From filaments and resins to engineering powders and metal alloys. Explore materials and grades for design, prototyping and production.
Explore formulations and grades, compare processes and find the starting point for your project. Each material has a reference code to discuss your requirements with our team.
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An engineering thermoplastic filament for technical prototype studies.
Housings, fixtures, equipment covers and functional models.
Validate the printer, drying, orientation and service environment for the selected grade.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
An engineering thermoplastic filament for technical prototype studies.
Housings, fixtures, equipment covers and functional models.
Validate the printer, drying, orientation and service environment for the selected grade.
A foaming filament formulation for lightweight geometry studies.
Lightweight models, aerodynamic prototypes and shaped shells.
Foaming behaviour depends on settings; validate dimensions, density and mechanical requirements on the intended process.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A polycarbonate filament grade for technical component studies.
Engineering housings, fixtures and functional prototypes.
Validate the printer, drying, orientation and service environment for the selected grade.
A polycarbonate filament grade for technical component studies.
Engineering housings, fixtures and functional prototypes.
Use the manufacturer’s exact grade, geometry and test conditions for any flame-related requirement; validate the finished component.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A PETG filament grade for visual and functional prototype studies.
Housings, covers, brackets and fit-check parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A PETG filament grade for visual and functional prototype studies.
Housings, covers, brackets and fit-check parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A PETG filament grade for visual and functional prototype studies.
Housings, covers, brackets and fit-check parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A PETG filament grade for visual and functional prototype studies.
Housings, covers, brackets and fit-check parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A foaming filament formulation for lightweight geometry studies.
Lightweight models, aerodynamic prototypes and shaped shells.
Foaming behaviour depends on settings; validate dimensions, density and mechanical requirements on the intended process.
A PLA filament line for design models and visual prototyping.
Concept models, visual prototypes and demonstration parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A PLA filament line for design models and visual prototyping.
Concept models, visual prototypes and demonstration parts.
Validate the printer, drying, orientation and service environment for the selected grade.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A modified PLA grade for more demanding prototype handling.
Functional prototypes, assembly trials and handled models.
Validate the printer, drying, orientation and service environment for the selected grade.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A decorative PLA material line with its own published surface or optical effect.
Concept models, visual prototypes and demonstration parts.
The surface or optical effect does not imply metal, stone or optical-grade performance; check geometry, nozzle compatibility and heat exposure.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A fibre-filled filament grade for technical prototype and tooling studies.
Jigs, fixtures, equipment interfaces and functional prototypes.
Use compatible abrasion-resistant equipment; assess moisture, layer direction and the exact grade data.
A dedicated support filament for compatible multi-material workflows.
Support interfaces and removable support structures.
Check the supported model material, feeding system and removal procedure; support filament is not the final part material.
A dedicated support filament for compatible multi-material workflows.
Support interfaces and removable support structures.
Check the supported model material, feeding system and removal procedure; support filament is not the final part material.
A dedicated support filament for compatible multi-material workflows.
Support interfaces and removable support structures.
Check the supported model material, feeding system and removal procedure; support filament is not the final part material.
A dedicated support filament for compatible multi-material workflows.
Support interfaces and removable support structures.
Check the supported model material, feeding system and removal procedure; support filament is not the final part material.
A dedicated support filament for compatible multi-material workflows.
Support interfaces and removable support structures.
Check the supported model material, feeding system and removal procedure; support filament is not the final part material.
A flexible filament grade for compliant printed parts.
Grips, protective elements and flexible functional models.
Confirm the exact TPU grade and feeding compatibility; test deformation, recovery and repeated loading.
A flexible filament grade for compliant printed parts.
Grips, protective elements and flexible functional models.
Confirm the exact TPU grade and feeding compatibility; test deformation, recovery and repeated loading.
A flexible filament grade for compliant printed parts.
Grips, protective elements and flexible functional models.
Confirm the exact TPU grade and feeding compatibility; test deformation, recovery and repeated loading.
A flexible filament grade for compliant printed parts.
Grips, protective elements and flexible functional models.
Confirm the exact TPU grade and feeding compatibility; test deformation, recovery and repeated loading.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A transparent resin formulation for visual and geometric prototype studies.
Transparent enclosures, visual flow models and display prototypes.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A resin formulation intended for rapid design iteration and model production.
Concept models, form-and-fit prototypes and visual presentation parts.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
This Alpha formulation is specified for Form Studio 1; validate post-processing and the final use.
A ceramic-filled printing material that requires a dedicated debinding and sintering workflow.
Ceramic component development and specialist high-temperature geometry studies.
The final ceramic requires the specified thermal processing; allow for shrinkage and validate final geometry and properties.
A dental resin formulation for defined restorative workflows.
Dental restorations within the manufacturer’s stated indications.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A dedicated medical resin formulation for manufacturer-defined contact applications.
Medical device prototypes, anatomical tools and qualified contact-part workflows.
Use the exact contact indication and validated washing, curing and sterilization instructions; material documentation alone does not qualify a finished device.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A casting-pattern resin for a compatible investment casting workflow.
Jewelry patterns and engineering casting patterns.
Validate the pattern geometry, investment, burnout schedule and casting supplier’s process.
A casting-pattern resin for a compatible investment casting workflow.
Jewelry patterns and engineering casting patterns.
Validate the pattern geometry, investment, burnout schedule and casting supplier’s process.
A transparent resin formulation for visual and geometric prototype studies.
Transparent enclosures, visual flow models and display prototypes.
