Podcast: Desktop Metal’s comeback and the future of binder jetting in manufacturing
Key Highlights
- Desktop Metal’s new strategy centers on material science, ROI-driven innovation, and academic collaboration.
- Additive manufacturing’s value lies in faster iteration, cost reduction, and process learning across industries.
- Binder jetting’s focus shifts from experimentation to solving real manufacturing problems with scalable applications.
New York-based Arc Public Benefit Corp. bought 3D printing pioneer Desktop Metal last month out of bankruptcy. The purchased followed about two years of merger-and-acquisition mania that shifted from assigning billion-dollar valuations on equipment makers to pushing some of the same companies through bankruptcy.
Bryan Wisk, CEO of Arc, says the path to future success is clear: focusing on running the company instead of getting caught up in the buy-sell drama of corporate mergers. “There’s only one word at DM right now internally; it’s focus,” Wisk says. “We’re not a distressed debt investor or private equity. We’re really deep-growth investors, and we’re looking to focus on the core technologies that we bought.”
This Great Question episode features a conversation between Wisk and IndustryWeek Editor-in-Chief Robert Schoenberger.
Below is an excerpt from the podcast:
RS: Thanks for taking the time today. Really appreciate it. It kind of took some of us by surprise when we were reading some of the news a few days ago and saw that Desktop Metal had been pulled out of bankruptcy. I read through some of the court filings, and so this has kind of been in the works for a little while, but it seemed to have come together pretty quickly. Can you kind of walk me through what happened?
BW: We were brought in as one of the potential bidders in the middle of this, I want to say, early July, to look at the company in its entirety at that time, which included some of the foreign subsidiaries—the digital sandcasting business, X1G MBH, and the dental labs business. And, you know, over the course of two months and what’s transpired, we ended up really just honing our focus on what some people called legacy DM, but really the core metal, ceramics, and polymers binder jet applications that, you know, we found to be really, really great assets that we were interested in. It was a pretty long, drawn-out process, a lot of twists and turns, but I feel pretty happy with how it turned out.
RS: So what do you see in this market? Because this is a space that’s been fairly troubled for a few years now. We had these, just two years ago, these $1.5 and $1.8 billion mergers turned into $180 million mergers turned into bankruptcies. It was a fairly quick decline. Where do you see opportunity here that the broader market seems to have soured on, to a certain degree?
BW: Going back to when Nano first engaged investment banks to sort of look at this as a transaction—we were brought in by another financial partner to sort of evaluate the opportunity back then. So this was closer to the beginning of the year. Myself and my co-founder, Paul Adams—he’s a 30-plus-year investment banker, ran healthcare services investment banking—both Paul and I have a healthcare background, particularly in biotech. We overlapped at a large specialty healthcare hedge fund.
And through that lens of evaluating technology in various stages of its development, we really felt that binder jetting, and DM in particular, suffered from being in this acquisition uncertainty for a very long period of time. If you’re a standalone company, some of the things you would do to unlock the synergies of the post-IPO acquisitions just never really got the time to happen.
So, on the flip side of that, from a global macro perspective, we just think it’s the right time, right place for binder jetting—not necessarily just additive manufacturing in general—but we believe there are specific critical applications for which this technology is on the cusp of improving on the state of the art.
So, going back to that biotech background, I sort of look at it from that lens because, you know, we don’t come from the sector. Regardless of the type of tooling, are there end-market solutions that this technology can get customers to that they can’t get to any other way? And if we can bring that back under one consolidated roof, we feel like the DM team, the IP, and the 10 years of hard-fought learning and all the R&D money that went into this deserve to stay intact and be given the opportunity to really extend the technology going forward.
We’re now in a world where, ever since COVID, supply chain vulnerabilities have reshaped everything, and we’re just in this whole new environment where corporations—especially Fortune 500 companies—are kind of up in the air trying to find interim solutions and ways to bring, you know, the future of manufacturing. What is that going to mean?
