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Guaranteed quality prototypes and production parts, using industry-leading additive manufacturing technology. Online quote and ordering. 3D Printing Services Get a Quote Success Stories Serving Innovators across North America prototyping local 3D printing near me canada 3D printer custom industrial commercial 3D printer local 3D printing online 3d printing service 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 Tempus 3D delivers high-quality precision 3D printing services using cutting-edge technology designed for the production environment. From prototyping to mass production, we manufacture plastic and metal parts with complex geometries and high aesthetic demands. With online quoting and a certified production team, we get your parts to you 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 Easy Online Quote and Ordering Accelerate your innovation with Tempus 3D's easy online quote and ordering service. Flexible pricing includes bulk discount and rapid delivery options. Upload your files Upload your CAD files and select your material and production time. Get a quote Our online quote system incudes variable pricing for bulk orders and rapid delivery. Order online Review your quote and complete the order online to get your parts into production. Parts are shipped Your parts are inspected for quality control, then delivered to your door. Get a quote Trusted by Designers and Engineers 1/1 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 "3D printing has revolutionized manufacturing, enabling companies of any size or industry to develop, iterate and distribute goods more efficiently. We are seeing the global manufacturing paradigm shift due to the growing adoption of 3D printing for production of final parts and R&D, particularly given the ability to use 3D printing to meet the increasing demand for personalization and customization". - Ramon Pastor (VP & GM 3D Printing, HP) 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

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17-4PH Stainless Steel 17-4 PH stainless steel (also known as 1.4542 or 630) has an outstanding combination of high strength and good corrosion resistance, with excellent mechanical properties at high temperatures. It is used in a wide range of industrial applications, including those with mildly corrosive environments and high-strength requirements. ​ 3D Printing Process Direct Metal Laser Sintering (DMLS) ​ ​ Prop erties ​ Outstanding combination of high strength and good corrosion resistance Excellent mechanical properties at high temperatures High hardness Good thermal properties ​ Applications include ​ ​Industrial prototypes and end-use parts including Aerospace and energy sector Chemical and petrochemical industries Medical applications, including surgical instruments parts subjected to high wear Online Quote About 17-4 PH Stainless Steel (1.4542, 630) Stainless steel 17-4 stainless steel (also known as 1.4542 stainless or 630 grade) provides an outstanding combination of high strength, good mechanical properties, good corrosion resistance, outstanding wear resistance and good toughness at temperatures up to 310°C. Hardening is achieved through the addition of Chromium and Nickel. It also contains Copper and Niobium to improve it's material properties. This material is used in parts that need significant strength but must avoid carbon steel’s propensity for rusting.17-4 PH is used in chemical, petrochemical, paper, medical and general metalworking industries. Direct Metal Laser Sintering (DMLS) 3D Printing Process Direct Metal Laser Sintering (DMLS) is a common additive manufacturing technique that is also referred to as Laser Powder Bed Fusion (L-PBF) or Select Laser Melting (SLM). This process builds metal parts by selectively fusing stainless steel powder in thin layers using a laser. This process is ideal for printing precise, high-resolution parts with complex geometries and a very fine level of detail. Parts that are printed using DMLS are stronger, denser, and can be more precise than casted metal parts. ​ Best for specialty production, including:​ complex metal parts with intricate details and delicate features parts requiring a high level of precision and detail parts designed for demanding environments functional prototypes and end-use parts low- to mid-volume production Finishing Options Bead Blasting Parts are blasted with fine glass bead to smooth surfaces and give a matte appearance. Recommended for consumer-facing parts. Standard All parts are cleaned and ready for use when shipped. There may be layer lines and residual marks from support structures. Technical Specifications Mechanical Properties Properties Values Standard Reduction of area Z [%] 64 3 Elongation at break A [%] 17 1 Tensile strength Rm [MPa] 1174 8 Yield strength Rp0.2 [MPa] 570 13 Elongation at Break 3.9 - 7.9% ASTM E8M Tensile strength, yield 620 - 700 MPa ASTM E8M Tensile Strain (@ 1.5%) 950 MPa Tensile Strain (@ 0.9%) 800 MPa Tensile Strain (@ 0.1%) 200 MPa Tensile strength, ultimate 877-947 MPa ASTM E8M Hardness (HRC) 25.4-27.4 ASTM E18 Property Result As built Ra [μm] 3 As built Rz [μm] 14 Blasted Ra [μm] 2 Blasted Rz [μm] 8 Average Defect < 0.1 Surface Quality (measured along the z axis) Title Specifications Build envelope 150x150x150 mm Layer thickness 20μm Build Specifications Element Composition C < 0.07 Cr 15 - 17 Cu 3.5 - 5 Fe Balance Mn < 1.0 Nb < (5x%C) - 0.45 Ni 3 - 5 Si < 1.0 Composition (wt. %) Design Guidelines​ Maximum part size 150 x 150 x 150 mm³ with a 20 mm radius Minimum wall thickness 0.3 mm Minimum embossed feature X/Y W 0.2 mm H 0.1 mm Z W 0.2 mm H 0.1 mm Minimum hole size 0.5 mm vertical 0.8 mm horizontal Holes The use of support structures for horizontal holes can be avoided by changing the circular hole shape to a teardrop shape, which uses a self-supporting angle. This eliminates the need for additional supports. Minimum clearance 0.5 mm Minimum part size 0.3 x 0.3 x 0 .1 mm³ (B x T x H) Minimum pin diameter 0.5 mm Minimum debossed feature X/Y W 0.3 mm H 0.1 mm Z W 0.3 mm H 0.2 mm Minimum unsupported overhang angle 0 - 45° : Supports needed > 45° : No supports needed Printed threads Printing holes and then tapping them is often recommended. The table below serves as a guide: ​ Thread size Method < M3 Print holes, cut threads ≥ M3 Print threads, recut threads Use Case Examples Tool Holder Clipper Blade Mounting Bracket Get your parts into production today Request a quote

