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Produce engineering-grade parts that combine excellent material properties of Nylon PA12 with full CMYK color. Ideal for functional prototypes or manufacturing end-use parts such as presentation models, consumer goods, jigs, fixtures, and medical devices. Manufactured with HP Multi Jet Fusion commercial 3D printing technology. HP Nylon PA12 Color 3D Printing Durable, full-color parts manufactured with HP Multi Jet Fusion technology. Ideal for prototypes and production-ready components that require both strength and vibrant, finished aesthetics. Get a Custom Quote Why Choose Nylon PA12 Color? Produce strong, accurate, and vibrant parts in a single print. HP Nylon PA12 Color delivers the proven strength, reliability, and repeatability of Nylon PA12 with the added advantage of integrated full-color capability. This eliminates the need for painting or coating, reducing lead times and costs while enabling functional parts with finished aesthetics straight from the printer . It is especially valuable for prototyping, product validation, and end-use parts where visual detail and branding are as important as mechanical performance. Notes: Files must be in a .3mf format if full color is needed. Post-processing with Vapor Smoothing brightens colours and smooths the surface. Custom Quote Designed for Durable, Full-Color Parts Mechanical strength meets finished aesthetics. Nylon PA12 Color enables the production of end-use parts with consistent strength and vibrant, long-lasting color. Businesses use it to produce functional prototypes, consumer goods, medical devices, and custom industrial components that are both durable and visually engaging. From branding and product design validation to low- to mid-volume manufacturing, PA12 Color helps shorten development cycles and deliver production-ready parts without additional finishing steps. Get Parts Made Key Benefits Full-Color Capability – Produce strong, functional parts with vibrant, consistent color directly from the printer. Proven PA12 Performance – Delivers the same strength, durability, and reliability as standard PA12. High Accuracy – Detailed, isotropic parts with consistent dimensional stability. Cost- and Time-Efficient – Eliminates secondary finishing steps such as painting or coating. Branding and Customization – Ideal for logos, product validation, and consumer-ready designs. Durable and Reliable – Resistant to wear, impact, and daily use while maintaining color integrity. Applications Consumer Goods – Branded products, enclosures, and accessories with finished aesthetics. Medical Devices – Prototypes and components where visual differentiation and strength are required. Product Development – Prototypes for validation, testing, and customer presentations. Industrial Components – Durable end-use parts with functional color coding or labeling. Custom Manufacturing – Short-run, full-color parts for marketing samples and small-batch production. Education and Training – Visual models and teaching tools requiring strength and detail. Surface Finishes Natural (Raw) Finish After the part has been printed it is ready for end-use applications with no further processing. The part has a grainy look and feel. Vapor Smoothing A chemical vapor is used to smooth the surface of the part. Smoothing will make the colors more vibrant and can also enhance material properties and water resistance. Learn More > Design Guidelines Build volume Max build volume: Up to 332 x 190 x 248 mm (13.1" x 7.5" x 9.8") Min build volume: 4 x 4 x 1 m or x + y + z > 9mm (10 x 10 x 10 if vapor smoothed) The bounding box is based on the build volume of the 3D printer. Large parts may be re-oriented to fit the bounding box. For oversize parts, consider re-designing as a multi-part assembly. Wall thickness Supported wall thickness min: 0.4 mm (natural), 1.5 mm (smooth) Unsupported wall thickness min: 0.5 mm (natural), 1.5 mm (smooth) A supported wall is connected on at least 2 sides of the wall. Wires Supported wires min: 0.8 mm (natural), 1.5 mm (smooth) Unsupported wires min: 0.9 mm (natural), 1.5 mm (smooth) A wire is a feature that is thinner in its unconnected directions than its length. A supported wire is connected on at least 2 sides, and an unsupported wire is connected on only one side. Details Min embossed details: 0.2 mm high & wide (natural), 0.5 mm (smooth), 0.4 mm (text, logos, icons) Min engraved details: 0.2 mm deep & wide (natural), 0.4 mm (smooth), 0.4 mm (text, logos, icons) For text the ratio between width and depth should be 1:1. Sans-serif fonts provide better results. Escape holes Single escape hole diameter (min): 4.0 mm (natural), 10 mm (smooth) Multiple escape hole diameter (min): 2.0 mm (natural), 8.0 mm (smooth) Escape holes are used to empty support material from a hollow model. Having two escape holes at opposite ends of the model is optimal for removing the support material. For larger models or more complex geometries it is recommended and make the escape holes bigger or add more escape holes as needed. Clearance Min 0.6 mm (natural), 5.0 mm (smooth) Clearance is the space between two individual parts in a model. This is important to consider with moving parts, such as hinges and gears. Sprues 2 mm thick, attached on at least 2 places per part Sprues are wires that connect two or more parts. There should be at least two sprues connecting each part. You may need larger sprues for larger pieces. Interlocking and enclosed parts Natural: interlocking and enclosed parts are possible. Smooth: Interlocking and enclosed parts will most likely fuse together in the vapor smoothing process. Design Considerations Save full-color files in .vmrl file format to capture both geometry and model color. Please note that .vmrl files are not currently recognized by our instant quoting system, these need to be provided as a separate file to the production team. Pleas e note that black and dark colors will not appear true to color due to limitations of the printing technology. Consider hollowing or adding internal lattice structure to large solid pieces to improve accuracy and minimize cost. Hinges, sockets, and linked parts can be integrated into the design. See our desig n guide for details. For guidance in creating a colorful 3D printed part in Solidworks showing a stress analysis, visit this article by our friends at Hawkridge Systems. View full desi gn guidelines Technical Specifications Accuracy Natural: +/- 0.38 mm (XY plane), +/- 0.5 mm in the z plane Smooth: +/- 0.45 mm (XY plane), +/- 0.52 mm in the z plane Layer thickness 0.08 mm Density 1.30 g/cm³ (0.016 lb/in³) Tensile modulus 1600 MPa (XY), 1700 MPa (Z) Tensile strength 46 MPa Elongation at break 20% (XY), 14% (Z) View full technical specifications Certifications ISO 10993 and US FDA Intact Skin Surface Devices Statement Real-World Applications Promotional Products Mass-produce fully customized promotional products, for yourself or your clients. Real-World Applications Produced with HP MJF Color 3D Printing Technology Material Selection Guide Not sure which material is the best fit for your project? Use our materials selection guide to compare the material properties and recommended uses for each material. Learn More Get your parts into production today Request a quote

Tempus 3D offers a wide range of SLA resins for larger or repeat projects, including engineering, flexible, biocompatible, flame-and heat-resistant, dental, and specialty options. Special-Order SLA Resins Wide range of SLA materials available by request for large builds, repeat orders, and ongoing production programs. Request a Quote Contact Production Team Special-Order SLA Options Beyond our standard in-stock resins, Tempus 3D offers additional SLA materials available by special order for large or repeat projects. Use the filters below to explore options by properties and application. When you’re ready, contact our production team to confirm suitability, lead time, and pricing for your order. Looking for the full library of plastic 3D printed materials? Check out our Materials selector. All Resins Engineering Flexible Biocompatible Dental Casting Prototyping Specialty BioMed Amber A translucent, biocompatible material with high strength and wear resistance. Suitable for medical devices and healthcare components that require durability and visibility for inspection or monitoring. Properties Biocompatible, Translucent, High Strength, Wear Resistant Datasheet Request a Quote BioMed Durable A biocompatible material engineered for impact-resistant, long-lasting medical devices. Combines toughness and flexibility, making it suitable for prototypes and end-use components in healthcare. Properties Biocompatible, Tough, Impact Resistant, Flexible Datasheet Request a Quote BioMed White A strong, opaque, biocompatible material designed for patient-contact applications. Offers high durability and a clean white finish, making it ideal for medical devices, instruments, and components. Properties Biocompatible, Stiff & Strong, High Strength, Opaque Datasheet Request a Quote Clear Cast Clear Cast is a precision material for investment casting patterns. It offers low thermal expansion, clean burnout with minimal ash, and reliable dimensional accuracy for detailed engineering and casting applications. Properties Transparent, Clean Burnout, Low Thermal Expansion, High Accuracy Datasheet Request a Quote Dental LT Comfort A long-term biocompatible flexible material designed for occlusal guards, splints, and similar applications. Combines comfort and durability with excellent polishability and wear resistance. Properties Biocompatible, Flexible, Wear Resistant, Polishable Datasheet Request a Quote ESD (Electrostatic Dissipation) A static-dissipative material designed for safe and reliable use in electronics manufacturing. Prevents static discharge while offering strength and precision for jigs, fixtures, housings, and tooling that come into contact with sensitive electronic components. Properties Static-Dissipative, Durable, Precise Datasheet Request a Quote Flexible 80A A versatile elastomeric material with balanced flexibility and strength. Ideal for parts that need to bend and return to shape under stress, such as grips, hinges, and cushioning