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    Reactive rigidity/flexibility adjusters

    3Dresyns Rigidity & Flexibility Adjusters — tune rigidity and flexibility precisely 3DRESYNS · RIGIDITY & FLEXIBILITY ADJUSTERS TUNE RIGIDITY & FLEXIBILITY PRECISELY Adjust rigidity, hardness, softness, flexibility and crosslink density WHICH ADJUSTMENT DO YOU NEED? RIGIDITY &HARDNESS Increase rigidity & hardness. SOFTNESS &FLEXIBILITY Add softness & flexibility. CROSSLINKER Raise rigidity via crosslink density. HDT BOOSTER Boost heat-deflection temperature (HDT). ⚠ Remember: reactive property modifiers — not ready-to-print resins. Final behaviour depends on base resin, loading & curing — validate it. At-a-glance summary · full comparison table & product details on the page.

    Reactive rigidity and flexibility adjusters for precise mechanical tuning of photopolymer 3D resins, enabling controlled network adjustment and application-driven performance balancing.

    3Dresyns® adjusters in this collection are designed for formulation projects where rigidity, hardness, softness, flexibility and crosslink density must be tuned more precisely than with a base resin alone.

    Navigate by: rigidity route, flexibility route, crosslinking route and thermal-performance boosting route.

    Reactive mechanical-tuning platform

    This collection groups reactive property modifiers for tuning rigidity versus flexibility, enabling controlled network adjustment and mechanical-property balancing across different Shore ranges depending on the target.

    These materials are positioned for printer-specific optimization, flexible-to-rigid grade development and formulation-versatility projects in engineering, medical and healthcare-oriented workflows.

    Key features & benefits

    Material navigation

    Choose your property-adjustment family

    Use the routes below to navigate the collection by the type of mechanical adjustment you want to introduce.

    Material routes
    Collection strengths
    • Reactive property modifiers for tuning rigidity versus flexibility.
    • Controlled network adjustment for application-driven performance.
    • Mechanical property balancing across Shore ranges depending on target.
    • Improved formulation versatility for printer-specific and project-specific development.

    Typical applications

    Application logic

    Typical use scenarios across the collection

    This collection is suitable for workflows where the base resin needs to be fine-tuned toward a more rigid, more flexible or more thermally resistant property window.

    • Custom mechanical tuning: adjusting hardness, softness and deformation behaviour in formulation development.
    • Stiffness and toughness balancing: tuning trade-offs between rigidity and damage tolerance.
    • Flexible-to-rigid grade development: creating intermediate or application-specific mechanical profiles.
    • Printer-specific resin optimization: adapting materials to the process behaviour of a specific machine.
    • Application-driven formulation projects: designing resin systems to meet targeted functional outcomes.

    Why choose this collection

    Selection logic

    How to choose the right rigidity or flexibility adjuster

    Select the most suitable route according to whether the main goal is stronger rigidity, softer flexibility, more crosslink density or higher heat-deflection performance.

    Decision guide
    • Need significant rigidity adjustment with high-viscosity route → choose HA1 HV MF Bio
    • Need detailed rigidity adjustment with low-viscosity route → choose HA2 LV Bio or HA3 LV MF Bio
    • Need significant flexibility adjustment → choose SA1 HV Bio
    • Need detailed flexibility adjustment with low viscosity → choose SA2 LV Bio
    • Need crosslinking-based rigidity increase → choose XL1 Bio
    • Need higher HDT through additive tuning → choose HDT1 Bio
    Workflow preference
    • Prioritise large formulation shifts → start with the high-viscosity HA1 or SA1 routes
    • Prioritise finer formulation control → start with the low-viscosity HA2, HA3 or SA2 routes
    • Prioritise network-density increase → start with XL1 Bio
    • Prioritise thermal resistance improvement → start with HDT1 Bio
    Engineering rule

    Decision tree summary

    Use this simplified logic before detailed formulation validation.

