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Direct printing of sintering ceramics, metals, and exotic materials

3Dresyns Direct-Printing Sintering Resins — choose your print-to-sinter route 3DRESYNS · DIRECT-PRINTING SINTERING RESINS PRINT, DEBIND & SINTER POWDER PARTS Choose by debinding route and powder compatibility WHICH PRINT-TO-SINTER ROUTE DO YOU NEED? UNIVERSAL UDP-LDT WS Broad powders, low-temp water-soluble debinding. BASE BINDER CDP Direct-printing binder, high powder loading. WATER-SOLUBLE CDP-WS Water-assisted debinding, stable green body. LOW-TEMP WS CDP-LDT WS Low-temp + water-soluble debinding. OPAQUE WHITE TiO2 Ultra-white opaque parts, 70% TiO2 solids. ⚠ Remember: green-part resin systems — not the finished sintered part. Validate powder loading, debinding & sintering for your process. At-a-glance summary · full comparison table & product details on the page.

Direct-printing resin systems for sintering ceramics, metals and exotic materials through powder-loaded green-part fabrication, controlled debinding and final thermal conversion.

3Dresyns® materials in this collection are positioned for print-to-sinter workflows where wetting, dispersion, powder loading, debinding behaviour and dimensional control must work together as one engineered system.

Navigate by: debinding logic, water solubility, powder compatibility and target sintering workflow.

Print-to-sinter materials platform

This collection groups 3Dresyns® materials for direct printing of ceramic, metal, polymer and exotic powder-loaded green bodies intended for debinding and sintering workflows.

Material selection should be aligned with debinding route, thermal window, powder type, solids loading, shrinkage control and the final functional target of the sintered part.

Key features & benefits

Material navigation

Choose your direct-printing sintering route

Use the routes below to navigate the collection by debinding logic and powder-processing strategy.

Material routes
Collection strengths
  • Print-to-sinter material concepts for ceramic, metal and exotic-filled workflows.
  • Compatibility with green-part fabrication, debinding and sintering development.
  • Support for micron, submicron and selected nano-powder loaded routes depending on system.
  • Useful for R&D, technical prototypes and validation of sintered end-use properties.

Typical applications

Application logic

Typical use scenarios across the collection

This collection is relevant for teams developing powder-loaded vat photopolymerization workflows where the printed part is an intermediate green body that will be debound and thermally converted.

  • Ceramic and metal R&D: development of printable formulations and process windows for sintering routes.
  • Green-part printing: fabrication of powder-loaded parts with controlled geometry before debinding and firing.
  • Debinding and sintering development: optimisation of removal strategy, shrinkage control and thermal conversion sequence.
  • Technical prototypes: high-resolution parts for materials validation before industrial scale-up.
  • Advanced materials validation: exploration of sintered end-use properties in ceramic, metal, polymer and exotic powder systems.

Why choose this collection

Selection logic

How to choose the right direct-printing sintering material

Select the most suitable route according to powder compatibility, debinding strategy and target process constraints.

Decision guide
  • Need a universal low-debinding-temperature and water-soluble route → 3Dresyn UDP-LDT WS
  • Need a direct-printing base system with broad powder compatibility → 3Dresyn CDP
  • Need controlled water solubility with structural stability → 3Dresyn CDP-WS
  • Need combined water solubility and accelerated low-temperature debinding → 3Dresyn CDP-LDT WS
  • Need a highly opaque ceramic-filled white route → 3Dresyn TiO2 Rutile
Workflow preference
  • Prioritise lower debinding temperature → evaluate UDP-LDT WS or CDP-LDT WS
  • Prioritise water-assisted debinding → evaluate the WS routes
  • Prioritise general powder wetting and high solids loading flexibility → start with CDP or UDP-LDT WS depending on thermal logic
Engineering rule

Decision tree summary

Use this simplified engineering logic before detailed formulation and furnace validation.

Decision steps
  • Need broad ceramic / metal / polymer / exotic compatibility with lower-temperature debinding → UDP-LDT WS
  • Need a standard direct-printing powder-loaded binder matrix → CDP
  • Need water-soluble debinding support → CDP-WS
  • Need water-soluble plus low-temperature debinding logic → CDP-LDT WS
  • Need opaque TiO2-loaded white parts or ceramic-style masking route → TiO2 Rutile

Then validate the final route under the intended solids content, particle size, printer settings, debinding medium, thermal ramp and sintering cycle.

