Protolabs

Kreatize

It was the mid-90s and the construction market was booming. This was a game changer for the surveying industry. &nbsp;Two companies in different countries would partner to rapidly develop a new hybrid product combining the best of traditional optics technology and the powerful benefits of the rapidly expanding survey grade GPS market.&nbsp;This was product development at its finest. &nbsp;We were developing the most compact survey grade GPS unit to date with a small team at Trimble Navigation&rsquo;s Mapping and Survey Division. &nbsp;Other competitors were trying to do the same thing and their projects weren&rsquo;t far behind ours. &nbsp;We had to be the first to market with a reliable unit, but before that there would be several challenges and a great learning opportunity for myself as a young engineer.&nbsp;The first challenge was entering a heavily integrated design effort between two international businesses. To put it into perspective, cultural awareness classes for key executives were still a relatively new and limited idea. &nbsp;My course lasted a total of 10 minutes. &nbsp;I think my manager worried I would cause grave insult and kill a multi-million dollar contract during the introductions stage with our large Asian corporate partner. &nbsp;I listened closely to the etiquette lesson around exchanging business cards and then practiced my card exchange dexterity.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1586969454261-1.jpg"><figcaption>Internal components shown. Not much room for shrinking.</figcaption> Our first preliminary design review would be here in the US, with a translator from the sales department. &nbsp;Filled with plenty of concern regarding the social interaction side of a technical meeting, I focused on the technical side. &nbsp;Once I began the technical presentation I quickly found that visuals, mock-ups, CAD models and the physical challenges of the design were universal languages themselves.&nbsp;This emphasis on visual communication combined with talking slowly and minimally as I had been advised, resulted in myself and our four foreign visitors not really needing a translator. &nbsp;It was an enlightening experience. While the business portion of the meeting had seemingly required rigorous translation; the creative efforts side, and any project development challenges, were understood regardless of the continent of origin.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1586969056156-2.jpg">More modern Trimble GPS productsThe second challenge was that someone had pre-dictated the size, mounting type, interconnections and the look of the never before developed GPS receiver. Some of these choices were well designed, but big gaps from rendering to reality existed for sealing, implementation of the design, and the ever present challenge of &ldquo;Everything won&rsquo;t fit inside&rdquo;.&nbsp;It was up to me to figure how it would all come together if the young electrical engineering I was working with could actually get everything onto the tiny processor boards. &nbsp;To properly put it into perspective, most survey grade GPS receivers of the time would not fit into one hand let alone two, and you were not going to be able to wander outside and quickly use your smart phone as a survey grade GPS receiver for about another 10 years. &nbsp;The unit we were creating had to have full survey level multi-channel GPS signal processing and had to be smaller than a cigarette pack&rsquo;s volume. So the challenges kept coming. The product would have to leverage off of a couple unique technologies and custom designs to make it all fit. &nbsp;We would implement a new gasket material and a kind of new plastic housing coating to shield for EMI interference and cross talk, selectively. &nbsp;Cross talk was a big concern then in the GPS world as pogo pin interconnections were not available at that time. &nbsp;This was before people had cell phones with replaceable batteries or before minivans had those cool connections in the doors to give the back seat riders all kinds of buttons to push. &nbsp;To solve this we developed custom pogo pin target contacts with our favorite cable vendor of the time, ensured they could be easily assembled to