Vuzix Corporation (VUZI) Earnings Call Transcript & Summary

Hello, and welcome to the Vuzix Corporation conference call covering financial results for the third quarter of 2026. <<operator_script>> Please note that this call is being recorded. At this point I'd like to hand things over to Ed McGregor, who serves as Director of Investor Relations at Vuzix. Mr. McGregor, the floor is yours.

Thanks, Operator, and I appreciate everyone joining us. This is the Vuzix Corporation conference call on financial results for the third quarter of 2026, and we're glad to have you here. With us are Paul Travers, Vuzix's President and CEO, and Grant Russell, our CFO. Before Paul takes over, I want to note that management's prepared comments and answers to questions may include forward-looking statements carrying risks and uncertainties. For those statements, the company relies on the safe harbor protection provided under the Private Securities Litigation Reform Act of 1995. There are several things that might cause actual outcomes to vary significantly from what any forward-looking statements anticipate. Those include broad economic and business circumstances, competitive pressure, shifts in strategy or development plans, how well we can bring in and keep capable staff, evolving legal and regulatory demands, and the additional risks outlined in our SEC filings. All projections reflect management's estimates as of November 12, 2026. Unless the law requires it, Vuzix undertakes no duty to revise them. This afternoon the company put out a press release with its Q3 2026 financial results and submitted its 10-Q to the SEC. Listeners may want to look over those materials, since we'll be summarizing the results during today's call. This call might contain some non-GAAP financial figures. Where necessary, you can find reconciliations to the closest comparable GAAP measures in the company's SEC filings. Paul is going to walk through our business progress and outlook, and after that Grant will cover the financial review. Paul will come back afterward for closing remarks, and then we'll open the line for questions. Thanks, Ed, and thank you all for being with us today. I'd like to begin with three important developments from the quarter. First, only three months after it was announced, Vuzix Causeway has shipped evaluation samples, a co-development letter of intent has been signed, and we've engaged with over 10 companies throughout the AI optical interconnect ecosystem. Second, momentum is carrying our defense segment into Q4. So far we've booked slightly less than $1 million of fresh OEM orders, and a further program worth several million dollars for engineering services is now in the closing phase of contracting. Finally, the upgrades at our Rochester waveguide plant are in place, processing of high-index material is up and running, and functional single-plate color waveguides have been shipped to customers for evaluation. AI is changing the way people do their jobs and the computing infrastructure behind that work. At Vuzix, this opens two doors: wearable displays that carry AI into the physical world, and optical connectivity built for AI infrastructure. Each of these builds on our strengths in optical design, systems integration, and manufacturing here in the U.S. Research—including a study from the Federal Reserve Bank of St. Louis—shows generative AI getting picked up at a quicker pace than either personal computers or the Internet were. UN Trade and Development forecasts that between 2023 and 2033 the worldwide AI market may grow roughly 25-fold, hitting $4.8 trillion. That expansion is driving an enormous effort to build out the computing infrastructure needed to support it, and money to fund that effort is arriving through many different channels. In June, SpaceX—which now includes xAI—completed the largest IPO ever recorded, and since then OpenAI and Anthropic have both filed to go public. Moving greater volumes of data between machines within server racks demands more bandwidth, better energy efficiency, and small-scale optical links; with the Vuzix Causeway optical interconnect platform, we're applying our waveguide design and scalable production strengths to meet those needs. AI is also driving more customer engagement in both our enterprise and OEM smart glasses divisions. Companies want to put AI-driven support into maintenance, manufacturing, logistics, and field service work. Smart glasses equipped with wide-field-of-view cameras enable AI to see what the worker sees and can provide context-aware guidance via voice interaction and information projected onto a see-through display, all while keeping workers' hands-free and safely aware of their physical surroundings; we believe AI-assisted solutions will prove the strongest catalyst for smart glasses adoption that we have witnessed to date. It lends enterprise smart glasses a wider everyday purpose and is drawing new customers to Vuzix whose application needs grow increasingly specific. These customers don't just show up with defined workflows they wish to deploy, they are writing their own applications for our smart glasses leveraging the newest AI-powered coding tools. These elements allow Vuzix to focus fully on what its smart glasses solution demands, along with reaching the commercial milestones and deployments that should naturally follow. As mentioned before, Vuzix is still moving away from a business that historically leaned on its own branded enterprise smart glasses, turning instead toward wider OEM relationships tailored specifically to each customer. Under our OEM model, customer-funded development is combined with opportunities for longer-lasting supply ties and repeatable product revenue. Rising engagement with new OEM customers and programs advanced to date strengthen our confidence in this path. The OEM cycle runs longer, but the resulting relationships ought to be considerably more durable. Over the past quarter, we've delivered evaluation units of Vuzix Causeway, introduced the Shrike display platform aimed at defense applications, supported manufacturing and next-generation development efforts with Collins Aerospace, and finished upgrading our waveguide production in Rochester. Processing of high-index material is fully operational now, and we've provided functional single-plate color waveguides to customers for evaluation. With these steps forward, we can now offer a wider range of optical solutions spanning smart glasses, defense, and other sophisticated optical uses. Our focus centers on what customers need for their designs and qualification, on steady manufacturing performance, and on executing production. I'll walk you through the specifics now, starting with the Vuzix Causeway platform, which targets optical interconnect applications in AI data centers. So, just three months after we first announced it publicly, Vuzix Causeway has gone from an initial PR introduction to shipping evaluation samples and working with over 10 companies that want to improve optical connectivity performance in AI data centers. Among them are suppliers of light sources and data interconnects for data centers, AI system integrators, and research teams at leading hyperscaler companies. Causeway is a thin, passive glass waveguide bridge that routes dense arrays of optical signals between emitters and detectors within computing systems. It's designed to enable compact optical routing and extended-reach configurations, with possible uses in scale-up links between processors and scale-out links between computing systems. Causeway contributes our expertise in waveguide design and precision nano-imprinting to the task of moving data optically, a domain where bandwidth density, high power efficiency, and packaging are critical. To understand why this matters, consider what the industry refers to as the copper wall. At present, data travels between processors across copper links that drive each lane as fast as possible—now 200 gigabits per second and beyond. At such speeds, copper demands SERDES circuits that serialize data at one end and deserialize it at the other, plus retimers and error correction, and every one of those steps draws power and introduces delay. When lane speeds go up, the span over which copper is able to transmit a signal continues to contract—down to about one meter within a rack at present—and the energy required simply to shift data keeps climbing. Meanwhile, industry projections suggest GPUs and big AI clusters may idle as much as 50% of the time awaiting incoming data. Causeway targets an alternative method, frequently described as wide and slow.