And so we think additive is an important part of that story going forward. If we could just—which was the thesis—be successful in keeping this intact, great things could happen over the next five years with the focus brought back to the business side.
RS: You mentioned in the press releases—you mentioned aerospace, automotive, defense. I think there might have been a mention of medical in there somewhere. So where do you see BinderJet specifically playing into these markets? What’s the go-to-market strategy there? Is it changing from what Desktop Metal had been doing before?
BW: Only in the sense that, as I sort of wrote in, you know, why we acquired the company, we’re focused on much more of a pull strategy. And throughout that two-month period of this acquisition process—during which there were multiple bidders and a lot of things going on—we had a lot of confidence from customers who were really reaching out and saying, “Look, we’ve invested very heavily in our business and in this technology, and we’re interested. If you guys succeed in this, would you be open to a dual-facing role—to come with us to our customers and help support us in getting them to where they need to be for more scaled-up purchase orders and solutions like that?”
So instead of everyone getting together and saying, “Wouldn’t it be great if this machine had X, Y, and Z?” and then going out there and trying to push it as a comparison to some sort of traditional tooling or even another type of additive metal printing—with all its strengths and weaknesses—we’re asking: on its own, is the core technology able to help someone get to a part that this technology solves for, for whatever reason? We’re really excited about the feedback post-announcement, with people saying, “Great, let’s get back on the horse and do that.”
So examples of that are really, you know, the core RB SIG—titanium, aluminum—things that DM had really helped some of their contract manufacturers and partners with, where the technology shines both in the X Series and in the DM Core platform. Being able to now really focus on delivering on that going forward is exciting.
What we’ve found is, specifically in areas like heavy rare-earth-free permanent magnets and ferromagnets for transformers—companies that are really focused on developing next-generation energy storage—there are things that can be done with this technology that are really exciting, and we’re looking forward to investing in that in the future.
RS: Looking at the broader market for additive for these companies—I’m looking at Nano Dimension, which just reported earnings yesterday—they’re still seeing a fairly big operating loss. Stratasys is still struggling with operating losses. Do you expect to be at least break-even or accretive sometime in the near future with Desktop? Or are there still some challenges there on the profitability side?
BW: Obviously, a few days in, we’re not making any, you know, forward-looking projections. One thing I will say is that Tom McGarro, the CEO, has been with the company and has just tremendous support inside the company around exactly what you’re talking about—coming into work, you know, for two and a half years and not being able to sit down almost in a normal job without a due diligence call, an M&A call, bankers, lawyers, all that.
Not even setting aside the saga of the last six months, which was really quite incredible.
There’s a great business there. And right now, my co-founder Paul Adams has dropped into the company as CFO, and we’re knuckling down and just looking forward to what we think is a pretty solid opportunity to get the company to EBITDA positive in the near term. How long is that going to take? Unclear. But I think the core business—especially on the parts and binder side—has a healthy base of recurring revenue.
And then, as we alluded to in the press release, there are some really great government contracts that provide, I think, now that the government contracting team can focus, a lot of opportunities. There were things that DM could have been at the table for but wasn’t, simply because of all the uncertainty about what the new parent would want to do.
Now that we’re 100% U.S.-owned, we’re really focused on that—getting back to the table on a lot of these advanced manufacturing contracts. I’d point you to the one that Northrop just got for over $900 million, looking at materials development and AI. So I think there’s a lot of low-hanging fruit—not just on the cost synergy and cost rationale side, but on the revenue side—that will get us to where we want to go in a hopefully reasonably short period of time.
RS: You elevated the long-time Chief Operating Officer up to the CEO role, so he’s been with the company a very long time, knows everything intimately—there’s not going to be a learning curve there, obviously.
