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Canada based 3D printing service with guaranteed quality production and prototype parts. Industry-leading commercial 3D printers. Upload a CAD file for instant quote and ordering. Serving Canada & US innovators and manufacturers with best in class additive manufacturing. Tempus 3D is an 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 Serving Innovators Across North America 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

Explore our latest news, case studies and articles to learn how to maximize the benefits of industrial 3D printing with Tempus 3D. 3D Printing Resources Explore our latest news, case studies and articles to learn how to maximize the benefits of industrial 3D printing with Tempus 3D. High performance racing applications of 3D printing and 3D scanning Lawn mower racing enthusiast Kierra Cates needed an edge for an upcoming race, and approached Tempus 3D for a solution. The team at Tempus used 3D scanning and 3D printing to design a high-performance air intake able to withstand the abuse of the racing environment, and look good in the process. Read More Extending the useful life of commercial products with additive manufacturing A commercial property owner was faced with the prospect of spending thousands of dollars to upgrade broken paper towel dispensers if he could not find replacements for a failing fastening clip. With the support of Tempus 3D, the parts were reverse-engineered to improve the design and manufactured with industrial 3D printing, saving time and money while extending the useful life of the existing equipment. Read More Using digital scanning and 3D printing to repair consumer goods. A student in the Selkirk College Digital Manufacturing Program needed to replace a broken part on a treadmill. He was able to use digital scanning and 3D printing to re-build 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. Read More Creating replacement parts for marine applications with 3D scanning and 3D printing. A boat owner in Trail BC broke a critical part in the throttle mechanism in his boat and was unable to source an affordable replacement. The owner was able to improve the part design and manufacture a replacement quickly and affordably, with the help of Tempus 3D's 3D scanning and additive manufacturing technology. Read More RV owner re-designs and replaces a hard-to-find part for their recreational vehicle with additive manufacturing. 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. Read More Spark Laser reduces time to market and development costs with industrial 3D printing. Spark Laser was able to transition seamlessly from product development to lon-demand manufacturing when releasing their new commercial laser cutter, with the help of Tempus 3D's industrial 3D printing service. Read More Airforce Velocity Stacks uses industry 4.0 to super charge product development. Airforce Velocity Stacks needed to design and test a throttle body and was looking for a local manufacturer to collaborate with on the project. With the help of Tempus 3D and their design and production partners, Airforce was able to create a prototype robust enough to test in real-world conditions and achieve their development goals, quickly and affordably. Read More DustRam optimizes it's manufacturing of dustless tile removal tools with PA12 and Multi Jet Fusion technology. Learn how DustRam uses Multi Jet Fusion technolgy to reduce production time, lower costs, build lighter parts and get ahead of the competition with their dustless tile chipping hammers. Read More 3D printed medical back brace A medical services innovator based in Montreal, Quebec approached Tempus 3D with a back brace design to build. They were looking for a manufacturer with the capacity to build the large pieces with material suitable for medical devices. Tempus delivered a custom solution in collaboration with experts at HP and Hawkridge Systems. Read More How strong are 3D printed parts? HP put industrial 3D printing to the test by lifting a 1995 Avalon with a 3D printed chain link produced using HP’s new Multi Jet Fusion™ technology. The chain was printed in under an hour and weighs just 0.25 pounds. Check out this video to see how it performed. Read More Ledcor ball valve replacement Ledcor was facing a 6-month delay when sourcing a ball valve needed for their road surfacing operations, and approached Tempus 3D to help manufacture a replacement. Ledcore required design upgrades to improve part performance and a quick delivery time. Tempus 3D collaborated with their development network to deliver a solution, on-time and on-spec. Read More Dri-Cities uses industry-leading 3D printing technology to bring their innovative waterproofing solution to market. Dri Cities was looking for a manufacturing option that could produce prototypes and low-volume production runs of their innovative waterproofing product. Tempus 3D was able to provide an affordable, high-quality product with quick turnaround and on-demand manufacturing with HP Multi Jet Fusion 3D printing technology. Read More The Haf-Clip gets their product to market in record time with HP Multi Jet Fusion 3D printing technology The Haf-Clip was looking for a manufacturing partner to help bring their product idea to reality. Learn how Tempus 3D was able to help them meet their production goals, quickly and affordably. Read More CGX uses Multi Jet Fusion technology to create innovative designs, simplify supply chain, and reduce time to market. Learn how CGX Systems used HP MJF technology to design, develop and manufacture it's electroencephalogram (EEG) headsets. Read More Transforming prosthetics and orthotics production with digital manufacturing and industrial 3D printing Digital manufacturing had revolutionized the production of custom orthotics and prosthetics, resulting in increased innovation, production speed, fit and function while lowering overall cost and material waste. Learn more about how industrial 3D printing has transformed the manufacturing of medical devices. Read More The value of additive manufacturing in the automotive industry The automotive industry has been transformed by additive manufacturing over the past decade. 