Custom Metal 3D Printing Service 3D print custom metal parts with excellent material properties with a high level of precision and durability. Start A New 3D Printing Quote Guaranteed consistently high-quality 3D printed prototypes and production parts Get a Quote All uploads are secure and confidential. Metal 3D printing is used to manufacture geometrically complex parts which can be prohibitively expensive or impossible to make with any other fabrication method. The speed and versatility of 3D printing metal allows manufacturers to go from designing to manufacturing custom metal parts quickly and affordably, without sacrificing part quality. A range of metals produce final parts that can be used for custom designs, rapid prototyping or end-use applications. 3D Printed Metals Most Popular Quickest Lowest Cost Volume Orders Direct Metal Laser Sintering (DMLS) builds metal parts by selectively fusing thin layers of stainless steel powder using a laser. This process is ideal for printing precise, high-resolution parts with complex geometries. DMLS is excellent for producing functional prototypes or low-to-mid volume production runs of parts with intricate details and delicate features, and parts designed for demanding environments.​ Direct Metal Laser Sintering (DMLS) Materials 17-4 Stainless Steel 17-4PH stainless steel (also known as 1.4542 stainless or 630 grade) has an outstanding combination of high strength and good corrosion resistance, with excellent mechanical properties at high temperatures. It is used in a wide range of industrial applications, including those with mildly corrosive environments and high-strength requirements. Max part size 150 x 150 x 150 mm Layer height 20 µm Tensile Strength 620 - 700 MPa Elongation at break 3.9 - 7.9 % Learn More Get a Quote Bound Metal Deposition (BMD) Materials Bound Metal Deposition extrudes metal rods to create complex shapes layer-by-layer. Once printed, parts are sintered in a furnace for final densification. Achieves 98% density, similar to cast parts. Layer lines are typically visible and part surfaces are similar to cast part surfaces. This printing process can have closed-cell infill for lightweight strength. This printing process is excellent for all-purpose parts including prototypes and end-use parts, and form-, fit- and function- testing. Copper Copper is an excellent choice for applications requiring thermal and electrical conductivity. This 3D printed copper is 99.9% pure, giving it excellent material properties compared to copper 3D printed with some other 3D printing processes. Max part size 150 x 150 x 110 mm Layer height (standard res.) 100-220 µm Layer height (high res.) 50 µm Tensile Strength 195 MPa Elongation at break 30% Learn More Get a Quote 17-4 PH Stainless Steel Characterized by its combination of strength, hardness, and corrosion resistance, 17-4 PH is a stainless steel ideal for a variety of applications, including tooling, molds, and production parts. Max part size 150 x 150 x 110 mm Layer height (standard res.) 100-220 µm Layer height (high res.) 50 µm Tensile Strength 925 MPa Elongation at break 5.30% Learn More Get a Quote 316L Stainless Steel 316L stainless steel is a molybdenum - bearing austenitic steel. This material has excellent corrosion resistance, and great mechanical properties at high and low temperatures. Max part size 150 x 150 x 110 mm Layer height (standard res.) 100-220 µm Layer height (high res.) 50 µm Tensile Strength 590 MPa Elongation at break 75% Learn More Get a Quote H13 Tool Steel H13 tool steel is a chromium-molybdenum steel that is characterized by it's hardness, resistance to abrasion and deformation. This material is harder than 17-4 PH Stainless Steel and capable of maintaining material properties at high temperatures. Max part size 150 x 150 x 110 mm Layer height (standard res.) 100-220 µm Layer height (high res.) 50 µm Tensile Strength 1520 MPa Elongation at break 2% Learn More Get a Quote Surface Finish Options Standard Finish Supports are removed and layer lines are visible. Bead Blasting Bead blasting smooths the surface and has a satin finish. Custom A custom finish is available upon request. Advantages of Metal 3D Printing Rapid Prototyping Metal 3D printing is well-suited for rapid prototyping, allowing engineers and designers to quickly iterate and test designs before committing to large-scale production. This can accelerate the product development cycle and reduce time-to-market. Complex Geometries Metal 3D printing produces highly complex and intricate geometries that would be challenging or impossible to achieve using traditional manufacturing methods. This is particularly beneficial in industries such as aerospace and healthcare. Tooling Cost Reduction Traditional manufacturing often requires expensive tooling for each specific part. With metal 3D printing, tooling costs can be reduced or eliminated, as the same equipment can be used for a variety of complex shapes without molds or dies. Manufacturing Metal 3D printing supports on-demand and small-batch manufacturing, making it cost-effective for producing low volumes of specialized or custom parts without the need for maintaining large inventories. Lightweight Structures Metal 3D printing enables the creation of lightweight structures with optimized designs, leading to improved performance and fuel efficiency in applications like aerospace and automotive. Repair and Maintenace Metal 3D printing can be used for efficient repair and maintenance of existing components, extending the lifespan of critical parts and reducing the need for complete replacements. ​ Custom Designs Metal 3D printing produces custom and personalized components, as each part can be designed and printed to meet specific requirements. This is valuable in industries like healthcare, where patient-specific pieces can be created. Design Freedom Designers have greater freedom in creating innovative and optimized structures, as they are not constrained by traditional manufacturing limitations. This can result in improved functionality and efficiency. Reduced Waste Traditional manufacturing methods often involve subtractive processes, where material is cut away from a larger block to achieve the final shape. Metal 3D printing is an additive process, built layer by layer, which can significantly reduce material waste. Join the Manufacturing Revolution with Tempus 3D Upload your CAD file for an online quote and start manufacturing today Get a quote

