Search Results

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

A student in the Selkirk College Design for Digital Manufacturing Program needed to replace a broken part on his treadmill. Rather than replace the entire assembly, he was able to use digital scanning and 3D printing to replace the hard-to-find part. In the process he was able to improve the design of the original part, save money, and extend the useful life of the original equipment. Case Study - Using digital scanning and 3D printing to repair consumer goods A student in the Selkirk College Design for Digital Manufacturing Program (DFAM) needed to replace a broken part on his treadmill. Rather than replace the entire assembly, he was able to use digital scanning and 3D printing to replace the hard-to-find part. In the process he was able to improve the design of the original part, save money, and extend the useful life of the original equipment. 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 replacement parts, consumer goods Partners Selkirk Technology Access Centre Technology HP Multi Jet Fusion 5200 3D printer Creaform HandySCAN Material HP Nylon PA12 Software Fusion 360 Post Processing Black dye Introduction When old pieces of equipment fail it can be hard to find replacement parts. When they can be found they are often prohibitively expensive, particularly when the equipment is old or manufactured overseas. Digby Benner, a student in the Selkirk College Design for Digital Manufacturing (DFAM) program, had a broken part from a treadmill and he was having trouble finding a replacement part. When he did find a potential replacement it was prohibitively expensive, especially considering the small size and simplicity of the design. A part of the DFAM program, Digby was able to access digital scanning and 3D printing technology to create a replacement part which was better than the original. Challenge Digby was trying to replace a bracket which was designed to hold a tablet computer on a treadmill. The main supporting piece for the bracket broke while the user was adjusting the angle of the holder. The part was made from high-impact polystyrene (HIPS) and metal, and the failure occurred along the joint between the two materials. Digby tried to find a replacement part but it was unavailable to purchase individually, and it was challenging to find a replacement for the whole bracket assembly. Digby was also concerned that this part would fail again in the long term if replaced with the same piece. Digby decided to put his skills to work to create his own solution. Solution In the digital manufacturing program at Selkirk College Digby was learning how to use digital scanning and reverse engineering to improve existing parts, so he put his skills to the test. Digby started by using a Creaform 3D scanner to convert the part to a digital file. This file was uploaded to a Computer Automated Design (CAD) program, where the design could be edited and improved. In the CAD program Digby redesigned the part to a version that would be simpler and less prone to failing. The new design eliminated the piece of metal in the part asembly, and made the part thicker to reinforce the part and maintain the required dimensions. The piece of metal could be eliminated because the nylon material he planned to fabricate the part with is much stronger than the original HIPS plastic. Also, the 3D printing process allowed a significant variance in the thickness of different areas of the part, which could not be accomplished with the original injection molding process. A prototype was quickly made with a desktop Fused Deposition Modeling (FDM) 3D printer, after which a few alterations were made to improve the fit and function. The final design required a stronger material and more precision than the FDM printer could provide, so the files were sent to Tempus 3D for fabrication. Nylon PA 12 as the material because it is a robust, all-purpose plastic which is biocompatible and resistant to moisture and chemicals. Multi Jet Fusion was used as the 3D printing technology because it’s powder-bed fusion printing process produces parts which are strong across all dimensions, and provides a level of accuracy comparable to injection molding. Res ult The combination of an upgraded part design and industrial-grade plastic resulted in a part much stronger than the original plastic-and metal-design. Paul was able to save time and money while improving the part design and minimizing unnecessary waste. Tempus 3D - Supporting Students and Innovators The team at Tempus 3D was happy to support a student to accomplish his design and development goals by providing access to advanced manufacturing technology. Tempus 3D is proud to collaborate with Selkirk College and the DFAM Program to provide their students with access to industry-leading additive manufacturing technology, to help build a better future for Canada's youth. 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

