Dassault Systèmes Selects Xometry as Prime Partner for Marketplace Integration

At 3DEXPERIENCE World 2020, CAD giant Dassault Systèmes made a number of announcements related to its 3DEXPERIENCE suite and SOLIDWORKS CAD software. One piece of news in particular has particular relevance for the 3D printing industry: Xometry’s manufacturing platform will be tied into Dassault’s SOLIDWORKS and CATIA applications.

Within the design environments of SOLIDWORKS and CATIA, users will be able to automatically and directly access Xometry price quotes on MAKE Marketplace. Engineers are therefore able to obtain a cost estimate for a part as it is being designed, without the need for manually uploading and checking the price of parts using a variety of online service bureaus.

For CAD users, remaining within the confines of the design environment is key to maintaining efficiency and an optimal workflow. With every new software update, software developers like Dassault count the number of clicks it takes to perform a given action. In the case of getting a quick manufacturing quote in SOLIDWORKS and CATIA, it now takes one, as opposed to about a dozen in a web interface.

Due to the digitization of manufacturing as made possible by technologies like 3D printing, the lines between designer, engineer and machine operator are starting to blur. As a result, engineers and designers are playing an increasing role in the actual production of a part. This latest update allows them to source the cost of a part as they are designing it.

A screenshot of Make Marketplace within SOLIDWORKS. Image courtesy of SOLIDWORKS.

Sébastien Massart, head of corporate strategy for Dassault Systèmes, said of the partnership, “We launched the MAKE Marketplace in 2018 to make it easy for customers to design and manufacture. Our partnership with Xometry takes this a step further. Customers can order high quality additive manufacturing or CNC machining parts in one click at the right price, thanks to Xometry instant quoting capabilities. This is all part of our vision to continuously reduce the friction that customers face going from design to manufacturing.”

Xometry is Dassault’s first “prime partner” for its MAKE Marketplace, which purportedly signifies qualified service providers with industrial-grade quality certifications, high production capacities and satisfaction rates. Other prime partners will be added to the marketplace in the future.

The news of its partnership with Xometry came with the overall update of Dassault’s 3DEXPERIENCE, a cloud-based platform that connects all of the software company’s apps in a single environment. This year’s update includes a full integration of SOLIDWORKS with 3DEXPERIENCE, meaning that users no longer have to rely on the desktop version of the CAD software and can connect more directly with the larger platform’s apps. Perhaps the most unique announcement from the event was that Dassault is developing a digital twin of the human body.

For Xometry, the partnership with Dassault is a significant one. After obtaining a $50M investment last year, the manufacturing platform will be placed in front of the eyes of over two million engineers and designers via SOLIDWORKS, one of the most popular CAD software packages on the market.

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8 Reasons Why 3D Modeling is in Demand in Architecture

3D modeling is increasingly used in various fields of human life and activity. For a long time, that technique has gone beyond the use of purely in the entertainment industry, although there it is still actively being introduced and improved. But not only games and animation are the main consumers of 3D models.

Today, more than ever, this technology is in demand in architecture and construction. And we will give you as many as 8 reasons for the popularity of 3D in these areas.

Reason 1: Realism

   Although the main drawings of any architectural structure are carried out in two-dimensional space, it is the 3D layout that allows us to evaluate their accuracy and compliance with the set goals, construction standards and utility. As a tradition, architectural design is the creation of textual and graphic documentation. Using three-dimensional modeling, the design process greatly simplifies and speeds up the creation of functional prototypes – as a result, the architect and the customer receive a functional prototype, the finalization of which takes a minimum of time and has maximum efficiency.

   For many years, architectural companies have been using CAD (Computer-Aided Design) to create projects. But if you need a model with maximum accuracy and detail, it is much easier to order it from a special company that is directly involved in the development of three-dimensional samples, including building a 3D model.

Reason 2: Speed

   When architects worked with paper, the time they needed to perform at least basic drawings and visualizations was very long. Building a 3D model using computer technology takes much less time, while it is almost impossible to make mistakes in the calculations.