3D printers are aiding in design and development, accelerating the assembly process, creating complex parts, enhancing measurement and testing, and providing customization solutions across the range of the development process. Read More IBC Technologies enables innovation in collaboration with BC 3D printing service bureau. IBC Technologies was designing a jig to help assemble fan parts for a commercial boiler. They were looking for a local manufacturer which was able to quickly build low-cost, functional prototypes and manufacture the final design. Learn how Tempus 3D was able to support IBC through the design and manufacturing process with industrial 3D printing technology and expertise. Read More The advantages of part consolidation with additive manufacturing One of the many benefits of additive manufacturing is the ability to build forms not possible with traditional manufacturing. Learn how the freedom of design inherent in additive manufacturing has enabled HP and Aerosport to consolidate multi-part assemblies to lower production time to 24 hours, lower costs up to 95% in costs and reduce weight up to 90% while improving part functionality. Read More Kalesnikoff Lumber leverages 3D printing to alleviate supply chain challenges, reduce down time, and improve productivity. Kalesnikoff Lumber was looking for a local manufacturer to re-design and build affordable lumber guides that were robust enough for industrial use. Learn how Selkirk Technology Access Center and Tempus 3D were able to help them produce an improved design with industrial plastics and commercial 3D printing technology. Read More Symbolic copper-plated eagle skull shows the potential of digital manufacturing to make the impossible possible. A First Nations group wanted to create a copper replica of a delicate eagle skull and approached Tempus 3D for a solution. The team at Tempus collaborated with a network of professionals with advanced digital manufacturing capability produce a beautiful result. Read More Benefits of industrial 3D printing for manufacturing and design. Learn about the benefits of 3D printing for manufacturing and design, and how Tempus can support your team to leverage industrial 3D printing to gain a competitive advantage. Read More Ultrasint TPU - a robust, flexible material designed for the real world. TPU is a versatile thermoplastic made by BASF with rubber-like properties, which is ideal for the production of parts requiring shock absorption, energy return or flexibility. Read More How does Multi Jet Fusion compare to other 3D printing processes? The HP Multi Jet Fusion printing process has several distinct advantages over comparable 3D printing processes including speed, affordability, and overall quality of the materials produced with this process. Read More Tempus 3D expands its Additive Manufacturing service with Selkirk Technology Access Centre (STAC) collaboration. Tempus 3D and Selkirk Technology Access Centre (STAC) collaborate to broaden the technology and expertise available to both Selkirk and Tempus for a stronger product and service offering. Read More

One of the many benefits of additive manufacturing is the ability to build forms not possible with traditional manfuacturing. Read this article to learn more about how additive manufacturing has enabled HP and Aerosport to consolidate multi-part assemblies to lower production time to 24 hours, lower costs up to 95% in costs and reduce weight up to 90%, while improving part functionality. DESIGN FOR ADDITIVE MANUFACTURING The Advantages of Part Consolidation with Additive Manufacturing Every manufacturing method has inherent limitations in it's design requirements. For example, CNC machining is limited to the angles the drill arm can reach, and injection molded parts must be designed for easy extraction from the mold. With each manufacturing process, increased complexity results in increased cost. This forces designers to construct the final object around the manufacturing method as much as for the functionality of the final part or assembly. Additive manufacturing, also known as industrial 3D printing, has added a new dimension the manufacturing industry. One of the many advantages of additive manufacturing is the ability to build forms that are not achievable with traditional manufacturing methods. Parts are built layer-by-layer or point-by-point, allowing very complex geometries to be built that are not limited by traditional design constraints. This gives engineers the freedom to focus more on optimizing the component design, and less on the limitations of the manufacturing process. The many benefits include improved part functionality, weight reduction, decreased assembly time, and lower overall manufacturing costs. In this article we will explore two case studies where designers and engineers were able to minimize the number of parts required in an assembly, optimize the