Freeform Injection Molding Service by Mitsubishi Chemical Advanced Materials

Previously Danish startup Addifab had announced that it was working with its investor Mitsubishi Chemical to develop and offer more materials for its Free Form Injection Molding process, which combines injection molding with 3D printing. Now, Mitsubishi Chemical will be offering FIM as a service.

With Addifab’s process, molds are 3D printed out of photopolymer resin and then cured. This mold is then filled and later dissolved similar to lost wax casting. Because it uses molding, Addifab makes it possible to perform short-run manufacturing with many more materials than are possible with just 3D printing. Start-up costs are lower than actual molding and the lead times are faster, as well. Especially if you work with materials in conventional molding that you just can’t get in 3D printing, Addifab would be a boon. At higher volumes, conventional molding would be more advantageous, of course, and 3D printing would be possible in a lot of geometries where Addifab would not be. Like other technologies such as RIM (reaction injection molding), Thermoforming, thermoplastic injection, and cast Urethane, Addifab provides an alternative for runs between 1 and 10,000 parts.

Mistubishi Chemical will begin by offering FIM services at three locations worldwide: Mesa, Arizona; Tielt, Belgium; and in Tokyo, Japan. The Japanese chemicals giant will offer FIM as a service in Arizona in early Q3 and somewhere toward the end of the year at the other locations.

Randy White, Chief Innovations Officer, Mitsubishi Chemical Advanced Materials, said of the partnership:

“Mitsubishi Chemical Advanced Materials is leading the field of metal replacement polymers. We quickly realized that Freeform Injection Molding would allow us to offer entirely new levels of light-weighting, and we have been working with AddiFab to bring our KyronMAX materials onto the FIM platform. When we were able to drive an 8,000-pound pick-up truck onto a KyronMAX lattice weighing only 70 grams, we knew we were onto something”.

AddiFab CEO Lasse Staal noted:

“We have brought 3D-printing lead-times and start-up costs to the injection molding industry, without compromising on the choice of materials”.

An Addifab mold and the resulting ABS part.

The company is primarily targeting this replacement service at the capital goods industry. It seems to have identified a need and market for machine tool makers, process equipment vendors, and the machinery industry for just the types of parts that Addifab can make. Spare parts have always been a huge imagined opportunity in 3D printing, much funded by the EU in particular.

It is very nice to see a company target this market commercially. Consumables and spare parts are a huge market in the industrial sector. The replacement parts market is not transparent or indeed really global. Often logistics or warehousing unpopular parts is a huge cost element and the combination of Addifab and Mitsubishi Chemical Advanced Materials could bring real change to such a market. Spare parts, consumables, and replacement materials on demand could be a very interesting business model. For now, in certain geographies for certain parts, it could make sense.

If designers and engineers take replacement through Addifab into account during the design stages, then things could really get interesting. Firms would have less of an outlay in certain parts initially. Less upfront investment in part development may improve cashflow in some cases or at some times. Firms would still have to make sure that they wouldn’t overpay in parts, however. An entirely or partially outsourced, or flexible, replacement parts service would be a considerable advantage to many firms. Companies would have much less capital tied up in spare parts. It would also be easier for them to develop specialized and niche versions of existing products, while still being able to support them.

PMMA, PBT and ABS Addifab parts.

Will the new service only work with OEMs? That could be the case, but if it does not, then we may see other firms get into the spare parts business. By making it relatively straightforward to make spares and by democratizing molded parts, it could be easier for service companies, for example, to get into the spares business. If I already service trucks in Indonesia, I could now offer less expensive spare parts for those trucks to my existing customers. Likewise, someone could offer much less expensive spares in the Chilean bus market or for the industrial machinery of one particular company. Capital goods and industrial B2B markets are considerable in revenue and value, but do not often experience the glare of the media or of new disruptive technologies. Overall, this seems to be a particularly timely and well-chosen market entry into a high volume opportunity of many parts.

