Photosensitive Resin2026-03-25T03:24:19+00:00

Photosensitive Resin

  • 1

    Alumina photosensitive resin

    Alumina photosensitive resin is a high-performance ceramic slurry formulated for precision 3D printing of alumina components.

  • 2

    Zirconia photosensitive resin

    Zirconia photosensitive resin is a ceramic slurry designed for high-precision additive manufacturing of zirconia components.

What Are Photosensitive resins?

Photosensitive resins for ceramic 3D printing are functional composite materials specifically developed for ceramic additive manufacturing. They consist of finely dispersed ceramic particles combined with photosensitive polymers, forming a slurry system suitable for high-precision printing processes such as DLP and SLA.

During printing, the material is selectively cured layer by layer using ultraviolet (UV) light to form the desired geometry. The printed green body then undergoes debinding and high-temperature sintering to remove organic components and achieve dense, fully ceramic parts. This technology enables the fabrication of complex structures with high resolution and excellent surface quality.

Product Introduction

Product Introductionn

Silicon Carbide Material

Alumina photosensitive resin

Alumina photosensitive resin combines high-purity alumina powders with a UV-curable resin system, offering stable dispersion, optimized viscosity, and reliable curing behavior. The material is designed to achieve high density and excellent dimensional accuracy after sintering, making it suitable for advanced engineering applications.
Applications:
Electronic substrates and insulating components.
Industrial wear-resistant parts.
High-temperature structural components.
Precision engineering parts.
Ceramic 3D printed prototypes and functional parts.

photosensitive resin

Zirconia Photosensitive Resin

Zirconia Photosensitive Resin formulation ensures stable rheological properties and consistent curing performance, enabling the fabrication of complex geometries with good surface finish. After sintering, the material provides high strength and reliable mechanical performance for demanding applications.
Applications:
Structural ceramic components.
Wear-resistant and mechanical parts.
Dental and precision components (R&D use).
Advanced engineering prototypes.

Printing Case

Industrial Applications

Ceramic 3D printing technology can be utilized to fabricate high-precision molds and components; serving as a complement to traditional techniques, it helps reduce waste in conventional manufacturing processes and shortens product development cycles.

Research Applications

The application of ceramic 3D printing in the field of scientific research is continuously expanding. In university research settings, it enables the rapid validation of materials and structures, thereby facilitating scientific inquiry. To date, ADT Technology has partnered with over 100 universities and research institutions both domestically and internationally.

FAQ: Oxide Ceramics

Photosensitive resins act as the binding and curing phase in ceramic slurries, enabling layer-by-layer solidification under UV light. They determine the curing behavior, green body strength, and overall printability of the material system.

The composition of the resin, including monomers, photoinitiators, and additives, directly influences light penetration and curing depth. Proper formulation is essential to achieve high resolution while avoiding overcuring or loss of detail.

The slurry must exhibit shear-thinning behavior, controlled viscosity, and good stability to ensure uniform recoating and prevent particle sedimentation during the printing process.

High solid loading improves final density and reduces shrinkage but increases viscosity and light scattering, which can negatively affect curing efficiency and printing accuracy.

Photoinitiators absorb UV light and generate reactive species that initiate polymerization. Their concentration and type directly affect curing speed, depth, and overall printing stability.

Ceramic particles scatter and absorb UV light, reducing curing depth and affecting layer adhesion. This requires careful optimization of particle size, refractive index matching, and resin formulation.

Debinding involves removing the polymer phase without causing cracks or deformation. High organic content, improper heating rates, or poor binder distribution can lead to defects in the final ceramic part.

The ratio of ceramic particles to resin determines shrinkage behavior. Lower resin content generally leads to reduced shrinkage, but insufficient binder can compromise green body strength.

    Consult Now

    If you are interested in our products, please leave your email and we will contact you as soon as possible, thank you!

    Go to Top