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    Material Development (Custom Material Systems)

    3Dresyns · Material Development & Custom Material Systems — at-a-glance hub 3DRESYNS · MATERIAL DEVELOPMENT CUSTOM MATERIAL SYSTEMS, ENGINEERED TO YOUR PROCESS Develop or adapt materials by application, process, printer and performance WHAT DOES MATERIAL DEVELOPMENT COVER? WHEN TO USE IT Custom systems when catalog isn’t enough. PROPERTIES TUNED Mechanical, thermal, optical, curing & jetting behaviour. PLATFORMS Vat, inkjet, 2PP, powder, binder & sacrificial. SYSTEM-LEVEL Material engineered with the full workflow. CONTROLLED MODEL NDA, IP boundaries & proprietary supply. ⚠ Remember: material development is not only a formulation change — chemistry, process, printer & post-processing are designed together for real implementation. At-a-glance hub · full scope, platforms, routes & how-to-start on the page.

    Material Development programs focus on the development, adaptation and customization of additive manufacturing material systems when standard catalog materials are not sufficient.

    3Dresyns® develops custom material systems across photopolymer resins, inkjet materials, binders, additives, auxiliaries, powder-related systems, indirect manufacturing materials and advanced formulations for emerging additive manufacturing routes.

    Material Development is part of the broader 3Dresyns® engineering program framework and should be understood as a structured route for creating or adapting material systems according to application, process, printer, performance and implementation requirements.

    Quick access

    Choose the most relevant route depending on whether you need a custom material, broader engineering orientation or direct contact.

    Action routes

    Scope of Material Development programs

    Custom material systems for additive manufacturing

    Material Development may include:

    • adjustment of mechanical, thermal, optical, electrical or chemical properties
    • tuning of viscosity, reactivity, curing behaviour, jetting behaviour, powder interaction or binder performance
    • optimization for specific printer architectures, wavelengths, light power, jetting heads, powder systems or thermal routes
    • customization for post-processing, cleaning, curing, debinding, sintering or sterilization workflows
    • adaptation to regulatory, safety, biocompatibility or industrial handling constraints
    • versioning of material systems for defined implementation windows
    • balancing process stability, printability, manufacturability and end-use performance

    All customization work is performed within defined project scope and validated according to the intended material platform, technology route and application requirements.

    Material platforms and technologies

    Customizable material families

    Material development can address multiple 3Dresyns® technology and material platforms, including:

    • vat photopolymerization materials for SLA, DLP, LCD and MSLA systems
    • inkjet and material jetting photopolymers
    • Two-Photon Polymerization (2PP) materials for nano and microfabrication
    • volumetric additive manufacturing materials
    • NIL, UV / EB photoresists and advanced microfabrication systems
    • Lithography-based Metal Manufacturing (LMM) binders
    • direct print-to-sinter ceramic, metal and exotic loaded systems
    • powder binders for SLS, cold metal fusion, cold ceramic fusion and related powder routes
    • ceramic, metal, glass, polymer and exotic powder feedstock slurries for injection into printed molds
    • sacrificial, soluble, castable and mold-making systems
    • additives, auxiliaries, fine tuners, color systems and functional modifiers
    • UV / visible-light curable adhesives, putties, gels, fillers and sealants
    Portfolio navigation

    Typical development objectives

    Performance and process tuning

    Typical customization objectives include:

    • improving printability on specific printers or manufacturing systems
    • increasing resolution, precision or dimensional accuracy
    • enhancing toughness, flexibility, rigidity, thermal resistance or impact behaviour
    • reducing brittleness, warping, cracking, shrinkage or porosity
    • optimizing transparency, refractive index, colour or surface finish
    • adjusting reactivity for faster or slower processing
    • improving jetting stability, droplet behaviour or viscosity-temperature response
    • adapting binders for debinding, burnout, sintering or powder consolidation
    • improving sacrificial removal, water solubility, solvent solubility or clean burnout
    • developing application-specific handling, safety or documentation logic

    Each project balances material performance, process stability and manufacturability.

    Integration with manufacturing workflows

    Material development is not only formulation change

    3Dresyns® integrates material design with the complete manufacturing workflow, including:

    • printing parameters, exposure strategy, jetting strategy or powder-processing logic
    • post-processing, curing, debinding or sintering workflows
    • cleaning chemistry, washing protocols and handling constraints
    • compatibility with additives, auxiliaries and fine-tuning systems
    • alignment with printer architecture, recoating, peeling, optical power or thermal process windows
    • dimensional control, shrinkage interpretation and repeatability

    This ensures that customized material systems are designed for real implementation, not only for laboratory formulation performance.

    Engineering references

    Direct, indirect and hybrid material routes

    Development route selection

    Custom material development may support direct printing, indirect manufacturing or hybrid workflows depending on the final material objective.

    • Direct AM: the material is printed as the final or near-final geometry.
    • Indirect AM: the printed object is a mold, pattern, core, support, sacrificial structure or manufacturing intermediate.
    • Print-to-sinter routes: the printed or shaped body is debound and thermally converted or sintered.
    • Binder and powder routes: the material system supports powder consolidation, shaping or downstream densification.

    The correct development route depends on final performance, density, purity, resolution, equipment, scale-up and manufacturing cost.

    Route selection

    Regulatory and safety considerations

    Application-dependent constraints

    When required, material development projects may address:

    • biocompatibility-oriented formulation and workflow constraints
    • dental, medical, research or healthcare-related application requirements
    • food-contact, low-odour, low-toxicity or handling constraints where applicable
    • sterilization, cleaning, post-curing or residual species control
    • documentation alignment with safety and regulatory frameworks

    Final validation, qualification, certification and regulatory approval remain the responsibility of the legal manufacturer or end user.

    Documentation

    Confidentiality and intellectual property

    Controlled development model

    Material development projects are conducted under appropriate confidentiality and project-boundary conditions.

    • confidentiality and non-disclosure frameworks where required
    • clearly defined intellectual property boundaries
    • controlled access to technical documentation
    • defined scope for formulation, testing and supply

    Customized material systems are developed as proprietary material platforms supplied by 3Dresyns® under controlled manufacturing conditions to support reproducibility and quality consistency.

    Disclosure of full formulation architecture, detailed chemical composition or synthesis routes is not part of standard Material Development services. Material Development does not constitute formulation transfer unless a separate Technology Transfer framework has been explicitly agreed.

    Technology transfer route

    Who this service is for

    Typical customer profiles

    Material Development programs are typically used by:

    • industrial manufacturers
    • medical and dental device developers
    • research institutions and laboratories
    • start-ups developing proprietary products
    • service bureaus requiring differentiated materials
    • technology developers working on new AM processes
    • companies scaling from R&D to pilot or production workflows

    Projects can range from targeted material adjustment to complete development of new additive manufacturing material systems.

    How to start

    Start with the technical problem

    Additive manufacturing applications rarely succeed using generic materials alone. Material development aligns chemistry, process, printer, post-processing and end-use requirements to reduce risk and unlock performance that standard materials cannot deliver.

    When contacting 3Dresyns®, include your application, printing or manufacturing technology, target performance, printer or process constraints, regulatory requirements and expected volumes where relevant.

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