BW: Yeah, and more importantly, I think if you can just think about going through this from the perspective of somebody who’s been at DM for five, ten years—right?—through an IPO and two potential acquisitions, I think we would not have done this without this almost universal, to-a-person belief that Tom, you know, really put his neck on the line to make this happen. We wouldn’t be here without his leadership. So having that out of the gate, you know, it doesn’t get you all the way there, but I don’t think you could deal with a situation like this without that confidence in the leadership. Because there’s just some real talent that would have gone on to other things, since, obviously, there’s a lot going on and moves people can make laterally. So, very, very excited about seeing Tom at the helm.
RS: That’s great. You mentioned earlier the idea that because of all the things going on, there wasn’t the ability to do this standard sort of knock-on-the-door purchases—pick up a piece of software company over here or a niche company over there. Do you see room for acquisitions to complement Desktop Metal in the near future?
BW: I think that’s one of the things we’re trying to get away from right now—the sort of buy-and-build model. And, you know, there’s really only one key word at DM right now internally: focus. We’ve been pretty clear—we’re not distressed debt investors or private equity. We’re really deep growth investors, and we’re looking to focus on the core technologies that we bought.
That said, if there are transactions that would just be easier to acquire because they’re complementary and help in that process, we’re certainly open to it. But the core focus is on organic growth. And there’s a lot—I mean, I think there’s a really great business there at the core. So just refocusing the spotlight on that is, I think, pretty exciting.
RS: The blog post you put together comparing the opportunity here to Bell Labs—I also think about Xerox PARC, or several of the Skunk Works-type programs over the years, like Lockheed with the original Skunk Works—these very effective small organizations that have been able to really drive innovation. How do you see Desktop Metal being that sort of company over the next several years in manufacturing? What did you see that felt like an innovation hub to you?
BW: Yeah, and, you know, the comparison is purely a personal opinion—just my view of fitting that in. It’s not in our business plan to build, you know, another Bell Labs. But I’ve always been fascinated by how so much innovation could come out of one place over the course of the 20th century. Is there something in the water? Is it the way that people interacted? So it’s always been sort of a passion of mine to look at that.
One of the conclusions I drew from that is, you know, AT&T had a 90-plus-percent monopoly in long-distance telephone wires, right? So there was an ability to give R&D this whole mandate: we need to move the signal from New York to San Francisco faster. Not, “Wouldn’t it be great if we were at the dawn of the information age and invented a transistor?” It was more, “We need a better repeater so we can extend the signal in less time.” And it just so happened that it was a material scientist, a quantum physicist, and, you know, all these people—it wasn’t one apple falling on the head and you discover gravity. I think that’s kind of a myth.
I wanted something pretty visual, if you will, to get people to understand that we have this new business model where we’re going to work backwards from the application. So instead of a technology—a solution in search of a problem—we’re asking: is there anything with this technology that could solve the problems we’re already investing in? We’re doing a lot of stuff in energy transition, semiconductors, and advanced manufacturing. So that was the initial approach. I think Bell Labs is the right conceptual framework for how the company can think about that end-market problem and then pull the technology innovation to help get to that solution.
Then you can really start to rationalize the budget you put behind it and begin to quantify and measure the ROI—to be a lot more systematic in the approach, versus the other model, which is really like, “Wow, wouldn’t it be great if binder jetting could do this?”
RS: There's always sort of a criticism of the additive market as a whole — as a solution in search of a problem. Not every company, not every application, but it was, “Can we do this in additive?” Well, the answer was usually yes, but why should you? There are definitely use cases. You look at hearing aids, you look at certain high-tech — like you mentioned — energy. There are a lot of these really unique, niche applications that absolutely wouldn't be possible in any other way. There was also a lot of work being done on, “Well, can we stamp car fenders out of this one?” Yes, you could. Why would you want to?
BW: We’re really moving away from that. And so, if you look at, again, you know, sort of going back to coming out of biotech, it’s just basically, you know, all about the new chemical formulations and things like that. Then you take it through this long development cycle, through multiple trials, and then ultimately to an FDA approval.
I see this really as a material science company. If you look at what’s happening in academia with this technology in various ways — which the Nevent X platform, I think, we want to get out there more into the university setting — you’re seeing a lot of problems being solved that only binder jetting can do.
