Materials, Processes and Technology Transfer for Additive Manufacturing
Materials, processes and technology transfer for additive manufacturing.
This page represents the consulting and technology-transfer layer of the 3Dresyns® platform, connecting materials, processes and engineering methodology with real manufacturing implementation.
Additive manufacturing projects often fail not because of hardware limitations, but because of material-process mismatch, insufficient formulation control, incomplete validation or poor integration between printing and post-processing.
3Dresyns® provides technical consulting services focused on materials, processes and technology transfer, helping customers move from concept and R&D to reliable, controllable and scalable additive manufacturing workflows.
Our consulting approach is grounded in materials science, formulation engineering, process control and real manufacturing constraints, not generic AM advice.
What we do
Technical partner for AM implementation
3Dresyns® supports companies, research organizations and technology developers working with polymers, photopolymers, ceramics, metals, powders, binders, feedstocks and advanced material systems.
We support projects across:
- Direct additive manufacturing
- Indirect additive manufacturing
- Photopolymer-based processes
- Powder-based and binder-based processes
- Debinding, sintering and thermal-processing routes
- Emerging and non-standard AM technologies
Our role is to reduce technical risk, shorten development cycles and enable robust implementation.
Related engineering system
Technology transfer should be connected to structured material selection, process control, IFU, validation and documentation.
Core consulting areas
Material selection and development
- Selecting suitable materials for specific AM technologies
- Developing custom photopolymer resins, binders and feedstocks
- Adapting materials to specific printers, wavelengths, process windows and equipment constraints
- Balancing printability, resolution, mechanical performance, post-processing and final application requirements
Process design and optimization
- Printing parameter definition and tuning
- Curing, washing, post-curing and consolidation strategies
- Debinding and sintering workflow design
- Dimensional control, shrinkage management and process compensation
- Reduction of defects such as cracking, warping, porosity, delamination or incomplete curing
This ensures predictable and reproducible process performance.
Direct vs indirect manufacturing strategy
- When direct AM is technically viable
- When indirect AM provides superior robustness or material performance
- Hybrid workflows combining additive and conventional processes
- Printed molds, sacrificial structures, castable patterns and feedstock-shaping routes
- Scalability and production-readiness assessment
Powder and binder-based processes
- Binder-based SLS and cold fusion technologies
- Powder preparation, binder selection and formulation strategy
- Ceramic, metal, polymer and glass powder feedstock workflows
- Debinding, sintering and thermal-processing integration
- Dimensional accuracy, final density and final property interpretation
Advanced and emerging technologies
- Volumetric additive manufacturing (VAM)
- Two-photon polymerization (2PP)
- Inkjet and material jetting systems
- Lithography-based metal manufacturing (LMM)
- Advanced photopolymer manufacturing routes
Typical consulting use cases
- Ceramic and metal manufacturing route selection
- Injection molding, casting or feedstock shaping using 3D printed molds
- Optimization of debinding and sintering workflows
- Material formulation for SLA, DLP, LCD, Inkjet, VAM, 2PP and advanced AM
- Failure analysis and workflow stabilization
- Scale-up from laboratory development to pilot and industrial production
Technology transfer and scale-up
From R&D to controlled production
- Transition from laboratory development to pilot and production workflows
- Adaptation of materials and processes to industrial constraints
- Workflow documentation, stabilization and repeatability logic
- Training on material handling, process control and validation
- Identification of failure modes before scale-up
Technology transfer ensures that what works in R&D also works in production.
Who we work with
- Industrial manufacturers and OEMs
- Tier-1 and Tier-2 suppliers
- Research centers and universities
- Start-ups and technology developers
- Service bureaus and contract manufacturers
- Companies developing new materials, workflows or additive manufacturing platforms
If you are developing a new material, process or manufacturing workflow, contact our technical team with your application, materials, geometry, technology route and production targets.