Tempus 3D offers SLA 3D printing in Canada, producing ultra-precise prototypes and end-use parts with fine detail, accuracy, and smooth surface quality. Fused Deposition Modelling (FDM) 3D Printing Service Fast, cost-effective production of functional parts and prototypes FDM is a versatile 3D printing technology that enables fast, cost-efficient production of functional parts across a wide range of thermoplastics. With strong material performance and flexible design options, FDM is well suited for prototypes, tooling, fixtures, and low-volume components where durability and speed matter. Max Build Volume 256 × 256 × 256 mm Layer Resolution 100 – 300 µm (typical) Tolerance ±0.3–0.5% Get an FDM Quote Talk to an Expert About FDM Technical Specs Materials Design Guidelines Quote What is Fused Deposition Modeling? Fused Deposition Modelling (FDM) is a thermoplastic 3D printing process that builds parts layer by layer by extruding heated material through a nozzle. Known for its material versatility , speed , and cost efficiency , FDM is widely used for producing functional prototypes , tooling , and durable parts across a broad range of applications. At Tempus 3D, FDM parts are produced using commercially calibrated systems with controlled extrusion, temperature management, and build parameters . This allows us to deliver parts with reliable dimensional accuracy, improved layer adhesion, and consistent mechanical performance — suitable for functional prototyping and low-volume production. FDM 3D printing is ideal for: Functional prototypes requiring strength and real-world material behavior Jigs, fixtures, and tooling used in manufacturing and assembly Cost-efficient parts for low-volume production and iteration Industrial applications that benefit from durable thermoplastics like PLA, PETG, and ABS Get a quote Industrial-Grade FDM Printing Tempus 3D delivers FDM parts using commercial FDM print systems designed for consistent quality, repeatability, and real-world performance. Commercial-grade, enclosed FDM system for consistent accuracy and repeatability Temperature-controlled printing environment that improves part stability and layer adhesion Precision motion and extrusion control that supports tighter, more consistent tolerances than typical consumer printers Reliable, repeatable output for engineering validation, fixtures, and production support Get an Instant Quote Technical Specifications Build Volume 256 × 256 × 256 mm (10.1 × 10.1 × 10.1 in) Well-suited for functional prototypes, fixtures, enclosures, and small-to-medium parts with consistent accuracy across the build area. Layer Thickness 100–250 µm (typical) (0.10–0.25 mm) Optimized to balance dimensional accuracy, surface consistency, and production speed - ideal for fast-turn functional components and iterative development. XY Resolution Up to 25 µm (0.025 mm) Delivers reliable dimensional accuracy for fit checks, functional testing, and production-ready tooling, supported by automated calibration and process control. FDM Material Options FDM thermoplastics offer a versatile and cost-efficient solution for producing functional parts, prototypes, and tooling. With a focused selection of in-stock materials, Tempus 3D supports fast turnaround for common applications while maintaining consistent mechanical performance and dimensional reliability. Choose from our standard FDM materials for rapid production, or contact us to discuss material requirements for specialized or repeat projects. ABS Engineering Thermoplastic for Functional and Load-Bearing Parts ABS is a widely used engineering thermoplastic valued for its strength, impact resistance, and thermal stability. It is well suited for functional prototypes, jigs, fixtures, and parts that need to perform reliably in real-world conditions. Ideal for Jigs, fixtures, and functional tooling Durable housings, brackets, mounts, and assemblies Parts exposed to moderate heat and wear Color Options Learn More PETG HF Durable Material for Functional Parts, Prototypes and Enclosures PETG HF offers improved toughness and chemical resistance with a consistent surface finish. It is ideal for housings, enclosures, and functional parts requiring greater durability than PLA. Ideal for Functional prototypes Enclosures, housings, covers, brackets Parts needing improved durability for handling and light service use Color Options Learn More PLA Cost-Effective Material for Fast Prototyping, fit checks and Iteration PLA is an economical thermoplastic suited for early-stage prototypes, form and fit testing, and general-purpose parts. It offers good stiffness and dimensional stability, making it ideal for fast iteration where speed and cost efficiency are priorities. Ideal for Early-stage prototypes and concept models Form/fit checks and iterative design cycles General-purpose parts where high heat resistance is not required Color Options Learn More Contact Us Looking for a different FDM material? Select FDM materials can be sourced on a project-by-project basis. Please contact us to discuss requirements and lead time. FDM Design Guidelines Fused Deposition Modeling (FDM) enables fast, cost-efficient production of functional parts using thermoplastics. Following these guidelines will help ensure optimal print quality, dimensional accuracy, and structural performance. Minimum Wall Thickness Recommended: 1.0 mm Walls thinner than 1.0 mm may lack sufficient strength or consistency due to layer bonding and extrusion width. Thicker walls improve durability and dimensional stability, especially for functional parts and tooling. Unsupported