   Now you do not need to delay the moment of presentation to the customer of your project – just use the finished model or order its production according to your references.

Reason 3: Detail Quality

    We already touched on this parameter in the first paragraph, but it is worth noting it separately: modern software in the hands of a skilled specialist allows you to achieve maximum compliance of details with customer requirements or the ideas of the designer. As a result, you get a ready-made layout that you can rotate in space to consider the quality of wall decoration, the interior, or even the decor pattern on the walls.

Reason 4: The Ability to Create a Full-Fledged Layout Based on the 3D Model

   Technologies are easily combined, and modern architectural 3D models can be embodied not only on a computer screen but also transferred to a completely tangible form. Get a three-dimensional image of your project and just print it using a 3D printer – the layout is ready! If your customers require you to visualize your idea, this is a great solution.

Reason 5: Possibility of a Good Study of Internal Zoning

   This reason is especially relevant for commercial construction. A full-scale model allows zoning the area with greater efficiency, “filling” the internal space of trading floors and galleries with goods and decor items, as well as “testing” the convenience of layout from the point of view of customers and employees.

Reason 6: Advertising

   If you initially set the task of promoting the projected project, whether it be an apartment building, a skyscraper or a future shopping center, it is the ready-made visualization in three-dimensional space that will help you with this. Use it in commercials, engage in promotional materials or present at architectural exhibitions and negotiations with investors – when a potential buyer sees exactly what he is going to pay his money for, his credit of trust in you will increase significantly.

Reason 7: Revision

    If you are trying to implement a building concept that exists only in the imagination of the customer, all ideas and concepts can easily be embodied in the primary model, the process of finalizing which in terms of functionality and aesthetics will take a minimum amount of time;

Reason 8: Money

   Ordering an architectural 3D model is always profitable because it allows you to save on several things at once:

• The painstaking manual work of a designer or architect, who will need to pay for difficult work.

• On making additions and reworking the order.

• On a separate development of layouts for the customer and advertising: a three-dimensional model can serve both here and there.

Three-dimensional technology rules the world. They show it realistically and in detail. This is especially noticeable in the example of the use of 3D models in architecture.

The post 8 Reasons Why 3D Modeling is in Demand in Architecture appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.

A Poster of CAD Design Tips for #3DPrinting #CAD @BillieRubenMake

“Maker of many kinds, serial skill-collector, and STEM-student,” Billie Ruben, has created this very useful little poster of do’s, don’ts, and other design considerations for creating CAD files for 3D printing.

You can download a large version of the poster, along with two other 3DP tips posters she’s created here. While on the Imgur link, don’t forget to check out Billie’s other two posters with more tips on what modeling programs to use for different types of 3DP and the ins and outs of 3D printer bed leveling.

The Top 10 SelfCAD Improvements of 2019

Let’s start 2020 with something positive – reflecting on the awesomeness of 2019. 2019 was a productive year for us at SelfCAD. We listened to your feedback, fixed bugs and other nasty things and improved most of our tools. We added a bunch of useful new features. Which one do you like the best?

Here are 10 SelfCAD improvements of 2019 graded by how much they added to your modeling experience. If you’d like to learn more, please visit our FAQ and the SelfCAD Manual.

#10 – Revolve tool can make objects with holes now

2018 Revolve tool closed all the holes. 2020 revolve tool doesn’t. You get the gist. We took a long, hard look at this tool, which creates a new shape out of revolving (for example) a plane. We realized it doesn’t make sense to automatically plug all the holes, and it sometimes makes creating the shape you want unnecessarily difficult. 

You can also revolve around any shape by selecting Revolve Around Edges/Profiles or even guides in the ‘Settings’ section. You no longer need to merge objects to revolve around them.

#9 – Snap Tool

Snap tool is another quality of life tool. You can use it to snap any shape to any location in the workspace. You can also use it to snap and collapse vertices. When used with ‘Remove Duplicate’ tool found in the Utilities section it will remove details in the vertices.