Clarity depends on surface finishing, geometry and ageing; confirm printer compatibility and the exact cure cycle.
A transparent resin formulation for visual and geometric prototype studies.
Transparent enclosures, visual flow models and display prototypes.
Clarity depends on surface finishing, geometry and ageing; confirm printer compatibility and the exact cure cycle.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A dental material formulation for a defined digital laboratory workflow.
Patient-specific dental impression trays.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dental material formulation for a defined digital laboratory workflow.
Clear splints and occlusal appliances.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dental material formulation for a defined digital laboratory workflow.
Flexible dental splints and occlusal appliances.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dental material formulation for a defined digital laboratory workflow.
Denture bases and validated dental prosthetic workflows.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A resin formulation intended for rapid design iteration and model production.
Concept models, form-and-fit prototypes and visual presentation parts.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
A specialist resin grade for electrostatic-dissipative component studies.
Electronics handling tools, fixtures and protective interfaces.
Verify the finished part against the required electrical range and handling conditions after the specified processing.
A resin formulation intended for rapid design iteration and model production.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A specialist resin grade for components with defined flame-performance requirements.
Technical housings, industrial fixtures and application-specific prototypes.
Apply the manufacturer’s exact test scope and geometry; assess the finished assembly and applicable requirements.
An elastomeric resin formulation for compliant prototype geometry.
Grips, padding, flexible interfaces and rubber-like prototypes.
Confirm formulation version and post-cure instructions; test recovery, tear behaviour and repeated loading for the application.
An elastomeric resin formulation for compliant prototype geometry.
Grips, padding, flexible interfaces and rubber-like prototypes.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
An elastomeric resin formulation for compliant prototype geometry.
Grips, padding, flexible interfaces and rubber-like prototypes.
Confirm formulation version and post-cure instructions; test recovery, tear behaviour and repeated loading for the application.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A technical resin formulation for thermally exposed prototype and tooling studies.
Mold inserts, thermal test parts and hot-fluid prototype concepts.
Assess temperature together with load, exposure duration, cure conditions and part geometry.
A dental material formulation for a defined digital laboratory workflow.
Flexible trays for indirect orthodontic bonding.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dental material formulation for a defined digital laboratory workflow.
Legacy dental model production and fit evaluation.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
A dental material formulation for a defined digital laboratory workflow.
Dental models and restorative model workflows.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A fibre-filled powder grade for reinforced SLS components.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A polymer powder grade for complex SLS geometries.
Functional prototypes, complex assemblies, fixtures and production part studies.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
A polymer powder grade for complex SLS geometries.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A fibre-filled powder grade for reinforced SLS components.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A polymer powder grade for complex SLS geometries.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A polymer powder grade for complex SLS geometries.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A polymer powder grade for complex SLS geometries.
Functional prototypes, complex assemblies, fixtures and production part studies.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A dental material formulation for a defined digital laboratory workflow.
Accurate dental models and model-based appliance workflows.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A dental material formulation for a defined digital laboratory workflow.
Denture teeth and manufacturer-indicated dental prosthetic workflows.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
A filled resin formulation for stiff technical models and tooling studies.
Rigid fixtures, tooling inserts and dimensional prototype studies.
Check the specified filler formulation, orientation, cure cycle and brittle-failure risks for the intended geometry.
A filled resin formulation for stiff technical models and tooling studies.
Rigid fixtures, tooling inserts and dimensional prototype studies.
Check the specified filler formulation, orientation, cure cycle and brittle-failure risks for the intended geometry.
A silicone formulation for printing elastomeric components on a compatible SLA workflow.
Seals, cushioning concepts, soft tooling and flexible components.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A manufacturer-described mixing workflow that turns flexible base resin and pigments into a soft-tissue modelling material.
Flexible gingiva masks used with rigid dental models.
This is a mixing workflow, not a separate pre-mixed cartridge; use the specified base resin, pigment recipe and model-only application.
A dental material formulation for a defined digital laboratory workflow.
Dental surgical guides and drilling templates.
Follow the stated dental indication, compatible printer and validated post-processing instructions; confirm local eligibility and the finished appliance.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
This is the separately listed Form Studio 1 product; it is not interchangeable with the Form 4 version.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Legacy product still listed by the manufacturer. Confirm the exact formulation and printer generation, retirement status and supply before selection.
An engineering resin formulation for functional prototype and tooling studies.
Jigs, fixtures, assemblies and loaded prototype concepts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
An elastomer powder for flexible SLS components.
Compliant parts, protective elements and flexible functional prototypes.
Confirm Fuse compatibility, powder refresh and conditioning; assess surface finish and part tolerances.
A casting-pattern resin for a compatible investment casting workflow.
Jewelry patterns and engineering casting patterns.
Validate the pattern geometry, investment, burnout schedule and casting supplier’s process.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
A named resin formulation for detailed models and prototype development.
Concept models, form-and-fit prototypes and visual presentation parts.
Confirm the exact formulation, compatible printer and post-processing workflow; validate the final application.
Static-dissipative ABS for sensitive components.
Electronics tooling and protective fixtures.
Resistivity, grounding and environmental conditions guide the component design.
Engineering ABS for functional models and tooling.
Prototypes, jigs and production aids.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
ABS grade for qualified medical-related workflows.
Medical prototypes and packaging development.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
PBT powder for laser-sintered technical parts.
Small-series components and technical prototypes.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Elastomer powder for resilient, flexible components.
Cushioning structures and flexible prototypes.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
TPU powder for flexible powder-bed parts.