components. Properties Pliable, Resilient, Wear Resistant Datasheet Request a Quote IBT Flex A biocompatible, flexible material developed for indirect bonding trays in orthodontics. Provides accuracy and elasticity for efficient bracket placement while remaining comfortable for patients. Properties Pliable, Biocompatible, Flexible, Accurate Datasheet Request a Quote Rigid 4000 A glass-filled material that provides high stiffness and dimensional stability. Ideal for thin walls, load-bearing parts, and functional prototypes that require strength with a smooth, matte surface finish. Properties Stiff & Strong, High Strength, Dimensionally Stable Datasheet Request a Quote Tough 2000 The stiffest and strongest material in the Tough family, engineered for load-bearing functional parts. Ideal for jigs, fixtures, and prototypes that need to resist deformation and maintain high strength under stress. Properties Stiff & Strong, Wear Resistant, High Strength Datasheet Request a Quote BioMed Black A strong, biocompatible material with a deep black finish. Ideal for medical devices and components requiring durability, color stability, and an opaque aesthetic for patient-facing use. Properties Biocompatible, Stiff & Strong, Wear Resistant, Durable Finish Datasheet Request a Quote BioMed Elastic 50A A biocompatible, soft material designed for medical devices and patient-contact applications. With silicone-like flexibility, it’s ideal for prototypes of medical wearables, seals, and anatomical models. Properties Pliable, Biocompatible, Wear Resistant, Stretchable Datasheet Request a Quote Black V5 A versatile black material with a smooth matte finish, designed for models that need a professional appearance. Provides excellent detail resolution and surface quality for both functional prototypes and presentation pieces. Properties Smooth Finish, Fine Details, High Strength Datasheet Request a Quote Clear V4.1 A transparent material for visual models and functional parts where clarity matters. Can be polished to improve transparency, making it ideal for fluidics, optics, and parts requiring internal visibility. Properties Transparent, Fine Details, Polishable Datasheet Request a Quote Draft V2 A fast-printing material optimized for speed and efficiency. Suitable for rapid iterations, early-stage prototypes, and large models where turnaround time is more important than fine detail. Properties Fast Printing, Low Resolution, Cost-Effective Datasheet Request a Quote Elastic 50A A soft, pliable material that behaves like silicone. Designed for prototypes that need to bend, stretch, and compress, such as wearables, handles, seals, and gaskets. Properties Pliable, Soft, Wear Resistant, Stretchable Datasheet Request a Quote Grey V5 A versatile material for prototyping and functional designs. Offers excellent stiffness, strength, and dimensional accuracy with a smooth matte finish, making it ideal for engineering parts and presentation models. Properties Stiff & Strong, Fine Details, High Strength, Fast Printing Datasheet Request a Quote Premium Teeth A high-strength biocompatible material designed for permanent dental restorations. Offers excellent aesthetics, wear resistance, and mechanical durability for crowns, bridges, and dental prosthetics. Properties Biocompatible, Stiff & Strong, Wear Resistant, Aesthetic Datasheet Request a Quote Surgical Guide A transparent, biocompatible material designed for fabricating surgical guides. Provides high accuracy, strength, and polishability, making it suitable for patient-contact dental and medical applications. Properties Biocompatible, Transparent, Stiff & Strong, High Strength, Polishable Datasheet Request a Quote White V5 A bright white, matte-finish material with excellent dimensional accuracy. Provides sharp detail and a professional surface finish for presentation models, functional designs, and high-contrast prototypes. Properties Stiff & Strong, Fine Details, High Strength Datasheet Request a Quote BioMed Clear A transparent, biocompatible material designed for medical and dental devices. Offers excellent strength, polishability, and clarity for patient-contact applications where visibility is important. Properties Biocompatible, Transparent, High Strength, Polishable Datasheet Request a Quote BioMed Flex 80A A biocompatible flexible material with balanced toughness and strength. Designed for medical prototypes and components that require repeated bending and durability under stress. Properties Pliable, Biocompatible, Resilient, Wear Resistant Datasheet Request a Quote Castable Wax A high-detail material formulated for investment casting. Burns out cleanly without ash, making it ideal for jewelry, dental, and engineering applications that require precise molds and fine surface detail. Properties Fine Details, Clean Burnout, Casting Ready Datasheet Request a Quote Dental LT Clear V2 A long-term biocompatible material designed for dental appliances such as splints and occlusal guards. Strong, wear-resistant, and polishable, while maintaining excellent clarity for patient-facing applications. Properties Transparent, Biocompatible, High Strength, Wear Resistant, Stiff & Strong Datasheet Request a Quote Durable V2 An impact-resistant material with a smooth, low-friction surface. Ideal for parts that require toughness and flexibility, such as consumer products, snap fits, and low-wear functional prototypes. Properties Impact Resistant, Flexible, Low Friction Datasheet Request a Quote Flame Retardant A self-extinguishing material designed for applications requiring flame retardancy and high mechanical stability. Ideal for electrical housings, consumer electronics, and aerospace or automotive components. Properties Flame Retardant, Stiff & Strong, High Strength, Heat Resistant Datasheet Request a Quote High Temp A heat-resistant material capable of withstanding extreme temperatures. Suitable for thermal testing, hot air and fluid flow, and molds or fixtures that need stability under heat. Properties Heat Resistant, Stiff & Strong, Dimensionally Stable Datasheet Request a Quote Rigid 10K A high-performance glass-filled material with extreme stiffness, designed to simulate glass or fiber-reinforced thermoplastics. Suitable for industrial applications, molds, and parts exposed to high stress and heat. Properties Extremely Stiff, High Strength, Heat Resistant, Dimensionally Stable Datasheet Request a Quote Tough 1500 A balanced material offering stiffness with the ability to bend and spring back. Ideal for functional prototypes and assemblies that experience repeated stress or need moderate flexibility. Properties Tough, Resilient, Impact Resistant Datasheet Request a Quote ESD (Electrostatic Dissipation) A static-dissipative material designed for safe and reliable use in electronics manufacturing. Prevents static discharge while offering strength and precision for jigs, fixtures, housings, and tooling that come into contact with sensitive electronic components. Properties Static-Dissipative, Durable, Precise Datasheet Request More Information BioMed Amber A translucent, biocompatible material with high strength and wear resistance. Suitable for medical devices and healthcare components that require durability and visibility for inspection or monitoring. Properties Biocompatible, Translucent, High Strength, Wear Resistant Datasheet Request More Information BioMed Durable A biocompatible material engineered for impact-resistant, long-lasting medical devices. Combines toughness and flexibility, making it suitable for prototypes and end-use components in healthcare. Properties Biocompatible, Tough, Impact Resistant, Flexible Datasheet Request More Information Rigid 10K A high-performance glass-filled material with extreme stiffness, designed to simulate glass or fiber-reinforced thermoplastics. Suitable for industrial applications, molds, and parts exposed to high stress and heat. Properties Extremely Stiff, High Strength, Heat Resistant, Dimensionally Stable Datasheet Request More Information Tough 1500 A balanced material offering stiffness with the ability to bend and spring back. Ideal for functional prototypes and assemblies that experience repeated stress or need moderate flexibility. Properties Tough, Resilient, Impact Resistant Datasheet Request More Information Tough 2000 The stiffest and strongest material in the Tough family, engineered for load-bearing functional parts. Ideal for jigs, fixtures, and prototypes that need to resist deformation and maintain high strength under stress. Properties Stiff & Strong, Wear Resistant, High Strength Datasheet Request More Information Clear Cast Clear Cast is a precision material for investment casting patterns. It offers low thermal expansion, clean burnout with minimal ash, and reliable dimensional accuracy for detailed engineering and casting applications. Properties Transparent, Clean Burnout, Low Thermal Expansion, High Accuracy Datasheet Request More Information BioMed Black A strong, biocompatible material with a deep black finish. Ideal for medical devices and components requiring durability, color stability, and an opaque aesthetic for patient-facing use. Properties Biocompatible, Stiff & Strong, Wear Resistant, Durable Finish Datasheet Request More Information Flame Retardant A self-extinguishing material designed for applications requiring flame retardancy and high mechanical stability. Ideal for electrical housings, consumer electronics, and aerospace or automotive components. Properties Flame Retardant, Stiff & Strong, High Strength, Heat Resistant Datasheet Request More Information Rigid 4000 A glass-filled material that provides high stiffness and dimensional stability. Ideal for thin walls, load-bearing parts, and functional prototypes that require strength with a smooth, matte surface finish. Properties Stiff & Strong, High Strength, Dimensionally Stable Datasheet Request More Information Clear V4.1 A transparent material for visual models and functional parts where clarity matters. Can be polished to improve transparency, making it ideal for fluidics, optics, and parts requiring internal visibility. Properties Transparent, Fine Details, Polishable Datasheet Request More Information White V5 A bright white, matte-finish material with excellent dimensional