Overhang Angle Recommended: ≤ 45° from horizontal Overhangs exceeding 45° may require support structures to prevent sagging or poor surface quality. Designing with self-supporting angles improves print reliability and reduces post-processing. Unsupported Bridge Length Recommended: ≤ 10 mm Preferred: ≤ 5 mm for consistent results Bridges span gaps without support material. Shorter bridge lengths improve surface quality and dimensional accuracy, particularly for functional features. Minimum Feature Size (Pins, Ribs, Bosses) Recommended: ≥ 1.0 mm Small features below 1.0 mm may not print reliably due to nozzle diameter and extrusion limits. Increasing feature size improves strength and repeatability. Minimum Hole Diameter Recommended: ≥ 1.5 mm (printed) Preferred: Drill to final size post-print for precision fits Small holes tend to print undersized due to material flow and cooling behavior. For tight tolerances, design holes slightly undersized and machine to final dimension. Clearance Between Moving Parts Recommended: ≥ 0.5 mm Adequate clearance is required for assemblies with moving components (e.g., hinges, gears). Smaller clearances may fuse during printing. Embossed and Engraved Text Embossed: ≥ 0.6 mm height Engraved: ≥ 0.4 mm depth Minimum line width: 0.5 mm Larger text and deeper features ensure readability and consistent definition after printing. Part Orientation Design for load along the X-Y plane where possible FDM parts are anisotropic, meaning strength is highest along the layer plane. Orient parts so critical loads act parallel to layers rather than across them to maximize strength and durability. Tolerances General tolerance: ±0.3 – 0.5% FDM is well suited for functional tolerances but is not intended for ultra-precision fits without post-processing. Critical mating surfaces should be reviewed during quoting. Support Considerations Supports may be required for: Overhangs greater than 45° Complex internal geometries Underside cosmetic surfaces Designing to minimize supports reduces post-processing time and cost. Post-Processing Options FDM parts may be: Lightly sanded for improved surface finish Drilled or tapped for fasteners Bonded or assembled after printing. Discuss post-processing requirements during quoting for best results. When to Consider Other Technologies If your design requires: Extremely fine details or smooth cosmetic surfaces → SLA Isotropic strength or complex internal channels → MJF / SLS Our team can help select the most appropriate process for your application. Upload your file. Get your parts made. Instant Quote

Polypropylene is commonly used in applications that require excellent chemical resistance combined with low moisture absorption, great flexibility, and impact resistance. Request a quote today to get your parts into production! HP Polypropylene (PP) 3D Printing Lightweight, chemically resistant, and cost-effective parts manufactured with HP Multi Jet Fusion technology. Ideal for automotive, consumer, and industrial applications. Get a Custom Quote Why Choose Polypropylene? Produce durable, lightweight parts with excellent chemical resistance at low cost. HP Polypropylene (PP) is a versatile, production-ready thermoplastic that combines low moisture absorption, chemical resistance, and ductility with lightweight performance. Its ability to deliver strong, watertight, and cost-efficient parts makes it ideal for both functional prototypes and end-use applications across multiple industries. 3D printing technology HP Multi Jet Fusion 5200 Dimensional accuracy +/- 0.3% with a lower limit of +/- 0.3 mm Maximum build size 380 x 285 x 380 mm (14.9" x 11.2" x 14.9") Instant Quote Designed for Lightweight, Chemical-Resistant Parts Strong, watertight, and ready for production. Polypropylene is widely trusted for applications that demand chemical resistance, low weight, and durability. It enables the production of fluid systems, living hinges, containers, and automotive components that require consistent, repeatable performance. From consumer goods and packaging to industrial housings and automotive interiors, PP offers the strength and reliability needed for production-ready parts — all while keeping costs low. Instant Quote Key Benefits Lightweight and Durable – Strong parts with balanced mechanical properties and repeatable accuracy. Chemical Resistance – Excellent resistance to oils, greases, hydrocarbons, and alkalis. Watertight and Airtight – Functional without additional sealing or post-processing. Low Moisture Absorption – Stable performance in humid or fluid-contact environments. UV and Environmental Resistance – Suitable for both indoor and outdoor applications. Cost-Efficient – Low material cost per part for prototyping and production. Applications Automotive Components – Car interior parts, ducts, and reservoirs. Fluid and HVAC Systems – Tubes, pipes, and housings requiring watertight performance. Consumer and Industrial Goods – Durable, lightweight products for everyday and technical use. Medical Devices – Functional prototypes and biocompatible end-use components. Orthotics and Wearables – Lightweight, skin-safe parts with consistent strength. Prototyping and Production – Functional prototypes and small- to medium-run manufacturing. Powered by HP Multi Jet Fusion HP