Copper Copper is an excellent conductor of heat and electricity, making it a top choice for electronic devices and heat exchangers. The copper used for this 3D printing process is 99.9% pure, ensuring it maintains optimal material properties. 3D Printing Process Bound Metal D eposition (BMD) ​ Common A pplications ​ Consumer and Industrial electronics Heat Exchangers Inductor Coils Resistance Welding tools Electrical Motor and Generator components Online Quote About 3D Printed Copper Copper is an excellent choice for applications requiring thermal and electrical conductivity. This 3D printed copper has an IACS value of 85.2%. IACS is the International Annealed Copper Standard, which measures the conductivity of a specific copper compared to annealed wrought copper. Bound Metal Deposition (BMD) is used to manufacture this material, allowing for speed of manufacturing and complexity of design not possible with traditional manufacturing methods such as CNC machining or molds. 100 µm magnification Bound Metal Deposition 3D Printing Process Bound Metal Deposition extrudes metal rods into complex shapes layer-by-layer. Once printed, parts are sintered in a furnace for final densification and removal of binder. This process achieves 98% density, similar to cast parts. Layer lines are typically visible and part surfaces are similar to cast part surfaces. This printing process can have closed-cell infill for lightweight strength. ​ Best for for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing Grades Balace performance and affordability with your choice of Standard or High resolution 3D printing for Bound Metal Deposition (BMD) 3D printed metals. Standard Resolution Ideal for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing strength and density similar to cast metal industry-standard quality requirements High Resolution Ideal for specialty production, including: complex metal parts parts designed for demanding environments series production higher strength and density than cast metal Finishing Options Bead Blasting Parts are blasted with fine glass bead to smooth surfaces and give a matte appearance. Recommended for consumer-facing parts. Standard All parts are cleaned and ready for use when shipped. There may be layer lines and residual marks from support structures. Technical Specifications Composition % Material % Copper 99.9 Oxygen .01 Other Balance Mechanical Properties Performance Standard As-Sintered (Actual) As-Sintered (Per MIM-MPIF standard 35) Ultimate Tensile Strength ASTM E8M 195 207 Yield Strength (MPa) ASTM E8M 45 69 Elongation (%) ASTM E8M 37 30 Density (g/cc) ASTM B311 8.75 8.5 (min) Performance Electrical Conductivity Standard As-Sintered (actual) As-Sintered (per MIM-MPIF Standard 35) Electrical Conductivity ASTM E1004 85.2 %IACS n/a Coefficient of thermal expansion (CTE) 20 - 38 ºC ASTM E228 17.01 *10-6 /ºC 15.7 *10-6 /ºC Coefficient of thermal expansion (CTE) 20 - 66 ºC ASTM E228 17.15 *10-6 /ºC 16 *10-6 /ºC Coefficient of thermal expansion (CTE) 20 - 93 ºC ASTM E228 17.22 *10-6 /ºC 16.4 *10-6 /ºC Coefficient of thermal expansion (CTE) 20 - 121 ºC ASTM E228 17.33 *10-6 /ºC 16.7 *10-6 /ºC Coefficient of thermal expansion (CTE) 20 - 149 ºC ASTM E228 17.43 *10-6 /ºC 16.9 *10-6 /ºC Full Technical Specifications Design Guidelines​ Maximum part size Standard Resolution High Resolution X 240 mm 9.4 in X 60 mm 2.4 in Y 240 mm 9.4 in Y 60 mm 2.4 in Z 240 mm 9.4 in Z 60 mm 2.4 in To optimize for fabrication success, the recommended maximum part size is 150 x 150 x 110 mm (6.0 x 6.0 x 4.3 in) . Minimum part size Standard Resolution High Resolution X 6mm 0.24in X 3mm 0.14in Y 6mm 0.24in Y 3mm 0.14in Z 6mm 0.24in Z 3mm 0.14in The minimum part size considers the minimum number of bottom layers, top layers, and toolpaths within a wall required to produce a successful part. Minimum wall thickness Standard Resolution High Resolution 1.0 mm 0.6 mm The minimum wall thickness considers structural integrity during sintering. Wall thickness must be at least two toolpaths wide, or approximately 1mm. When printing a wall greater than 8mm tall, the ratio of height to width must not exceed 8:1. Minimum pin diameter Standard Resolution High Resolution 3.0mm 0.12in 1.5mm 0.06in Pins should obey the aspect ratio guideline of 8:1. Minimum embossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Embossed features are proud of the surface of the model. If an embossed feature is too thin, it likely will not print. Minimum debossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Debossed features are typically used for surface detailing and text on the surface of the model. If a debossed feature is too thin, it risks over-extrusions that fill in the engraved feature. Minimum unsupported overhang angle Standard Resolution High Resolution 40 degrees 40 degrees Overhangs greater than 40° from planar will require supports. Minimum clearance Standard Resolution High Resolution 0.3mm 0.0012in 0.3mm 0.0012in The additive nature of 3D printing enables the fabrication of multiple parts as printed in-place assemblies with moving or embedded parts. Interlocking components should have 0.300mm (0.011in) of clearance. Aspect ratio Standard Resolution High Resolution 8:1 8:1 Unsupported tall, thin features are challenging for debinding and sintering processes and should be limited when possible. The ratio of height to width for tall walls or pillars should not exceed 8:1. Tall cylinders and walls are the least stable geometries. Full Design Guidelines Use Case Examples Electrode Holder An electrode holder is equipment that holds an electrode in a position that is secure and safe during welding. The clamp supports the electrode, and also guarantees a good electrical contact for current passage. ​ Electrodes weare out quickly in the manufacturing process, which means it is important to be able to replace them quickly and affordably to avoid delays in the manufacturing process. ​ The part displayed has integrated conformal cooling channels, which help cool the part down more quickly in order to produce a better weld. This cooling channel design can only be created with 3D printing. Motor Heat Sink This heat exchanger is designed to dissapate heat from an electric motor. With 3D printing, you can scan the shape of the motor and use the digital template to design a heat exchanger that fits the motor perfectly, to achieve better heat transfer. The tall, thin fins can also be easily manufactured with 3D printing without the risk of warping the soft copper material in the machining or moulding process. Helical Heat Exchanger This heat exchanger is used to cool hot gasses as they flow thotugh a pipe. This specific design features an internal helical channel, which can only be manufactured with additive manufacturing (3D printing). This heat exchanger, combined with external fins shown above, provide a higher heat transfer rate than the traditional heat exchanger design they replaced. Bus Bar A busbar is a metallic bar in a switchgear panel used to carry electrical power from incoming feeders and distributes the power to outgoing feeders. The resistance of the material generates heat when carrying an electrical load, so this bus bar has complex internal cooling channels which are designed to dissipate heat more effectively. Traditional manufacturing would require the part to be designed in multiple pieces and assembled into a final part. 3D printing this part as a single unit saves time and labor cost, and provides fore efficient heat transfer. Get your parts into production today Request a quote