accuracy. Provides sharp detail and a professional surface finish for presentation models, functional designs, and high-contrast prototypes. Properties Stiff & Strong, Fine Details, High Strength Datasheet Request More Information BioMed White A strong, opaque, biocompatible material designed for patient-contact applications. Offers high durability and a clean white finish, making it ideal for medical devices, instruments, and components. Properties Biocompatible, Stiff & Strong, High Strength, Opaque Datasheet Request More Information BioMed Clear A transparent, biocompatible material designed for medical and dental devices. Offers excellent strength, polishability, and clarity for patient-contact applications where visibility is important. Properties Biocompatible, Transparent, High Strength, Polishable Datasheet Request More Information High Temp A heat-resistant material capable of withstanding extreme temperatures. Suitable for thermal testing, hot air and fluid flow, and molds or fixtures that need stability under heat. Properties Heat Resistant, Stiff & Strong, Dimensionally Stable Datasheet Request More Information Durable V2 An impact-resistant material with a smooth, low-friction surface. Ideal for parts that require toughness and flexibility, such as consumer products, snap fits, and low-wear functional prototypes. Properties Impact Resistant, Flexible, Low Friction Datasheet Request More Information Black V5 A versatile black material with a smooth matte finish, designed for models that need a professional appearance. Provides excellent detail resolution and surface quality for both functional prototypes and presentation pieces. Properties Smooth Finish, Fine Details, High Strength Datasheet Request More Information Grey V5 A versatile material for prototyping and functional designs. Offers excellent stiffness, strength, and dimensional accuracy with a smooth matte finish, making it ideal for engineering parts and presentation models. Properties Stiff & Strong, Fine Details, High Strength, Fast Printing Datasheet Request More Information BioMed Durable A biocompatible material engineered for impact-resistant, long-lasting medical devices. Combines toughness and flexibility, making it suitable for prototypes and end-use components in healthcare. Properties Biocompatible, Tough, Impact Resistant, Flexible Datasheet Black V5 A versatile black material with a smooth matte finish, designed for models that need a professional appearance. Provides excellent detail resolution and surface quality for both functional prototypes and presentation pieces. Properties Smooth Finish, Fine Details, High Strength Datasheet Clear V4.1 A transparent material for visual models and functional parts where clarity matters. Can be polished to improve transparency, making it ideal for fluidics, optics, and parts requiring internal visibility. Properties Transparent, Fine Details, Polishable Datasheet Elastic 50A A soft, pliable material that behaves like silicone. Designed for prototypes that need to bend, stretch, and compress, such as wearables, handles, seals, and gaskets. Properties Pliable, Soft, Wear Resistant, Stretchable Datasheet High Temp A heat-resistant material capable of withstanding extreme temperatures. Suitable for thermal testing, hot air and fluid flow, and molds or fixtures that need stability under heat. Properties Heat Resistant, Stiff & Strong, Dimensionally Stable Datasheet Tough 1500 A balanced material offering stiffness with the ability to bend and spring back. Ideal for functional prototypes and assemblies that experience repeated stress or need moderate flexibility. Properties Tough, Resilient, Impact Resistant Datasheet BioMed Elastic 50A A biocompatible, soft material designed for medical devices and patient-contact applications. With silicone-like flexibility, it’s ideal for prototypes of medical wearables, seals, and anatomical models. Properties Pliable, Biocompatible, Wear Resistant, Stretchable Datasheet Castable Wax A high-detail material formulated for investment casting. Burns out cleanly without ash, making it ideal for jewelry, dental, and engineering applications that require precise molds and fine surface detail. Properties Fine Details, Clean Burnout, Casting Ready Datasheet Draft V2 A fast-printing material optimized for speed and efficiency. Suitable for rapid iterations, early-stage prototypes, and large models where turnaround time is more important than fine detail. Properties Fast Printing, Low Resolution, Cost-Effective Datasheet Flexible 80A A versatile elastomeric material with balanced flexibility and strength. Ideal for parts that need to bend and return to shape under stress, such as grips, hinges, and cushioning components. Properties Pliable, Resilient, Wear Resistant Datasheet Rigid 10K A high-performance glass-filled material with extreme stiffness, designed to simulate glass or fiber-reinforced thermoplastics. Suitable for industrial applications, molds, and parts exposed to high stress and heat. Properties Extremely Stiff, High Strength, Heat Resistant, Dimensionally Stable Datasheet Tough 2000 The stiffest and strongest material in the Tough family, engineered for load-bearing functional parts. Ideal for jigs, fixtures, and prototypes that need to resist deformation and maintain high strength under stress. Properties Stiff & Strong, Wear Resistant, High Strength Datasheet BioMed Flex 80A A biocompatible flexible material with balanced toughness and strength. Designed for medical prototypes and components that require repeated bending and durability under stress. Properties Pliable, Biocompatible, Resilient, Wear Resistant Datasheet Clear Cast Clear Cast is a precision material for investment casting patterns. It offers low thermal expansion, clean burnout with minimal ash, and reliable dimensional accuracy for detailed engineering and casting applications. Properties Transparent, Clean Burnout, Low Thermal Expansion, High Accuracy Datasheet Durable V2 An impact-resistant material with a smooth, low-friction surface. Ideal for parts that require toughness and flexibility, such as consumer products, snap fits, and low-wear functional prototypes. Properties Impact Resistant, Flexible, Low Friction Datasheet Grey V5 A versatile material for prototyping and functional designs. Offers excellent stiffness, strength, and dimensional accuracy with a smooth matte finish, making it ideal for engineering parts and presentation models. Properties Stiff & Strong, Fine Details, High Strength, Fast Printing Datasheet Rigid 4000 A glass-filled material that provides high stiffness and dimensional stability. Ideal for thin walls, load-bearing parts, and functional prototypes that require strength with a smooth, matte surface finish. Properties Stiff & Strong, High Strength, Dimensionally Stable Datasheet White V5 A bright white, matte-finish material with excellent dimensional accuracy. Provides sharp detail and a professional surface finish for presentation models, functional designs, and high-contrast prototypes. Properties Stiff & Strong, Fine Details, High Strength Datasheet BioMed White A strong, opaque, biocompatible material designed for patient-contact applications. Offers high durability and a clean white finish, making it ideal for medical devices, instruments, and components. Properties Biocompatible, Stiff & Strong, High Strength, Opaque Datasheet BioMed Clear A transparent, biocompatible material designed for medical and dental devices. Offers excellent strength, polishability, and clarity for patient-contact applications where visibility is important. Properties Biocompatible, Transparent, High Strength, Polishable Datasheet Premium Teeth A high-strength biocompatible material designed for permanent dental restorations. Offers excellent aesthetics, wear resistance, and mechanical durability for crowns, bridges, and dental prosthetics. Properties Biocompatible, Stiff & Strong, Wear Resistant, Aesthetic Datasheet BioMed Flex 80A A biocompatible flexible material with balanced toughness and strength. Designed for medical prototypes and components that require repeated bending and durability under stress. Properties Pliable, Biocompatible, Resilient, Wear Resistant Datasheet BioMed Amber A translucent, biocompatible material with high strength and wear resistance. Suitable for medical devices and healthcare components that require durability and visibility for inspection or monitoring. Properties Biocompatible, Translucent, High Strength, Wear Resistant Datasheet BioMed Durable A biocompatible material engineered for impact-resistant, long-lasting medical devices. Combines toughness and flexibility, making it suitable for prototypes and end-use components in healthcare. Properties Biocompatible, Tough, Impact Resistant, Flexible Datasheet Dental LT Comfort A long-term biocompatible flexible material designed for occlusal guards, splints, and similar applications. Combines comfort and durability with excellent polishability and wear resistance. Properties Biocompatible, Flexible, Wear Resistant, Polishable Datasheet BioMed Elastic 50A A biocompatible, soft material designed for medical devices and patient-contact applications. With silicone-like flexibility, it’s ideal for prototypes of medical wearables, seals, and anatomical models. Properties Pliable, Biocompatible, Wear Resistant, Stretchable Datasheet BioMed Black A strong, biocompatible material with a deep black finish. Ideal for medical devices and components requiring durability, color stability, and an opaque aesthetic for patient-facing use. Properties Biocompatible, Stiff & Strong, Wear Resistant, Durable Finish Datasheet Surgical Guide A transparent, biocompatible material designed for fabricating surgical guides. Provides high accuracy, strength, and polishability, making it suitable for patient-contact dental and medical applications. Properties Biocompatible, Transparent, Stiff & Strong, High Strength, Polishable Datasheet IBT Flex A biocompatible, flexible material developed for indirect bonding trays in orthodontics. Provides accuracy and elasticity for efficient bracket placement while remaining comfortable for patients. Properties Pliable, Biocompatible, Flexible, Accurate Datasheet Dental LT Clear V2 A long-term