Elastic components and flexible prototypes.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
TPU powder developed for high-speed sintering.
Flexible production parts and resilient structures.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
TPU powder for elastomeric laser-sintered parts.
Flexible components, cushions and prototypes.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Rubber-like PolyJet material family for flexible models.
Seals, grips and soft-touch prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
PEKK-based filament for chemical and thermal demands.
Industrial tooling and demanding production parts.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Static-dissipative PEKK-based filament for demanding applications.
Electronics fixtures and aerospace components.
Resistivity, grounding and environmental conditions guide the component design.
Casting-pattern photopolymer in the OpenAM portfolio.
Investment-casting patterns.
Curing cycle, geometry and exposure influence the final properties.
Weather-resistant thermoplastic for functional models and parts.
Outdoor prototypes, housings and tooling.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Rigid transparent resin for qualified medical and dental workflows.
Medical models and dental device development.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Rigid opaque photopolymer for qualified medical applications.
Medical models and device prototypes.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Anatomical modeling resin for bone-like structures.
Surgical training and anatomical simulation.
Curing cycle, geometry and exposure influence the final properties.
Digital resin blend simulating tough ABS-like behavior.
Functional models, molds and prototype tooling.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Tough filament with a low-friction surface character.
Non-marring tooling and factory fixtures.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Rigid resin for rapid concept-model printing.
Early design reviews and shape verification.
Curing cycle, geometry and exposure influence the final properties.
Rigid white resin for anatomical-model production.
Orthopedic and craniomaxillofacial planning models.
Curing cycle, geometry and exposure influence the final properties.
Photopolymer that simulates polypropylene-like flexibility.
Snap-fit models and functional design evaluation.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Rubber-like resin family for flexible design models.
Flexible prototypes, grips and seals.
Hardness, elastic recovery, geometry and the service environment guide selection.
Digital dental blend for flexible gingival-mask models.
Gingival masks for restorative and implant workflows.
Hardness, elastic recovery, geometry and the service environment guide selection.
Carbon-fiber-reinforced ABS for rigid industrial parts.
Jigs, fixtures and functional prototypes.
Filler, build direction and geometry influence stiffness and performance.
High-impact polystyrene filament for FDM printing.
Prototypes, patterns and general-purpose models.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Unfilled nylon filament combining toughness and chemical resistance.
Snap fits, connectors and wear-resistant tooling.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Carbon-fiber-reinforced nylon for lightweight, rigid parts.
Production tooling and structural prototypes.
Filler, build direction and geometry influence stiffness and performance.
Nylon filament for tough, mechanically loaded components.
Functional prototypes and durable industrial parts.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Carbon-fiber-filled nylon for stiff industrial components.
Tooling, brackets and functional prototypes.
Filler, build direction and geometry influence stiffness and performance.
Glass-fiber-reinforced, flame-retardant polyamide blend.
Rail, transportation and industrial components.
Filler, build direction and geometry influence stiffness and performance.
Flexible TPU filament for elastic functional components.
Hoses, protective components and flexible prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Gel-like anatomical support material for intricate internal structures.
Vascular models and complex anatomical channels.
Match the build material and removal method specified by the manufacturer.
Rigid photopolymer intended for elevated-temperature model evaluation.
Thermal tests and static functional models.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Bio-sourced polyamide powder for tough powder-bed components.
Durable housings, clips and production parts.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Rigid photopolymer grade for stiff technical models.
Tooling and rigid functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Impact-resistant resin for tough functional components.
Brackets, housings, jigs and manufacturing aids.
Curing cycle, geometry and exposure influence the final properties.
Tough engineering photopolymer for functional tooling.
Manufacturing tools, fixtures and housings.
Curing cycle, geometry and exposure influence the final properties.
Flame-retardant resin for demanding technical applications.
Aerospace, transportation and electrical components.
Curing cycle, geometry and exposure influence the final properties.
High-temperature resin grade for demanding technical parts.
Heat-exposed tooling and technical components.
Curing cycle, geometry and exposure influence the final properties.
High-temperature engineering resin for rigid components.
Functional tooling and production components.
Curing cycle, geometry and exposure influence the final properties.
Static-dissipative resin for heat-exposed technical applications.
Electronics tooling and static-sensitive components.
Resistivity, grounding and environmental conditions guide the component design.
Low-migration resin for controlled food and pharmaceutical workflows.
Packaging tooling and handling components.
Curing cycle, geometry and exposure influence the final properties.
Resilient elastomeric resin with rebound-oriented behavior.
Lattices, cushioning and flexible inserts.
Hardness, elastic recovery, geometry and the service environment guide selection.
High-modulus resin for rigid functional parts.
Molds, tooling and technical housings.
Curing cycle, geometry and exposure influence the final properties.
Clear resin for impact-resistant technical models.
Fluid channels, guides and visualization components.
Curing cycle, geometry and exposure influence the final properties.
Engineering resin grade for tough, heat-exposed parts.
Functional components and technical prototypes.
Curing cycle, geometry and exposure influence the final properties.
Soft elastomeric resin grade in the OpenAM portfolio.
Flexible prototypes and compliant inserts.
Hardness, elastic recovery, geometry and the service environment guide selection.
Tough resin grade for durable functional components.
Housings, fixtures and functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Medical-grade resin for tough, flexible device components.
Single-use instruments and medical prototypes.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Medical-grade resin for durable device applications.
Orthotics, device components and medical tooling.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Medical resin grade for thermally demanding device workflows.
Device components and sterilization-oriented development.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Medical elastomeric resin for qualified flexible-component workflows.