the custom plastic housings and we left a trough on the inside of the plastic wall where the custom contacts could be easily potted to seal them for the rugged GPS receiver. &nbsp;This provided a low profile and low cost solution. &nbsp;The key lesson on all this was taking relatively new but proven technologies, and working with the vendors to get timely and cost effective units, instead of making the whole product bigger.The product looked like the rendering, which usually does not happen. &nbsp;However; our size was still impacted by the sealed RF connector but we had generally met the envelope with our application of customized solutions. &nbsp;Hearing the good news the client partner company met with us again.The third challenge came in the next meeting. They were happy with the refinements, but now they wanted to know, after all this, if it could be smaller, a lot smaller. &nbsp;We commented on the limitations we had overcome and the possibilities. &nbsp;Much of the schedule had already elapsed. &nbsp;The elephant in the receiver was the RF connector but the risk would be greater loss of the GPS signal through a smaller connector if size reduction was to be achieved.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1586968514288-Harris-New.jpg" style="width: 788px;" class="fr-fic fr-dib">After much discussion on all this in two languages, the lead of the other company shook his head, and looking down said, in English, &ldquo;There is no gain without great risk.&rdquo; &nbsp;This moment was kind of one of those time slows down moments. &nbsp;Unknown to me, and in part to Trimble Navigation, the foreign partner company had put tremendous pressure on their team to meet schedule, and they were behind on their side. &nbsp;The new reduced size change would not come with enough funding or time in the schedule added. &nbsp;I and the poor electrical engineer would be relegated to &ldquo;re-doing&rdquo; the design, just smaller, with a lot of the effort done on our own time.There was a silence in the room with a visible burden on the other company&rsquo;s project lead. &nbsp;The pressure for a more compact product balanced with quality risk and schedule slip, and after his wise statement, the kind of thing you might see in an inspirational picture of a climber on Mount Everest, hung in a corporate hallway, I could no longer be quiet and I added to his, &ldquo;There is no gain without great risk,&rdquo; &ndash;&ldquo;Just like in life.&rdquo; &nbsp;Another moment of silence, but then a smile, a chuckle from the lead of the other company and for some reason they did not request the size reduction. All it took was a simple remark to sway a decision that could have cost us time and efficiency.From there we built prototypes and we had sub-components in the pipe line to avoid availability lead time delays. &nbsp;I had a small inventory of key parts on hand. &nbsp;We released documentation sets, which in those days had to be printed out, hand stamped for authenticity, and mailed to the parties concerned. &nbsp;The prototypes were testing out well in the custom fixtures we designed and fabricated. &nbsp;The smallest survey grade GPS receiver drew many onlookers from within the company and caused a bit of stir among those who were allowed to know about it.We had tooled plastic parts, which we had worked very hard on to ensure a timely delivery of. We were on time and had budget left over. But ultimately our partner overseas fell too far behind on their side with their part of the product development. The project was cancelled.We packed up the units we had built and sent them off to the client. &nbsp;They would be stored away on the very slight chance the project ever came back to life.In hindsight, it almost seemed to have gone too well for us but we would not be seeing the small GPS receiver we designed along the road side surveying the next new business complex. The GPS market would keep growing with or without us.In the long run it had ended up being a fantastic set of challenges for a young team of engineers to learn from, all compressed into one project and pretty short schedule, with lessons that could be applied to many projects to come, for the next cutting edge product development.