Instead of pushing data through just a handful of fast lanes, it carries thousands of optical channels, each operating at modest rates, in much the same way that high-bandwidth memory reaches its throughput via a very wide interface. Much of the SERDES overhead can be eliminated with this approach, cutting the power, heat, and delay involved in moving data, and helping keep costly processors doing useful work rather than sitting idle. In the AI data center, Causeway-type devices have several possible roles. The closest-term opportunities lie in near-packaged and co-packaged optics, where optical signals need to be coupled and routed in very dense arrays near the processor, and in routing signals within the system between optical engines and standard connectors. Looking further out, that same technology could make it possible to link chips optically and to do so inside a single package, and it might also play a role in pluggable optical modules. What Vuzix brings in each of those cases is the accurate coupling and routing of densely packed arrays of optical signals. As channel counts rise, and with VCSEL and micro-LED architectures, optical integration challenges emerge that suit our waveguide design and manufacturing strengths well, which gives Causeway several routes forward as AI compute and data center technologies continue to evolve. Our first platform allows evaluation of as many as 19,200 parallel optical pathways. Because Causeway uses a passive design, the speed on any given pathway comes from the active parts — micro-LED emitters that generally operate at 2 to 3 gigabits per second per lane. Causeway is built around a broad, low-speed architecture where total bandwidth is generated by a very high count of parallel channels instead of per-lane throughput. Potential partners can now evaluate actual physical hardware against their own architectures and requirements. In addition, we have signed a co-development letter of intent and started integration work with active optical hardware supplied by a partner. The active components that Causeway is able to support are generally micro-LEDs, VCSELs, and the photodetectors that correspond to each. Current discussions focus on hardware evaluation, optical requirements defined by customers, and integration with active components. We have the ability to go after this market by leveraging a proven technology base, tailoring and qualifying it for each customer's design. Our involvement covers light sources, receivers, packaging, system integration, and ODM suppliers—the full set of complementary capabilities required to build complete optical data links that are highly efficient and fast. On the commercial side, our next steps with the Vuzix Causeway platform involve continuing to secure strategic partnerships as well as customer-focused, funded engineering programs with clear milestones and deliverables that can help speed the path to production. If integration and qualification succeed, that would open up opportunities for repeat business supplying customized waveguides or optical assemblies. With the market shifting quickly and our board behind us, Vuzix hired a Tier 1 research firm to conduct an independent evaluation of AI optical connectivity and to test where Vuzix offerings are able to compete. Drawing on interviews with over 70 industry experts, that assessment enabled us to rank applications by priority, sharpen what customers require for qualification, chart the supplier ecosystem all the way from light sources to hyperscaler operators, and determine which relationships are worth pursuing as we shift from evaluation into funded development and production programs. The advisory effort also laid out the ecosystem needed to bring these solutions to market in a realistic way, covering everyone from light source and optical engine suppliers through packaging companies, system manufacturers, and hyperscale data center operators. That helped us identify the places where both existing and new architectures are specified, how vendors get picked, and which partnerships should come first as we shift from assessing options into funded engineering and volume supply. On the whole, this work sharpened our commercialization plan and where we put investment dollars. The customer assessments and integration work now underway show that plan moving into action. Waveguide imaging optics, display engine engineering, and U.S.-based manufacturing all sit within our defense business. We are already seeing promising momentum in the fourth quarter. Beyond programs previously discussed, our Collins Aerospace work spans both current production and next-generation development, putting our technology into systems today while tackling anticipated future requirements; in September, we launched the Shrike defense display platform and started shipping units for customer evaluation and integration. Its configurable waveguide display underpins purpose-built systems for situational awareness, unmanned system operations, and mission information. Working hardware enables customers to assess the display, mounting, and interfaces, which helps define customization and qualification requirements. Applications further encompass equipment upgrades, training, simulation, and counter-drone systems. Vuzix takes part through custom engineering, complete displays, or waveguide-based optical components. Vuzix's waveguide design and manufacturing here in the U.S., together with our ability to supply either components or full systems, are key capabilities for customers seeking specialized optical solutions in defense. In the near term, we remain focused on delivering on existing commitments and advancing evaluations toward defined development work backed by customers, and eventually toward production solutions. Among the strongest catalysts we expect for wider enterprise adoption of smart glasses is AI for frontline workers. A technician can ask their AI smart glasses for guidance, show the task at hand, and receive relevant information while keeping both hands on the job; those same applications can help with documenting completed work, preparing service reports, and updating enterprise systems. AI smart glasses connect frontline staff with knowledge and specialists in maintenance, logistics, manufacturing, and field service. What we've learned in enterprise wearable computing gives us hands-on understanding of ergonomics, cameras, audio, prescription support, safety, and software integration. When potential OEMs define their new products, they draw on that understanding. Their workflows and device requirements keep getting more specific, which helps us decide what engineering to prioritize and moves evaluation toward purchase commitments. At the same time, AI development tools are reducing the software work required to link glasses to enterprise workflows, which opens up chances for partners and customers to build applications. With our enterprise OEM and ODM model, we're able to customize optics, camera, audio systems, and safety features so they integrate with a customer's software application, and that gives us a route to eventually provide them with complete systems and/or optical components. For instance, alongside a leading global automotive manufacturer, we've moved all the way from engineering sample systems in its operating environment to talks about production configurations, manufacturing responsibilities, and production deployment schedules. We're also continuing to support Amazon's MRE team with the M400s they use today, and we're advancing into next-generation data center programs in which AI helps technicians maintain and support data center operations. Our ultralight platform combines our waveguides with a lightweight, see-through display in an eyeglasses-style form factor. When it comes to how customers assess and define their needs, the specs for cameras, audio, and optical software in enterprise and specialized use cases continue to be honed. We're converting that effort into commitments scoped for production, with qualification steps and timelines customized per program. Our OEM strategy can generate multiple revenue opportunities within one customer relationship. Engineering efforts could result in supplying waveguides, optical modules, or full systems, contingent on qualification and commercial arrangements, and development aligned with the solution requirements customers have already defined is funded by those customers. Our ODM business follows the same approach as our OEM strategy. Quanta serves as our lead customer in that area, and its large-scale manufacturing capacity and customer access pair well with our waveguide design and high-volume production. Together, those give buyers an obvious path that begins with design and ends with mass production of AI-powered smart glasses. One connecting idea links our chances in AI data centers, AI smart glasses, and defense head-mounted displays: how we design waveguides and manufacture them through nano-imprinting. Every program carries its own performance and qualification demands, but the same fundamental strengths underpin all of them.