Generally, we can see chemical and polymer companies increasingly toy with the idea of moving from selling chemicals and polymers to parts. Victrex, for example, has moved towards a service model whereby, for some medical parts, it sells the components themselves and not resin. While still staying in the PEEK business, Victrex’s Invibio unit moves up the food chain and is now helping people develop and get approval for medical devices made out of PEEK.

Is this a similar move by Mitsubishi? In some ways it is, but, rather than carve out a niche that it won’t let others into, the Japanese company has extended its offering into more parts as a service. Such an approach would seem to make a lot of sense. There are much higher margins to be found in parts and one can work more on developing a, by its very nature more strategic, relationship with customers. By moving away from bulk and even specialty chemicals toward parts, polymer and chemical companies could be doing their bottom lines a whole world of good.

The Addifab Printed Molds

Molds Being injected.

Finished Parts.

There is risk: perhaps existing customers could feel alienated because their supplier now competes with them? This has happened before in 3D printing, for example, with OEMs who have started services. If their existing business was adjacent, then such a move could lead to a decline in some revenues that hopefully would be compensated by parts revenue. If Mitsubishi has been careful to avoid that issue, then their move of helping a company it has invested in with entering the global service business through making parts out of Mitsubishi polymers seems like a very solid play aimed at a more end product oriented future.

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atum3D & Mitsubishi Introducing UV Resin for DLP Station 3D Printers at formnext

At formnext 2017, not long after announcing new partnerships and resellers the same year, Netherlands-based digital light processing (DLP) specialist and 3D manufacturing leader atum3D introduced its DLP Station 5 3D printer – the upgrade to its DLP Station 4 system. At the 2018 formnext event, the company introduced an open resin platform for the 3D printer.

Now, ahead of next month’s formnext 2019, atum3D, along with Mitsubishi Chemical Corporation, has announced that the two companies will present a newly developed UV resin for the DLP Station printer at the event.

“atum3D is proud to collaborate with Mitsubishi Chemical, an experienced and renowned company for UV resins,” stated Joep Koopmans, the Manager of Business Development and Partnerships at atum3D, in a joint press release. “As an instrumental part of the integral application solution that also includes hardware and software, we believe this technologically advanced material offers new opportunities for short lead times, fast design and development iterations as well as local, just-in-time production of automotive interior parts.”

Tokyo-based Mitsubishi Chemical, which employs more than 40,000 people at 351 affiliates in over 30 different countries around the world, offers a wide range of chemistry-based solutions that help solve environmental and social issues. The company is an expert in formulating and creating UV resins, which enable parts to be 3D printed without ridges, and in one piece instead of multiple ones.

“I’m glad to have such a professional partner like atum3D on board to develop the materials our customers demand,” said Dick Hoogerdijk, the Director of Marketing and New Business Development at Mitsubishi Chemical Europe. “This new development shows the commitment of Mitsubishi Chemical to become one of the leading suppliers in the 3D printing sector.”

By matching up Mitsubishi Chemical’s UV resin proficiency with atum3D’s know-how in combining its own 3D printing hardware and software with chemical expertise to create customer application solutions, the 3D industry is seeing a pretty great match. This also marks more expansion by Mitsubishi into SLA and DLP from its previous activities in FDM. This new UV resin is the first result of the partnership between the two companies, which began last year.

atum3D’s DLP Station 5 3D Printer

Diabeam, this new UV resin for DLP 3D printing, has specific properties for both heat and impact resistance, which are normally not easy to attain in photocurable resin materials. The resin can solidify under a 365 nm light source, and also has a high scratch resistance – great for 3D printing covers and frames for automotive interiors and long-lasting interior trim parts.

The DLP Station 5 3D printer is available in both a 365 nm wavelength option and a 405 nm one as well, and its open resin platform allows users to select different resolutions and wavelengths. It has a resolution up to 6 µm after Tolerance Tuning, and features increased accuracy, consistency, and speed when compared to the DLP Station 4.

To see the new Diabeam UV resin for yourself, and learn more about its possible applications, you can visit both companies at formnext 2019 – atum3D will be at booth B19 in Hall 11.1, while Mitsubishi Chemical Europe GmbH will be located at booth B139 in Hall 12.1.