316L PH Stainless Steel 316L stainless steel is a molybdenum - bearing austenitic steel. This material has excellent corrosion resistance, and great mechanical properties at high and low temperatures. Characteristics include high creep resistance, excellent formability, rupture and tensile strength at high temperatures, and resistance to corrosion and pitting. 3D Printing Process Bound Metal Deposition (BMD) ​ ​ C ommon Appli cations Chemical and petrochemical processing Food processing Laboratory eq uipmen t Medical devices Structural components (eg. housings & frames) Marine Fluid transfer components (e. manifolds) Jewelry & decorative items Online Quote About 316L Stainless Steel 316L stainless steel is a chromium - nickel austenitic stainless steel containing molybdenum. The molybdenum enhances the corrosion resistance in halide environments as well as in reducing acids such as sulfuric and phosphoric acid. ​ 316L stainless steel resists atmospheric corrosion, including marine atmospheres and moderately oxidizing environments. 316L has excellent strength and toughness at cryogenic temperatures. ​ 200 µm magnification Bound Metal Deposition 3D Printing Process Bound Metal Deposition extrudes metal rods into complex shapes layer-by-layer. Once printed, parts are sintered in a furnace for final densification and removal of binder. This process achieves 98% density, similar to cast parts. Layer lines are typically visible and part surfaces are similar to cast part surfaces. This printing process can have closed-cell infill for lightweight strength. ​ Best for for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing Grades Balace performance and affordability with your choice of Standard or High resolution 3D printing for Bound Metal Deposition (BMD) 3D printed metals. Standard Resolution Ideal for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing strength and density similar to cast metal industry-standard quality requirements High Resolution Ideal for specialty production, including: complex metal parts parts designed for demanding environments series production higher strength and density than cast metal Finishing Options Bead Blasting Parts are blasted with fine glass bead to smooth surfaces and give a matte appearance. Recommended for consumer-facing parts. Standard All parts are cleaned and ready for use when shipped. There may be layer lines and residual marks from support structures. Technical Specifications Mechanical Properties Property Standard As-Sintered (actual) As-Sintered (ASTM B883 / MPF 35) Ultimate tensile strength 1 (MPa) ASTM E8 590 ± 4 450 - 520 Yield strength 1 (MPa) ASTM E8 220 ± 4 140 - 175 Elongation at break (%) ASTM E8 75 ± 3 40 - 50 Young’s modulus 2 (GPa) ASTM E8 – 190 Hardness (HRB) ASTM E18 72 ± 1.0 67 Charpy Impact Strength (J) ASTM E23 231 ± 5 – Density g/cm3 7.89 7.6 Surface finish (μm Ra) ISO 4287 3 - 8 – Element Composition (%) Cr 16.0 - 18.0 Mn 2.0 (max) Ni 10.0 - 14.0 C 0.03 (max) Si 1.0 (max) Si 1.0 (max) N 0.078 Fe Balance Mo 2.0 - 3.0 Composition % Standard Designation EN 1.4404 UNS S31673 Other Standard Designations View Full Technical Specifications Design Guidelines​ Maximum part size Standard Resolution High Resolution X 240 mm 9.4 in X 60 mm 2.4 in Y 240 mm 9.4 in Y 60 mm 2.4 in Z 240 mm 9.4 in Z 60 mm 2.4 in To optimize for fabrication success, the recommended maximum part size is 150 x 150 x 110 mm (6.0 x 6.0 x 4.3 in) . Minimum part size Standard Resolution High Resolution X 6mm 0.24in X 3mm 0.14in Y 6mm 0.24in Y 3mm 0.14in Z 6mm 0.24in Z 3mm 0.14in The minimum part size considers the minimum number of bottom layers, top layers, and toolpaths within a wall required to produce a successful part. Minimum wall thickness Standard Resolution High Resolution 1.0 mm 0.6 mm The minimum wall thickness considers structural integrity during sintering. Wall thickness must be at least two toolpaths wide, or approximately 1mm. When printing a wall greater than 8mm tall, the ratio of height to width must not exceed 8:1. Minimum pin diameter Standard Resolution High Resolution 3.0mm 0.12in 1.5mm 0.06in Pins should obey the aspect ratio guideline of 8:1. Minimum embossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Embossed features are proud of the surface of the model. If an embossed feature is too thin, it likely will not print. Minimum debossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Debossed features are typically used for surface detailing and text on the surface of the model. If a debossed feature is too thin, it risks over-extrusions that fill in the engraved feature. Minimum unsupported overhang angle Standard Resolution High Resolution 40 degrees 40 degrees Overhangs greater than 40° from planar will require supports. Minimum clearance Standard Resolution High Resolution 0.3mm 0.0012in 0.3mm 0.0012in The additive nature of 3D printing enables the fabrication of multiple parts as printed in-place assemblies with moving or embedded parts. Interlocking components should have 0.300mm (0.011in) of clearance. Aspect ratio Standard Resolution High Resolution 8:1 8:1 Unsupported tall, thin features are challenging for debind and sintering processes and should be limited when possible. The ratio of height to width for tall walls or pillars should not exceed 8:1. Tall cylinders and walls are the least stable geometries. View Full Design Guidelines Use Case Examples UHT Atomizer This Ultra-high temperature processing (UHT) nozzle is an atomizer, usually used with water or air. 316L Stainless Steel is an excellent material choice for this application because of it’s high corrosion resistance and excellent performance at high temperatures. This nozzle design has complex internal channels that optimize particle distribution, in order to achieve the most effective combustion reaction. These channels are impossible to create with traditional manufacturing methods. Extrusion-based 3D printing methods are the ideal method to produce these parts. Impeller Impellers are geometrically complex parts, and are custom-designed for specific applications. 316L stainless steel is an excellent material choice for impellers used in harsh environments, where they are required to resist corrosion and exposure to a range of temperature extremes. ​ Additive manufacturing is an excellent choice for prototyping and manufacturing impellers due to the ability to rapidly produce and test functional prototypes, and the low cost of production of the final parts. Medical finger splint Splints are commonly made to immobilize injured limbs. Splints are usually manufactured with plastic, but they can be prone to bending or breaking. 316L stainless steel is an excellent choice for splints because of it's excellent mechancial properties, stain resistance, and biocompatibility. ​ 3D scanning and 3D printing allows quick and affordable manufacturingof splints and other medical accessories which are customized to the patient, giving greater comfort and better fit. Get your parts into production today Request a quote

