Award-winning desktop 3D printer provider Ultimaker has announced that ERIKS, an international industrial equipment supplier, has scaled up its 3D printing capabilities for OEM and MRO customers using Ultimaker 3D printers.
At its production facilities in Alkmaar, The Netherlands, ERIKS has installed multiple Ultimaker S5 Pro 3D printer bundles. Leveraging the systems, the company has provided its customers with support in identifying, designing and printing applications. With a focus on co-engineering, the company has been able to 3D print parts alongside its customers according to specific industry standards, especially in regards to food safety and cleanliness.
Such a process, Ultimaker claims, has made it easier for professionals working in MRO and OEM industries to adopt 3D printing technology. Jos Burger, CEO at Ultimaker, explains: “As shown in the 3D Printing Sentiment Index, only 35 percent of companies have adopted additive manufacturing, while in many industries worldwide margins are currently under high pressure. Efficiency is key to bring a competitive edge and 3D printing plays a major role in this, as ERIKS experienced first-hand with achieving their impressive cost-and time savings.”
Markforged, a startup manufacturer of metal and carbon fiber 3D printers, announced earlier this month what it calls the only reliable, affordable, and safe way to 3D print copper. For the company’s Metal X system — a patented platform that rapidly prints 3D metal — pure copper has been added as the latest metal to join its lineup of materials that include aerospace superalloys like Inconel 625, 17-4 PH stainless steel, H13 tool steel, D2 tool steel, and A2 tool steel.
Founded in 2013 in Watertown, Massachusetts, Markforged said 3D printing copper parts on-demand will drive new manufacturing and supply chain efficiencies for customers — leading to reduced lead times and part costs, as well as eliminating the need for costly inventory. Now with copper capabilities, the company said using the Metal X provides an easy and fast way to produce geometrically complex copper with high electrical and thermal conductivity.
3D Printing Industry asked 100 additive manufacturing leaders to identify how 3D printing will develop during the next ten years. In our article last week, we took a look at the near term trends in 3D printing to watch for 2020. This new article draws on insights from additive manufacturing experts across the globe to understand where our industry is heading.
Will AM herald the disruption of manufacturing as we know it? While major change is likely to be slow, with this longer time horizon, it may be useful to consider the role of governments in supporting new industries.
During this month’s AM Focus Automotive, we are mapping out the most accurate and up to date scenario for automotive additive manufacturing in final part production. We present an analysis of the latest progress made by each major automaker group and some of the key activities—either publicly disclosed or confirmed by reliable sources. Here’s a look at BMW additive manufacturing. In the previous episodes, we looked at Volkswagen, General Motors, Daimler Benz and Ford. Still upcopming: PSA, FCA and JLR.
MakerBot, a global leader in the 3D printing industry, can be seen within the rapid prototyping processes of several industry powerhouses, such as Lockheed Martin and KUKA Robotics. Recently, MakerBot’s experts became concerned by the disparity between desktop and industrial solutions, and the impact this was having on the adoption of 3D printing. In this feature, Dave Veisz, VP of Engineering at MakerBot, discusses this technology gap and what the industry is doing to overcome it.
Rapid prototyping is a staple of every designer and engineer’s workflow—essential for testing new concepts, verifying designs, and meeting increasingly aggressive time-to-market goals. Regardless of the industry or product, all engineers must consider the speed, accessibility, cost, and output of these additive manufacturing equipment. Additive manufacturing technology, in its many forms, has been synonymous with rapid prototyping, and its prevalence has only increased as the technologies have improved.
What would you say is the sleeper technology of the decade? My vote goes to additive manufacturing, aka 3-D printing.
This technology is coming of age with interested businesses, via their R&D departments, primarily looking to accelerate their product development cycle according to data from The State of 3-D Printing from Sculpteo, but there is so much more to the story. Let’s take a look at how this technology is about to change the manufacturing world and beyond.
The fifth Innovation Food Conference — iFood 2019 — will be held at Anuga in Cologne, Germany, in October. Suitable for food retailers, technologists and manufacturers, the conference aims to jointly work out approaches for the development of efficient value chains for sustainable and attractive products.
Speakers at the iFood conference will discuss the ecological, social and economic dimensions of sustainability, addressing issues such as ethics, animal welfare, resource efficiency, consumer health and food authenticity.
Presentations about digitalisation will encompass many topics pertaining to the food industry. The conference will question what digitalisation offers to the food industry in terms of transparency and traceability, and the role of artificial intelligence within the food industry. Experts will provide insights into the economic impacts and opportunities of digitalisation, alongside discussing topics such as blockchain.
In doing so, the teams, which also includes the 7th Engineer Support Battalion (ESB), tested a new continuous mixer and a three-inch print nozzle to additively manufacture multiple structures, such as barracks and a bridge.
“This is really the first time we’ve ever printed something large with this system. It is experimental right now and we are trying to push the technology forward,” stated Megan Kreiger, project lead for the Automated Construction of Expeditionary Structures (ACES) at CERL.
3D printing of food is turning from pipe dream into commercial reality, as nutrition supplements firm Nourish3d is about to prove.
While the idea of 3D printed food might still seem in the realms of a sci-fi novel, the technology s very much present and already being deployed by, in particular, baking industry professionals for cake or pastry decoration.
At present, the technology is limited and relatively expensive, with the lowest cost of a 3D printer being around $1,000 (£784). Using extrusion, current 3D printers can only handle paste or puree ingredients, such as chocolate, cream or batter. However, the technology is beginning to gain traction, with users understanding how it can help to meet changing demands from consumers.
elix Printers has launched the Pro 3, L and XL platforms for industrial production applications to meet the changing needs of the industry.
The shift of the manufacturing workflow to incorporate additive manufacturing in many industrial sectors has led 3D printingmanufacturer, Felix Printers, to develop products and features to serve the changing needs of industry, paying careful attention to detail and listening to customers. The Pro 3, L and XL platforms for industrial production applications were launched end 2018. According to Felix Printers, Pro 3 integrates seamlessly into industrial workflows, be it in the office, workshop, laboratory or factory environment. The 3D printer produces optimised print results repeatably. The L and XL platforms are for greatly increased build volumes of up to 144 litres. Pro L is said to be able to build parts of up to 300 x 400 x 400 mm (11.8 x 15.75 x 15.75 in.), while Pro XL has a build chamber of 600 x 400 x 600 mm (23.62 x 15.75 x 23.62 in.), Felix explains.
According to the company, the larger systems incorporate highly engineered print chambers, which incorporate an enclosed warm zone and a cold zone, to ensure quality and reliability. The warm zone supports consistent temperature control during the build, which is particularly important when printing materials with a high shrinkage factor, such as ABS, carbon fiber or nylon. In contrast, the cool zone is where the electronics are housed, which prevent overheating and subsequent machine/build failure.