And binder jetting isn’t unique to that. There are other additive manufacturing technologies that are really strong in other applications that binder jetting just isn’t appropriate for. But I think the key interest for us is that it’s one technology that’s already been sort of proven out — not specifically binder jetting, but additive in general.
Looking at Tesla or SpaceX — or the mentality of “how can we greatly increase the shots on goal and lower both the cost and the cycles of learning, while increasing the number of cycles of learning and decreasing the time?” — I think a lot of traditional large Fortune 500 manufacturing companies aren’t even kind of aware of how a lot of those problems got solved. You just see the rocket coming back down and landing, but you’re not realizing, wow, all of these little tiny tweaks and innovations and problem-solving that additive has to play a role in.
There are a lot of core engineers inside DM that were very much involved in the beginning of that — helping the Teslas of the world sort of game this out. So if you accept that, then if you can create a platform that can systematically iterate through different formulations, different binders, different ways of moving the process from the printer to depowdering to the furnace — because all of that goes together — there’s a tremendous opportunity to extend the work being done in academia and test if it can be scaled into production.
And you don’t have to put all your eggs in one basket and say, “Oh, we need something that can be scaled into production today,” like you were saying with the car part — you know, an aluminum door for GM or something like that. You can go out there, and if the TAM is big enough for a Northrop or a Hitachi or whatever the company may be, you can set up joint development agreements to explore that.
You can do it more as a service with this technology and just be the best at running those processes. The old model was, “Okay, let’s take all this equipment, put it at the customer site, and support them with it.” But they’re the ones tinkering with it, modifying it, and doing all of that stuff — and that’s a difficult business model to scale.
RS: Other than being metal, I thought that was one thing that always separated Desktop Metal from some of its competitors — its focus on material science, its focus on working with clients to come up with unique alloys, things that could only be sintered in the machine or only be bound in the machine. So there was that tradition of pure innovation — customer-facing innovation — that existed in the company before. So it sounds like…
BW: That’s what we saw in it. That talent is still there and intact, and it’s just like, can you put a process around that — how do you do one and not the other? Like, you can’t just be some sort of open-ended, “Let’s look at the world today and say, well, how do you know if you should be focused on titanium or on some applications in silicon carbide?” How do you go about building a framework for evaluating an ROI around each of these things?
So I think pulling that from an application gives you that, “Okay, if this works, here’s the present value of what our economics to that invention would be long term.”
The companies we’ve spoken to through this process don’t want to be the ones making the tweaks with the machines and all that. And if your customers are doing that, right, you can’t scale that benefit to other customers without then licensing your own technology back to yourself.
So it creates this — I think what’s really interesting about this space is that everybody’s trying to get awareness up, because there just isn’t awareness of what this technology can do and what it’s capable of. So everybody’s in the same boat in that sense. If you can get that up, there’s this positive feedback loop between the people who’ve already bought into the technology and their customers throughout the world.
We’re not going to be going out and seeking to work — you know, we had a call yes terday with a healthcare-focused titanium implantables company that has relationships with spine surgeons in Australia. We’re not going to be the company that takes those guys out to dinner and talks to them about 3D-printed titanium parts.But we definitely want to be at the table to say, “This is why the equipment that our customers believe in can deliver in a reliable and repeatable way to that end market,” together with our customers. So that’s kind of been the new approach.
About the Author
Robert Schoenberger
Robert Schoenberger has been writing about manufacturing technology in one form or another since the late 1990s. He began his career in newspapers in South Texas and has worked for The Clarion-Ledger in Jackson, Mississippi; The Courier-Journal in Louisville, Kentucky; and The Plain Dealer in Cleveland where he spent more than six years as the automotive reporter. In 2013, he launched Today's Motor Vehicles, a magazine focusing on design and manufacturing topics within the automotive and commercial truck worlds. He joined IndustryWeek in late 2021.