During 2026's first nine months, roughly $2.7 million went into extra equipment and tooling, mainly for waveguide production and R&D efforts. That spending backs bigger customer programs, lets us run more programs in parallel, and meets the specific needs of our advanced display and optical interconnect waveguides. Now that the Rochester facility upgrade is in place, we can support development and production across several programs at the same time with more flexibility. Prospective OEM customers want a supplier able to provide design support, qualification, high volume, and competitive costs. Those manufacturing disciplines are paired with our optical engineering and wearable product experience. Before Grant walks through our financial results, I'd like to frame our third-quarter revenue performance within the transition happening at Vuzix. Sales from our established enterprise products fell year-over-year, and some of that drop comes from changes in our product line. The 2025 period had sales of Blade 2, Shield, and Z100 smart glasses. Blade 2 and Shield were discontinued at the end of 2025 since key components required to build them could no longer be obtained. We also shifted the Z100 from a standard product to an OEM platform device, which we'll now supply solely to committed customers placing volume orders. What gives us encouragement is the broader commercial progress we're seeing today. The orders, customer engagements, and program milestones we discussed today show our strategy starting to turn into tangible commercial opportunities. Our focus is on converting that momentum into funded development, production orders, and repeat supply relationships. We believe this transition puts Vuzix in position to build a larger, more diversified revenue base while keeping capital investment disciplined. With that, I'll hand the call to Grant for our financial review.