#8 – Drawing Tool Improvements

We’ve made a lot of changes to our drawing tool in 2019.

We’ve added smoothness to the text tool and real-time intersection. Real-time… what?

Before, when you drew something which has a hole in it, you were losing that hole after generating a 3D object from the drawing. Now, this tool creates a hole automatically if you indicate your object should have one!

Additionally, when you use the FreeHand Tool and set the height settings to zero, it will automatically create a profile.

#7 – Flatten, Inflate

SelfCAD added some crucial tools to your toolbox. Flatten and Inflate do exactly what it sounds like – Flatten makes the object gradually flatter, while Inflate will inflate the selected area like a balloon. Flatten is useful for quickly slicing a sphere, among other things.

#6 – Gear Generator

Our (relatively) new Gear Generator is located in the ‘3D Shapes’ category. No need to model your gears by hand, this flexible tool is here to save your time.

#5 – The Marquee Selection Tool

You can now select polygons by dragging your mouse.

If you drag towards the right, it will select only the included faces.  But if you drag towards the left you will select everything. We wanted selection to be as convenient as possible.

#4 – Part Selection Tool

This is a nifty tool that allows everyone to select specific parts of the model.

#3 – New Material Section ( including Shadows, Shininess, Light Sources and Targets )

In 2019 we added additional features to make SelfCAD models look even better while you model. You can now control shadows, shininess of the material, decide if the model is a light source etc. It will work even better with rendering!

#2 – Improved Slicer

The new and improved SelfCAD slicer, we’ve practically remade it. The new menu, more options than ever and you can now get you a preview of how your model will be 3D printed. Which is pretty neat, you have to agree.

#1 – Animation

In October, we added an animator to SelfCAD. It’s our first step to make SelfCAD a choice for every creator. 

When you click the record button, you can change the color, move or transform your 3D model to make a clip and then put these clips together to create something unique.

Up next: we are planning to add rendering in 2020 and a rigger in the future, making this feature feel more complete.

I hope you enjoyed reading this list – create your free SelfCAD account by clicking here.

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What is Metrology Part 2: CMM

Image result for cmm

CMM

A CMM is a widely used machine used to measure objects. A CMM is a coordinate measuring machine. This refers to any machine that measures the geometry of physical objects by sensing discrete points on the surface of the object with a probe. This is the essence of many a metrology system. The precision of a CMM is vital for determining the geometry of objects. This then leads to more precision in the manufacturing and replication of objects. 

Probes are the engine of a CMM. They sense objects through their surfaces. There are various types of probes as well.  The types of probes used in CMMs include mechanical, optical, laser, and white light. Mechanical probes typically have a ball and rod looking setup attached to them, or have a nozzle setup. These physically touch the surface of a material that is in need of measuring. Optical probes typically refer to spectral analysis and measuring through these means. One can think of a fiber optic probe in particular. These type of probes are usually used in Raman spectroscopy, and diffuse reflection applications. Raman spectroscopy is a spectroscopic technique based on inelastic scattering of monochromatic light, usually from a laser source. Inelastic scattering means that the frequency of photons in monochromatic light changes upon interaction with a sample. The scattering of the photons within a monochromatic light source allows for a device to detect if an object is within the path of monochromatic light. This thus leads to measuring capabilities that are important in terms of a CMM as well. Diffuse reflection is similar to Raman Spectroscopy aside from the optical source is typically infrared. When an IR beam passes through a physical object, it can be reflected off the surface of a particle or be transmitted through a particle. The IR energy reflecting off the surface is typically lost. This transmission‐reflectance event can occur many times in the object, which increases the pathlength. This pathlength is vital for measuring. Finally, the scattered IR energy is collected by a spherical mirror that is focused onto the detector. The detected IR light is partially absorbed by particles of the object, collating the object information.