H13 Tool Steel H13 tool steel is a chromium-molybdenum steel that is characterized by it's hardness, and resistance to abrasion and deformation. This material is harder than 17-4 PH Stainless Steel and capable of maintaining it's material properties at high temperatures. 3D Printing Process Bound Metal Deposition (BMD) ​ Common Applications ​ Wear-resistant tools Mold inserts Extrusion dies Forging dies Sheet metal tooling Stamping tools Cutting tool bodies High-strength parts Online Quote About H13 Tool Steel H13 tool steel is widely used in hot and cold work tooling applications with excellent material properties in high-temperature working conditions. Because of its excellent combination of high toughness and resistance to thermal fatigue cracking (also known as heat checking) H13 is used for more hot work tooling applications than any other tool steel. H13 is also used in a variety of cold work tooling applications, where H13 provides better wear resistance than common alloy steels. ​ 3D printing is an excellent choice for producing parts with H13 because H13's hardness and toughness makes it difficult to machine. 3D printing can quickly fabricate tools, with complex geometries that would not be achievable with machining. 200 µm magnification Bound Metal Deposition 3D Printing Process Bound Metal Deposition extrudes metal rods into complex shapes layer-by-layer. Once printed, parts are sintered in a furnace for final densification and removal of binder. This process achieves 98% density, similar to cast parts. Layer lines are typically visible and part surfaces are similar to cast part surfaces. This printing process can have closed-cell infill for lightweight strength. ​ Best for for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing Grades Balace performance and affordability with your choice of Standard or High resolution 3D printing for Bound Metal Deposition (BMD) 3D printed metals. Standard Resolution Ideal for all-purpose use, including: prototypes and end-use parts form-, fit- and function- testing strength and density similar to cast metal industry-standard quality requirements High Resolution Ideal for specialty production, including: complex metal parts parts designed for demanding environments series production higher strength and density than cast metal Finishing Options Bead Blasting Parts are blasted with fine glass bead to smooth surfaces and give a matte appearance. Recommended for consumer-facing parts. Standard All parts are cleaned and ready for use. There may be layer lines and residual marks from support structures. Technical Specifications Mechanical Properties Properties Standard Heat Treated Charpy Impact* (J) MPIF59 18 ± 3 Transverse Rupture Strength – Y (GPa) ASTM B528 2.66 ± 0.1 Transverse Rupture Strength – X (GPa) ASTM B528 2.98 ± .07 Elongation (%) ASTM E8M 2 ± 0.8 Ultimate tensile strength (MPa) ASTM E8M 1520 ± 40 Density (g/cc) ASTM B311 7.4 Hardness (Vickers) ASTME92 425 0.2% Yield strength (MPa) ASTM E8M 1400 ± 40 Element Composition (%) S 0.03 (Max) P 0.03 (Max) V 0.8 – 1.2 Si 0.8 – 1.2 Mo 1.10 – 1.75 Mn 0.2 – 0.5 Cr 4.75 – 5.50 C 0.32 – 0.45 Fe balance Composition % Standard ASTM A681 DIN 1.2344 X40CrMoV5-1 Other Standard Designations View Full Datasheet Design Guidelines​ Maximum part size Standard Resolution High Resolution X 240 mm 9.4 in X 60 mm 2.4 in Y 240 mm 9.4 in Y 60 mm 2.4 in Z 240 mm 9.4 in Z 60 mm 2.4 in To optimize for fabrication success, the recommended maximum part size is 150 x 150 x 110 mm (6.0 x 6.0 x 4.3 in) . Minimum part size Standard Resolution High Resolution X 6mm 0.24in X 3mm 0.14in Y 6mm 0.24in Y 3mm 0.14in Z 6mm 0.24in Z 3mm 0.14in The minimum part size considers the minimum number of bottom layers, top layers, and toolpaths within a wall required to produce a successful part. Minimum wall thickness Standard Resolution High Resolution 1.0 mm 0.6 mm The minimum wall thickness considers structural integrity during sintering. Wall thickness must be at least two toolpaths wide, or approximately 1mm. When printing a wall greater than 8mm tall, the ratio of height to width must not exceed 8:1. Minimum Pin Diameter Standard Resolution High Resolution 3.0mm 0.12in 1.5mm 0.06in Pins should obey the aspect ratio guideline of 8:1. Minimum embossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Embossed features are proud of the surface of the model. If an embossed feature is too thin, it likely will not print. Minimum debossed feature Standard Resolution High Resolution X/Y W 0.45mm 0.018in W 0.30mm 0.012in H 0.50mm 0.020in H 0.30mm 0.012in Z W 0.25mm 0.010in W 0.15mm 0.006in H 0.50mm 0.020in H 0.30mm 0.012in Debossed features are typically used for surface detailing and text on the surface of the model. If a debossed feature is too thin, it risks over-extrusions that fill in the engraved feature. Minimum unsupported overhang angle Standard Resolution High Resolution 40 degrees 40 degrees Overhangs greater than 40° from planar will require supports. Minimum clearance Standard Resolution High Resolution 0.3mm 0.0012in 0.3mm 0.0012in The additive nature of 3D printing enables the fabrication of multiple parts as printed in-place assemblies with moving or embedded parts. Interlocking components should have 0.300mm (0.011in) of clearance. Aspect ratio Standard Resolution High Resolution 8:1 8:1 Unsupported tall, thin features are challenging for debind and sintering processes and should be limited when possible. The ratio of height to width for tall walls or pillars should not exceed 8:1. Tall cylinders and walls are the least stable geometries. View Full Design Guidelines Use Case Examples Extrusion Die Hot extrusion works by heating a metal above it's recrystallization temperature, then pressing thorugh a steel die using an enormous amount of pressure. This pressure is used to force the metal into a desired shape. H13 tool steel is an excellent material for extrusion dies due to it's overall toughness and resistance to high temperatures and abrasion. ​ Additive manufacturing is an excellent choice for creating extrusion dies because of the complicated geometry of the parts. The 3D printing allows designers to rapidly create different iterations of a new design during the prototyping process. Zipper Mold zippers are often produced in high volumes in order to achieve a low cost per part. The primary manufacturing method for metal zippers is die casting. This die cast mold is used to create custom metal zippers out of zinc. This mold also featres many fine details including a logo, textures and subtle draft angles that allow the final part to release effectively from the mold. This part was printed with a high-resolution 250µm nozzle to achieve the high level of detail. ​ H13 tool steel was used to create this mold to minimize the risk of cracking due to thermal fatigue, which results from rapid heating and cooling cycles. H13 is able to withstand the high working temperature and sudden temperatrue changes, and its toughness resists damaging the mold through abrasion. Injection Mold Core A Master Unit Die (MUD) is a popular type of injection mold that is designed for small to medium-sized production runs of plastic parts. It consists of a unit die that houses swappable mold inserts to provide the core and cavity of the part being molded. The hot molten material is injected into the core & cavity and then sets hard into shape. ​ H13 tool steel has the heat resistance and toughness to resist the heat and abrasion of the molding process, and producing a long-lasting mold. ​ This particular design has internal cooling channels which allows the mold to cool more quickly, allwoign more parts to be molded every hour. Get your parts into production today Request a quote