Multi Jet Fusion (MJF) delivers exceptional precision and surface quality for end-to-end production at low cost. Ideal for low- to mid-volume manufacturing, it’s trusted by global leaders including Volkswagen, BMW, and John Deere for producing durable, high-performance production-grade parts. Learn More About MJF Technical Specifications Accuracy +/- 0.7% (minimum of +/- 0.3 mm) Layer thickness 0.08 mm Density of parts 0.89 g/cm³ Tensile modulus 1600 MPa (XY), 1600 MPa (Z) Tensile strength 30 MPa (XY), 30 MPa (Z) Elongation at break 20% (XY), 18% (Z) Melting point 187 °C Full Technical Specifications Certifications & Data Sheets HP Polypropylene Data Sheet Summary of regulatory compliance and environmental attributes C ertifications: 9 REACH, RoHS, PAHs , ISO 10993 and US FDA Intact Skin Surface Devices Statements Design Guidelines Max build volume 380 x 284 x 380 mm (15 x 11.2 x 15") Min wall thickness 2 mm Min clearance 0.6 mm Min slit between walls 0.6 mm Min hole diameter at 1 mm thickness 0.6 mm Min printable details 0.3 mm Min emboss / deboss 0.6 mm Min depth/height for emboss/deboss 1 mm Min font 9 pt (3.2 mm) Design Considerations Consider hollowing or adding internal lattice structure to large solid pieces to improve accuracy and minimize cost. See full design guidelines for additional considerations, including clearance, functional assemblies, interlocking parts, hollowing and lattice structures, ducts, threads, how to minimize the risk of warpage, bonding parts, and more. Hinges, sockets, and linked parts can be integrated into the design. View Full Design Guidelines Photo Gallery 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. Learn More Get your parts into production today Request a quote

Tempus 3D printing service bureau expands its Additive Manufacturing service offering with Selkirk Technology Access Centre (STAC) collaboration agreement. PRESS RELEASE Tempus 3D expands its Additive Manufacturing service offering with Selkirk Technology Access Centre (STAC) collaboration agreement. November 2020 Tempus 3D, a Canadian additive manufacturing company based in Southern BC, and the Selkirk Technology Access Centre (STAC), are pleased to announce their recently signed collaboration agreement. This agreement will expand the current Tempus 3D service offering by making a number of additional printing technologies and materials available to its customers. This is an exciting step for both companies and represents the natural evolution in the execution of their mandate to establish and grow an additive manufacturing industry in the Kootenays. Tempus 3D is an Additive Manufacturing Service Bureau focused on using the industry’s most advanced 3D printing technology to bring the unique benefits of 3D printing to the Canadian market to help companies meet their product development and manufacturing goals. Tempus brings value to its customers by employing best-in-class production technology along with industry-leading repeatability and production volume capabilities. “We are excited to be partnering with the Selkirk Technology Access Centre. The technology and deep industry experience at STAC will expand our ability to meet our customers’ unique needs, and bring us a competitive advantage in Canada’s Additive Manufacturing market” says Robert Bleier, CEO of Tempus 3D. “Our unique production capabilities combined with STAC’s design and prototyping capabilities are perfectly matched”. STAC, one of only three federally funded technology access centres in British Columbia, is focused on advanced manufacturing research and services including offering a Digital Fabrication and Design program through Selkirk College. STAC offers a suite of services designed to build competitiveness for research and development companies in British Columbia’s interior region. Their mission is to enable the development and commercialization of products and services and optimization of business processes resulting in decreased costs, increased efficiencies, and enhanced productivity for industry clients. Their capabilities include 3D printing, 3D scanning, rapid prototyping, materials research and development, and design services. “The unique partnership we have established with Tempus 3D dramatically expands the opportunities and capabilities of STAC.” says Jason Taylor, Chair of the Selkirk Technology Access Centre. “We are now able to produce thousands of parts with incredible accuracy, durability and strength in days rather than weeks or months.” Tempus 3D is a company to watch as it continues to expand and diversify it’s product and service offering to bring the exciting benefits of advanced manufacturing technologies to businesses in Canada and beyond. Learn more about the Selkirk Technology Access Center selkirk.ca/STAC