Medical-device prototypes and flexible contact components.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Medical resin grade for rigid functional components.
Medical prototypes and qualified device development.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
General-purpose resin for early technical development.
Prototyping parts and concept verification.
Curing cycle, geometry and exposure influence the final properties.
General-purpose resin with polypropylene-like functional behavior.
Functional prototypes and compliant components.
Curing cycle, geometry and exposure influence the final properties.
General-purpose engineering resin for functional models.
Prototype housings and functional design verification.
Curing cycle, geometry and exposure influence the final properties.
General-purpose photopolymer for technical prototyping.
Prototyping parts and concept models.
Curing cycle, geometry and exposure influence the final properties.
Static-dissipative resin for stiff technical components.
Electronics fixtures and static-sensitive applications.
Curing cycle, geometry and exposure influence the final properties.
Biocompatible digital blend with ABS-like functional behavior.
Medical prototyping and functional device evaluation.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Clear dental resin specifically designated for surgical guides.
Patient-specific dental surgical guides.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Opaque dental resin for dimensionally accurate models.
Restorative and orthodontic dental models.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Flexible dental resin for temporary-contact applications.
Gingival masks and indirect bonding trays.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Polyurethane resin for thermally demanding functional parts.
Production components, connectors and tooling.
Curing cycle, geometry and exposure influence the final properties.
Medical silicone grade for soft, elastic components.
Wearables and medical-device contact components.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Soft silicone material for elastic functional components.
Seals, gaskets and flexible prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
General-purpose elastomeric resin for flexible technical parts.
Grommets, seals and compliant components.
Hardness, elastic recovery, geometry and the service environment guide selection.
Elastomeric resin for soft-touch and resilient components.
Seals, cushioning and flexible production parts.
Hardness, elastic recovery, geometry and the service environment guide selection.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Polycarbonate filament for strong, heat-resistant components.
Functional prototypes and industrial tooling.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Polycarbonate-ABS blend for tough functional parts.
Housings, prototypes and manufacturing tools.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Static-dissipative polycarbonate for technical components.
Electronics fixtures and sensitive-part handling.
Resistivity, grounding and environmental conditions guide the component design.
Biocompatible polycarbonate grade for qualified applications.
Medical prototypes and packaging development.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Tough PolyJet photopolymer for functional verification.
Fit checks, functional prototypes and production parts.
Curing cycle, geometry and exposure influence the final properties.
PLA filament for early-stage design visualization.
Concept models and quick shape verification.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
High-performance polysulfone filament for demanding environments.
Thermal testing, tooling and industrial components.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Radiopaque resin for imaging-realistic anatomical models.
Imaging development and medical training models.
Curing cycle, geometry and exposure influence the final properties.
Translucent rigid resin for detailed, stable models.
Clear concept models and design evaluation.
Curing cycle, geometry and exposure influence the final properties.
Advanced polypropylene-like resin for durable functional models.
Snap fits, closures and functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital grade combining Rigur / Agilus30.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital grade combining Rigur / Agilus30.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Polyamide powder for versatile SAF production parts.
Housings, functional parts and small series.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Evonik-sourced polyamide grade for SAF manufacturing.
Repeatable production parts and powder-bed components.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Polypropylene powder for chemically resistant, lightweight components.
Ducts, orthotics and functional housings.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
SAF route for reusing suitable spent polyamide powder.
Production parts from qualified reclaimed powder.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Flame-retardant resin grade for thermally demanding components.
Technical housings and heat-exposed prototypes.
Curing cycle, geometry and exposure influence the final properties.
Thermally capable resin in the OpenAM material portfolio.
Tooling and heat-exposed technical models.
Curing cycle, geometry and exposure influence the final properties.
General-purpose resin grade listed in the OpenAM programme.
Concept models and general prototyping.
Curing cycle, geometry and exposure influence the final properties.
Tough photopolymer for functional technical prototypes.
Functional models and impact-oriented evaluation.
Curing cycle, geometry and exposure influence the final properties.
SLA resin for resilient, engineering-like prototypes.
Functional models and fatigue-oriented evaluation.
Curing cycle, geometry and exposure influence the final properties.
Clear SLA resin for qualified medical-model workflows.
Medical and dental models with defined contact conditions.
Curing cycle, geometry and exposure influence the final properties.
Tough SLA resin used in removable composite tooling.
Hollow composite parts and sacrificial tooling.
Curing cycle, geometry and exposure influence the final properties.
SLA resin for detailed models and straightforward finishing.
Appearance models and functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
SLA resin developed for detailed footwear tooling.
Footwear molds and fine-feature tooling.
Curing cycle, geometry and exposure influence the final properties.
SLA resin combining precision with thermoplastic-like behavior.
Durable models and functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Filled SLA resin for stiff, thermally demanding tooling.
Rapid tooling and demanding technical models.
Curing cycle, geometry and exposure influence the final properties.
Filled SLA resin for optical wind-tunnel test models.
Wind-tunnel models and flow visualization.
Curing cycle, geometry and exposure influence the final properties.
Durable SLA resin for dimensionally stable functional prototypes.
Snap fits, jigs and functional models.
Curing cycle, geometry and exposure influence the final properties.
SLA resin balancing mechanical and thermal performance.
Functional prototypes and technical models.
Curing cycle, geometry and exposure influence the final properties.
Antimony-free SLA formulation for investment-casting patterns.
Investment-casting patterns and sacrificial models.
Curing cycle, geometry and exposure influence the final properties.