Material Selection Guide Selecting a 3D printing material often requires balancing a variety of attributes to achieve the intended results. Use this materials selection guide to help you make an educated choice based on your end-use application and your desired material properties. ​ Another important consideration is the finish applied to the part, which enhance the look and performance of the part. Tempus 3D offers a variety of industry-standard post-processing options to help achieve an optimal result. ​ All materials and finishes are suitable for a broad range of applications and demanding industrial environments. What is the best material for my application? Each material has unique properties that make it suitable for specific applications. The chart below is based on HP's recommendations for the best use for each material. Post processing can improve the performance of some materials. Nylon PA12 Nylon PA11 Polypropylene BASF TPU Nylon 12 GB Nylon PA12 White Stiffness Impact Resistance Elongation Dimensional Capability Level of Detail Flat part Temperature Resistance Chemical Reistance Low Moisture Absorbtion Lightweight Flat Part How do the material properties compare? Compare materials based on their specific properties. More technical specifications can be found on the material's page. Material Tensile Strength Elongation at Break (XY, Z) Heat Deflection Temperature Melting Point Tensile Modulus Density Nylon 12 48 MPa 20%, 15% 175 ℃ 187 ℃ 1,800 MPa 1.01 g/cm³ Nylon 11 52 MPa 50%, 35% 185 ℃ 201 ℃ 1,800 MPa 1.04 g/cm³ Nylon 12 GB 30 MPa 10%, 10% 174 ℃ 186 ℃ 2,500 MPa 1.30 g/cm³ BASF TPU01 9 MPa >220% n/a 120 - 150 ℃ 75 - 85 MPa 1.1 g/cm³ Polypropylene 30 MPa 20% 60 ℃ 187 ℃ 1,600 MPa 0.89 g/cm³ Nylon 12 White 49 MPa 17%, 9% 175 ℃ n/a 1,900 MPa 1.01 g/cm³ Nylon 12 Color 46 MPa 20%, 14% n/a 189 ℃ 1600 MPa 1.03 g/cm³ Note: all figures are approximate and dependent on a number of factors, such as machine and process parameters. When performance is critical consider independent lab testing of the materials or final parts. How are the materials commonly used? Nylon PA12 Nylon PA12 is the most popular general-use plastic, and is used for a broad range of products. It balances strength and detail with high environmental stability. This material is resistant to water, chemicals and UV light, and is certified biocompatible.​ Learn More Nylon PA12 Glass Bead Nylon PA12 GB has glass microgranules added for enhanced stiffness. Used for technical parts that require stiffness and low abrasive wear. This material also resists warpage, so is recommended for flat or long, thin parts. Applications include enclosures and housings, jigs and fixtures, tooling, threads and sockets, and parts under sustained load.​ Learn More Nylon PA11 Nylon PA11 is a high-performance material used for highly ductile, robust parts. It has excellent chemical resistance and enhanced elongation-at-break. Compared to Nylon 12, Nylon 11 is more flexible, less brittle, and better for thin walls. Applications include thin-walled ducts and enclosures; snaps, clips and hinges; orthotics, prosthetics and sports equipment. Learn More BASF TPU01 TPU is an elastomeric material which is tough and flexible. It is ideal for parts that require high elasticity, shock absorption and energy return. Used for dampers, cushions and grippers; industrial tubes and pipes; gaskets, seals, belts; orthotics, prosthetics, and sportswear. Learn More Polypropylene Polypropylene is durable, flexible, lightweight, airtight and waterproof. This material has the greatest resistance to chemicals of all our 3D printing materials. It is ideal for applications that come in contact with fluids such as piping and containers, as well as medical devices, orthotics, and industrial goods.​ Learn More Nylon PA12 White The excellent properties of PA12 are combined with its white colouring, which can easily absorb dyes of different pigments. Nylon 12 white is durable and resistant to moisture, grease and hydrocarbons. This popular plastic is used for a broad range of applications, and commonly used as a base for light, bright dyes, paints, and coatings. Learn More Nylon PA12 Color Nylon PA12 color produces engineering-grade parts that combine the excellent material properties of Nylon PA12 with full CMYK color. Applications include presentation models and consumer goods. It is also used for color-coded jigs and fixtures, and full-color medical models. Learn More View all materials Explore Finishes Design Guide Technology HP Certificatio n Get your parts into production today Instant Quote

Case Study DustRam optimizes production and saves costs with Multi Jet Fusion 3D printing technology “I was pretty skeptical at first until I saw the machine in action and realized I could print about four times as many items in about 1/10 of the time and at about 1/2 to 3/4 of the cost. The quality of the parts approached the fit and finish of parts made from expensive molds. This is a game changer in so many obvious ways.” Key benefits Reduced production time from 4-5 months for original metal parts to just days for the MJF plastic parts. Parts are lighter, more rugged, and more effective than the original design. Production costs were reduced by 50-75%. The weight of the vacuum head was reduced 68% compared to the original metal part. The cost of the nylon from HP was more than 10x less expensive than the nylon required for their previous 3D printing technology. Data courtesy of HP and Dustram. Photo courtesy of HP. Organization Dustram Industry Industrial machinery and equipment Technology HP Multi Jet Fusion Material Nylon PA12 Introduction DustRam manufactures chipping hammer equipment to enable safe, dust-free removal of a variety of materials including paint, adhesive, tile, thinset, stone and brick. The parts needed to be rugged and able to withstand an abusive environment without breaking down. The original version was made with aluminum and tool steel, which