Products in this collection

Universal route

Universal low-debinding-temperature water-soluble route

For broad powder-loaded workflows where low-temperature debinding and water-assisted removal are important for green-part processing and subsequent sintering.

Product
Base route

Direct-printing base binder system

For ceramic, metal, polymer and exotic powder-loaded formulations requiring strong wetting, dispersion and a stable direct-printing route for green-body fabrication.

Product
Water-soluble route

Controlled water-soluble direct-printing route

For workflows that need partial water solubility to support debinding while preserving sufficient green-body stability during handling and thermal processing.

Product
Low-temperature route

Low-debinding-temperature water-soluble route

For powder-loaded workflows where accelerated debinding through combined water solubility and lower-temperature decomposition is strategically useful.

Product
Opaque ceramic-filled route

Ultra-white TiO2-loaded route

For high-opacity white parts, optical masking elements and selected ceramic-loaded photopolymer workflows requiring strong whiteness and opacity.

Product

Technical overview table

Workflow-dependent performance

Powder wetting, dispersion, solids loading, green strength, debinding rate, shrinkage and final sintering result depend on the interaction between resin system, powder type, particle size, solids fraction, printer settings and thermal processing protocol.

Successful implementation therefore requires alignment between material selection, powder formulation, printing parameters, debinding method and qualified sintering schedule.

Material Debinding logic Core profile Typical behaviour Typical positioning Target workflow
UDP-LDT WS Low debinding temperature + water soluble Universal powder-loaded route High wetting, strong dispersion, fast debinding and good flow Broad ceramic, metal, polymer and exotic powder workflows with lower-temperature debinding needs Direct printing, debinding and sintering of powder-loaded green parts
CDP Standard debinding window Base photopolymer binder system Excellent wetting, dispersion and flow with high powder loading support General direct-printing route for ceramic, metal, polymer and exotic powders Powder-filled green bodies for debinding and sintering
CDP-WS Water soluble Water-assisted debinding route Controlled water solubility with maintained structural stability Workflows needing water-assisted debinding without losing dimensional integrity too early Direct printing, debinding and sintering of powder-loaded green parts
CDP-LDT WS Low debinding temperature + water soluble Accelerated debinding route Efficient dispersion, high powder loading and lower-temperature debinding behaviour Powder systems benefiting from combined water solubility and thermal decomposition at lower temperature Direct printing, debinding and sintering of powder-loaded green parts
TiO2 Rutile Debindable composite matrix High-opacity TiO2-filled resin Ultra-white, opaque and stable particle dispersion Optical masking, white ceramic-style parts and high-opacity components Vat photopolymerization with optional subsequent thermal processing

Mobile: scroll horizontally to view all columns. The first column remains visible while scrolling.

Portfolio overview

Portfolio structure

A sintering-development platform rather than a single green-body resin

This collection is structured around different debinding and powder-processing logics so users can choose a route that better matches powder family, thermal sensitivity and processing strategy.

  • UDP-LDT WS adds a more universal low-debinding and water-soluble route.
  • CDP provides the core direct-printing powder-loaded binder logic.
  • CDP-WS introduces controlled water-soluble behaviour.
  • CDP-LDT WS combines water solubility and lower-temperature debinding.
  • TiO2 Rutile extends the portfolio toward opaque ceramic-loaded white applications.

Workflow note

System-based sintering principle

The right route depends on the full green-body-to-sinter chain

These materials should be selected as part of a complete system, not only by resin name. Final results depend on powder identity, solids loading, particle morphology, wetting quality, printing parameters, debinding route and sintering cycle.

In practice, the correct path is to choose the debinding logic first, then validate powder dispersion, shrinkage behaviour and thermal conversion under the intended process window.

Technical and commercial support

Support framework

Documentation, technical selection help and custom development support

Use the resources below to move from route preselection to formulation guidance, workflow validation or project-specific development support.

Support resources
Next step

Select the right print-to-sinter route and validate the full thermal workflow

Use the debinding- and process-based navigation above to identify the most relevant direct-printing system, compare candidates in the technical overview table, and move forward with powder-specific validation for ceramic, metal or exotic sintering workflows.

Quick actions

Before choosing direct AM: Compare direct vs indirect routes →

Related powder and sintering routes

Catalogue navigation

Explore closely related 3Dresyns collections

Use these links to move between closely related material, process or formulation families in the 3Dresyns catalogue.