biocompatible material designed for dental appliances such as splints and occlusal guards. Strong, wear-resistant, and polishable, while maintaining excellent clarity for patient-facing applications. Properties Transparent, Biocompatible, High Strength, Wear Resistant, Stiff & Strong Datasheet ESD (Electrostatic Dissipation) A static-dissipative material designed for safe and reliable use in electronics manufacturing. Prevents static discharge while offering strength and precision for jigs, fixtures, housings, and tooling that come into contact with sensitive electronic components. Properties Static-Dissipative, Durable, Precise Datasheet Flame Retardant A self-extinguishing material designed for applications requiring flame retardancy and high mechanical stability. Ideal for electrical housings, consumer electronics, and aerospace or automotive components. Properties Flame Retardant, Stiff & Strong, High Strength, Heat Resistant Datasheet High Temp A heat-resistant material capable of withstanding extreme temperatures. Suitable for thermal testing, hot air and fluid flow, and molds or fixtures that need stability under heat. Properties Heat Resistant, Stiff & Strong, Dimensionally Stable Datasheet Clear Cast Clear Cast is a precision material for investment casting patterns. It offers low thermal expansion, clean burnout with minimal ash, and reliable dimensional accuracy for detailed engineering and casting applications. Properties Transparent, Clean Burnout, Low Thermal Expansion, High Accuracy Datasheet Castable Wax A high-detail material formulated for investment casting. Burns out cleanly without ash, making it ideal for jewelry, dental, and engineering applications that require precise molds and fine surface detail. Properties Fine Details, Clean Burnout, Casting Ready Datasheet BioMed Flex 80A A biocompatible flexible material with balanced toughness and strength. Designed for medical prototypes and components that require repeated bending and durability under stress. Properties Pliable, Biocompatible, Resilient, Wear Resistant Datasheet Elastic 50A A soft, pliable material that behaves like silicone. Designed for prototypes that need to bend, stretch, and compress, such as wearables, handles, seals, and gaskets. Properties Pliable, Soft, Wear Resistant, Stretchable Datasheet BioMed Elastic 50A A biocompatible, soft material designed for medical devices and patient-contact applications. With silicone-like flexibility, it’s ideal for prototypes of medical wearables, seals, and anatomical models. Properties Pliable, Biocompatible, Wear Resistant, Stretchable Datasheet Flexible 80A A versatile elastomeric material with balanced flexibility and strength. Ideal for parts that need to bend and return to shape under stress, such as grips, hinges, and cushioning components. Properties Pliable, Resilient, Wear Resistant Datasheet Castable Wax A high-detail material formulated for investment casting. Burns out cleanly without ash, making it ideal for jewelry, dental, and engineering applications that require precise molds and fine surface detail. Properties Fine Details, Clean Burnout, Casting Ready Datasheet Premium Teeth A high-strength biocompatible material designed for permanent dental restorations. Offers excellent aesthetics, wear resistance, and mechanical durability for crowns, bridges, and dental prosthetics. Properties Biocompatible, Stiff & Strong, Wear Resistant, Aesthetic Datasheet Dental LT Clear V2 A long-term biocompatible material designed for dental appliances such as splints and occlusal guards. Strong, wear-resistant, and polishable, while maintaining excellent clarity for patient-facing applications. Properties Transparent, Biocompatible, High Strength, Wear Resistant, Stiff & Strong Datasheet BioMed Clear A transparent, biocompatible material designed for medical and dental devices. Offers excellent strength, polishability, and clarity for patient-contact applications where visibility is important. Properties Biocompatible, Transparent, High Strength, Polishable Datasheet Dental LT Comfort A long-term biocompatible flexible material designed for occlusal guards, splints, and similar applications. Combines comfort and durability with excellent polishability and wear resistance. Properties Biocompatible, Flexible, Wear Resistant, Polishable Datasheet Surgical Guide A transparent, biocompatible material designed for fabricating surgical guides. Provides high accuracy, strength, and polishability, making it suitable for patient-contact dental and medical applications. Properties Biocompatible, Transparent, Stiff & Strong, High Strength, Polishable Datasheet IBT Flex A biocompatible, flexible material developed for indirect bonding trays in orthodontics. Provides accuracy and elasticity for efficient bracket placement while remaining comfortable for patients. Properties Pliable, Biocompatible, Flexible, Accurate Datasheet Interested In Learning More? Contact Us for a Custom Quote

On-demand 3D printing for transportation and aerospace teams — replacement parts, tooling, fixtures, and low-volume production. Industrial polymers with fast quoting and consistent quality. On-Demand 3D Printing for Transportation & Aerospace High-performance 3D printed components for transportation and aerospace systems, built for strength, precision, and repeatability. Get Instant Quote Talk to An Expert Producing parts at scale? Learn about our Production Partner program → Why Transportation & Aerospace Teams Use Tempus 3D Transportation and aerospace programs demand strength, accuracy, and consistency. Tempus 3D delivers production-ready parts that support engineering, production, and ongoing maintenance. Production-Ready Technologies & Materials Engineering-grade polymers built for strength, wear, and repeat use Suitable for housings, brackets, tooling, and replacement components Options including impact-resistant, flexible, and heat-stable materials Consistent, On-Spec Production Controlled processes ensure repeatability and reliability Proven quality from prototype through repeat production Parts produced to specification with dependable build-to-build consistency Fast Quoting & Flexible Ordering Instant CAD-based pricing with automated printability checks Order one-off replacement parts or repeat production runs Volume-based pricing and partner programs for ongoing demand In-House Manufacturing & Partner Network Canadian-based, in-house production for fast turnaround Partner network used for specialty materials or processes Single point of accountability from prototype to production Contact Us for a Custom Quote Transportation & Aerospace Applications Replacement Parts & Obsolescence Support Emergency replacement components to reduce downtime Obsolete or hard-to-source parts for legacy platforms Functional equivalents for worn or failed components Tooling, Fixtures & Assembly Aids Jigs and fixtures for repeatable assembly and alignment Drill guides, inspection aids, and positioning tools Supports faster maintenance and consistent builds Housings & Industrial Components Rugged housings for sensors, electronics, and controls Covers, guards, and protective shrouds for equipment Designed for vibration, impact, and harsh environments Low-Volume & Bridge Production Parts Short-run end-use parts and variant SKUs Bridge production while tooling or machining is queued Iteration support for design updates and field changes 3D Printing Technologies Industrial 3D printing technologies suitable for lightweight components, complex geometry, and production-ready performance in transportation and aerospace applications. Multi Jet Fusion (MJF) Best for: Durable end-use parts and repeatable batch production with excellent dimensional consistency. Ideal for brackets, housings, ducting, and interior components. Build Volume: 380 × 284 × 380 mm Layer Height: 80–100 microns Tolerances: ±0.3 mm / ±0.3% Learn More Stereolithography (SLA) Best for: High-detail components and surface-critical part. ideal for fit-checks, aerodynamic mockups, tooling masters, and presentation-quality prototypes. Build Volume: 335 × 200 × 300 mm Layer Height: 25–100 microns Tolerances: ±0.2 mm / ±0.2% Learn More Selective Laser Sintering (SLS) Best for: Lightweight, complex geometries with strong mechanical performance. Ideal for functional ducting, clips, mounts, shrouds, and assemblies where design freedom matters. Build Volume: 180 × 130 × 310 mm Layer Height: 80–100 microns Tolerances: ±0.3 mm / ±0.3% Learn More Fused Deposition Modeling Best for: Fixtures, jigs, and functional prototypes where durability and affordability matter. Ideal for assembly aids, drill guides, check fixtures, and iteration parts. Build Volume: 256 × 256 × 256 mm Layer Height: 100–300 microns Tolerances: ±0.5 mm Learn More Proud to be a Certified HP MJF Production Professional Learn More Materials Engineering-grade polymers suited for lightweight, durable components, vibration exposure, and production repeatability. Functional Structural Components Strong, lightweight polymers for load-bearing and mechanically stressed parts. Built for impact resistance and long service life in vehicle and aerospace assemblies. Common uses: brackets, mounts, housings, ducts, protective covers Flexible & Vibration-Damping Components Tough and elastomeric materials for vibration control, sealing, and protection. Ideal where controlled flexibility and shock absorption are required. Common uses: gaskets, cable guides, bumpers, protective sleeves Precision & Enclosure Components High-detail materials for accurate fit, alignment, and clean surface finish. Supports tight tolerances for assemblies, interfaces, and dimensional control. Common uses: enclosures, fixtures, alignment features, interior components Application-Specific Materials Materials suited for electrical, thermal, and environment-driven requirements. Materials selected for electrical, thermal, and environment-driven requirements. Common uses: electronics housings, sensor mounts, brackets, under-hood components View All Materials Get an Instant Quote VIEW ALL MATERIALS Compare properties, applications, and certifications across our entire material portfolio. Nylon PA12S (SLS) HP Nylon PA12 (MJF) Black Resin V5 (SLA) Clear Cast Resin (SLA) BASF TPU01 (MJF) Nylon PA12 Color (MJF) Nylon PA12 Color (MJF) Nylon PA12S (SLS) High-Temperature Resin (SLA) Flame-Retardant Resin (SLA) Bioelastic 50A Resin (SLA) Clear Resin V4.1 (SLA) Polypropylene (MJF) Rigid 10K Resin (SLA) Nylon PA12S (SLS) HP Nylon PA12 (MJF) Black Resin V5 (SLA) Clear Cast Resin (SLA) BASF TPU01 (MJF) Nylon PA12 Color (MJF) Nylon PA12 Color (MJF) Nylon PA12S (SLS) High-Temperature Resin (SLA) Flame-Retardant Resin (SLA) Bioelastic 50A Resin (SLA) Clear Resin V4.1 (SLA) Polypropylene (MJF) Rigid 10K Resin (SLA) Nylon PA12S (SLS) HP Nylon PA12 (MJF) Black Resin V5 (SLA) Clear Cast Resin (SLA) BASF TPU01 (MJF) Nylon PA12 Color (MJF) Nylon PA12 Color (MJF) Nylon PA12S (SLS) High-Temperature Resin (SLA) Flame-Retardant Resin (SLA) Bioelastic 50A Resin (SLA) Clear Resin V4.1 (SLA) Polypropylene (MJF) Rigid 10K Resin (SLA) Key Benefits Supporting uptime, maintenance reliability, and production continuity across oil & gas operations. Lightweighting & Performance Reduce mass in brackets, housings, and interior components Complex geometry without added assembly steps Better strength-to-weight optimization Durability for Vibration & Mechanical Loads Materials suited to vibration-prone environments Tough polymers for functional end-use parts Improved service life vs. brittle prototypes Precision Fit for Assemblies Dimensional accuracy for interfaces and mounts Consistent parts across repeat orders Supports production documentation and repeatability Heat & Chemical Resistance Options Materials available for elevated temperatures Resistance to oils, fuels, and common shop chemicals Better reliability near engines, bays, and equipment Fast Iteration & Program Agility Rapid design validation and revision cycles Lower risk when requirements change Faster path from prototype to production run Low-Volume Production & MRO Support Bridge manufacturing before tooling investment Replacement parts and program spares on demand Reliable supply for low-volume components Ready to Get Started? 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Tempus 3D offers SLA 3D printing in Canada, producing ultra-precise prototypes and end-use parts with fine detail, accuracy, and smooth surface quality. Stereolithography (SLA) Resin 3D Printing Services High-Resolution Parts and Prototypes with a Smooth Surface Finish SLA produces highly detailed parts with the smoothest surface finish in additive manufacturing, making it ideal for visual prototypes , functional components , and precision applications . Max Build Volume 335 × 200 × 300 mm Layer Resolution 25 – 300 μm Tolerance ±0.2–0.5% Machinery Formlabs Form 3BL Get an SLA Quote About SLA Technical Specs Materials Design Guidelines Quote What is Stereolithography? Stereolithography (SLA) is a resin-based 3D printing process that uses a laser to cure liquid resin into hardened plastic. Known for its high resolution, smooth surface finish , and tight tolerances , SLA is one of the most widely used technologies for creating accurate prototypes , detailed models, and functional parts . SLA 3D printing is ideal for: Parts requiring exceptional accuracy and features as small as 0.002 in (25 μm) Smooth surface quality , suitable for visual and cosmetic prototypes Form and fit testing of engineering components Complex geometries that are difficult to achieve with traditional methods Medical, dental, and industrial applications needing fine details and reliability Get a quote Technical Specifications Build Volume 335 × 200 × 300 mm (13.2 × 7.9 × 11.8 in) Large-format SLA printing for industrial and medical applications. Layer Thickness 25 – 300 μm (0.025 – 0.30 mm) High-resolution layers for smooth surface finish and fine details. XY Resolution 25 Microns (0.025 mm) Exceptional accuracy for precise components and complex geometries. SLA Material Options SLA resins deliver exceptional resolution, fine details, and smooth surface finishes. With in-stock resins for fast turnaround and a full library of special-order materials, Tempus 3D can support both quick prototyping and large, specialized projects. Choose from our in-stock SLA resins for fast production, or explore a wide library of specialty materials for larger or repeat projects. Clear Resin V4.1 Transparent Material with a Smooth Surface Finish Clear Resin V4.1 produces detailed, translucent parts that are ideal for visual prototypes, optical models, and functional testing. Its clarity makes it valuable for fluidics and light-based applications where internal features need to remain visible. Top Specs: Tensile Strength: 65 MPa Flexural Strength: 2.8 GPa Elongation at Break: 6% Hardness: 83 Shore D Appearance: Transparent, high optical clarity Learn More Rigid 10K Resin Stiff, industrial-grade resin with excellent heat and chemical resistance Rigid 10K Resin is a glass-filled resin designed for rigid, dimensionally accurate parts that must hold shape under load and high temperatures. It produces a smooth, matte surface finish and is suited for functional prototypes and production-ready parts where stiffness and stability matter. Top Specs: Tensile Strength: 88 MPa Elongation at Break (XY): 1.7% Tensile Modulus: 11 GPa Heat Deflection Temp. @ 0.45 MPa: 238°C Learn More BioMed Elastic 50A Biocompatible Elastomer with Silicone-Like Flexibility BioMed Elastic 50A is a soft, ISO 10993–certified resin that mimics the look and feel of silicone. With Shore 50A hardness and high elongation, it is ideal for flexible prototypes, wearables, and medical models requiring skin-safe performance. Top Specs: Tensile Strength: 3.2 MPa Elongation at Break: 150% Hardness: Shore 50A Tear Strength: 19 kN/m Biocompatibility: ISO 10993 certified Learn More Contact Our Team of Experts Looking for More SLA Material Options? Beyond our standard SLA materials, specialty resins may be sourced on a project-by-project basis, based on project scope and volume. Browse our special-order library or contact us to discuss requirements and lead time. View Special-Order SLA Materials SLA Design Guidelines Minimum Wall Thickness Recommended: 0.2 mm A wall that is smaller than 0.2 mm may warp or detach from the model during printing. Maximum Unsupported Overhang Length Recommended: 5.0 mm An overhang refers to a part of the model that sticks out horizontally parallel to the build platform. Printing such features without supports is discouraged, as the layers cannot maintain their structure. Minimum Unsupported Overhang Angle Recommended: 10° from level The overhang angle refers to the angle from horizontal that the overhang sticks out. Maximum Horizontal Support Span / Bridge Recommended: 29 mm (5 mm wide × 3 mm thick) A span is the distance between two intermediate supports of a structure. Minimum Vertical-Wire Diameter Recommended: 0.2 mm (7 mm tall) to 1.5 mm (30 mm tall) A wire is a feature whose length is greater than two times its width. Emboss / Engrave Recommended: min 0.1 mm (emboss) / min. 0.15 mm (engraved) Embossed Details smaller than 0.1 mm in thickness and in height may not be visible on your print, and engraved Details recessed less than 0.15 mm in thickness and in height may not be visible because they will be fused with the rest of the model during the print process. Minimum Clearance Between Moving Parts Recommended: 0.5 mm Clearance is the amount of distance needed between two moving parts of a model (e.g., the distance between gears or joints). Minimum Hole Diameter Recommended: 0.5 mm Holes with a diameter less than 0.5 mm in the x, y, and z axes may close off during printing. Minimum Drain Hole Diameter Recommended: 2.5 mm diameter Drain holes are recommended for resin to escape in models that are a fully enclosed cavity (like a hollow sphere or hollow cylinder printed directly on the build platform). Full Design Guidelines Upload your file. Get your parts made. Instant Quote

HP put industrial 3D printing to the test by lifting a 1995 Avalon with a 3D printed chain link produced using HP’s new Multi Jet Fusion™ technology. The chain was printed in under an hour and weighs just 0.25 pounds. Check out this video to see how it performed. How strong are parts 3D printed with HP Multi Jet Fusion technology? How strong can a 3D printed part really be? HP put this question to the test by lifting a 1995 Avalon with a 3D printed chain link using HP Multi Jet Fusion 3D printing technology. The chain was printed in under an hour and weighs just 0.25 pounds. check out this video to see how it performed. How was a 3D printed part able to support that much weight? the secret is in the printing process. HP Multi Jet Fusion technology works by laying down thin layers of materials then fusing them together to create a single strong and precise piece. In fact, that chain link is capable of lifting up to 10,000 pounds - far more than your average Avalon. With new 3D printing processes, businesses are able to achieve higher levels of productivity, quality, and improved economics—while also enabling faster development cycles and differentiating offerings from their competitors. Learn more about HP 3D printing technology See 3D printing in action with case studies and articles Join the Manufacturing Revolution with Tempus 3D Upload your CAD file for an online quote and start manufacturing today Get a quote