What do you think about this? Discuss this story and other 3D printing topics at 3DPrintBoard.com or share your thoughts in the Facebook comments below.

The post atum3D & Mitsubishi Introducing UV Resin for DLP Station 3D Printers at formnext appeared first on 3DPrint.com | The Voice of 3D Printing / Additive Manufacturing.

The Virtual Foundry quietly prints its way across the periodic table using common 3D printers

Building on its patent issued on August 13, 2019, The Virtual Foundry continues to expand its 3D printable materials offerings with an impressive trip across the periodic table of the elements. The Virtual Foundry currently stocks about 20 materials, including Titanium 64-5, Stainless Steel 316l and 17-4, Aluminum 6061, Iron (high magnetic permeability), Copper, Bronze […]

Mitsubishi Heavy Industries Machine Tool Company Commercializes New Metal 3D Printer

[Image: TRAFAM]

A new metal 3D printer developed by Mitsubishi Heavy Industries Machine Tool Co., Ltd. – a group company of the Japanese industrial firm Mitsubishi Heavy Industries, Ltd. (MHI) – has just been commercialized. Recently, the first commercial unit of the LAMDA 200 system, developed through a research project between the New Energy and Industrial Technology Development Organization (NEDO) and the Technology Research Association for Future Additive Manufacturing (TRAFAM), was delivered to the Industrial Research Center of Shiga Prefecture in Ritto.

The commercial metal system uses a proprietary Directed Energy Deposition (DED) method – metal powder is fed continuously by nozzles to the laser fusing point. By altering the composition of the materials, the LAMDA 200 is able to laminate metals with precision and at high speeds.

A few years ago, TRAFAM began utilizing MHI Machine Tool’s accumulated laser and positioning control technologies in order to develop a next-generation prototype metal DED 3D printer. This unit was finished in the fall of 2017, at which point the organization began an advertising campaign that targeted full-scale marketing. Now, the commercial entry model of this metal DED 3D printer has been officially launched.

The commercial LAMDA 200 3D printer is dedicated to fabricating small part prototypes. The system uses laser beams, which are emitted through dual nozzles, to pass through metal powder and cause fusion at the focal point. The movement of the two nozzles causes the printer’s progressive additive manufacturing. According to MHI, the 3D printer’s molding speed is over ten times faster when extracting a formed object than powder bed fusion printing is, which helps suppress metal powder waste.

MHI Machine Tool and the Industrial Research Center of Shiga Prefecture will work together to create metal additive manufacturing innovations. Just this month, the Centre established on its grounds an Advanced Monozukuri Prototype Development Center, which is where the new LAMDA 200 metal DED 3D printer will be installed. Here, it will be used to support new product and technology development of companies working in the traditional Japanese concept of craftsmanship known as monozukuri. Together, the Centre and MHI Machine Tool will work to increase proposal-based sales routes, as well as gain further recognition of the commercial LAMDA 200 in the manufacturing industry and develop new user applications.

According to an MHI press release, “Because it is possible to perform additive manufacturing to a part’s surface by way of repair, to double-laminate different metal powders, and to manufacture large parts, significant expansion of applications is anticipated through innovations during the processing phase and combined use with other machine tools.”

Inevitably, maintenance issues and complaints about quality management of metal materials regarding the new DED metal 3D printing system will come up as the LAMDA 200 is increasingly adopted. That’s why MHI Machine Tool is also working to create feedback monitoring capability that will monitor and stabilize the system’s status automatically, in addition to a shielding function that will be needed when manufacturing titanium alloys and other metals that will be used in aviation applications.

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Mitsubishi develops precision metal 3D printing using “dot forming” DED technology

the dot forming Direct Energy Deposition (DED) system by Mitsubishi. Image via Mitsubishi Electric.Mitsubishi Electric Corporation, a Tokyo-based electronics manufacturer, has announced the development of precision metal printing with “dot forming” Direct Energy Deposition (DED). According to the company, the latest innovation will increase productivity by manufacturing near-finished parts for the automobile and aerospace industry. The new 3D system will be demonstrated on the 1st of November, at the 29th […]