Image result for raman spectroscopy

Typical Raman Spectroscopy Setup

A CMM is heavily reliant on a built-in coordinate system of, typically, three axes. This is similar to the coordinate systems we are aware of within a 3D build environment. This is a Cartesian Coordinate system. The main structure of which includes three axes of motion. The material used to construct the moving frame has varied over the years. Granite and steel were used in the early CMM ‘s. Today the major CMM manufacturers tend to build frames from aluminium alloy or some derivative and also use ceramic to increase the stiffness of the Z axis for scanning applications. CMM axises need to be stiff because there should be minimal outside inference with forces that may misalign the device during measurement. Any misalignment will cause higher error ranges for measurement. 

Image result for cartesian coordinate system

Cartesian Coordinate System

Scanning techniques are becoming more reliant on data collection and compilation. These methods use either laser beams or white light that are projected against the surface of a part. Thousands of points can then be taken and used not only to check size and position but also to create a 3D image of the part also. This “point-cloud data” can then be transferred to CAD software to create a working 3D model of the part. The ability to hold various point cloud data from these methods is essential for the future development of the field. Big data is something of interest most definitely for this field. 

CMM’s are very interesting and are the basis of most metrology methods. It is important to understand how in-depth and fascinating this field is. It is a very vital one as well for the future in terms of 3D printing and manufacturing. Stay tuned for the next installment where we take a look into different subfields within Metrology as well.

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Machining Parts for Apollo 11 Project Engress @NYCCNC

John Saunders of NYC CNC shared on YouTube:

Machining Parts for the Apollo 11 Anniversary: Project Egress!! | WW258

Apollo 11. Smithsonian National Air and Space Museum. 50th Anniversary. Adam Savage. Project Egress—need I say more!? Join us for this exciting journey we weren’t sure we could make! We were given an amazing opportunity to collaborate with other makers and Adam Savage’s team to make an Apollo 11 hatch door replica for the 50th anniversary of the lunar landing. Not only was this a great challenge for our team, it was a way to pay it forward and commemorate important aerospace history! Parts from various talented makers will be assembled by Adam and his team on July 18th, 2019 at the Smithsonian National Air and Space Museum in Washington, D.C. If you’re interested in attending this FREE event, check out the link in the description below. We hope to see you there!

How to Make Apple’s Mac Pro Holes @isonno #Apple #MacPro

Via J. Peterson’s blog – Apple’s recently introduced Mac Pro features a distinctive pattern of holes on the front grill… that pattern is very appealing, and re-creating it is a fun exercise.

The best clue about the pattern comes from this page pitching the product. About halfway down, by the heading “More air than metal” is a short video clip showing how the hemispherical holes are milled to create the pattern.

With a bit of trig, you can find half the horizontal spacing x by using the right triangle formed by that line, x and the side of the equilateral triangle. The angle from the vertical center line to the equilateral triangle edge is half of π/3, π/6. So, x=2r tan(π/6) and 2x is the horizontal spacing of the circles.

The blog goes on to use trigonometry to calculate the opposite hole positioning and with some pixel counting, some thickness estimates.

So to CAD this up, all you need to do is start with a rectangular block of thickness t, and use the formulas above to place the centers of the spheres (with diameter 2r) on the front and back of the block.

If you just want to quickly print or look at the result in 3D, there are some sample STL files posted on Thingiverse.

Fast Things 8: The Shape Game and Mrs. Incredible

Imagine the answer to life, the universe, and everything is: donut.

In a world of Fast Things, 3D Printing is the logical production technology. With our technology, you can go from idea to file to part quicker than with alternatives. If your idea, file, or part changes, it will also take you less time to get to a new part. If you want to make a million identical copies of something then injection molding, for one, would be a much better technology. It is very good at making a million of something, once you have made the tooling and the mold. In this instance, injection molding is far cheaper per part. The set up in time and cost is considerable, however. 3D Printing will give you a higher per part cost, but this cost will be approximately the same should you want a million unique things.

In a one size fits all world, injection molding is still king. But, if time, shape or texture force you to make a few of something 3D Printing becomes the only viable option. With 3D Printing, you can produce one or a few of something with a particular shape at a specific time. So the question “when will 3D printing go mainstream” is a fundamentally incorrect one. It is a sure sign of a mind who has not been opened to the fundamental possibilities that 3D Printing will unlock.