Montreal-based medical services innovator uses 3D printing technology to develop custom form-fitted and breathable back braces to improve patient comfort and outcomes. 3D Printed Medical Back Brace Montreal-based medical services innovator uses 3D printing technology to develop custom form-fitted and breathable back braces to improve patient comfort and outcomes. A medical services innovator based in Montreal, Quebec approached Tempus 3D with a back brace design to manufacture for them. They were looking for a company with the capacity to build the extra-large piece with material that had the strength, flexibility and resilience to be worn for long periods of time. The team at Tempus collaborated with HP and Hawkridge to provide a solution that suited their manufacturing requirements, while keeping cost and production time to a minimum. Key benefits Mass low-cost customization Complex geometries that result in reduced part cost Photo courtesy of Airforce Velocity Stacks Organization Montreal, Quebec based medical services innovator Industry Medical Prosthetics and Braces Partners HP , Hawkridge Systems , STAC Technology HP Multi Jet Fusion 5200 , with build dimensions of 380 x 284 x 380 mm Material HP Nylon PA12 Software Solidworks Post Processing Bead blasted and dyed black Challenge The biggest challenge with this project was the large size of the brace. When large, flat parts are 3D printed there is a risk of the piece warping because of the uneven cooling that can occur as the part is being built. Also, there are not many commercial 3D printers which can manufacture such large pieces. The secondary challenge was to ensure the material had the strength, durability and flexibility to provide comfortable support and was suitable to be used as a medical device. Solution The team at Tempus 3D was able to leverage HP Multi Jet Fusion 3D printing technology, which provides the class-leading build volume and part quality required to successfully manufacture this design. With this printer all of the parts for the brace could all be fit into one print run, which saves manufacturing time and cost. The greatest risk in the production of the brace was the potential for the pieces to warp, because the difference in temperatures across large, flat pieces can bend them as they cool. Tempus 3D drew on support from experts at HP and Hawkridge Systems, who worked with the team at Tempus to ensure the part orientation and print settings were optimized for the best result. The template for this build can now be used to print the same or similar pieces for the supplier on-demand with precise repeatability between prints. The other consideration in building the brace was to select a material that was suitable for a medical device used on or near the skin. Nylon 12 was the material of choice because it has a high tensile strength, is water proof and certified biocompatible. It also has enough flexibility to accomodate the patient's movement without losing it’s support. Result Tempus collaborated with their partners at HP, Hawkridge systems, and the client to produce a part that exceeded their expectations in terms of finish, colour, accuracy, and cost. We look forward to continue building these parts that have the potential to positively impact patient outcomes and lead to further advancement in the Canadian medical sector. Tempus 3D is one of only a handful of HP certified 3D printing service bureaus located in Canada. As part of the HP digital manufacturing network, our team has an established track record of working collaboratively with partners across Canada in the prototyping and development of innovative products. Head quartered in British Columbia, Tempus serves customers across North America with expertise in the digital manufacturing revolution. We at Tempus feel this is just the beginning of what manufacturing will look like in the future; it will be more responsive, more collaborative, and more local allowing innovators across sectors to bring products to market quicker and in a more environmentally friendly way. Learn more about designing for 3D printing with HP Multi Jet Fusion 3D printing technology Learn more about prototyping and manufacturing solutions with Tempus 3D Explore industrial plastics available through Tempus 3D Learn more about the advantages of industrial 3D printing with HP Multi Jet Fusion technology Explore more case studies and articles

Production-ready 3D printing for energy, oil & gas operations. Durable replacement parts, tooling, and low-volume production to reduce downtime and support MRO teams. On-Demand 3D Printing for Energy, Oil & Gas Durable, production-ready parts for field operations, maintenance, and tooling — helping reduce downtime, extend equipment life, and support fast replacement when it matters most. Get Instant Quote Talk to An Expert Producing parts at scale? Learn about our Production Partner program → Why Energy, Oil & Gas Teams Use Tempus 3D Energy and oil & gas operations require rugged parts, fast replacement, and predictable quality. Tempus 3D supports maintenance, operations, and engineering teams with production-ready components - quickly and reliably. Production-Ready Technologies & Materials Engineering-grade polymers built for strength, wear, and repeat use Suitable for housings, brackets, tooling, and replacement components Options including impact-resistant, flexible, and heat-stable materials Consistent, On-Spec Production Controlled processes ensure repeatability and reliability Proven quality from prototype through repeat production Parts produced to specification with dependable build-to-build consistency Fast Quoting & Flexible Ordering Instant CAD-based pricing with automated printability checks Order one-off replacement parts or repeat production runs Volume-based pricing and partner programs for ongoing demand In-House Manufacturing & Partner Network Canadian-based, in-house production for faster turnaround Partner network used for specialty materials or processes Single point of accountability from prototype to production Contact Us for a Custom Quote Energy & Oil & Gas Applications Replacement & Maintenance Parts Emergency replacement components to reduce downtime Obsolete or hard-to-source parts Functional equivalents for worn or failed components Tooling, Fixtures & Field Aids Custom fixtures for inspection, alignment, and servicing Installation and positioning tools for field crews Improves repeatability and reduces on-site rework Housings & Industrial Components Rugged enclosures for sensors, controls, and electronics Guards, covers, and impact-resistant housings Designed for harsh, outdoor, and industrial environments Low-Volume & Bridge Production Parts End-use parts for maintenance programs and upgrades Short runs and variant SKUs without tooling delays Bridge manufacturing 3D Printing Technologies Industrial 3D printing technologies suited for harsh environments, tight tolerances, and production-ready performance. Multi Jet Fusion (MJF) Best for: Durable end-use parts, repeatable batch production, and tight tolerances. Ideal for tooling, housings, and replacement components where strength and consistency matter. Build Volume: 380 × 284 × 380 mm Layer Height: 80–100 microns Tolerances: ±0.3 mm / ±0.3% Learn More Stereolithography (SLA) Best for: High-detail components, precision fit parts, and tooling masters where surface quality and dimensional accuracy are critical. Build Volume: 335 × 200 × 300 mm Layer Height: 25–100 microns Tolerances: ±0.2 mm / ±0.2% Learn More Selective Laser Sintering (SLS) Best for: Complex geometries and mechanically robust parts requiring strength, impact resistance, and design freedom for demanding operating conditions. Build Volume: 180 × 130 × 310 mm Layer Height: 80–100 microns Tolerances: ±0.3 mm / ±0.3% Learn More Fused Deposition Modeling Best for: Fixtures, jigs, and functional prototypes where durability, speed, and cost efficiency are required for industrial workflows. Build Volume: 256 × 256 × 256 mm Layer Height: 100–300 microns Tolerances: ±0.5 mm Learn More Proud to be a Certified HP MJF Production Professional Learn More Materials Industrial-grade polymers suited for harsh environments, mechanical loads, and long-term field performance. Functional Structural Components Strong, lightweight polymers for load-bearing and mechanically stressed parts. Designed for rigidity, impact resistance, and extended service life in demanding industrial environments. Common uses: machine housings, brackets, mounts, guards, replacement components Flexible & Impact-Resistant Components Tough and elastomeric materials for movement, protection, and vibration control. Ideal for applications requiring controlled flexibility, shock absorption, or repeated motion without fatigue. Common uses: gaskets, cable guides, protective covers, damping elements Precision & Enclosure Components High-detail materials for accurate fit, alignment, and component protection. Support tight tolerances and clean surface quality for enclosures and dimension-critical parts. Common uses: enclosures, fixtures, mounts, alignment parts Application-Specific & ESD-Safe Parts Materials suited for electrical, environmental, and safety-critical requirements. Options include ESD-safe, high-temperature, chemical-resistant, and other application-specific materials Common uses: ESD housings, sensor mounts, tooling, specialty components View All Materials Get an Instant Quote VIEW ALL MATERIALS Compare properties, applications, and certifications across our entire material portfolio. HP Nylon PA12 (MJF) Black Resin V5 (SLA) Clear Cast Resin (SLA) Rigid 10K Resin (SLA) Nylon PA12S (SLS) Nylon PA12 Color (MJF) Nylon PA12 Color (MJF) High-Temperature Resin (SLA) Flame-Retardant Resin (SLA) Bioelastic 50A Resin (SLA) Clear Resin V4.1 (SLA) TPU 90A (SLS) Polypropylene (MJF) BASF TPU01 (MJF) Nylon PA12S (SLS) HP Nylon PA12 (MJF) Black Resin V5 (SLA) Clear Cast Resin (SLA) Rigid 10K Resin (SLA) Nylon PA12S (SLS) Nylon PA12 Color (MJF) Nylon PA12 Color (MJF) High-Temperature Resin (SLA) Flame-Retardant Resin (SLA) Bioelastic 50A Resin (SLA) Clear Resin V4.1 (SLA) TPU 90A (SLS) Polypropylene (MJF) BASF TPU01 (MJF) Nylon PA12S (SLS) Key Benefits Supporting uptime, maintenance reliability, and production continuity across oil & gas operations. Precision Fit for Replacement & Spare Parts Exact-fit replacement components for critical equipment Dimensional consistency across repeat orders Supports legacy, obsolete, and hard-to-source parts Designed for Harsh Operating Environments Materials suitable for high temperatures and thermal cycling Resistant to chemicals, oils, fuels, and industrial solvents Performs in abrasive, outdoor, and industrial settings Fast Turnaround for Field & Plant Maintenance Rapid response for urgent MRO and breakdown events Eliminates tooling delays for low-volume spares Shortens maintenance windows and unplanned downtime Reduced Downtime Across Energy Assets Faster replacement of failed or worn components Enables on-demand spares without excess inventory Supports uptime for pumps, valves, enclosures, and tooling Production-Ready Support for Industrial Operations Low-to-mid volume production of end-use parts Repeatable quality across batches and facilities Predictable lead times for maintenance and operations teams Flexible Manufacturing Without Tooling Risk Ideal for short runs, design revisions, and field-driven changes Supports bridge manufacturing before casting or machining Reduces cost and risk for low-volume energy components Ready to Get Started? 