C. Mills
Thank you very much, Matt, and welcome one and all to our third quarter 2025 conference call. I'm excited to be here with you today. Matt Ferguson, our Chief Financial Officer, is also with us today on this call. We're going to be going over a couple of things. One is the basics of evolution, a couple of things that I think everyone should know about the company. We're going to talk -- I'm going to spend a lot of time talking about where we're headed and not just where we're headed, but why we're going where we're going. Matt is going to give us an update on finance and litigation status. And then lastly, we'll close and take your questions. So let's get into it with some of the basics. So Elutia, we are a mission-based company. I think that's an important thing for investors to know. And I think that's a good thing, too, because we have a great mission. Our mission at Elutia is humanizing medicine so that patients can thrive without compromise. And today, we're going to talk a lot about breast reconstruction. And I hope that you can appreciate that our work in this space is so necessary because there's a patient population right now, women experiencing and making their way through their breast cancer journey who really are faced with a lot of compromise in their care and in their treatment, and that's holding them back from thriving. And we are applying our talents, our resources, our efforts and our mission to overcome that. So these women are able to thrive without compromise. I think it's really important for a company to know what they're good at, what are their strengths. And at Elutia, we are really great at combining biological matrices with powerful antibiotics that create this sustained antibiotic release in implants that's able to prevent infectious complications from happening. We started in this with EluPro, our first antibiotic eluting product that we got on the market and really did a great job in the initial commercialization with. We sold that, as you guys know, to Boston Scientific for $88 million. And now we're taking that technology into NXT-41x, which is our next-generation matrix for breast reconstruction. So if you're new to the story, and I see there are a lot of new callers on the call today, three sort of things that are probably worth keeping in mind. One is this is a validated technology platform. What do I mean by that? Well, we've already done it. We've already developed the first FDA-approved drug-eluting bioenvelope for pacemakers, which we sold to Boston Scientific. Now there, we're talking about a much smaller market, so only a $600 million market with a much smaller unmet medical need. We're talking about infection rates on the order of about 3%. We're taking that same technology platform, and we're moving it into a much bigger market with this blockbuster 41x that we have coming. So it's the same technology platform, but applied to the $1.5 billion breast reconstruction market. And as you're going to see coming up, there, we're talking about an unmet medical need where women are facing postoperative infection rates between 15% to 20%. And then lastly, the company is now fully resourced. We have the right team in place. We have a state-of-the-art GMP manufacturing facility, and we have a commercial platform already in place with our SimpliDerm product that we already have and we're already distributing in this space. And then very importantly, we now have the cash to fund the company, not only through product development and product approval, but all the way through commercialization of this technology as well. So let's get into it and let's talk about where we're headed and more importantly, why we're headed there. So why breast reconstruction? Why is breast reconstruction such a transformational opportunity for Elutia? Well, it's really the convergence of 3 factors that make this a very special opportunity for us. One, as I've mentioned, breast reconstruction is a large market, $1.5 billion market. But two, it's an unusual opportunity in that it's this large market that still has this really significant unmet medical need, postoperative infectious complications of 15% to 20%. Despite our best efforts in this for the last 30 or 40 years, we just haven't been able to crack this. And then lastly, our technology, our proven technology platform works in this space, and we're going to be able to solve this significant problem for these patients by applying our technology to this area. So let's go through these three different parts, right? Let's start with the large market. And I get out and I talk to a lot of different investors about this. I think this is actually one of the pieces of our story that most investors already appreciate. The breast reconstruction market is a really big market. It's an addressable market of about $1.5 billion. Why? There's 162,000 breast reconstructions performed in the United States annually. These are brand-new 2024 numbers from ASPS that are out. Biological meshes are already used in 90% of these reconstruction cases. So there's not like there's a market here that has to be retrained on how to use a biological mesh. And in fact, not only are biological mesh is the dominant modality -- treatment modality in these cases, they're also incredibly expensive. So we're talking about per breast on the order of $9,000 a breast for the biological matrix alone. And if you look at that as the percentage of implant spend, right? So you take the permanent breast implant, you take the expander that has to go in there and you take the biological matrix, you put all that together, the biological mesh is 65% of the implant spend. Here's the problem. The outcomes are abysmal. Despite the high cost, the status quo here isn't addressing the problem. Now I want to be really clear. I'm not suggesting the biological matrices causing the problem. I'm not suggesting the implants are causing the problem. I'm certainly not suggesting that the surgeons are causing this problem, but they're not fixing the problem. And what we're left with here is 1 in 3 women that go through breast reconstruction suffer a serious complication after that reconstruction fully, 15% to 20% of that is driven by infectious complications. We're talking about serious postoperative infections coming out of this case. And we are probably understating this problem in this case. Ultimately, we're looking at up to 21% of the implants end up being lost. The procedure ends up being a failure and has to be abandoned. That, as you can imagine, leads to this very significant economic burden that the hospital faces. We're looking at $48,000, the average economic cost to