Stories From the Early Days at Trimble

3 Challenges of Cutting Edge Product Development

Four trends are setting the scene for 3D printing to become ever more versatile and deliver products that are closer to end-use, production level

Trends in 3D Printing

The fourth industrial revolution and the technologies that create it explained: The whole is bigger than its parts.

Industry 4.0 Deep Dive. Part 1: Introducing smart manufacturing

I&#39;ve covered different ways automobile manufacturers are benefiting from the advantages <a href="https://www.3erp.com/services/3d-printing/" rel="noopener noreferrer" target="_blank">3D printing</a> brings to the forefront. As technology is gaining a more mainstream foothold within the automobile industry, many companies are taking note, but many are using it in different capacities and for various purposes. These needs can encompass anything, from tools to spare parts/supply chain management to end-use parts and even full cars.It&rsquo;s interesting to see how far the technology has come, how it&rsquo;s employed by the big names in the industry and where they see it going fort their future production chains. This article aims to provide insight into the many ways some of the biggest automobile manufacturers in the world use 3D printing in their workflow.<h1>BMW</h1><img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577987804482-bmw-prototype.jpg" style="width: 1114px;" class="fr-fic fr-dib">As most 3D printing is used for smaller volume production runs, there is a lot of room for customization and adding complexity using the unique elements that 3D printing allows. BMW is no stranger to such forms of design and manufacturing, employing 3D printing in pre-development, vehicle validation, and testing, or in concept and show cars. They employ the technology for larger volumes, but smaller production runs allow them to personalize products precisely to their customer&rsquo;s needs.The company has been prolific in their use of additive manufacturing, noting that they potentially see &ldquo;great future potential for serial production and new customer offers&rdquo; (according to BMW&rsquo;s experts in Germany). They&rsquo;ve been using the technology to enhance both plastic and metal components. They&rsquo;ve most famously been working with HP to produce products on their large scale manufacturing systems.Like many other companies on this list, BMW has been using it as a means of producing parts that other technologies cannot create. A good example of this is the i8 Roadster&rsquo;s top cover. Making the mounting for this component would not have been possible using a traditional casting process. Aside from expanding the design possibilities, the 3D printed car part is more durable and it also weighs less than previous iterations.Similarly, BMW unveiled the iFE.20 Formula E racer with a 3D printed cooling shaft manufactured from flax fibers. The part was shown off at the end of 2019. Compared to the usual carbon materials, flax has greater absorption and greater impact resistance, which can be advantageous on the street circuits with their bumps and crash barriers, on which Formula E takes place. This made it the first BMW racecar fielded by a work team with parts made out of renewable textile fibers, also making it environmentally friendly.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577987841677-gloves-prototype.jpg">BMW&rsquo;s Gloves With Protected ThumbThe company uses 3D printing for tooling and safety as well. A good example of this is the specialized gloves they use to finish off the stoppers for drain holes. These stoppers have to be manually set with the engineer&rsquo;s fingers, which means a lot of strain on the thumbs. Luckily, they came up with the 3D printed solution that could be fitted onto the work gloves.Even aside from their work on their own automobiles, the company&rsquo;s engineers have been lending a hand to outside projects. One example is the development of the bespoke 3D-printed seats for the British Paralympics Basketball team. Using 3D body scans and the latest in additive manufacturing, BMW&rsquo;s engineers constructed a whole fleet of wheelchairs allowing for players to display a more advanced level of athletic prowess.<h1>Ford</h1><img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577987898671-Jigs-and-Fiextures.jpg">Ford&rsquo;s Jigs &amp; FixturesAs far as commitment to 3D printing goes, Ford is running headfirst into embracing the technology. The company set up an additive manufacturing center and employed its operations extensively into their workflows. In terms of creating plastic and metal prints, they&rsquo;ve had a long-running partnership with various companies such as Ultimaker, Stratasys and GE Additive, who provide machines for all sorts of AM applications across the production chain.They also use 3D printing to cut cost and time for tooling, as the company found that it was quicker to make their own parts on the facility as opposed to waiting for suppliers and other such things. They also apply these same principles to jigs and fixtures, which they develop in facilities all over the world.They&rsquo;ve expanded their 3D printing operations over the course of the past few decades, manufacturing both metal