Weatherable SLA formulation for durable functional parts.
Outdoor prototypes and production components.
Curing cycle, geometry and exposure influence the final properties.
General-purpose SLA formulation for accurate, detailed models.
Visual models and functional design verification.
Curing cycle, geometry and exposure influence the final properties.
Clear SLA resin for detailed, water-resistant models.
Fluid-flow visualization and transparent prototypes.
Curing cycle, geometry and exposure influence the final properties.
Clear SLA resin developed for the Neo platform.
Transparent prototypes and smooth technical models.
Curing cycle, geometry and exposure influence the final properties.
Weather-resistant DLP resin for functional production components.
Outdoor housings and durable end-use parts.
Curing cycle, geometry and exposure influence the final properties.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Soluble FDM support grade for compatible model materials.
Complex overhangs, cavities and removable support geometry.
Match the build material and removal method specified by the manufacturer.
Soluble FDM material for sacrificial composite molds.
Hollow composite ducts, tubes and manifolds.
Match the build material and removal method specified by the manufacturer.
Tough general-purpose resin for functional Origin parts.
Housings, fixtures and functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Gel-like PolyJet support for mechanical removal.
Overhangs and complex PolyJet model geometry.
Match the build material and removal method specified by the manufacturer.
Gel-like PolyJet support grade for mechanical removal.
Complex supported PolyJet geometry.
Match the build material and removal method specified by the manufacturer.
Soluble PolyJet support with multiple removal routes.
Detailed parts and hard-to-access supported features.
Match the build material and removal method specified by the manufacturer.
PolyJet support designed for water-assisted removal.
Complex models and production support geometry.
Match the build material and removal method specified by the manufacturer.
Gel-like support with an internal reinforcing structure.
Detailed models requiring supported internal geometry.
Match the build material and removal method specified by the manufacturer.
Dental PolyJet support for intricate, encapsulated parts.
Dental models and complex dental geometries.
Match the build material and removal method specified by the manufacturer.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Breakaway FDM support grade for compatible engineering materials.
Accessible supports on compatible FDM components.
Match the build material and removal method specified by the manufacturer.
Rubber-like resin family for soft-touch design simulation.
Overmolding models, grips and flexible prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital grade combining TangoGray / TangoBlack.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital grade combining TangoGray / VeroBlackPlus.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Soft anatomical-modeling resin for tissue-like response.
Organ models and surgical-training simulations.
Hardness, elastic recovery, geometry and the service environment guide selection.
Dental resin system for monolithic, multicolor appliances.
Removable dentures and qualified dental appliances.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Dedicated support resin for the TrueDent printing workflow.
Encapsulated support for monolithic dental appliances.
Match the build material and removal method specified by the manufacturer.
Dental resin system designated for monolithic removable dentures.
Full and partial denture workflows.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
High-performance PEI filament for thermally demanding applications.
Composite tooling and durable industrial parts.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
High-performance PEI resin for lightweight technical components.
Transportation parts, tooling and technical housings.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Elastomeric resin grade for resilient functional models.
Flexible components and elastic design evaluation.
Hardness, elastic recovery, geometry and the service environment guide selection.
Flexible resin grade for soft, compliant parts.
Flexible prototypes, cushioning and contact-model development.
Hardness, elastic recovery, geometry and the service environment guide selection.
High-temperature resin grade for rigid technical components.
Molds and thermally exposed prototypes.
Curing cycle, geometry and exposure influence the final properties.
Ceramic-filled DLP resin for stiff technical components.
Molds, fixtures and thermally demanding tooling.
Curing cycle, geometry and exposure influence the final properties.
Rigid resin grade for engineering-model development.
Rigid prototypes, housings and fixtures.
Curing cycle, geometry and exposure influence the final properties.
Flame-retardant rigid resin for technical applications.
Electrical prototypes and thermally demanding components.
Curing cycle, geometry and exposure influence the final properties.
Tough general-purpose resin for technical models.
Functional prototypes and engineering-model development.
Curing cycle, geometry and exposure influence the final properties.
Versatile DLP resin for tough, detailed components.
Functional models, housings and general-purpose parts.
Curing cycle, geometry and exposure influence the final properties.
Rigid PolyJet resin family for detailed design verification.
Appearance models, fit checks and product prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital grade combining Vero / Agilus30.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital grade combining Vero / Agilus30.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital grade combining Vero / Elastico.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital grade combining Vero / Elastico.
Material simulation and multi-material functional prototypes.
Curing cycle, geometry and exposure influence the final properties.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Documented digital-blend family with multiple selectable grades.
Material simulation and multi-material functional prototypes.
Hardness, elastic recovery, geometry and the service environment guide selection.
Translucent color-resin family for realistic PolyJet models.
Product visualization and full-color dental models.
Curing cycle, geometry and exposure influence the final properties.
Rigid clear resin simulating acrylic-like transparency.
Transparent housings, glass substitutes and visual models.
Curing cycle, geometry and exposure influence the final properties.
Rigid transparent resin for qualified contact applications.
Contact prototypes and transparent product-development models.
Curing cycle, geometry and exposure influence the final properties.
Rigid dental-model resin for highly visible fine details.
Restorative and orthodontic models; full-color model cores.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Semi-flexible photopolymer family for printed fashion applications.
Textile embellishment and flexible decorative designs.
Hardness, elastic recovery, geometry and the service environment guide selection.
Semi-flexible PolyJet material family for eyewear development.
Eyewear prototypes and iterative frame design.