When does a computer make sense for adding up sums? For most sums that we do a calculator would still be far superior and faster. A piece of paper and a sound mind would have outperformed computers for a reasonable length of time if the time to input the calculation were taken into account. When does it make sense to buy a computer for adding up things? In isolation, never I should think. Only for niche things like figuring out the yield of a nuclear weapon or the weather would such a device warrant an investment. Unless of course, the advent of such a computing device ignites the imaginations of many to the possibility of adding up the hereto un-addable.

If we start to then think of calculating the cost of all of our products or tracking all of the things that we sell in an efficient way our mind opens to the possibilities of increasing our profitability using computers. Perhaps for calculating stuff, it doesn’t make sense, but if we wanted to calculate everything, it may. The universal calculation machine is, therefore, a receptacle of unmet needs in calculation. The incalculable becomes what drives adoption for such a device. But, at this point, it is the most part, like many technologies, hope, and spielerei.

The thing that starts to make the machine powerful is the realization that the input cards are not just grist for the mill. The stuff that you have to do in order to get the computer to do anything is not only a protocol to be followed. Instead, this is a key to getting a universal calculation machine to in a versatile and rapid manner make all kinds of calculations. The manipulation of software and code is a revolution.

The first revolution of language let us communicate with each other through speech. The second let us store and disseminate writing through Printing. In the third, we learned to speak the language of the universe: maths. The fourth is the language of building in the universe: engineering. In the fifth we learned the language for manipulating the universe: chemistry and the sixth is the language of inception and destruction physics. The seventh language is that now Babylonian mess that is those languages of the computer that let us speak and calculate in all of the aforementioned. 3D Printing combined with CAD is the language of form, the eighth. It lets us at a higher abstraction level at different magnifications describe and create forms that exist, manipulate, and function in the world.

This may all sound a tad vague and perhaps a little bit ganja around the Goan bonfire kind of stuff. I do believe that this metaphor has merit, however. I’ve been trying to explain, unsuccessfully, the impact of 3D Printing for over a decade. And you know what? I suck at it. Even at hype’s apex, people were excited for all the wrong reasons. Yes, this is vague, but at this abstraction level, I can at least make a stab at getting you to understand why nothing will be the same again.

If we create forms, not calculations, drawings, 3D models, databases, then the world is approachable not through data or mathematics but through mimicking, designing, doodling, randomly getting, intuiting, having algorithms make, brute force creating a shape. Imagine the answer to life the universe, and everything is: donut. Imagine that you had no idea how a plane works, but you could make a lighter one by following the same set of rules as you do through making lighter chairs. Imagine that you could take a hole punch to a building and it becomes a better building. Imagine that you could not know any chemistry, engineering or physics but through a random shape generator come up with a better shampoo, nuclear reactor or Formula One engine. Imagine all the bets are off, and all the things are plastic. People often wonder if 3D Printing will make designers obsolete. Well, what if it makes everyone who is not a designer obsolete?

Jeff Bezos has to know very little about fashion to conquer the clothing market. He doesn’t need to know how to make cotton, dye it, or make a sock to sell millions of them. He doesn’t need a clothing brand, a factory, or an ounce of product. Nor does he need to know anything about tea, teapots, knives, closets or watches. He needs people to build him an unending river of commerce that they can then use to sell everything and anything to everyone. Yes, Amazon has marketing people and HR, but their power is through the creation of systems that sell products.

Similarly, Google does not have to know anything; it just has to be able to make coherent all the information that there is through it. Facebook did not need to know you; you would tell it everything so that it could connect you with those that you already knew. In each of these cases, a powerful idea coupled with capital and code became an incredibly large business.

The work in the trenches was done by those who code. Code and the internet shaped these ideas into industry killers. But the internet concerns itself chiefly with access to people and information; stripping the layers of sales channels away to create billions of dollars in reappropriated collated information which now has value for the organizer. There are exceptions of course, but generally, this is the way of the internet. Famously one of the largest hotel booking sites in the world has no hotels, nor do they know how to operate them, nor do they have to buy them. The new way is not only faster but also more efficient because, by design, the startup goes for matching demand, circumventing the problematic and capital intensive stuff.