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Rigid 10K Resin is a glass-filled SLA material engineered for exceptional stiffness, heat resistance, and precision. Ideal for industrial prototypes, jigs, and molds that need to perform under load and temperature without deformation. Partner with Tempus 3D to bring your designs to life. Rigid 10K Resin 3D Printing High-stiffness, glass-filled parts manufactured with SLA technology — ideal for applications that demand exceptional rigidity, dimensional accuracy, and heat resistance. Get a Custom Quote Why Choose Rigid 10K Resin? Produce rigid, stable parts with high heat and chemical resistance. Rigid 10K is a highly glass-filled stereolithography (SLA) material designed for industrial-grade parts that must endure significant load without deformation. It prints with a smooth matte finish, offering the look and feel of machined thermoplastics. Its high stiffness and heat resistance make it a strong choice for demanding engineering applications. 3D printing technology Stereolithography (SLA) Resolution 0.025 mm (25 μm), ±0.15–0.3% Maximum print size 380 x 285 x 380 mm (14.9" x 11.2" x 14.9") Get a Quote Designed for Rigid, Industrial-Grade Parts Clear Resin v4.1 produces smooth, transparent, and accurate parts that are widely used across industries. It supports applications where visual inspection, light transmission, or fluid flow analysis are required, while maintaining the strength and precision expected from an SLA material. This material is trusted for medical device developmen t, optical models, fluid systems, and consumer products that benefit from a clean, high-quality finish. Clear Resin v4.1 is a versatile choice for both functional prototypes and production-ready parts where transparency and fine detail matter. Get Parts Made Key Benefits Extremely Stiff – Glass-filled formulation delivers an elastic modulus of 11 GPa for excellent rigidity. Heat Resistant – Withstands up to 238 °C (460 °F) @ 0.45 MPa. Chemically Resistant – Maintains integrity after exposure to common oils, fuels, and solvents. Dimensional Stability – Tight tolerances for high-precision components. Smooth, Matte Surface Finish – Comparable to machined thermoplastics and easily paintable. Industrial Strength – Ideal for demanding mechanical and thermal environments. Applications Injection Mold Masters and Inserts – Produce short-run tooling and mold components that maintain precision under heat and pressure. Heat-Resistant Fixtures and Housings – Ideal for jigs, enclosures, and components exposed to elevated temperatures or fluids. Aerodynamic and Structural Models – Create durable test models and prototypes for high-performance applications. Tooling for Manufacturing Processes – Use for thermoforming, blow molding, and die applications requiring strength and dimensional accuracy. Technical Specifications Ultimate Tensile Strength 88 MPa / 12,700 psi Tensile Modulus 11 GPa / 1,600 ksi Elongation at Break (X/Y) 1.7% Flexural Strength 158 MPa / 22,900 psi Flexural Modulus 29.9 GPa / 1,440 ksi Impact (Notched Izod) 20 J/m / 0.37 ft-lb/in Heat Deflection Temp. @ 1.8 MPa 92 °C (198 °F) Heat Deflection Temp. @ 0.45 MPa 238 °C (460 °F) Thermal Expansion (0-150 °C) 41 µm/m/°C / 23 µin/in/°F Density (approx.) 1.8 g/cm³ Solvent Compatibility See full technical specifications View full technical specifications Powered by SLA Produce high-precision parts with Stereolithography (SLA). Known for exceptional detail, smooth surface finish, and tight tolerances, SLA is ideal for prototypes and end-use components. Learn More About SLA Design Guidelines Max print size 380 x 285 x 380 mm (14.9" x 11.2" x 14.9") Min wall thickness 0.2 mm Max unsupported overhang 5.0 mm Min vertical wire diameter 0.2 mm (7 mm tall) to 1.5 mm (30 mm tall) Emboss / engrave min 0.1 mm (emboss) / min. 0.15 mm (engraved) Min clearance min 0.5 mm between moving parts Min hole diameter min 0.5 mm Min drain hole diameter min 2.5 mm to allow resin to escape View full design guide Get your parts into production today Request a quote

Learn how Tempus 3D was able to help Spark Laser save money, reduce time to market and improve their product design for their laser cutting equipment using HP Multi Jet Fusion 3D printing technology. Case Study Spark Laser reduces time to market and development costs with industrial 3D printing. Spark Laser is a company based in Vancouver, BC that specializes in the design and manufacturing of commercial laser cutting machines. Spark Laser was looking for a local manufacturer that was able to rapidly produce low-volume production runs of prototypes and end-use plastic parts that were robust enough for an industrial environment, and affordable enough to keep their production costs down. With approximately 40 unique parts to manufacture, traditional methods like Injection molding would costs thousands of dollars and months to produce, without the flexibility to do on-the-fly design modifications. Spark Laser approached Tempus 3D to find a solution. With HP Multi Jet Fusion 3D printing technology, Tempus 3D was able to provide high-quality, robust plastic parts at a fraction of the cost of injection molding, with the ability to revise the design as needed and have their parts produced within days of ordering. This allowed Spark Laser to get their product to market faster and more affordably while maintaining the design freedom they need as they continue to innovate. Key benefits Able to get their product to market quickly and affordably Save thousands of dollars on production costs, compared to injection molding. High-quality plastic parts produced in days, not weeks or months. Prototype and manufacture consumer-ready end-use parts with the same CAD files and 3D printing technology. Photo courtesy of Spark Laser Organization Spark Laser Industry Manufacturing Technology HP Multi Jet Fusion Materials Nylon PA12 Introduction Spark Laser is a Vancouver, British Columbia (BC) based manufacturer of commercial and industrial lasers. They are building desktop lasers for customers across Canada and the United States. Their lasers are designed specifically to address a gap in the laser market by providing a high quality and cost-effective solution for customers not wanting to spend hundreds of thousands of dollars on industrial-sized products. The founder of Spark Laser, Yousef Javaher, was looking to manufacture these lasers in Canada. A mutual business connection introduced him to Tempus 3D , a Canadian 3D printing Service Bureau specializing in manufacturing industrial plastics. Challenge Spark laser was needing approximately 40 internal parts for the lasers and needed to be able to iterate the design quickly and cost-effectively to come up with an optimal product ideally suited to their target market. These parts needed to be robust enough to withstand long-term use in an industrial environment, and they needed to be able to manufacture the parts or revise the design with minimal cost and lag time. Due to the relatively low volume of initial production, most traditional methods of manufacturing products were not viable options. Solution Spark Laser recognized very early on that the cost of producing moulds for each of the parts and then changing the design and iterating with traditional manufacturing methods was not viable. The cost of having moulds produced for each part would have ranged from as low as $5,000 per part up to $20,000 for some of the more complex parts, and this would have been multiplied by the number of iterations to the parts. Additionally, the complexity of design of some of the parts was not feasible for injection molding processes. Spark Laser was an early adopter of 3D printing as a solution to the design challenges of building a complex product like a laser from the bottom up. They began using desktop 3D printers for quick in-house iteration, but when it came to producing the final product they needed parts that were comparable in quality, consistency, and asthetics to injection molding. The parts produced by the desktop printer were not precise or robust enough for an end-use product. This is where Tempus 3D was able to really deliver value. Spark Laser had Tempus produce their first set of parts in the summer of 2021, which were used to build the first functioning prototype laser. These parts were produced on Tempus 3D’s in-house HP Multi Jet Fusion 5200 3D printer, which is capable of producing large volumes of high quality parts with accuracy and aesthetics comparable to injection molding. Result Using industrial 3D printing allowed Spark laser was able to get their product to market quickly, and secure significant orders through a distribution partner. This has allowed Spark to test the market early without incurring massive research and design costs while keeping their inventory and raw materials cost near zero. They can essentially just order parts and raw materials on an as-needed basis and scale in a way that only 3D printing would allow. Spark Laser and Tempus 3D continue to work together with the production of parts, and are both heavily invested in bringing manufacturing back to Canada. As Spark continues to see increasing demand for their products, Tempus is there to help them scale and meet their needs. The Future The manufacturing partnership between Spark Laser and Tempus 3D is a prime example of what manufacturing will look like in the future. The manufacturing process will be more responsive, more customized, and more local allowing innovators across sectors to bring products to market more quickly and in a more environmentally friendly way. View a video of Spark Laser's technology in action on YouTube Learn more about HP Multi Jet Fusion https://www.tempus3d.com/hp-multi-jet-fusion Learn more about HP PA12 https://www.tempus3d.com/hp-nylon-pa12 How to design for Multi Jet Fusion https://www.tempus3d.com/hp-multi-jet-fusion-design-guide Photos and information courtesy of Spark Laser.