Selective Laser Sintering (SLS) is an advanced 3D printing process that produces tough, functional parts with excellent mechanical properties and complex geometries. Perfect for prototypes and end-use parts, SLS offers strength, durability, and design freedom. Manufactured by Tempus 3D. Selective Laser Sintering (SLS) 3D Printing Services Durable, Functional Parts with Complex Geometries SLS builds strong, production-ready parts with excellent mechanical properties and no support structures. Ideal for snap-fits, living hinges, housings, jigs/fixtures, and flexible TPU components. Max Print Size 398mm 15.7 in Max Build Volume 130×180×340 mm 5.1 × 7.1 × 13.3 in Layer Height 75 – 175 μm 0.003 – 0.006 in Get a Custom Quote What is Selective Laser Sintering? Selective Laser Sintering (SLS) is a powder-based 3D printing process that uses a high-powered laser to fuse polymer powders into solid layers. Known for its strength, durability, and ability to produce complex geometries without support structures, SLS is widely used for both prototypes and production-ready parts. SLS 3D printing is ideal for: Parts requiring strength and durability for functional testing and end-use applications Complex geometries and assemblies that are difficult to produce with traditional methods Lightweight, lattice, or hollow structures without the need for support material Snap-fits, hinges, and flexible designs made possible by engineering-grade materials like TPU Industrial, consumer, and medical applications demanding performance and reliability Get a quote Technical Specifications Build Volume 130 × 180 × 340 mm (5.1 × 7.1 × 13.3 in) Ideal for medium-sized functional and production-ready parts. Layer Height 75 – 175 μm (0.003 – 0.007 in) Reliable precision across complex geometries. Max Print Size (diagonal) 398 mm (15.7 in) Optimized for tall and elongated parts. SLS Material Options TPU 90A Flexible, Durable Parts for Demanding Applications With TPU 90A, our SLS printing service delivers production-ready flexible parts that combine durability with skin-safe performance. This material is ideal for engineers and product teams developing wearables, seals, straps, gaskets, and other components that require elasticity, tear resistance, and long-term reliability. Shore Hardness: 90A (durable elastomer) Elongation at Break : up to 310% (X/Y) – excellent flexibility Tear Resistance: 66 kN/m (X/Y) – high durability under stress Tensile Strength: 8.7 MPa (X/Y) – strong for a flexible material Biocompatibility: ISO 10993 certified – skin-safe Learn More about TPU Order Now HP Nylon PA12 Durable, Accurate Parts for Prototypes and Production With Nylon PA12, our SLS printing service produces high-strength, dimensionally stable parts with excellent surface quality. It’s a versatile material for components that need reliable performance under mechanical stress, temperature variation, and repeated use. Tensile Strength (Typical): 48 MPa – strong, engineering-grade performance Elongation at Break (Typical): 20% – balanced flexibility and impact strength Heat Deflection (Typical): 175°C – stable under high temperatures Accuracy: ±0.05m – consistent dimensional precision Chemical Resistance: Resists oils, greases, and solvents Learn More about Nylon 12 Order Now SLS Design Guidelines Minimum wall thickness Recommended: 0.8 mm (flexible parts), 1.5–2 mm (durable parts) Walls thinner than 0.8 mm may not sinter consistently, especially with flexible materials. Use thicker sections when higher tear strength or repeated bending is required. Minimum detail / feature size Recommended: 5.0 mm Fine embossed or debossed features are printable, but for legibility use ≥1 mm. Clearance for moving parts Recommended: 0.2 – 0.5 mm This prevents fusing of hinges, snaps, or interlocking geometries. Larger clearances may be needed for thicker geometries. 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. Holes and channels Recommended: ≥0.5 mm diameter For channels longer than 10 mm, include powder-escape holes to allow effective cleaning. Emboss / engrave Recommended: ≥0.1 mm emboss, ≥0.15 mm engrave Ensures visibility and avoids loss of detail after depowdering. Upload your file. Get your parts made. Instant Quote

A First Nations group wanted to create a copper replica of a sacred Eagle skull and approached Tempus 3D for a solution. The team at Tempus collaborated with a network of professionals with advanced digital manufacturing capability to find a solution and produce a beautiful result. CASE STUDY Copper-plated eagle skull highlights the potential of digital manufacturing to make the impossible possible. A First Nations group wanted to create a copper replica of a sacred Eagle skull and approached Tempus 3D for a solution. The team at Tempus collaborated with a network of professionals with advanced digial manufacturing capability to find a solution and produce a beautiful result. Key benefits Rapid part iteration and refinement Market validation prior to large investment Local manufacturing fast turnaround of prototypes and production parts Environmentally friendly and sustainable production On-demand manufacturing Organizations Tempus 3D Ltd. , Selkirk Technology Access Centre , Repliform Inc. Industry Art, sculptures Technology HP Multi Jet Fusion 5200 3D printer, Creaform 3D scanner Materials Nylon PA12 Challenge The team at Tempus 3D was approached by a First Nations group from British Columbia to assist in creating a copper replica of an Eagle Skull. The skull was extremely delicate and fragile and they wanted to produce a piece that was more durable and had an aged copper look to it. Solution The first challenge was to create an accurate replica of the skull that preserved the fine level of detail and delicate structures. When the project was first