and plastic components. As the company states: &ldquo;In the last few decades, Ford has printed well over 500,000 parts and saved billions of dollars and millions of hours of work. Where it would have taken 4-5 months and cost $500,000 to produce a prototype with traditional methods, a 3D printed part can be produced in a matter of days or hours at a cost of a few thousand dollars&rdquo;.Similarly, Ford&rsquo;s various subsidiaries have been showing off their AM chops, most notably the design teams behind the Shelby GT500. This year, they 3D printed the most promising designs for the new GT500 in a matter of days, which sped up the improvement and testing stages immensely. This pace allows them to rapidly tweak the Shelby GT500 little by little, bringing in new physical designs at breakneck speeds. They also developed a new spoiler-wing hybrid design that the team is calling &lsquo;the swing&rsquo;. This new design is a prominent factor in the GT500&rsquo;s impressive aerodynamic capabilities.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577987952613-engine-prototype.jpg">EcoBoost EngineThe company set another major 3D printing milestone back in February. Their Ford Performance division, dealing with high-performance components, 3D printed what they claim is the largest metal automotive part for a working vehicle in automotive history. The metal part was installed in the Hoonitruck, a 1977 Ford F-150 with a twin-turbo 3.5-litre V6 EcoBoost engine. The part itself is an aluminium manifold inlet, printed using GE Additive&rsquo;s Concept Laser X LINE 2000R.<h1>Volvo<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577987985331-volvo.jpg" style="width: 1114px;" class="fr-fic fr-dib"></h1>While not the most prominent user of automotive 3D printing, Volvo has been making great strides on this front in recent years. Much like a lot of the other companies on this list, Volvo has been using 3D printing for tooling and supply chain management. The use of 3D printing has particularly been useful in restocking the company&rsquo;s machines with new prints for out of production parts. Volvo is mostly using 3D printed plastic parts and is looking towards the implementation of metal ones in the near future.As of 2018, the company was using additive manufacturing primarily for prototyping and tooling. &ldquo;As we only need to produce low volumes of parts for prototyping, it&rsquo;s a good way to see what works,&rdquo; says Fredrick Andersson, Development Engineer for Wheel Loaders Powertrain Installation at Volvo CE [construction equipment]. &ldquo;We have a lot of knowledge and we can make changes quickly and easily with 3D printing. And because of this, it means that the time to market for a new product is quicker, so it&rsquo;s of great benefit to our company.&rdquo;The increased speed of prototyping has been massively helpful to the company, as various new tech they were testing proves. For example, Volvo engineers designed new water pump housings for the company&rsquo;s A25G and A30G vehicles. They ran simulations as a means of optimizing the design of internal flow passages in the housing, but needed to build a prototype to perform functional testing to validate the new design. The tooling cost for this project would have been approximately $9,090, with the part cost around $909. The lead time for producing the prototype would have been 20 weeks minimum. On the other hand, 3D printing the prototype cost $770 and took only two weeks.However, in 2019 the company upped the ante in terms of its AM processes, particularly with its Volvo Trucks branch. Their New River Valley (NRV) plant in Dublin, Virginia made quite a few headlines this year among the manufacturing world. They primarily use SLS but have also dabbled in other AM methods. This particular facility produces over 500 manufacturing tools and fixtures in use on the shop floor produced using 3D printing. The facility is also a major hub for North American automotive engineering.Aside from commercial automobiles, the company also develops construction equipment. Sure enough, 3D printing has also made its mark on this aspect of the company&rsquo;s operations. Volvo applied 3D printing in re-tooling their articulated haul trucks, and thus cutting down the cost of prototyping by a tenth. This also allowed them to reduce the time spent from 20 to merely 2 weeks.<h1>GM<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577988029323-GMC.jpg" style="width: 1106px;" class="fr-fic fr-dib"></h1>General Motors, and its various other branches, are major users (and developers) of 3D printing technology. As of 2018, GM was saving $300,000 a year on tooling and is making sufficient advances towards the development of new technologies using alternative fuel sources. The leading automaker&nbsp;announced last year it plans to launch 20 new electric and fuel cell models globally by the year 2023.Although their 3D printing operations have largely been about prototyping, they are expanding. The company further plans to scale up their printing operations to produce &ldquo;tens of thousands of parts at scale as the technology improves,&rdquo; according to Kevin Quinn, director of additive design and manufacturing at GM. This plan is likely to unfold over the next 5 years.The