An RV owner could not find a replacement door handle for his RV, and was looking for a manufacturer that could upgrade the design and manufacture a new handle. They collaborated with Tempus 3D to re-design the part to their satisfaction and manufacture a replacement. The final part was 3D printed with HP Multi Jet Fusion technology, using Nylon PA12 for it's ability to withstand long-term weather and UV damage. Read the full article to learn more. Case Study - Creating Replacement Parts for Marine Applications with 3D Scanning and 3D Printing A boat owner in Trail BC broke a critical part in the throttle mechanism in his boat and was unable to source an affordable replacement. The owner was able to improve the part design and manufacture a replacement quickly and affordably, with the help of Tempus 3D's 3D scanning and additive manufacturing technology. Key Benefits Reduce cost of replacement parts. Create replacements when parts are unavailable. Opportunity to improve design and performance to eliminate future failures. Reduce environmental impact by replacing parts instead of discarding assemblies. Industry Marine, replacement parts, consumer goods Partners Selkirk Technology Access Centre Selkirk College Digital Fabrication & Design Technology HP Multi Jet Fusion 5200 3D printer Creaform HandySCAN Material HP Nylon PA12 Software Fusion 360 Post Processing Black dye Introduction Paul was heading out for a day on the lake with his family when a critical component in his boat failed, forcing him to bring the boat back to shore and cancel his plans. The failure happened in the throttle assembly as he was heading out for a day on the water. The plastic trigger that engages the throttle had snapped, leaving Paul unable to operate the boat. The boat was limped to shore where it was loaded onto the boat trailer and hauled back to town. Challenge The boat was taken to a local marine repair shop for diagnostics. It was quickly determined that the failure was due to the broken piece of red plastic located within the throttle control housing, as shown in the picture. The marine repair shop informed Paul that the piece was not available for purchase individually and he would have to purchase an entire throttle assembly. This seemed unnecessarily expensive and wasteful, so Paul decided to seek other solutions. Paul's first thought was to superglue the broken pieces back together. This was the simplest solution, but he knew this was a temporary fix and the part would break again under similar circumstances. When the part originally broke Paul was fortunate to be close to shore, but the last thing he wanted was for the part to break again in an isolated area. He decided that superglue was not an acceptable solution and began to explore other options. As he considered his options, Paul realized that a friend of his had a son who may be able to help him out. The individual was employed as a summer student at the Selkirk Technology Access Center and had experience with CAD modelling and 3D printing. Paul reached out to the student and brought him the broken part, only to be told that the part was too complex to be easily designed without a great deal of time and effort. He was also told that not all 3D printing processes or materials would be suitable for building a replacement part, as many 3D printing processes are weak between the printing layers. Solution It seemed as though Paul would have to buy a new assembly after all, which would be costly and require a lot of installation work. But as luck would have it the summer student consulted with the Digital Fabrication and Design department within Selkirk College, who proposed an alternate solution. The student was able to use 3D scanning technology to create a digital CAD file of the broken part. The CAD file was then used to reverse-engineer the part to fit the original housing. The design was also improved by increasing the material thickness where original part failed. To test the design, a prototype was created with PLA plastic on a consumer-grade FDM printer. The prototype was used to test the fit and function of the part before final production. Once the prototype was tested and approved, the design was brought to Tempus 3D to be manufactured with a material robust enough to withstand abuse and prolonged exposure to the elements. The team at Tempus recommended building the final part with Nylon 12 , using HP Multi Jet Fusion (MJF) 3D printing technology. Nylon 12 is a robust production-grade plastic which is resistant to moisture, chemicals and UV light, suutabel for use in marine applications and outdoor environments. MJF technology is designed for commercial production of affordable end-use parts, and the unique printing process provides the density and strength needed for long-term use. This technology is used by major manufacturers such as Volkswagen, BMW and Ford, making it a logical choice for this application. Res ult The combination of an upgraded part design, robust material and a commercial manufacturing process resulted in a part much stronger than the original, which was made with injection-moulded plastic. Paul was able to save time and money while improving the part design and minimizing unnecessary waste. About Tempus 3D With industry-leading technology and a network of production partners, Tempus 3D is uniquely capable of serving innovators and manufacturers across Canada. With online ordering , the ability to turn around rush orders in as little as 36 hours and cost-effective overnight shipping we can ensure you have the parts you need on-time and on-spec. We at Tempus feel this is just the beginning of what manufacturing will look like in the future; it will be more responsive, more custom, and more local allowing innovators across sectors to bring products to market quicker and in a more environmentally friendly way. Explore the possibilities of 3D scanning and reverse engineering Learn more about manufacturing solutions with Tempus 3D Explore industrial plastics available through Tempus 3D Learn more about the advantages of industrial 3D printing with HP Multi Jet Fusion technology Learn more about designing for 3D printing Explore more case studies and articles

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The speed of production, level of detail, affordability, and overall quality of the end product sets Multi Jet Fusion technology apart from other 3D printing processes. Learn how Multi Jet Fusion compares to Select Laster Sintering (SLS) and Fused Deposition Modeling (FDM). How does Multi Jet Fusion compare to other 3D printing technologies? There are many types of 3D printing available, but to be able to economically and reliably produce one to tens of thousands of parts in engineering grade material, powder bed technologies are the logical choice. The speed of production, level of detail, affordability, and overall quality of the end product sets this technology apart from all other 3D printing processes. Multi Jet Fusion (MJF) is most closely comparable to Selective Laser Sintering (SLS) technology. Like SLS it works by adding sequential layers of polymer powder into a build chamber, and the most common material for both is Nylon PA12. In contrast to SLS which uses a single point laser, MJF uses a combination of a fusing agent jetted onto the powder surface and a high powered heat source to selectively fuse areas of each layer together to form parts. This means that Multi Jet Fusion produces parts with similar material properties, but at a much higher volume per print. MJF and SLS have similar material properties, but Multi Jet Fusion has several distinct advantages: MJF is significantly faster than SLS. MJF is 15-30% less expensive than SLS, with greater cost advantage at higher volumes. MJF parts have superior strength and flexibility compared to SLS MJF has more homogenous mechanical properties compared to SLS, which is weaker along the print axis. Learn more about HP Multi Jet Fusion https://www.tempus3d.com/hp-multi-jet-fusion Learn more about HP PA12 https://www.tempus3d.com/hp-nylon-pa12 Get a Quote MJF 1000 gears in 3 hours* SLS 79 gears in 3 hours* FDM 36 gears in 3 hours* Interested in learning more? Take a look at a comparison completed by HP on You Tube . *Results may vary depending on the printer.