functionality of the overall system and achieve significant time and cost savings in the manufacturing process. HP - Optimized Drill Extraction Shoe The Challenge The nozzles of HP printheads are manufactured with a laser-cutting process. In this process, water is used to cool the laser and silicon plates. A drill extraction shoe removes waste water and silicone sludge produced during this process. HP's original drill extraction shoe assembly was a multi-part assembly made from machined aluminum and standard parts. The assembly was re-designed to be manufactured with powder-bed fusion technology using an HP Multi Jet Fusion 3D printer. This manufacturing process allowed HP to modify their original design to create single part 3D printed with Nylon PA12 . Industry Industrial / Manufacturing Sector Machinery and Equipment Technology HP Multi Jet Fusion Material HP Nylon PA12 Total cost per part CNC machined: $450 HP MJF: $18 Cost reduction: 95% Weight CNC machnined: 575 g HP MJF: 52 g Weight reduction: 90% Results The part redesign and additive manufacturing process resulted in significant design advantages and cost reductions, including: Optimized design: The design was optimized to reduce turbulence by modifying the end of the pipe to optimize flow. The single-piece design and waterproof nylon 12 material also resulted in a watertight part , without the requirement to post-process or coat the parts. Lower cost: the cost to manufacture the upgraded drill extraction shoe was reduced by 95 %. Reduced weight: The weight of the original part was reduced by 90% using topology optimization and by reducing the overall material required to build the final part. Reduced lead time: The original part took 3-5 days to manufacture with CNC machining. With HP Multi Jet Fusion additive manufacturing, the part can be built in 24 hours . The original assembly compared to the one-piece design 3D printed with HP Multi Jet Fusion Industry Industrial / M anufacturing Sector Aircraft Technology HP Multi Jet Fusion Material HP Nylon PA12 Part reduction Original design: 16 parts Updated design: 4 parts The Challenge Aerosport Modeling and Design Inc. was redesigning a rudder trim system used in an instrument panel which was used as part of their manufacturing assembly line. The original assembly was built of 16 machined and standard metal parts. With the use of HP Multi Jet Fusion 3D printing technology, the designers were able to reduce the number of pieces to a four-part assembly and replace the expensive metal parts with Nylon PA12. Aerosport - Redesigning a rudder trim system Results With the design freedom that is achievable with additive manufacturing, Aerosport achieved: Fewer parts: Aerosport was able to reduce the number of parts required for the assembly from 26 parts to only 4 parts . Reduced manufacturing time: Each part in the original assembly needed to be ordered or manufactured independently before a rudder trim system could be built. With additive manufacturing, the parts can be 3D printed on-demand and be ready for use within 24 hours . Reduced assembly time: the assembly time is significantly reduced with only 1/6 the number of parts. Lower cost: the combination of reduced material costs and faster assembly time resulted in significant savings for manufacturing the rudder trim system. Original assembly, with 26 different machined and standard parts Assembly reduced to only 4 parts, 3D printed with HP Multi Jet Fusion Additive manufacturing with Tempus 3D Whether you are learning how to design for additive manufacturing or looking for a reliable Canadian manufacturer to produce high-quality, affordabe plastic parts, the team at Tempus 3D is available to help. With state-of-the art HP Multi Jet Fusion technology, online ordering and an HP certified team of professionals, Tempus will work with you to ensure you get the best value possible. Contact us to learn more. Data and photos courtesy of HP and Aerosport Modeling & Design. Read the original HP case studies at https://reinvent.hp.com/us-en-3dprint-drill and https://reinvent.hp.com/us-en-3dprint-aerosport . Interested in learning more? Explore more case studies and articles Design services Design tips for Additive Manufacturing Multi Jet Fusion 3D printing technology Looking for a local manufacturer? Tempus 3D is an Additive Manufacturing Service Bureau serving Western Canada with quick overnight delivery and competitive pricing. We use state-of-the-art HP MJF 5200 technology that allows for mass customization and production scale 3D printing. If you have a project you would like to talk to us about you can reach us at info@tempus3d.com , or give us a call at 1-250-456-5268 . Contact Us

By: Jonathan Guercio Introduction:   The holiday season is a fantastic time for getting creative! This year I wanted to make something fun while also showcasing the amazing power and capabilities of our HP Multi-Jet Fusion 3D printer. This printer can produce extremely complex geometries without the need for supports, capture fine details, and manufacture parts from durable PA-12 Nylon material. It looks like I have a fun challenge ahead—and I hope to make this a Tempus 3D tradition in the future!  The Inspiration:   Sometimes the most striking effects come from the simplest designs! Of course, that’s easier said than done. One trick I’ve learned when designing is that it’s always better to start simple and then add complexity layer by layer (pun intended). This approach helps keep the project scope manageable and prevents over-design. So, how simple should we start? The Tree Bauble—a simple, recognizable, traditional shape!  