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The new Stratasys J850 Pro PolyJet 3D printer is the latest machine variation in their popular and expanding J-series. What makes this entry unique is that it has been designed specifically to verify concepts quickly and cheaply through its efficient workflow with a wide range of materials (which the series is known for) but not to print realistic color. For a range of certain engineering-specific modeling applications, the resulting lower price-point and absence of "nice-to-have" color options, makes the J850 Pro a very attractive option for those looking to achieve faster product verification, increase their throughput and save valuable time.

Frequently, when producing parts to print on full-color PolyJet 3D printers (like the J55 and J850), we have the need to place logos and icons on our models. When using more traditional means of applying pixel-based graphics or decals on parts can have unpredictable outcomes when exporting for 3D printing. Often, we find it difficult to properly set the resolution of the logo to match the part, which results in logos that have blurry or pixelated edges. In this 3D Printing Video Tech Tip, we talk about how to create sharp-edged logos and icons using SOLIDWORKS.

The Objet30 series of 3D printers is known for providing the power of PolyJet technology in a desktop-sized system. This makes them ideal for any office or studio space that needs to provide detailed prototypes while keeping their workforce and intellectual property in-house. Stratasys recently announced multiple updates to the Objet30 3D printer series with exciting new materials options, faster workflow and a fresh look in their latest generation: the Objet30 V5. 

This week's Product Story showcases Team Penske and how they utilize PolyJet materials to create a custom solution for expensive light replacements on racing cars. 

Motorsport racing, as well as other professional sports, are no match for Team Penske who has a long standing tradition of winning. Part of their success is developing solutions to problems on and off the track. One expensive, recurring problem was the replacement of lights after consistent damage from racing. This led to the utilization of additive manufacturing to test new ideas and generate lower-cost replacement parts. From replacement parts to design ideas, Team Penske draws from the convenience of manufacturing in house. 

The MakerBot Method line is an open-source platform that brings a world of new options for prototypes right to your desktop. Recently, MakerBot extended the capabilities for their Method platform and launched the Carbon Fiber Edition, which consists of a composite carbon fiber extruder that further expands the printers' production range so that it can create stronger and lighter parts. To expand their material library and enhanced the Method platform's capabilities, MakerBot just launched the new Nylon 12 Carbon Fiber and several Polycarbonate materials. Let's take a look at what is now possible with these new materials.

Ever wonder what the best way is to produce your metal part or prototype? There are metal 3D printing options available which offer both powder and non-powder options, but sometimes the process simply requires casting to be the right solution. In this article, we'll introduce you to Stereolithography as an option for investment casting and see how it stacks up against more traditional methods.

This week's Product Story showcases nVent and how they utilize Stratasys 3D printing to create a custom solution to an intricate problem.

An electrical solutions company, nVent, specializes in solving unique problems across different industries and faces multiple challenges with needing custom parts created based on each project. Just like any other company that services a wide variety of industries, they face manufacturing constraints with creating specific parts for each client. Machined components are the traditional way of acquiring these parts and can be costly and can take weeks to produce. Let's dive in to how they utilize Stratasys 3D printers to build the part on demand.

Robotic automation, frequently in the form of robotic arms, is used across multiple industries to automate tasks that require precision and call for high repeatability. End-of-Arm Tooling (EOAT) is one of the main components of robotic technology and typically refers to the device attached at the end of a robotic arm. In many cases, these robotic arms are used continuously for long periods and eventually need to be replaced, halting production, and becoming a financial burden. Traditional methods used to replace these parts, similar to CNC, can take up to 24 hours to produce a new part and do not guarantee the part will fit in the EOAT. Thankfully, 3D printing brings a solution to minimize downtime and ensure the replacement part will fit perfectly the first time. Let's look at some examples of how different companies in multiple industries have taken advantage of 3D printing to quickly fix their EOAT.

The Stratasys PolyJet 3D printing technology lets you produce high-quality, high-accuracy parts and prototypes at a reduced production cost. Many times, however, your prototypes might need a little hand to help you achieve the desired result. In this blog article, we review some of the processes that can help you create the ideal casting molds for your parts or prototypes, such as Liquid Silicone Rubber Molding (LSR), using the PolyJet technology. We review their differences and which materials are suitable for each of these processes to aid you in getting your ideal end-result.