company&rsquo;s Warren Tech Center produces roughly 30,000 prototype parts each year. The parts consist of at least nine sorts of materials, employing combinations of plastics and metal and powders. They are primarily used for prototyping but the company is also looking at end-use parts. They also co-own HRL laboratories with Boeing, who ended producing a 3D printed Aluminum alloy.Dan Grieshaber, GM&rsquo;s director of global manufacturing integration, stated the majority of GM&rsquo;s factories have 3D printers now. The company plans to increase it even further, at least within their North American factories. The move is likely to save GM millions of dollars in production costs annually. GM has long been an investor in 3D printing and it&rsquo;s various sub-branch technologies. They are applying it for the rapid building of tools and accessories for workers in their plants. Just this year, the company stated that the implementation of a $35,000 3D printing machine has saved the company $300,000 over two years. While tooling production is the primary role that the printer plays, it may be possible that the company will increase the role of additive manufacturing in their daily operations.<img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577988053340-Bracket-Prototype-1024x683.jpg" style="width: 1109px;" class="fr-fic fr-dib">Their partnership with Autodesk has been beneficial in manufacturing lightweight 3D printed parts that could help the automaker meet its goals to add alternative-fuel vehicles to its product lineup. Also part of this same collaboration, in 2019 both companies showed off 3D-printed seat bracket made of stainless steel and developed with the Autodesk technology.Early in 2019, GM was looking at a novel new design application for 3D printing. In collaboration with Michellin, they were looking to produce a new type of tyre with superior durability. The Uptis tire is still a work in progress but the companies have moved on to the testing phase. They claim the tires would be 100 percent sustainable, resistant and able to last even longer. They are also a much greener alternative, with less waste during production. Recently, engineers were using a fleet of Chevrolet Bolt EVs to test the new tires in Michigan, and have floated the possibility of making them available to the public in 2024.<h1>Porsche</h1><img src="https://s3-us-west-1.amazonaws.com/wevolver-project-images/froala%2F1577988098320-Porsche-1024x576.jpg" style="width: 1108px;" class="fr-fic fr-dib">Porsche has been using 3D printing for a range of different purposes, from major components to reinventing the supply chain for their older models. Porsche is currently using 3D printing to produce very specific spare parts, but not that extensively. This is due to the stringent quality standards they need to conduct to ensure the safety is up to scratch. The company also works with a lower overall number of units produced as they are more of classic and luxury car brand.For the development of out of production components such as the release lever for the clutch on the Porsche 959, the company employs laser melting. They make use of powdered tool steel and get the part out far more efficiently than it would be otherwise possible with alternative methods.The use of 3D printing has also allowed the company to move towards on-demand printing, allowing for far lower costs associated with materials, transportation and storage. This is also beneficial as these parts are not in greater demand and are often expensive to keep in constant production. Porsche has most famously been working with Markfordged on reviving these classic parts.Mainly, they use SLM and SLS for the various parts they need to produce. Porsche has stated that the 3D printed parts are superior to the older ones in many cases. While they are printing a limited number of parts currently, they have been expanding the portfolio since 2018 and testing future components.If you have questions, or feedback, feel free to leave them below in the comments.<hr>Sponsored contentThis article was created in partnership with 3ERP. If you are interested in sharing sponsored content on the Wevolver platform email us at richard [at] wevolver.com. Wevolver reaches more than 6 million young, professional engineers and engineering students every month. To learn more visit our &quot;<a href="https://www.wevolver.com/marketing-solutions" rel="noopener noreferrer" target="_blank">Marketing Solutions</a>&quot; page.

This article aims to provide insight into the many ways some of the biggest automobile manufacturers in the world use 3D printing in their workflow.

How 5 Major Automobile Manufacturers Use 3D Printing

What is DLP is a 3D printing? This article aims to provide an in-depth understanding of DLP 3D printing, its working principles, advantages, limitations, and diverse applications in various sectors.

digital manufacturing

ORGANIZATIONS.

SHAPING THE INDUSTRY.

Protolabs

MacroFab

Rowse

RPWORLD

Sculpteo

Latest Posts

3 Challenges of Cutting Edge Product Development

Trends in 3D Printing

Industry 4.0 Deep Dive. Part 1: Introducing smart manufacturing

How 5 Major Automobile Manufacturers Use 3D Printing

DLP 3D Printing: Exploring Technology, Challenges, and Applications