MJF Benefits:   The key objective for our holiday project was to take full advantage of our HP MJF printer’s capabilities. A simple ball would have been no challenge at all! To start, let’s identify the key strengths of Multi-Jet Fusion printing.  No Supports Needed   More common forms of 3D printing—such as FDM or resin-based printing—usually require supports. Since additive manufacturing is performed layer by layer and cannot print in empty space, supports act like scaffolding to hold overhangs in place until the print is completed. With Multi-Jet Fusion printers, however, a full layer of powder is deposited on every layer. The machine then fuses only what it needs, leaving the unfused powder in place to act as a support. After printing, the unfused powder is removed and reused! This process enables the creation of intricate, tight geometries that would otherwise be impossible—and as a bonus, there are no support artifacts to clean up.  Strength   Our in-house HP PA-12 Nylon is incredibly robust. As a key differentiator, MJF printing delivers consistently strong parts along all axes. While other 3D printing methods may suffer from weak inter-layer adhesion that can lead to breakage, the uniform strength of MJF-printed parts opens up surprising possibilities—such as showcasing uncommonly thin features.  Dimensional Accuracy and Detail   MJF printing offers exceptional dimensional accuracy combined with a high level of detail. It truly stands at the forefront when it comes to merging strength with fine detail in on-spec real working parts.  Adding Complexity Doesn’t Add Cost   While increased complexity can sometimes make printing and post-processing more challenging, it generally doesn’t matter with 3D printing. This technology is renowned for creating forms that other manufacturing methods simply cannot, and when combined with the no-supports-needed advantage mentioned above, the design possibilities are virtually limitless!  Adding Complexity:   Given the strengths of MJF, let’s develop a plan to implement them! My idea was to start with a simple sphere and place the Tempus 3D logo right in the middle—a feat difficult to achieve with any other manufacturing technique. I began with a 2D sketch of the basic shape. Since the design is a hollow sphere, I decided that using a 2D profile with the revolve tool would be the easiest way to achieve the desired shape. In this case, I decided to put almost all the features into a single sketch, you’ll see why later.  I opted for a 3-inch diameter with a slim 2.75mm thickness for the outer profile. You can also see the logo plaque here. Note that I didn’t constrain the plaque size because I wanted the flexibility to adjust it later in the modelling process. After adding a simple top hanger, it was time for the first 3D operation!   The first operation was straightforward: creating the outer hollow sphere. I used the revolve tool by selecting half of the outer profile and rotating it about the central axis.  Now that we have our sphere, it’s time to get creative! I started by creating a new sketch a few millimeters from the surface using an offset plane. This sketch defines the intricate “ribs” of the bauble. But rather than drawing the ribs directly, I sketched the areas to be removed, leaving the ribs behind.  As you can see, the blue lines indicate that the sketch is unconstrained. This was intentional, as an unconstrained sketch allowed me to adjust the lines until I achieved the desired look. I continued playing with these lines throughout the process, making it easy to perfect the design.  Once I was close to the desired shape, I used the extrude tool to cut the design out of the sphere.  Now that I had a single cut, how could I transform it into the intricate final shape? This is where the magic happens—the circular pattern tool! I selected “Feature” as the Object Type, which allowed me to pattern the extruded cut (highlighted at the bottom of the screen). Next, I chose the axis around which to pattern the feature and experimented with the number of repetitions, eventually settling on 20.  The result is quite dramatic, despite the simplicity of the procedure!  The Center:   Now that we have our bauble, it’s time to add the logo plate and hanger loop. Fortunately, the necessary sketch was already prepared. Let’s start with the logo plate. I used a symmetrical extrude to ensure that the plate remained centered on the bauble. To add our logo, I imported a vector outline of our Tempus 3D logo, created a new sketch on the plate, and positioned it appropriately before performing a simple extrude. In this case, I extruded 1mm to make it easier to see through the ribs.  Next is the hanger loop—a simple square with carefully considered dimensions. Again, I used the symmetrical extrusion tool to ensure it was perfectly centered.  Finishing Touches: Fillets   Why dedicate a separate step to adding fillets? There’s a common saying: “The fillet tool is the most expensive tool in CAD.” This isn’t because it’s difficult to use, but because each additional fillet can increase production costs—whether through extra CNC machining time or by complicating injection molds. Fortunately, this ties directly into the fourth benefit of MJF mentioned above. In our case, adding fillets has no impact on the printability of the bauble. So, feel free to fillet away!  I hope you enjoyed this write-up, and that some of you are inspired to try CAD if you haven’t already. This was a fun little in-house project!