Imagine in a similar way that you could use the pure form to enter any industry. Imagine that by designing the right shape to solve a problem, you could compete with most products. Imagine that you would not need to understand the shape or the problem or the solution necessarily. The shape only would have to work. I don’t have to understand women, men, love, or dating to have the worlds most successful dating site. My skillset is just in creating a platform that brings enough needs together for them to coalesce into a solution that is better than anyone else’s.

Dr. J.W. Mauchly with the electronic computing machine known as the ENIAC.

3D Printing is technology where we can in a timely way, make a vast variety of different shapes efficiently based on a file or an idea. And should the file, idea or shape not suffice; quicker than alternative technologies we can make a new version. So just like all bugs are shallow given enough eyeballs, all things are shallow given enough eyeballs as well. We do not have to understand your industry, or engineering, or physics, or things to create better solution shapes to your problem. We can simply plug away at it, test and make new things quicker than you. As a code based internet startup leverages attention and users to match solutions we have to in a brute force way to test enough shapes for fitness and then produce the winners. If we intuit a solution or can skip some steps through experience or physics knowledge, that is fine. But strictly speaking, we can be ignorant of anything except for the shape game to ultimately succeed.

Many an engineering, chemistry, or business problem is a shape looking for a solution or a problem looking for the right shape to solve it; and this is the true value of 3D Printing. Don’t be a pirate or a ninja; be Mrs. Incredible.

Flickr: Tom Page, Matt Gibson, Tulio Saba. Richard Gillin, Andy L.

3D Printing News Briefs: June 8, 2019

In this week’s 3D Printing News Briefs, we’re talking about partnerships, new software and buildings, and a neat 3D printed miniature. Together, Evolve Additive Solutions and Evonik are developing materials for the STEP process, while Awexim has partnered with Farsoon in an exclusive sales agreement, and SHINING 3D and 3D Systems released Geomagic Essentials. Oerlikon inaugurated its new R&D and production facility, and a Reddit user posted video of a miniature 3D printed steering wheel that fits on a video game controller.

Evonik and Evolve Partnering to Develop 3D Printing Materials

A little over a year ago, Stratasys spinoff company Evolve Additive Solutions emerged from stealth with its production-scale additive manufacturing STEP (selective thermoplastic electrophotographic process) solution. Now, the company is partnering up with the Evonik Corporation, a leading specialty chemicals company, in a joint development agreement to formulate the thermoplastic 3D printing materials for STEP solutions. Initial efforts will be focused on polyamide 12, PEBA, transparent polyamide, and polymer for the polyamide 6 series, and the two companies also plan to create a wider range of production materials for STEP users in the future.

“Evolve’s entirely new technology approach will allow us to expand the range of applications of our high-performance powder materials, which are produced through a unique production process,” said Thomas Grosse-Puppendahl, the Head of the Additive Manufacturing Innovation Growth Field at Evonik. “With more than 20 years of experience in 3D printing, we will also develop a wider range of customized powder formulations to unlock the full potential of the STEP technology.”

Farsoon and Awexim Sign Exclusive Sales Agreement

Another 3D printing partnership has Farsoon Europe GmbH, which is located in Stuttgart, signing an Exclusive Sales Agreement with Warsaw-based Awexim, which was founded in 1991 as a technical consulting and cutting tools supplier. Awexim’s 3D printing adoption as an official Farsoon Europe sales agent will support Poland’s industrialization of 3D printing with Farsoon’s Open Laser Sintering Systems.