Thanks, Paul. As Ed mentioned, the 10-Q we filed this afternoon lays out in detail our quarterly and year-to-date financials, so I'll just provide some color on the key numbers for the third quarter ending September 30, 2026, only. Revenues on a total basis for the three months ended September 30, 2026, were $714,000, a 33% decline versus the same period in 2025. That decrease was primarily driven by lower smart glass revenues, as unit sales of our M400 product declined, together with no revenues at all from our Blade 2, Shield, and Z100 products, all of which were discontinued at the end of 2025. For the quarter that closed on September 30, 2026, revenue from engineering services along with OEM products came in at $220,000, versus $265,000 during the same stretch in 2025 — a 17% decline that stemmed mainly from how customer project progress was timed. The gross loss for that quarter ending September 30, 2026, stood at roughly $868,000, while the equivalent 2025 period showed $411,000. The bigger loss stemmed from reduced revenues, certain costs we couldn't bill on an engineering program aimed at meeting customer requirements, and higher unapplied manufacturing overheads of roughly $790,000 versus $513,000 in the 2025 period; those unapplied overheads stem from our ongoing rework of older product versions and upgraded current versions, which adds no extra overhead absorption into inventory, along with lower output of new products since the company holds enough finished goods already. R&D spending for the quarter closing September 30, 2026 came in at $3.3 million, compared with $2.9 million a year earlier, and that full bump stemmed from outside consulting tied to the company's new Causeway CPO solutions. Sales and marketing costs for the three months ending September 30, 2026 totaled $1.6 million, up from $1.1 million in 2025, with most of the rise driven by external consulting work on the company's new Causeway CPO solutions. G&A expense for the quarter ended September 30, 2026 was $2.5 million, a 3% decline versus the same period in 2025. Overall operating costs came to $7.6 million, versus $7.1 million during the equivalent quarter last year; that figure includes the $1 million special charge booked in Q3 tied to our new Causeway optical interconnect platform. For 4Q '26, we're looking for total OpEx to land in the mid-$6 million range. Setting aside that $1 million Causeway consulting expense from Q3 — which we don't anticipate repeating in 4Q — operating expenses would have come in at roughly $6.6 million, or approximately 7% lower than the year-ago quarter. Q3 '26 produced a net loss of $8.4 million, or $0.10 per share, against a net loss of $7.4 million, or $0.09 per share, in the same period twelve months earlier. Turning to a few balance sheet items. Cash and cash equivalents stood at $9.2 million on September 30, 2026, while net working capital was roughly $10.2 million. We continue to carry no debt, whether current or long-term. For the third quarter ended September 30, 2026, operating activities used $6.7 million in net cash, compared with $5 million in the same quarter last year. Investing activities tied to fixed assets and patents consumed $1.6 million during the three months ended September 30, 2026, versus $0.4 million in the comparable 2025 period. That increase was driven primarily by the expansion of our waveguide manufacturing facility, which reached substantial completion by September 30, 2026, and we anticipate a meaningful decline in quarterly investment activity during 4Q '26. To date, Causeway evaluation samples have been produced using our existing waveguide equipment, without any dedicated or incremental capital expenditures. For the three months ended September 30, 2026, cash provided by financing activities totaled $0.2 million, compared with $10.6 million in the same period of 2025, reflecting lower ATM net proceeds in the third quarter of 2026 as well as the $5 million in funding received from Quanta during that comparable period of 2025. We understand it matters a great deal to keep our financial flexibility intact as capital programs take shape across imaging, CPO waveguides, and OEM smart glasses. Engineering paid for by customers is central to that strategy, because it moves a larger share of development costs onto the customers who have made commitments to a program and the products behind it. Now that our additional manufacturing waveguide upgrades are largely finished and the Causeway market development assessment is completed, we anticipate that total cash requirements for the fourth quarter will be significantly lower than in Q3. Our plans call for raising capital when needed, boosting operating efficiency, and making adjustments to discretionary spending and development activities as appropriate. Our existing ATM sales arrangement gives us a financing tool we can access promptly when necessary, and whether we draw on it hinges on market circumstances and/or the funding we actually need. Paul, back to you for the rest of the call.