Now we are getting to the potatoes! When it comes to creating custom orthotics, precision and efficiency are key. Traditionally, CNC machining has been the go-to way for producing these devices. However, the rise of 3D printing in the advanced manufacturing era is transforming how we approach this field. Both technologies have their merits, but when it comes to modern orthotics, 3D printing offers key advantages.  The Traditional CNC Machining Approach  CNC machining is a subtractive form of manufacturing. Itinvolves cutting away material from a solid block to create a final product. For orthotics, this process typically starts with a block of foam or plastic, which is milled into the desired shape. This method is known for its:  Precision:  CNC machines can produce highly accurate orthotics tailored to a patient's needs.  Material Variation:  It is easy to change out material type based on client needs.  However, CNC machining also comes with notable limitations:  Material Waste:  Significant amounts of material are removed during machining, resulting in higher waste.  Complexity Constraints:  Designing intricate, organic shapes can be challenging and time-consuming.  Time-Intensive Setup:  Each custom piece requires careful programming and calibration, adding to lead times.  The Game-Changer: 3D Printing for Orthotics  3D printing takes a completely different approach by building orthotics layer by layer from a digital design. This additive manufacturing method brings several unique advantages:  Design Freedom:  3D printing enables the creation of complex geometries, such as lattice structures, that are impossible to achieve with CNC machining. These designs can enhance comfort and functionality by optimizing weight distribution and even airflow.  Material Efficiency:  Since material is only deposited where needed, waste is dramatically reduced. This not only lowers costs but also supports sustainability.  Speed and Scalability:  Once the digital design is finalized, multiple orthotics can be printed simultaneously, significantly speeding up production. In a machine like ours at Tempus 3D, we can print nearly 100  pairs in a single print!  Enhancing Patient Outcomes  For patients, the benefits of 3D-printed orthotics are transformative. Lighter, more breathable designs enhance comfort during wear, while precise customizations ensure better alignment and support. Additionally, the speed of production means patients spend less time waiting for their orthotics to be ready.  Choosing the Right Technology  While CNC machining has been a reliable method for decades, 3D printing is quickly becoming the preferred choice for producing orthotics. It offers unparalleled flexibility, efficiency, and innovation that align with the evolving needs of both patients and practitioners.  As the orthotics industry continues to embrace 3D printing, we're excited to see how this technology will further improve patient care and redefine the boundaries of custom manufacturing!

Introduction:  After an orthotic is 3D printed, it undergoes a series of post-processing steps to enhance its appearance, durability, and functionality. Depending on the final assembly, these finishing touches could make a significant difference in patient satisfaction and long-term wear. This week in our campaign we’ll explore the most common post-processing techniques used for 3D printed orthotics! Dyeing:  Dyeing is a common technique used to color the orthotic. Many orthotics start out as grey or white, but dyeing allows clinicians to offer custom colors, which can enhance aesthetics and patient preference.  Benefits:  Adds a more complete look, can be customized to patient preference.  Drawbacks:  Requires additional time and equipment.  Vapor Smoothing:  Vapor smoothing is used to create a smoother surface finish on the orthotic. This is especially useful for materials like PA-12, which can have a slightly rough texture after printing.  Benefits:  Smooth, polished finish, a sealed easy to clean surface.  Drawbacks:  Not all materials are compatible with vapor smoothing.  Vibratory Tumbling:  Vibratory tumbling is another method for smoothing the surface of the orthotic. The orthotic is placed in a machine with small media (such as stones or ceramic) that gently polishes the surface.  Benefits:  Effective for large batches, smooths out imperfections.  Drawbacks:  Time-consuming, may not achieve the same finish as vapor smoothing.  Raw Finish:  Some orthotics are left with a raw finish straight out of the printer. While this is the fastest option, it may not provide the same level of aesthetic or comfort benefits as other post-processing methods.  Benefits:  Quick, no additional processing required. May be completely fine, if the orthotic is being covered with layers Drawbacks:  Rougher texture, may be less comfortable for patients.  Conclusion:  Post-processing is an essential part of the 3D printing workflow, ensuring that the final orthotic meets both functional and aesthetic standards. Whether through dyeing, smoothing, or leaving the orthotic in its raw state, these techniques allow clinicians to tailor the orthotic to the specific needs of the patient while enhancing the overall quality of the product.

Describe your service here. What makes it great? Use short catchy text to tell people what you offer, and the benefits they will receive. A great description gets readers in the mood, and makes them more likely to go ahead and book.

Describe your service here. What makes it great? Use short catchy text to tell people what you offer, and the benefits they will receive. A great description gets readers in the mood, and makes them more likely to go ahead and book.

Describe your service here. What makes it great? Use short catchy text to tell people what you offer, and the benefits they will receive. A great description gets readers in the mood, and makes them more likely to go ahead and book.