 3D printers — alumina, zirconia, silicon carbide, multi-material and bioceramic samples.
Videos
Hardware, materials, software and service — see how ADT ceramic 3D printing works in practice.
Recent Published Research
Programmable 3D-Orthotropic Piezoceramic Sensors Enabled by Solid-Loading-Maximized Additive Manufacturing
A BaTiO₃ slurry at 90 wt.% solids (over 62 vol.%) was printed into TPMS lattices whose X, Y and Z periods are scaled independently. With the poling direction fixed, breaking that symmetry leaves each axis with a different charge response, so one monolithic part resolves force direction without an array of sensors. The 90 wt.% ceramic reached d₃ 240 pC N⁻¹ and a compressive strength of 342 MPa; the sensing builds (80 wt.%, thinner walls) gave 0.42 V N⁻¹, R² > 0.999, a 1.4 ms response and 68.6 µW cm⁻³, and were used for wireless gait capture.
Adv. Funct. Mater. · 2026
One Printed Part, Three Sensing Axes: Programming Orthotropy into Barium Titanate
Read our analysis →Decreased Mechanosensitivity and Metabolic Reprogramming Impair Bone Regeneration in Type II Diabetes: Core Mechanism and Targeted Scaffold Design
The study made 3 mm diameter × 4 mm deep femoral condyle defects in type 2 diabetic rats and showed that even autologous bone graft heals poorly. Proteomics and energy metabolomics traced the failure to a PKM bottleneck that stalls glycolysis; a separate line of experiments found that the per-cell calcium influx is blunted, which leaves YAP in the cytoplasm and pushes BMSCs toward adipogenesis. Silicon-substituted calcium phosphate restored glycolysis but not cell fate; a TPMS architecture restored YAP nuclear translocation and shifted differentiation back to osteogenesis. The two were combined into a 3 mm diameter × 4 mm tall Si-CaP scaffold, printed by DLP on an ADT Ceram-D-L96 system; in diabetic rats it improved BMD, BV/TV and trabecular number at 4, 8 and 12 weeks.
J Transl Med · 2026
Diabetic Bone Defects Fail Twice: A Blocked Glycolysis Step and a Cell That Stops Feeling Load
Read our analysis →Digital Light Processing of High-Strength Reaction-Bonded SiC with a Tempered-Glass-Like Stress Distribution
The study printed nine SiC–diamond slurry formulations on an ADT Ceram-D-F192-class DLP printer (192 × 108 × 120 mm build, 405 nm, 30 µm layers), pyrolyzed them and reaction-sintered with molten silicon. Submicron diamond served as a low-UV-absorption carbon source: it migrated onto SiC surfaces during pyrolysis and drove heterogeneous nucleation of secondary SiC. The optimized formulation achieved 452.4 MPa flexural strength, 43.56 GPa Vickers hardness, 3.14 g/cm³ density and 7.8 vol% residue silicon, with a −934 ± 112 MPa compressive surface stress analogous to chemically tempered glass.
Additive Manufacturing · 2026
DLP-Printed Reaction-Bonded SiC: 452 MPa from a Tempered-Glass-Like Stress Distribution
Read our analysis →Multi-Material DLP Printing for Denture Materials: Investigation of Surface Characteristics, Physico-Mechanical Properties, and Cytocompatibility
The study printed denture teeth and denture base as one part on a dual-vat DLP system, then compared it with the conventional print-then-bond route across shear bond strength, surface texture, water sorption and solubility, biaxial flexural strength, and cytocompatibility under ISO methods. The printed interface reached 17.78 ± 3.22 MPa in shear bond strength against 7.96 ± 2.03 MPa for the bonded control (2.2×); the multi-material specimens failed cohesively in 100% of cases, and the material showed no cytotoxicity in L929 cells.
Dental Materials · 2026
Multi-Material DLP Printing for Dentures: A 2.2× Stronger Tooth–Base Interface
Read our analysis →News & Articles
Enterprise News
Bringing Ceramic DLP Down to $7,600 USD: Adventure Technology Launches the Mini Series
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Print Case
From 2 to 4 Machines: Ceramic 3D Printing Moves Into Bone Graft Production
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Industry Dynamics
Diabetic Bone Defects Fail Twice: A Blocked Glycolysis Step and a Cell That Stops Feeling Load
Read More →Get in Touch
Ready to explore ceramic 3D printing? Our team is here to help you choose the right equipment and materials.
Phone
+86 16675199919
Miss Liu
Miss Liu
Email
adventuretechqy@gmail.com
liuchunmei1@adt-qy.com
adventuretech@adt-ceramic3dp.com
liuchunmei1@adt-qy.com
adventuretech@adt-ceramic3dp.com
Address
Shenzhen: Room 120, Park 1, Overseas Students Pioneer Park, Longgang District
Foshan: 701, Bld. 7-1, Zhishang International Cloud Valley, Dali Town, Nanhai District, Foshan City, Guangdong, 528200, China
Foshan: 701, Bld. 7-1, Zhishang International Cloud Valley, Dali Town, Nanhai District, Foshan City, Guangdong, 528200, China