“Farsoon’s strength in industrial Laser Sintering Systems, ideally supports our strategy to enter into the 3D Printing market. We support industrial customers in Poland for almost 30 years with top quality tools, machine tools and especially top quality technical and customer service. We are glad to start cooperation with such solid partner as Farsoon, whose approach and vision is similar to ours,” said Andrzej Wodziński, the Managing Director of Awexim. “This cooperation opens huge possibilities to bring even more solutions for our customers on solving their needs. 3D printing is a future of industry, and we are sure, that connection of Farsoon and our team will have big influence on this industry in Poland.”

SHINING 3D and 3D Systems to Deliver Geomagic Essentials

Chinese company SHINING 3D recently announced that it has partnered up with 3D Systems to launch a new cost-effective scan-to-CAD solution. The two released Geomagic Essentials on the market as a bundled offering along with SHINING 3D’s most recent handheld, multi-functional 3D scanner: the Einscan Pro 2X series.

The Einscan Pro 2X and 2X Plus are lightweight and compact, with faster scanning speeds and higher accuracy. The new Geomagic Essentials bundled offer only increases these capabilities, as the solution is perfect for downstream reverse engineering and scan-to-print applications. While many CAD software programs are limited in terms of what they can do in processing, Geomagic Essentials makes the scan data compatible with native CAD workflows, so designers wanting to integrate part design and 3D scan data can do so with ease.

Oerlikon Inaugurates New R&D and Production Facility

Technology company Oerlikon is based in Switzerland, but it has 170 locations in nearly 40 different countries, including the US. The company provides surface solutions, equipment, and materials processing, and as part of its continuing growth strategy here, recently celebrated the opening of its new $55 million, state-of-the-art Innovation Hub & Advanced Component Production facility in Huntersville, North Carolina. This is Oerlikon’s second location in the state, and the 125,000 sq ft, fully functional facility employs about 60 people and will continue to gradually add jobs as the business continues to expand.

“We are already working with customers in the aerospace, automotive, energy and medical industries in the US, and we anticipate continued growth in those sectors, as well as in others. We believe that additive manufacturing can transform production in many industries, and we are excited that our presence here in North Carolina allows us to better demonstrate those possibilities to our customers,” said Dr. Sven Hicken, Head of Oerlikon’s Additive Manufacturing business.

State and federal officials spoke at the inauguration event, which was attended by employees and their families, in addition to business leaders and customers. Oerlikon presented a local robotics club with a check at the event in order to begin growing collaborations with academic institutions and show support for STEM learning.

Oerlikon Huntersville Event

We had a lot of fun last week opening our new Innovation & Proctuction Hub in Huntersville, NC. Check out what happened on the big day! #OerlikonUSA #OerlikonAM

Gepostet von Oerlikon Group am Freitag, 7. Juni 2019

3D Printed Steering Wheel

Reddit user Malespams recently posted a video of a 3D printed steering wheel in action, but not one for a regular-sized car…or even a car at all, actually. No, this miniature green wheel is made to attach to the controller for a video game system, like XBox, to make it easier and more natural to play racing games. However, not everyone who commented on the video thought that the 3D printed mod would make these games easier. One person said that it would offer “zero control” during play, and another noted that it covered the controller’s right stick and would make it hard to press any buttons,

“I have one, but while it’s a fun concept it covers the dpad so if you’re playing horizon you can’t access Anna m. Sometimes it hits the clutch and messes me up,” user 3202 people wrote. “It’s sometimes fun and I could see people having fun if they got used to it.”

If you’re interested in making your own game controller racing mod, check out this Thingiverse link.

Discuss these stories and other 3D printing topics at 3DPrintBoard.com or share your thoughts in the Facebook comments below.

New CAD Part! Adafruit PyGamer

We’re working on 3d printable cases for Adafruit PyGamer. Check out our 3D hangouts live stream where we demo the prototypes and discuss the hardware.

Download Adafruit PyGamer CAD files

Adafruit CAD Files

Need some 3D models for your enclosure or assembly? We have a parts library of common parts and breakouts hosted on github. These models can be downloaded in different formats like STEP, STL and more. Electronic components like the displays, connectors and more can be downloaded from our parts github repo.

3D Parts Library on GitHub

https://github.com/adafruit/Adafruit_CAD_Parts