Thanks, Grant. To wrap up, I'd like to stress how big the opportunities in front of us are and how much progress Vuzix is making toward seizing them. AI is creating fresh opportunities in each of our three main markets: smart glasses that deliver AI-driven help in day-to-day work, advanced optical systems that sharpen situational awareness for defense uses, and optical interconnects that meet the fast-rising demands of AI data centers. Each of the three rests on the waveguide technology, optical know-how, and U.S.-based manufacturing capacity that Vuzix has built up over many years. TrendForce projects that shipments of AR glasses, meaning smart glasses with built-in see-through displays, will reach more than 32 million units by 2030, and it also projects that the combined co-packaged and near-packaged optics market will expand from roughly $100 million in 2025 to more than $39 billion by 2030. Defense and industrial uses add further multi-billion-dollar opportunities and meaningful unit volumes. Crucially, our growth should no longer hinge only on sales of Vuzix-branded smart glasses. Our OEM-focused approach puts us in position to provide waveguides, optical components, engineering, and specialized systems to customers in these expanding markets. Vuzix Causeway optical data interconnect solutions, in the three months since they were unveiled, have moved forward into customer evaluations, optical integration work, and engagement with more than 10 companies across the AI optical interconnect ecosystem. Although our third-quarter results reflect the transition our business is going through, these developments strengthen our confidence in what lies ahead. Our focus now is execution, turning customer engagement into funded development, production orders, and repeat supply relationships, while keeping financial discipline. We see this as the route to a larger, more diversified business and to lasting shareholder value. Thank you for your continued support, and Operator, we're ready for questions now.