took 4-5 months to produce. The company turned to 3D printing to reduce production time, lower costs, and reduce the weight of the parts. Now, DustRam uses Multi Jet Fusion technology to produce more rugged and effective equipment while decreasing costs and production time. Challenge DustRam's original chipping hammer attachment was made with machined aluminum and tool steel. The manufacturing process included CNC machining, TIG welding, heat treat and wire EDM. This process took 4-5 months to produce a set of 10-15 vacuum heads, and the end product was heavy and expensive to produce. The company decided to switch to plastic to make the parts lighter and save production costs. The manufacturer originally used an FDM (Fused Deposition Modeling) 3D printer for prototyping, but this technology was slow and the end product was not strong or aesthetically pleasing enough to be used for final part production. Injection molding was prohibitively expensive for the small production runs they were producing, and did not provide the flexibility needed for ongoing design revisions. Solution Dustram embraced 3D printing to produce parts for it's equipment, and as of November 2018 was 3D printing approximately 60 different parts and 25 different fixtures for their equipment and associated products. The company compared their current processes to HP Multi Jet Fusion technology and calculated that they could increase productivity by four times and reduce costs by 50-75%. Jack King, president of Dustram LLC, says “The quality of the parts approached the fit and finish of parts made from expensive molds. I manufacture extremely high-quality equipment in low numbers, so purchasing expensive molds that I could never change did not make a lot of sense.” Result The resulting savings in time, weight, and costs for many of their parts were impressive. For example, it took approximately 120 hours to print one complete PulseRam vacuum head with FDM technology, compared to about 17 hours with Multi Jet Fusion. The weight of this part was reduced 68% from 4.63 kg for the original metal part to 1.45 kg with HP PA12, and the cost of production was reduced by more than $2,000 USD . The cost of nylon 3D printing material was also much less expensive than their previous 3D printing technology. “For example: With the other printer I used to use, it would cost approximately $78,345 to purchase their nylon compared to $7,150 from HP. The nylon from HP is more than 10 times less expensive.” “My industry of dust-free tile removal is poised for tremendous growth,” King says. “Having an HP MJF printer will allow me to surpass and stay ahead of the competition as it comes.” View the full case study by HP 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 courtesy of HP and DustRam.

Vapor Smoothing Improve the look, feel and performance of your 3D printed parts Vapor smoothing uses a chemical polishing process to smooth and seal the surface of 3D printed plastic parts to improve the surface quality and enhance part performance, with minimimal effect on the dimensional accuracy (< 0.4%). Once finished, the finishing agent is evacuted from the chamber and no residue is left on the parts. ​ The process treats both internal and external surfaces, making it an excellent choice for parts with complex geometries or hollow features. AMT PostPro Vapor Smoothing AMT's PostPro chemical vapor smoothing technology is used for the vapor smoothing process, which uses a chemical vapor to liquefy the surface of the material. This process smooths out the peaks and valleys creating a smoother, more consistent surface. When the procedure is complete the processing chamber is heated to evaporate any remaining solvent, leaving no chemical residue on the part. Benefits of Vapor Smoothing Enhanced Mechanical Properties Vapor smoothing reduces surface porosity and crack initiation sites, which increases elongation at break with no loss of tensile strength. Improved Surface Quality The smoothing process smooths and seals the surface of a part, reducing the roughness from 250+ μin RA to 64 – 100 μin RA. Dimensional Accuracy The process has a minimimal effect on the dimensional accuracy of the part, with no more than 0.4% dimensional change. The process also does not degrade the mechanical properties of the part. Watertight and Airtight Surface The surface of treated parts are completely sealed, making them liquid resistant and easy to clean. Preparation for Surface Treatment Vapor smoothing can be combined with additional surface treatements to improve the end result such as dyeing, cerakote, or metal plating. Reduced Bacterial Growth The reduced surface roughness of vapor smoothed parts reduces bacterial growth, making them suitable for use in the medical and food industries. Material Compatibility PostPro3D has been designed to process thermoplastic polymer materials. Currently the technology can process Polyamide (Nylon) (6,11,12), Flame retardant Nylons, Carbon/Glass filled derivatives of Nylons, Thermoplastic polyurethane (TPU), and Thermoplastic Elastomers (TPE). Rigid Plastics Nylon PA12, PP Reduces surface roughness by 800% or more. Improves tensile strength, yield stress and elongation-at-break. Increased functionality. Sealed surface. Elastomers TPU, TPE Reduces surface roughness by 1000% or more. Improves shore hardness, elongation-at-break and tear resistance. Maximum shrinkage of 1%. Sealed surface. Whitepapers Post Pro Vapor Smoothing on HP MJF Nylon PA12 Test results of AMT Vapor Smoothing on the surface roughness, dimensional tolerance and mechanical properties of HP Nylon PA12 View Whitepaper Post Pro Vapor Smoothing on Polypropylene Test results of AMT Vapor Smoothing on the surface properties, mechanical properties, and dimensional variation of polypropylene parts. View Whitepaper Post Pro Vapor Smoothing on BASF TPU01 Test results of AMT Vapor Smoothing on the surface quality, mechanical properties and dimensional variation of BASF Ultrasint TPU01 View Whitepaper Explore more finishing options Learn more About Us Materials MJF 3D Printer HP Certification Get your parts into production today Request a quote