the hospital of an infected breast reconstruction. So here's a real significant problem. So like I said, when I go out and I tell the story, I think people appreciate that the breast reconstruction market is large. I think they even appreciate that -- hey, I believe you guys are going to get this approved. You did a pretty good job with that with EluPro. You got that there. You seem like you know what you're doing. They struggle to believe that this problem could be this bad in this big of a market for so long, and they really want to know sort of why -- how could that be? Why is that? And so I want to explain to you why this is the case. So here we go. So there are some very unique challenges that are presented by mastectomy. So in mastectomy, all of the breast tissue has to be removed, and this is done by the oncologic breast surgeon that comes in and it does the removal of the breast tissue. Why is this happening? This tissue has to come out because if any of it remains, then there is still a risk for breast cancer redeveloping in that woman. And then there needs to be further monitoring. There needs to be mammograms, right? So the whole purpose of having a mastectomy sort of goes out the window. And so the breast surgeon comes in here, and they're very aggressive with this removal, right? So they need to take out all of this breast tissue all the way to the margins of the skin, all the way down to the chest wall. The problem with that is, as you can see in this diagram here, is that the vasculature for the breast runs through this very tissue that all has to come out. Again, the vasculature of the breast runs through the tissue that has to come out. And so what happens is when you remove this tissue from the breast, you have to tie off these vessels that get cut, right? And so when you tie off these vessels, then you basically create an area of hypoperfusion, right, where you don't have adequate amounts of blood flow. What's the consequence of that? Well, the consequence of that is, generally speaking, the way we deal with and the way we prevent postoperative infection is by antibiotic therapy. We can give the patient oral antibiotics or we can give the patient IV antibiotics. But the idea is that you give these patients antibiotics and they circulate all through the body. and go to the parts of the body that you're looking to protect and prevent infection. But when you remove the blood supply, you also remove the route in which systemic antibiotic therapy needs to reach the surgical pocket. So no blood supply means no antibiotic therapy can reach where it needs. And there's lots of studies that show this. The plastic surgeons refer to postoperative antibiotic therapy often as voodoo. It makes everyone feel good that they're taking these antibiotics, but it does not prevent postoperative infection. And the reason why it doesn't prevent it is this very real anatomical challenge that's created. It also, by the way, if antibiotics can't get there because there's no blood, it also makes it for a real challenge for even the patient's own immune system to get there. And our natural cellular components of our immune system have a far more difficult time. So after we've done this procedure, we've done the mastectomy, now a plastic surgeon, this is a different surgeon now, a different surgeon and a different surgical team comes into the operating room to do the reconstruction of this area where they have this really thin skin. You have this pocket of tissue that doesn't have any vasculature. And now in there, they need to put an implant of some sort, either the permanent implant or oftentimes an expander. And then the other thing they'll also put in there is they'll put in surgical drains. And these are drains, if you've never seen them, these are literally plastic tubes that port directly to the outside and they allow excess fluid that normally would accumulate there to drain out of these spaces. And so you're adding this large foreign body and you're adding these drains that communicate with the outside and create a portal for contamination to enter. Then lastly, there's a mesh, right? And this mesh then goes around this entire construct to hold the implant in place and to create a bit of a barrier between the skin and the implant. And the reason that's done is because the skin here that's left after this radical mastectomy is so thin that you need something. And so that's what -- that's what meshes are used for in these types of procedures. And this is all done in a surgical procedure that's taking somewhere on the order of 4 to 6 to 8 hours in order to do. So if you wanted to create the perfect recipe for postoperative infection, it would be difficult to come up with a better recipe than the one we have here in breast reconstruction. You have long surgical times, 4 to 6 hours, multiple different surgical teams, creating an ischemic area in the body, right, that is hypoperfuse, doesn't have as much blood flow as it would need. On top of that, you put a large foreign body and then just for good measure, you throw a drain in that ports directly to the outside. So the question isn't how do we end up with postoperative infection rates of 15% to 20%. The question is, how is it not 100%? I mean it's almost miraculous that you could do this procedure and not have more infectious complication. And I think that actually is really a testament to the surgeons and the professionalism of the surgeons and the operating teams in this case because this is just almost the perfect storm for an infectious complication. But we think about this differently. We look at this and we say, what if we flip the script here? What if we turned things over? And instead of having those antibiotics delivered systemically and hoping some trickle into this avascular necrotic space, what if instead we delivered them locally. So what would happen in that case? Well, in that case, you would have local concentrations of antibiotic that were much higher, that were at therapeutic or even super therapeutic levels. And then just to boot, you would have systemic levels of antibiotic that were essentially indetectable. So you would have antibiotic exactly where you needed it, being very effective at preventing infection and you would completely avoid side effects that can come along with prolonged antibiotic and antimicrobial use. And so this is the fundamental basis behind what we do at Elutia, this idea of drug-eluting biologics and local antibiotic delivery. And this is what we did with EluPro, and it worked very successfully there. And it's what we're doing here with 41x. And the good news is we're not alone here. It's