Hardness, elastic recovery, geometry and the service environment guide selection.
Opaque rigid dental resin for accurate models and try-ins.
Dental models and qualified try-in workflows.
Intended use, printer compatibility and post-processing follow the manufacturer’s documentation.
Opaque color-resin family for sharp, realistic visual models.
Packaging prototypes and detailed color visualization.
Curing cycle, geometry and exposure influence the final properties.
Clear PolyJet resin for transparent visual prototypes.
Transparent products, packaging and glass-like models.
Curing cycle, geometry and exposure influence the final properties.
PAEK-family filament engineered for demanding FDM applications.
Lightweight technical parts and chemically exposed tooling.
Orientation, temperature, environment and finishing are defined alongside the project requirements.
Water-soluble PolyJet support for hands-free post-processing.
Detailed models and difficult-to-access support regions.
Match the build material and removal method specified by the manufacturer.
Flame-retardant, ductile PA11.
Aircraft enclosures and thin-wall parts.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Carbon-fibre reinforced PA11 with ESD behaviour.
Under-hood parts and wind-tunnel models.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
PA11 formulation for thermal and mechanical demands.
Wind-tunnel models and under-hood components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Carbon-fibre reinforced PEKK powder.
Aerospace and thermally demanding geometry.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Glass-sphere filled PA12 with thermal stabilisation.
Wear-resistant functional polymer components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Carbon-fibre filled PA12 for dimensional accuracy and stiffness.
Detailed parts operating under thermal demands.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Carbon-fibre reinforced PA12 for stiffness.
Racing, sporting equipment and wind-tunnel models.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Aluminium-filled PA12 with thermal and mechanical performance.
Functional aluminium-filled polymer components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Flame-retardant PA12 with fine-feature definition.
Functional parts with flame and detail requirements.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Glass-sphere filled PA12 with wear resistance.
Rigid components exposed to wear.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Glass-sphere filled PA12 with increased stiffness.
Rigid functional polymer components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Mineral-filled PA12 with dimensional stability.
Load-bearing functional components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
PA12 with hollow glass spheres for lightweight stiffness.
UAV parts, sports and motorsports.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Unfilled PA12 with fine-feature capability.
Functional nylon parts with detailed surfaces.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Carbon-fibre filled PA11 resisting thermal warping.
Stiff functional components under thermal demands.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Carbon-fibre filled PA11 for mechanical and thermal demands.
Stiff, dimensionally demanding polymer components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Mineral-fibre reinforced PA11.
Stiff components under thermal demands.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Graphite-modified PA11 for electrostatic dissipation.
Parts requiring electrostatic dissipation.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Stabilised PA11 grade for light, detailed components.
Parts requiring surface quality and dimensional detail.
Confirm machine compatibility, orientation, powder reuse and the required finish.
PA11 grade for easy processing and detailed surfaces.
Detailed functional nylon components.
Confirm machine compatibility, orientation, powder reuse and the required finish.
PA11 grade with fine-feature capability.
Functional components with fine surface definition.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Stabilised PA12 for surface quality and reuse.
Automotive and consumer functional parts.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Unfilled PA11 stabilised against thermal degradation.
Functional parts requiring repeated mechanical testing.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Unfilled PEKK for demanding environments.
Aerospace ducts and industrial wear parts.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Flexible elastomer powder with infiltration options.
Flexible parts needing abrasion resistance.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
TPU elastomer powder for elastic geometry.
Flexible parts and infiltrated polymer components.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
TPU elastomer powder for flexible, resilient parts.
Digital-foam and flexible polymer geometry.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
Copolyester elastomer combining toughness and flexibility.
Tough, flexible functional components.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
Lightweight, resilient polyamide/polyether elastomer.
Soles, cushioning and orthotic inlays.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
Aluminium-filled PA12 with machinable surfaces.
Design elements, fixtures and short-run moulds.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
High-strength aluminium formulated for additive manufacturing.
Racing and aerospace parts under thermal loads.
Confirm the qualified process, heat treatment, finish and component requirements.
Heat-treatable aluminium balancing strength and ductility.
Aerospace brackets and marine structures.
Confirm the qualified process, heat treatment, finish and component requirements.
Beryllium-free aluminium grade for lightweight structures.
Aerospace and automotive structural parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Aluminium alloy for lightweight, load-bearing geometry.
Engineering parts and cast-part redesigns.
Confirm the qualified process, heat treatment, finish and component requirements.
Aluminium-iron-zirconium alloy with thermal stability.
Heat exchangers and lightweight structures.
Confirm the qualified process, heat treatment, finish and component requirements.
Case-hardening steel for hard, wear-resistant surfaces.
Gears and mechanical components.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel-free cobalt-chromium alloy.
Aerospace and medical components.
Confirm the qualified process, heat treatment, finish and component requirements.
High-purity copper for conductive parts.
Heat exchangers and electronics.
Confirm the qualified process, heat treatment, finish and component requirements.
Commercially pure copper focused on conductivity.
Electric motors and inductors.
Confirm the qualified process, heat treatment, finish and component requirements.
Hardenable copper alloy balancing conductivity and strength.
Rocket parts, exchangers and induction coils.
Confirm the qualified process, heat treatment, finish and component requirements.
Copper-nickel alloy for marine corrosion conditions.
Pumps, impellers and marine equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
Iron-nickel alloy with low thermal expansion.
Scientific housings and satellite structures.
Confirm the qualified process, heat treatment, finish and component requirements.
Age-hardenable maraging steel.