brought to Tempus we considered a number of options to recreate it, including having a CT scan of the object by a local veterinary clinic. Ultimately, we decided to try 3D scanning the skull with the help of the Selkirk Technology Access Centre (STAC) in Trail BC. The team at STAC has years of scanning experience, so they were able to reproduce the piece exactly with advanced digital scanning technology and also adjust the digital file to repair some damage the skull had suffered over the years. With a solid model now in hand we test printed several of the eagle skulls on our HP MJF 5200 3D printer with a variety of print orientations and settings. We were able to get an amazingly high-quality print and could validate the feasibility of accurately reproducing the original skull. The material of choice was nylon PA12, which has the density and durability to reproduce the fine structures while maintaining structural integrity. Result The team at Tempus 3D, in collaboration and consultation with our customer, our partners at STAC, and our partners at Repliform, was able to deliver a product that is durable, repeatable, and most importantly beautiful for our customer. This was truly an amazing project to work on. With Tempus’ location in the interior of British Columbia it is uniquely capable of serving the British Columbia and Alberta markets with cost-effective overnight shipping and the ability to turn around rush orders in as little as 36 hours. 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. At Tempus, we are MAKING IT POSSIBLE. Learn more about Tempus 3D's products and services Explore more case studies and articles About HP Multi Jet Fusion 3D printing technology The next challenge was to produce the requested copper finish. We originally looked at 3D printing the part with a metal 3D printer, but 3D printed metal was prohibitively expensive and we had serious concerns about how the extremely thin walls of the replica skull would turn out in the metal printing options that were available. Ultimately, the team at Tempus reached out to our friends at Repliform, which specializes in electroplating 3D printed plastics and other non-conductive materials. We had worked on a project with Repliform in the past and they felt strongly that they could help us in turning the skull into the piece that we had envisioned. Repliform was able to take the 3D printed pieces and turn out a beautiful aged-copper finish that preserved the fine details and highlighted the beauty of the original form. The beautiful end result highlights what can be accomplished with collaboration between results-oriented professionals and leveraging the latest digital manufacturing technology.

Guaranteed quality plastic prototypes and production parts. Industry-leading commercial 3D printers. Upload a CAD file for online quote and ordering. Serving Toronto's innovators and manufacturers. HP Certified Multi Jet Fusion Digital Manufacturing Partner. Guaranteed quality prototypes and production parts, using industry-leading additive manufacturing technology. Online quote and ordering. 3D Printing Services Get a Quote Success Stories MADE BY CANADIANS FOR CANADIANS Serving Innovators in Toronto, Vancouver, Edmonton, and Beyond Canada 3D printing Canadian additive manufacturing Vancouver Toronto Calgary 3D printed custom 3dprinting services 3D Printing Ontario Canada 3D printing canada 3D printer Canada Edmonton On-Demand Additive Manufacturing Toronto 3D printing service near me 3D printer Toronto BC 3D print prototyping and production Toronto, ON additive manufacturing quote At Tempus 3D, we provide high-quality, industrial 3D printing in Canada, helping businesses turn ideas into functional parts. We create precise plastic and metal 3D printed parts with complex geometries and clean, professional finishes. From rapid prototyping to on-demand manufacturing, our certified team and streamlined online quoting system make it easy to get the parts you need, on time and on spec. Plastic 3D Printing High-performance industrial plastics suitable for rapid prototyping or low-to-mid volume production runs of end-use parts. Learn More Metal 3D Printing 3D print custom metal parts with excellent material properties and a high level of precision and durability. Learn More Proud to be a Certified HP Digital Manufacturing Partner Learn More Success Stories Learn how industrial 3D printing has helped Canada's innovators meet their product development goals. Vancouver-based Spark Laser was able to transition seamlessly from product development to on-demand manufacturing when releasing their new commercial laser cutter, with the help of Tempus 3D's industrial 3D printing service. Spark Laser - Commercial Laser Cutter Learn More Explore more success stories 3D Scanning Services Tempus 3D uses advanced 3D scanning technology and software to help you achieve precise results for your reverse engineering, metrology and computer aided inspection requirements. We can provide you with editable, feature-based CAD models, graphically-rich, communicative reports, or we can 3D print the final parts or prototypes for you once they are ready to build. Learn more Customer Care Here at Tempus we understand that taking care of our customers' unique needs is just as important as producing a quality product. That is why we back up our work with a quality assurance process, IP protection, and ongoing training and optimization. Guaranteed Quality Tempus 3D follows strict production processes and quality inspection procedures to ensure your parts always meet our tolerance and production standards. Certification Tempus 3D is certified by HP for Multi Jet Fusion to ensure parts are designed and produced optimally for this specific printing process. IP Protection Tempus 3D takes IP protection seriously, with data security protection measures and confidentiality agreements with staff and production partners. Join the Manufacturing Revolution with Tempus 3D Upload your CAD file for an online quote and start manufacturing today Get a quote