Thank you. We will now begin a question and answer session. <<operator_script>> Please hold for a moment while we gather questions. Thank you. Our first question comes from Christian Schwab of Craig Hallam Capital Group.

Hey, everyone. This is Ben Taxel, filling in for Christian Schwab. First off, Paul, regarding optical interconnects: could you take us through how Vuzix Causeway and Corning's GlassBridge differ from one another?

My apologies — I was just muttering to myself, Ben. Sorry for that. That's a really good question, Ben. First off, Corning leads the world in glass, and we see their GlassBridge as confirmation that glass waveguides have a place in the AI data center. That said, the two technologies address separate problems. GlassBridge is a connector linking fiber to chip, built mainly to couple fibers onto the edge of a silicon photonics chip. Causeway, by contrast, is built to couple and route dense two-dimensional arrays of light sources, for example VCSELs or micro-LEDs, as we've discussed. Those sources emit light from their surfaces instead of from the edge. With edge coupling, channel count is limited by how long the chip's edge is, whereas Causeway can exploit the chip's area, enabling far greater channel counts; that is likewise the reason Causeway suits the wide-and-slow architecture we covered earlier, which relies on thousands of parallel channels — literally tens, perhaps hundreds of thousands, rather than a line of maybe 50 or 100. So we're able to support a substantial number of parallel channels. And since Vuzix doesn't manufacture light sources or the chips, Causeway can work with every supplier across the ecosystem. So we regard the two as mostly complementary, and in certain systems they might even coexist.

Thanks, Paul. For my next question, could you stay on this subject for a moment? Could you tell us a bit more about the company, you know, the kinds of companies you're working with, you know, in connection with Causeway? You mentioned 10, but a little more clarity on the types of companies would be helpful.

Naming specific partners would be nice, but that's not something I can do. Every one of these companies has us under an NDA. What we can do is describe the mix, and in our view the breadth here is meaningful. Our engagements cover most of the optical interconnect ecosystem. They involve firms working on light sources, including VCSELs and micro-LEDs. If you search online and simply look at those types of companies, chances are they have approached Vuzix and asked how we could work together. There are optical engine and transceiver developers, optical connector and fiber connectivity firms, and packaging companies. These relationships also take in some of the ODMs that build and integrate the full server racks installed in AI data centers today. We are talking with many research teams. A number of them are at a very, very early stage on the research side. Others have been at this for a good while and have not managed to solve this short-haul connection of these 2D arrays. All of the companies are after the same solution: coupling and routing very large numbers of optical signals within a very small space, and that is exactly the problem Causeway was built to address. We sit in a unique position, with unique technology and a plant floor engineered to deliver into it at volume; so the other part that is really cool is that we now have some updated videos of our plant floor and how it runs, and when people watch that, it is almost a jaw-dropping moment to realize there is this small Vuzix, yet it has such an advanced plant floor for manufacturing these waveguides; that earns us a lot of points, and it really holds across the ecosystem, Ben.