Injection-mould inserts and mechanical parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Commercially pure nickel for corrosive environments.
Chemical and semiconductor equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel superalloy for sustained hot-service loading.
Hot-gas-path turbine parts and turbopump rotors.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel-chromium-molybdenum alloy for corrosion resistance.
Chemical and food-processing components.
Confirm the qualified process, heat treatment, finish and component requirements.
Precipitation-strengthened nickel superalloy.
Turbomachinery and aerospace engine components.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel alloy for heat and oxidation exposure.
Aerospace hardware and gas-turbine parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel alloy for heat and corrosion exposure.
Turbines, racing and shipbuilding components.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel superalloy for elevated-temperature loading.
Gas turbines and power-industry components.
Confirm the qualified process, heat treatment, finish and component requirements.
IN718 grade addressing API 6ACRA requirements.
Downhole manifolds and oil-and-gas equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel superalloy for combined heat and stress.
Gas turbines, turbopumps and turbochargers.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel superalloy resisting creep and oxidation.
Turbine vanes, blades and heat shields.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel-copper alloy for harsh service conditions.
Marine, aerospace and industrial parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Hardening stainless steel combining strength and corrosion resistance.
Surgical tools and pump components.
Confirm the qualified process, heat treatment, finish and component requirements.
Austenitic stainless grade for severe corrosion conditions.
Seawater, chemical and paper-process equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
316L material paired with productivity-focused processing.
High-volume industrial 316L production.
Confirm the qualified process, heat treatment, finish and component requirements.
316L stainless grade for industrial fluid-handling service.
Chemical, food and water-handling components.
Confirm the qualified process, heat treatment, finish and component requirements.
316L stainless grade with toughness and corrosion resistance.
Medical, chemical and food-processing components.
Confirm the qualified process, heat treatment, finish and component requirements.
Hard stainless steel for wear and corrosion demands.
Plastic- and rubber-moulding tooling.
Confirm the qualified process, heat treatment, finish and component requirements.
Precipitation-hardening stainless steel.
High-strength prototypes, spares and engineering parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Duplex stainless alloy for aggressive environments.
Oil-and-gas, offshore and mining equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
Quench-and-temper steel balancing strength and toughness.
Shafts, gears and engineering components.
Confirm the qualified process, heat treatment, finish and component requirements.
Titanium alloy for strong, lightweight components.
Lightweight high-performance industrial parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Grade 23 titanium alloy for demanding lightweight parts.
Medical components and implant development.
Confirm the qualified process, heat treatment, finish and component requirements.
Grade 5 titanium alloy for lightweight structures.
Aerospace and automotive components.
Confirm the qualified process, heat treatment, finish and component requirements.
Extra-low-interstitial titanium alloy grade.
Medical-industry components.
Confirm the qualified process, heat treatment, finish and component requirements.
Commercially pure titanium with ductility and corrosion resistance.
Medical and industrial components.
Confirm the qualified process, heat treatment, finish and component requirements.
Heat-treatable tool steel for demanding tooling.
Moulds, extrusion and die-casting tools.
Confirm the qualified process, heat treatment, finish and component requirements.
Cobalt-free steel for high-strength tooling.
Cold-work tools, hot-work tools and powertrain parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Tough tool steel for hot-work service.
Die-casting, forging and hot-extrusion tooling.
Confirm the qualified process, heat treatment, finish and component requirements.
Resilient thermoplastic polyurethane powder.
Seals, bellows and cushioning lattices.
Evaluate hardness, geometry, deformation and the required in-service behaviour.
Tungsten material for X-ray guidance geometry.
Thin-walled anti-scatter grids.
Define the process with specialist support and validate the thin-wall geometry.
Impact-tolerant biobased PA11.
Hinges, buckles and enclosures.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Ductile biobased PA11 powder.
Clips, housings and eyewear.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Versatile PA12 for functional parts.
Fixtures, covers and prototypes.
Confirm machine compatibility, orientation, powder reuse and the required finish.
PA12 with a reduced production footprint.
Grippers, brackets and functional prototypes.
Compare environmental documentation without assuming different performance from PA 2200.
Pigment-free PA12 formulation.
Surgical guides, models and prototypes.
Confirm machine compatibility, orientation, powder reuse and the required finish.
PA12 tailored for flame requirements.
Electrical housings and transport interiors.
Confirm machine compatibility, orientation, powder reuse and the required finish.
PA12 formulated for efficient powder reuse.
Eyewear, fixtures and functional brackets.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Flame-retardant PA12 for aircraft interiors.
Air ducts, valves and brackets.
Confirm machine compatibility, orientation, powder reuse and the required finish.
Glass-filled PA12 for stiff, wear-resistant parts.
Housings, forming tools and wear components.
Evaluate orientation, anisotropy, finish and process compatibility with the filler.
Nickel-alloyed maraging tool steel.
Injection moulds and engineering parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Austenitic steel for heat and scale resistance.
Furnaces, machines and automotive components.
Confirm the qualified process, heat treatment, finish and component requirements.
Precipitation-hardening stainless steel grade.
Aerospace, medical and chemical equipment.
Confirm the qualified process, heat treatment, finish and component requirements.
High-strength precipitation-hardening stainless steel.
Medical and industrial engineering components.
Confirm the qualified process, heat treatment, finish and component requirements.
Ductile austenitic stainless steel.
Food equipment, instruments and offshore parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Ceramic-modified aluminium for strength and wear resistance.
Engine and structural components.
Confirm the qualified process, heat treatment, finish and component requirements.