On-demand 3D printing for industrial manufacturing and MRO. Production-ready replacement parts, tooling, fixtures, and low-volume manufacturing—reducing downtime and lead times. On-Demand 3D Printing for Industrial Manufacturing & MRO Durable, production-ready parts for maintenance, tooling, and low-volume manufacturing — reducing downtime and eliminating long lead times. Get Instant Quote Talk to An Expert Producing parts at scale? Learn about our Production Partner program → Why Manufacturing Teams Use Tempus 3D Industrial manufacturing and MRO teams need durable parts, fast turnaround, and predictable quality. Tempus 3D delivers production-ready components without long lead times or tooling delays. Production-Ready Technologies & Materials Engineering-grade polymers for strength, wear resistance, and repeat use Suitable for tooling, fixtures, replacement parts, and machine 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 reliable 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 Industrial Manufacturing & MRO Applications Replacement & Maintenance Parts Emergency replacement components Obsolete or hard-to-source parts Functional equivalents for worn components Tooling, Fixtures & Jigs Assembly and alignment fixtures Inspection and positioning tools Custom jigs for repeatable workflows Housings & Industrial Components Machine guards and covers Enclosures and mounts Impact- and wear-resistant components Low- to Mid-Volume Production Parts End-use production parts Short runs and variant SKUs Bridge manufacturing before tooling 3D Printing Technologies Industrial 3D printing technologies designed to deliver durability, repeatability, and production-ready performance. Multi Jet Fusion (MJF) Best for: Durable end-use parts, repeatable batch manufacturing, and tight tolerances. Enables cost-efficient scaling for low-to-mid volume production. 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, tooling masters, and surface-critical applications. 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, mechanically durable parts, and assemblies requiring strength and design freedom. 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 speed and affordability matters. 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 engineered for durability, repeatability, and real-world performance in production and maintenance environments. Functional Structural Components Strong, lightweight polymers for load-bearing and mechanically stressed parts. Designed for rigidity, impact resistance, and long service life in industrial settings where parts must withstand repeated use. 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. Supports tight tolerances and clean surface quality for assemblies where consistency and dimensional control matter. 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 production continuity, maintenance efficiency, and equipment uptime. Custom Fit & Replacement Accuracy Exact-fit replacement parts Consistent dimensions across reorders Supports legacy and discontinued components Speed & Responsiveness Rapid turnaround for urgent replacements Faster iteration without tooling delays Reduced downtime during maintenance events Reliable Production Support Low-to-mid volume production runs Repeatable quality from batch to batch Predictable lead times for operations teams Ready to Get Started? Upload your CAD files for an instant quote or speak with our team about your specific requirements. INSTANT QUOTE TALK TO AN EXPERT

Tempus 3D helps you meet your product development goals with HP’s HP JetFusion 5420W 3D Printing technology. Print engineering-grade white Nylon 12 parts quickly and affordably with Tempus 3D's on-demand 3D printing service. return to top to navigate pages