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 Vancouver and beyond vancouver 3D printing service near me 3D printer vancouver BC 3D print prototyping and production vancouver additive manufacturing 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 Tempus 3D delivers high-quality precision 3D printing services using cutting-edge technology designed for the production environment. From prototyping to mass production, we help manufacture products with complex geometries and high aesthetic demands. With online quoting and a certified production team, we get your parts to you 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 Easy Online Quote and Ordering Accelerate your innovation with Tempus 3D's easy online quote and ordering service. Flexible pricing includes bulk discount and rapid delivery options. Upload your files Upload your CAD files and select your material and production time. Get a quote Our online quote system incudes variable pricing for bulk orders and rapid delivery. Order online Review your quote and complete the order online to get your parts into production. Parts are shipped Your parts are inspected for quality control, then delivered to your door. Get a quote Trusted by Designers and Engineers 1/1 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 "3D printing has revolutionized manufacturing, enabling companies of any size or industry to develop, iterate and distribute goods more efficiently. We are seeing the global manufacturing paradigm shift due to the growing adoption of 3D printing for production of final parts and R&D, particularly given the ability to use 3D printing to meet the increasing demand for personalization and customization". - Ramon Pastor (VP & GM 3D Printing, HP) 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

Composite 3D Printing Materials Composites combine an industrial nylon base with embedded fibers to produce parts with enhanced strength, stiffness, heat resistance and durability. Tempus 3D uses Markforged 3D printing technology to print composite materials because it's unique printing process produces parts which are exceptionally strong and resilient, well suited to extreme environments. This printing process combines an industrial nylon with high-performance fibers to leverage the advantages of each. The fibers can be integrated in 2 ways: as chopped fiber in a nylon base to provide strength and durability, or as a continuous fiber embedded in the plastic as the part is printed. ​ The base material has carbon fiber microfilaments embedded in industrial nylon to provide a high strength-to-weight ratio as well as enhance stiffness, heat resistance, and durability. The continuous fibers inlaid during the printing process substantially improve the mechanical properties of the part, making it as strong as machined aluminum. There are several different choices of composite fiber, each with unique benefits. Average lead time up to 5 business days for composite base only. Allow more time for continuous fiber and for larger volume orders. ​ Printer used Markforged ​ Pricing Please request a manual quote for composite, as this material requires a design consultation to ensure the part conforms to your specifications. Image courtesy of Markforged. Ready to try composite? Use our manual quoting tool to upload your file and share your design specifications. We will review your request and get back to you within 24 hours. Request a Quote Mix and match options for a custom result Composite 3D printing allows you to choose and combine materials for results customized to your needs. A composite base (with or without fiber reinforcement) produces industry-ready parts, and continuous fibers can be added to significantly enhance material properties and customize to the end-use environment. Composite Base On it's own or with embedded continuous fibers, the composite base options offer high-performance parts with mechanical properties that meet or exceed most 3D printed parts. Download data sheet Onyx About ​ Onyx is nylon filled with carbon micro-fibers to print accurate, precise parts. This material is strong, tough, and resistant to chemicals. On it's own it is 1.4 times stronger and stiffer than ABS; Onyx can also be be reinforced with Continuous Fibers to create parts as strong as aluminum. ​ Applications ​ Plastic Part Replacement Housings Sensor Mounts Cosmetic Prototypes ​ Technical specifications ​ Build volume: 320mm x 132mm x 154 mm Z-layer resolution: 100 nm - 200 nm Flexural strength: 71 MPa Heat deflection temperature: 145 c ​ Download data sheet Nylon About ​ This industrial nylon can be used alone or with continuous fiber reinforcement. This engineering-grade thermoplastic is smooth and non-abrasive, making it ideal for ergonomic surfaces and workholding for pieces that are easily marred. It can be painted or dyed. ​ Applications ​ Ergonomic Tools Assembly Trays Cosmetic Parts ​ Technical specifications ​ Build volume: 320mm x 132mm x 154 mm Z-layer resolution: 100 nm - 200 nm Flexural strength: 50 MPa Elongation at break: 150% Heat deflection temperature: 145 c ​ ​ note: Nylon is not currently kept in stock, allow ~1 week for ordering. See Multi Jet Fusion PA12 for an industrial strength nylon with excellent mechanical properties. ​ Continuous Fiber Continuous fibers can be printed into a composite base like Onyx to dramatically increase it's physical properties including strength, stiffness and heat resistance. The addition of the fibers can be customized to optimize the part for specific applications. Download data sheet Carbon Fiber About ​ Carbon Fiber filament is the strongest of the continuous fiber options. It's strength to weight ratio is 50% better than 6061 aluminum, the tensile modulus is 60 GPa, and it is 24 times stiffer than ABS. ​ Properties ​ High strength-to-weight ratio Ideal for constant loading applications Remains stiff until fracture Lightweight Similar stiffness to metal Applications ​ High-Strength Tools & Fixtures Brackets & Mounts Inspection/CMM Fixturing Bespoke End-Use Parts Functional Prototypes ​ Technical specifications ​ ​ Flexural strength: 540 MPa Flexural stiffness: 60 GPa Download data sheet Kevlar About ​ Kevlar is extremely tough and shock resistant, and has much greater elasticity than the other continuous fiber options. It is ideal for parts that are subject to repeated or sudden impact, such as clamping or stamping. When it fails it will bend until deformation, rather than break like the other continuous fiber options. ​ Properties ​ Tough & impact resistant Ideal application is high impact areas Bends until failure, rather than breaking High deflection properties ​ Applications ​ End-of-Arm Tooling Stanchions, Cradles, & Supports Delrin Part Replacements Wear Stops ​ Technical specifications ​ Izod impact (notched): 2000 J/m (in Onyx base) Download data sheet Fiberglass About ​ Fiberglass continuous fiber is a sturdy, all-purpose fiber that is the most affordable of the continuous fiber options. Fiberglass is 3 times stronger and 11 times stiffer than ABS, and performs best under intermittent loading. ​ Properties ​ Sturdy Best under intermittent loading Bends until fracture Good all-purpose, cost-effective fiber ​ Applications ​ Softjaws Medium-Strength Tooling Insulative Reinforcement Hand Tools ​ Technical specifications ​ Flexural strength: 200 MPa (in Onyx base) Flexural stiffness: 22 GPa (in Onyx base) Ready to try composite? Share your design specifications using our custom quoting tool, and we will get back to you within 24 hours. Request a Quote All uploads are secure and confidential.