not like we thought of this and like, hey, aren't we brilliant and I wonder and I hope this works. Really resourceful inventive, creative plastic surgeons out there who are doing the best they can for their surgeons have already been looking into this. And they've actually already demonstrated proof of concept. And what they've discovered is that local antibiotic delivery in breast reconstruction works. It effectively, it statistically significantly reduces postoperative infection. Now the problem with it is they had to borrow techniques from orthopedic surgeons in order to pull this off. And there's just 2 different examples here. This first one on the left, these are PMMA plates, polymethyl methacrylate plates. Said differently, they are a place of cement, like a bone cement, hard, big rigid disks. And basically, what they do with these plates is they're able to mix this stuff up in the operating room. And while they're mixing it up, they'll mix in a powdered antibiotic into the aggregate and make that as part of this bone cement. And they will literally put this bony plate up into the breadth. Now the problem is not permanent, it's not absorbable. -- it deforms the rib cage. It's -- but you know what it does really effectively. It prevents postoperative infection. So decreased infection, this is a study with 360 patients, right? This decreased infection of about 62% from 12.6% to 4.8% p-value less than 0.01, really beautiful statistical data that shows that if you have local delivery of these antibiotics, that they will effectively address this postoperative computation. Another version of the same thing is instead of making a big disc, what happens if you made little ease out of it and sort of sprinkle them in there. And again, the same thing. Now this was a case -- or this was a study that was -- if you're wondering why the infection rates are so high. This is actually looking at salvage cases where the patients were already being brought back to the operating room for tissue necrosis. Now normally, what would happen is that procedure, the implant procedure would just be considered a failure. Here, they wanted to see if they could salvage these cases. And so they tried with and without this local antibiotic delivery. And again, a 35% postoperative infection rate dropped to 6.3% postoperative infection rate. This is a 75-patient study, p-value 0.017. So highly statistically significant. The point of all of this is if you deliver local antibiotics, it doesn't just conceptually work, it works in practice. And so that is why we created NXT-41x. But we did it in a way that the plastic surgeons are excited about using. And so Dr. Williams and her team has made a beautiful biological matrix. It's one of the things we're really good at doing that's purpose-built for plastic and reconstructive surgery. And then on to that, they've added powerful antibiotics, rifampin and minocycline. And they've done this in a way where they formulated it so they have a greater than 30-day release of these antibiotics that's putting therapeutic levels of antibiotics into the space for greater than 30 days. Why is this 30-day number so important? Because most drains come out by day 17. And so you want to make sure that once the portal is closed to the outside, that you still have antibiotic delivery going on and they're able to address infections. So this is NXT-41x. And that's the rationale why we came up with this. That's why it was so important for us to get EluPro done and commercialized and then ultimately, in the hands of Boston Scientific, who are going to knock the cover off the ball with that product. So we can move on and bring this product to market to the women who are going through breast cancer, who are battling breast cancer and so desperately need this technology. Let's talk a little bit about the plan and how we're going to get there. Right now, we have SimpliDerm, which is our biological matrix that doesn't have any antibiotics. This is very analogous to those of you who remember, our CanGaroo product that we had on the market, before we introduced EluPro, just the biological matrix by itself. So that's our SimpliDerm product. And what it enables us to do, just like CanGaroo enabled us to do is build out our commercial infrastructure, our sales team, our contracting team, the teams that work with the value analysis or the VAC committee, build out that whole infrastructure, so it's up and functioning and ready to go when NXT-41 comes to market, right? Second step, and you'll see this in the second half of next year, you'll see the first step is approval of NXT-41. Now what we're doing here, NXT-41 is NXT without the antibiotics. So if you think about the X is Rx prescription, right? So the NXT-41 is just the base matrix. We're doing that for regulatory purposes. We want to get just the matrix cleared through the FDA before we add the combination of the drug to be able to separate a combination device drug review into its component parts. And then the last piece you'll see in the first half of '27 is the approval of NXT-41x. Then lastly, before I turn the call over to Matt, just a little bit about what's going on inside the company and when we -- when we talk next about this, what I'll be providing updates, there are already three really essential work streams going on. Obviously, the most important one is the development. And we're looking for the development and approval of a highly differentiated product that significantly improves outcomes in plastic and reconstructive surgery, that is NXT-41. But alongside all of that is our manufacturing team that are building out this robust production platform that's able to achieve really, really significantly low cost of goods through our own proprietary in-house manufacturing process. We have this manufacturing facility in Gaithersburg, Maryland. If you're ever in the area, stop by, we'd love to give you a tour about it. But we have this really great facility and this really great team there that's building out this process that will enable us to produce this at a low cost of goods. And then lastly, the commercial team. The commercial team is working on SimpliDerm and doing a great job with SimpliDerm, but also building out the clinical advocacy and the commercial infrastructure that we need to have in place so that when 41x gets approved, we're able to do as good a job, if not a better job commercializing that product as we were able to do with EluPro. So that is what we're doing. That is why we're doing it and our plan in order to get from here to there. With that, I'll turn the call over to Matt, and he'll tell you about our operations.