Aluminium grade for thermal stability and conductivity.
Thermal-management and lightweight structural parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Aluminium alloy combining low mass and mechanical performance.
Aerospace, automotive and heat exchangers.
Confirm the qualified process, heat treatment, finish and component requirements.
Aluminium grade with thermal conductivity and ductility.
Heat exchangers and lightweight prototypes.
Confirm the qualified process, heat treatment, finish and component requirements.
Niobium-hafnium-titanium alloy for severe thermal loading.
Aerospace propulsion and high-temperature components.
Confirm the qualified process, heat treatment, finish and component requirements.
Cobalt-chromium-molybdenum alloy for demanding service.
Turbine and medical components.
Confirm the qualified process, heat treatment, finish and component requirements.
Hardenable copper alloy balancing conductivity and strength.
Rocket components and electrical engineering.
Confirm the qualified process, heat treatment, finish and component requirements.
Beryllium-free copper alloy with strength and conductivity.
Electrodes, pistons and sliding components.
Confirm the qualified process, heat treatment, finish and component requirements.
Copper-nickel alloy for marine corrosion resistance.
Offshore parts, piping and heat exchangers.
Confirm the qualified process, heat treatment, finish and component requirements.
Beryllium-free aluminium casting-alloy derivative.
Aerospace and automotive components.
Confirm the qualified process, heat treatment, finish and component requirements.
Chromium tool steel resisting thermal-fatigue cracking.
Injection-mould and industrial tooling.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel superalloy for creep-resistant structural parts.
Turbine systems and space components.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel alloy for oxidising, high-temperature environments.
Turbine and aerospace components.
Confirm the qualified process, heat treatment, finish and component requirements.
Nickel alloy for corrosion and thermal demands.
Aerospace, energy and chemical-process parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Precipitation-hardenable nickel-chromium superalloy.
Aircraft engines and gas turbines.
Confirm the qualified process, heat treatment, finish and component requirements.
Iron-nickel alloy with low thermal expansion.
Precision instruments and aerospace parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Age-hardenable nickel-copper alloy.
Chemical, marine and offshore hardware.
Confirm the qualified process, heat treatment, finish and component requirements.
Cobalt-free, corrosion-resistant maraging steel.
Mould inserts and precision tool holders.
Confirm the qualified process, heat treatment, finish and component requirements.
High-strength aluminium alloy retaining ductility.
Aerospace structures and motorsport parts.
Confirm the qualified process, heat treatment, finish and component requirements.
Cobalt-chromium-molybdenum-tungsten dental alloy.
Dental implants and prosthetic components.
Confirm the qualified process, heat treatment, finish and component requirements.
Commercially pure titanium with good corrosion resistance.
Medical parts and chemical heat exchangers.
Confirm the qualified process, heat treatment, finish and component requirements.
High-purity titanium alloy for lightweight high-performance parts.
Aerospace, automotive and medical components.
Confirm the qualified process, heat treatment, finish and component requirements.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
A carbon-fibre-reinforced ABS grade for FDM printing.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Aluminium-filled PA12 nylon for SLS components.
Brackets, mechanical parts and tooling.
This is a polymer-matrix composite; verify the grade, finish and part requirements.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Cellular material for cushioning, protection and custom inserts.
Technical packaging, inserts and cushioning elements.
Compression, density and thickness guide the design.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Liquid silicone rubber for dedicated molding processes.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
A fibre sheet material for sealing applications to assess.
Gaskets and technical sheet profiles.
Thickness, compression and contact fluids guide gasket selection.
A fibre and nitrile-rubber blend for sheet-cut gaskets.
Gaskets and sealing interfaces.
Thickness, compression and contact fluids guide gasket selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Reinforced or filled material for stiffness and stability focused designs.
Jigs, fixtures, supports and engineered components.
Filler architecture and manufacturing direction influence performance.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Powder polymer for complex geometries and functional components.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Polypropylene for functional components manufactured through several processes.
Clips, housings, ducts and short production runs.
Conditioning, orientation and finishing are defined alongside the design.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Cellular material for cushioning, protection and custom inserts.
Technical packaging, inserts and cushioning elements.
Compression, density and thickness guide the design.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Inorganic material for specialist applications and precision geometries.
Specialist components and technical models.
Geometry, brittleness and the production cycle require a dedicated review.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Cellular material for cushioning, protection and custom inserts.
Technical packaging, inserts and cushioning elements.
Compression, density and thickness guide the design.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Formulation for fine detail, accurate models and refined surfaces.
Detailed prototypes, masters and assembly models.
Curing cycle, geometry and exposure influence the final properties.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Flexible material for compliant interfaces, protection and deformable forms.
Grips, flexible elements, protection and seals.
Hardness, elastic recovery and the service environment guide selection.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Engineering polymer for prototypes, housings and functional components.
Housings, guides and functional models.
Consider the environment, temperature, tolerances and load duration.
Panel material for design elements, models and custom fabricated parts.
Models, panels, display elements and furniture details.
Moisture, grain, thickness and finishing influence the result.
Polyurethane casting resin for functional replicas produced by vacuum casting.
Replicas, housings and short runs made from a master.
Mold, mixing and cure cycle define part accuracy and properties.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Metal alloy for engineered components, interfaces and precision parts.
Brackets, mechanical parts and tooling.
Temper, heat treatment and finishing define the finished part’s behaviour.
Compare what really matters: expected load, environment, tolerance, finish, quantity, certification and cost. Bring us the challenge; we will review the trade-offs.
Discuss material selection ↗