Clear Resin V4.1 produces smooth, transparent parts with exceptional detail and accuracy. Ideal for visualization models, fluidic devices, and functional prototypes requiring clarity and precision. Partner with Tempus 3D to bring your designs to life. Clear Resin V4.1 3D Printing High-resolution, transparent parts manufactured with SLA technology. Ideal for prototypes and models that require fine detail, optical clarity, and smooth surface finishes. Get a Custom Quote Why Choose Clear Resin V4.1? Produce smooth, detailed parts with optical clarity and accuracy. Clear Resin v4.1 is a versatile stereolithography (SLA) material that enables the production of highly detailed, transparent parts with smooth surface quality. Its optical clarity makes it an excellent choice for visual models, fluid flow studies, and light transmission testing, while its mechanical properties support functional prototyping across multiple industries. 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 Transparent, High-Precision 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 Transparent Appearance – Enables visualization of internal features, light paths, and fluid flow. High Resolution – Produces smooth surfaces and fine details with SLA precision. Versatile Performance – Suitable for both prototypes and functional end-use parts. Dimensional Accuracy – Reliable tolerances for complex and detailed geometries. Visual Validation – Ideal for models where clarity and part inspection are critical. Versatility – Trusted across consumer, medical, and engineering applications. Applications Transparent housings and enclosures – Product casings where visibility of internal components is important. Concept models with a clear finish – Design validation, client presentations, and models where appearance matters. Medical and research visualization – Inspection of internal features in surgical guides, educational models, and device development. Fluidic devices and flow models – Microfluidics, manifolds, and lab equipment requiring flow observation. Technical Specifications Ultimate Tensile Strength 53 MPa / 7687 psi Tensile Modulus 2,369 MPa / 344 ksi Elongation at Break (X/Y) 9% Flexural Strength 103 MPa / 14,939 psi Flexural Modulus 2,710 MPa / 393 ksi Impact (Notched Izod) 27 J/m / 0.511 ft-lbs/in Heat Deflection Temp. @ 1.8 MPa 65 °C / 149 °F Heat Deflection Temp. @ 0.45 MPa 55 °C / 131 °F Light Transmission @ 2mm 85 % Light Transmission @ 10mm 59 % 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

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 - RV Part Replacement RV owner re-designs and replaces a hard-to-find part for their recreational vehicle with additive manufacturing Key benefits Ability to recreate parts that are no longer available due to age or supply chain contr aints. Use CAD software to improve part design and address key failure points of existing parts. Industry Automotive, replacement parts Partners Selkirk Technology Access Centre Technology HP Multi Jet Fusion 5200 3D printer Material HP Nylon PA12 Software Fusion 360 Post Processing Bead blasting, paint Introduction An RV owner had a broken exterior door handle for their RV which had become brittle over time due to exposure to the elements and extended use, and they were unable to find a replacement. They also wanted to upgrade the design to strengthen the areas that had failed. They approached Tempus 3D for a solution. Challenge The challenge with this project was to replicate the original part, then upgrade the design to address the key failure points while ensuring that the end product was robust enough for long-term use and aesthetically appealing. It was also important to ensure that the re-design and manufacturing process was an economically viable option for the use case. Solution The first step in this project was to determine the best approach for re-designing the part. The two choices were to re-design it from scratch in Fusion 360, or to have the old part 3D scanned and create a new model using the scan data. In this instance, due to the relatively simple geometric design of the part, we opted to re-design the part from scratch. This ensured any warp in the original part was not replicated, and also allowed for easier re-design to reinforce the weak points of the original part. Once the initial design was completed it was reviewed with the customer in order to confirm the structural improvements met their requirements and discuss any aesthetic changes that may be desirable. Once the final design was approved, the part was ready to manufacture. An HP Multi Jet Fusion 3D printer was selected for the manufacturing process for it's speed, precision, and overall print quality. This technology also has a large enough print capacity to create the part, which is approximately 30 cm (1 ft) long. One challenge with 3D printing a long thin part is the potential for the part to warp as it cools. With some sound advise from HP on part orientation and print settings along with the support of Hawkridge Systems we were able to eliminate any warp in the part. Nylon PA 12 was selected as the material because it is robust enough to stand up to long-term wear-and-tear, and it is also resistant to water and UV damage. Nylon is also painatable, allowing the customer to paint the handle shite to match the original part. Cerakote was also an option for a long-lasting, high-quality finish. The customer also had a small spare part that he wanted to get copies of, which Tempus included as part of the package. Result The team at Tempus 3D collaborated with the customer to produce a part that exceeded their expectations in terms of finish, colour, accuracy, and cost. If you an RV owner and have been having difficulty finding parts like this for your rig, maybe 3D printing is the solution for you. About Tempus 3D 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, we have 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 custom, 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 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