    Decision steps
    • Need more rigidity → HA1 / HA2 / HA3
    • Need more flexibility or softness → SA1 / SA2
    • Need more crosslink-driven rigidity → XL1
    • Need higher HDT → HDT1

    Then validate the final route under the intended resin chemistry, modifier loading, exposure strategy and post-curing protocol.

    Products in this collection

    Flexibility routes

    Softness and flexibility adjusters

    For workflows requiring softer response, more flexibility or more detailed tuning of compliant behaviour in the final resin.

    Products
    Crosslinking route

    Crosslinker for rigidity adjustment

    For workflows where rigidity is increased through crosslink-density tuning rather than only through conventional hardness adjustment.

    Product
    Thermal-performance route

    Heat Deflection Temperature booster

    For workflows where the main requirement is a custom increase in HDT while keeping the rest of the resin system under controlled formulation adjustment.

    Product

    Technical overview table

    Workflow-dependent performance

    Final rigidity, flexibility, crosslink density, viscosity balance and thermal performance depend on the interaction between the selected adjuster, the base resin, modifier loading and the curing/post-curing workflow.

    Successful implementation therefore requires alignment between modifier selection, formulation target, resin chemistry and qualified processing conditions.

    Material Primary role Viscosity / route logic Main behavior Typical positioning Target workflow
    HA1 HV MF Bio Rigidity and hardness adjuster High viscosity / significant shift Significant rigidity adjustment Projects needing larger rigid-property movement Reactive tuning of rigid resin behaviour
    HA2 LV Bio Rigidity and hardness adjuster Low viscosity / detailed control Detailed rigidity adjustment Projects needing finer rigid-property tuning Reactive tuning of rigid resin behaviour
    HA3 LV MF Bio Rigidity and hardness adjuster Low viscosity / rigidity tuning Rigidity adjustment with low-viscosity route Biocompatible rigid-tuning projects Reactive tuning of rigid resin behaviour
    SA1 HV Bio Softness and flexibility adjuster High viscosity / significant shift Significant flexibility adjustment Projects needing larger compliant-property movement Reactive tuning of softness and flexibility
    SA2 LV Bio Flexibility and softness adjuster Low viscosity / detailed control Detailed flexibility adjustment Biocompatible flexibility-tuning projects Reactive tuning of softness and flexibility
    XL1 Bio Crosslinker Crosslink-density route Rigidity increase via crosslinking Formulation projects needing network-density tuning Crosslink-driven rigidity adjustment
    HDT1 Bio HDT booster Thermal-performance route Custom increase of Heat Deflection Temperature Projects needing higher thermal resistance HDT-focused formulation tuning

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

    Portfolio overview

    Portfolio structure

    A full mechanical-tuning platform rather than a single modifier

    This collection is structured around four complementary tuning logics: rigidity/hardness adjustment, softness/flexibility adjustment, crosslink-driven rigidity increase and HDT boosting.

    • HA1, HA2 and HA3 cover rigidity and hardness tuning routes.
    • SA1 and SA2 cover softness and flexibility tuning routes.
    • XL1 adds a crosslinking-based route for rigidity increase.
    • HDT1 adds a thermal-performance boosting route.

    Workflow note

    System-based tuning principle

    The right route depends on the property target, not only on the additive name

    These modifiers are most useful when the target is clearly defined first: more rigidity, more flexibility, more crosslink density or higher HDT.

    In practice, the correct path is to define the mechanical or thermal target first, then validate the modifier under the intended resin chemistry, loading window and processing conditions.

    Technical and commercial support

    Support framework

    Documentation, technical selection help and workflow support

    Use the resources below to move from modifier preselection to formulation planning, printer-specific validation or broader technical support.

    Support resources
    Next step

    Select the right adjustment route and validate the final mechanical window

    Use the route-based navigation above to identify the most relevant modifier, compare candidates in the technical overview table, and move forward with formulation-specific validation for rigidity, flexibility or thermal-performance tuning.

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