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So far, it would appear that GaN would amount to being more or less a manufacturing process as opposed to having to meet performance specs and through-put testing and faster to market- maybe even by the end of this year. Per Scott:
"While we still have work to do, if our current trajectory continues, we should be able to enter the market and generate revenue much more quickly than in our traditional engagements with semiconductor customers, potentially even before the end of this year. "
So, there is multiple ways that our business model can be used for GaN. We can just license our MST technology, just like we do today with regular semiconductor makers to adopt MST on wafers and then build GaN wafers on top of that. That’s one way that we could do it. We will probably license our GaN technology separately from the rest of our licensed technology because it may have very high value. The second thing we could do is maybe we could become a manufacturer of GaN wafers at least in modest volumes, and that would allow us to generate revenue. And if it was a very high-value technology, maybe we could make a very nice-looking gross margin there and help to subsidize the rest of our business. We don’t have a decision to do that yet. I mean we have a very strong philosophy about making a business model that’s got a lot of leverage to the bottom line. And so, if we were to become a manufacturer, obviously, we would have to have a lot more CapEx, which might not work well with that. But we could do something on the smaller volume manufacturing side. And – but I think for our customers who would go into high-volume manufacturing, it’s most likely that we have licensed directly to them. So, we have been looking at the GaN market for a while. We have had a lot of marketing studies going on about how to approach it, but we haven’t got a final determination about what we do. I can tell you, I think it’s a – it would be a much faster time to market. And I am pretty excited about the prospects of MST there and the prospects in a few other areas in the compound semiconductor market.
I posted this on ST but I'll post it here too in case someone here knows?
Question for the more technically astute posters here.
(Backstory) I spent Wednesday through Friday driving back from my Florida home to my Michigan home denying me the ability to watch/review both STM's and ATOM's CC. I just finished ATOM's CC today and I'm intrigued by GaN/compound semiconductor references.
My question- does, and is, MST used solely in this fashion to merely contribute to the relaxing or de-straining the interface between two different crystal latices, or is it used in conjunction with performance enhancement properties as well?
I ask because I'm getting the impression from the CC that the path to license/market/revenue going this route with GaN is much faster than the current pathways.
Very interested to see what they do to address the GaN market.
So, the GaN market is very interesting. Actually, this whole compound semiconductor, it’s an area that we have been doing research on for a few years. So, although this is our first announcement, it isn’t something we just started thinking about. So, there is multiple ways that our business model can be used for GaN. We can just license our MST technology, just like we do today with regular semiconductor makers to adopt MST on wafers and then build GaN wafers on top of that. That’s one way that we could do it. We will probably license our GaN technology separately from the rest of our licensed technology because it may have very high value. The second thing we could do is maybe we could become a manufacturer of GaN wafers at least in modest volumes, and that would allow us to generate revenue. And if it was a very high-value technology, maybe we could make a very nice-looking gross margin there and help to subsidize the rest of our business. We don’t have a decision to do that yet. I mean we have a very strong philosophy about making a business model that’s got a lot of leverage to the bottom line. And so, if we were to become a manufacturer, obviously, we would have to have a lot more CapEx, which might not work well with that. But we could do something on the smaller volume manufacturing side. And – but I think for our customers who would go into high-volume manufacturing, it’s most likely that we have licensed directly to them. So, we have been looking at the GaN market for a while. We have had a lot of marketing studies going on about how to approach it, but we haven’t got a final determination about what we do. I can tell you, I think it’s a – it would be a much faster time to market. And I am pretty excited about the prospects of MST there and the prospects in a few other areas in the compound semiconductor market.
Compound semiconductor materials have traditionally been difficult to manufacture due to crystal defects, some of which can be caused by a mismatch with nonnative substrates. The mismatch creates stresses at the interface, which propagate through the wafer causing cracks and other defects that have limited both the size and the yield of wafers, making economical manufacturing difficult. Atomera’s MST film can relax or de-strain the interface between two different crystal latices, and we’ve been filing a number of patents over the years related to this effect. Recently, we began working with one of the world’s leading authorities in compound semiconductor fabrication, Professor Edwin Pinar at Texas State University to investigate how MST could help solve this whole manufacturing problem.
A material which can significantly improve the quality of GaN wafers and potentially enable them to be manufactured at a larger size is a game changer that the industry is currently seeking. Early experiments growing GaN wafers using MST have shown very promising results. While we still have work to do, if our current trajectory continues, we should be able to enter the market and generate revenue much more quickly than in our traditional engagements with semiconductor customers, potentially even before the end of this year.
This could be pretty big imo.
kt
Market is not happy with no guidelines to next catalyst. Unhappy markets on pre revenue companies tend to trend lower. So a little digging on my own.
STMicro Agrate facility
...We are strengthening our unique 300 mm wafer digital manufacturing capacity in Crolles (France) and expanding our 300 mm capability to analog with a new facility in Agrate (Italy).
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Atomera’s MST-SP technology demonstrates breakthrough performance and density improvements to power and analog devices. Thanks to the combination of dopant profile engineering and mobility improvement made possible by MST, the MST-SP technology can reduce die size of PMICs and other 5V devices by up to 20% without degrading reliability or efficiency.
Compared to baseline symmetric 5V NMOS analog transistors, MST-SP has been demonstrated to offer 3x lower specific on resistance (Rsp). Compared to asymmetric 5V analog transistors of similar design, MST-SP offers up to 25% lower Rsp at the same breakdown voltage, BVDSS. The MST-SP breakthrough also applies to 5V PMOS and has applications beyond 5V analog to many other silicon devices, including planar CMOS devices.
Smaller Die Sizes mean Lower Cost for Analog and Power
* Scott says Atomera is meeting specs and waiting on customers timelines
.
STMicro
Wide bandgap capacity expansion
We are investing in gallium nitride (GaN) technology, building capabilities, and capacity to support our business ambitions.
* Scott on CC - Promising GaN results in a new product category,
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Hard to see why the stock would trend up until an actual licensing is announced. On the sideline for now.
Atomera Incorporated (NASDAQ:ATOM) Q1 2024 Earnings Conference Call April 25, 2024 5:00 PM ET
Company Participants
Mike Bishop - Investor Relations
Scott Bibaud - President and Chief Executive Officer
Frank Laurencio - Chief Financial Officer
Conference Call Participants
Richard Shannon - Craig-Hallum
Mike Bishop
Hello, everyone and welcome to Atomera’s First Quarter Fiscal Year 2024 Update Call. I’d like to remind everyone that this call and webinar are being recorded, and a replay will be available on Atomera’s IR website for 1 year. I am Mike Bishop with the company’s Investor Relations. As in prior quarters, we are using Zoom and we will follow a similar presentation format with participants in a listen-only mode.
We will open with prepared remarks from Scott Bibaud, Atomera’s President and CEO and Frank Laurencio, Atomera’s CFO. Then we will open the call to questions. If you are joining by telephone, you may follow a slide presentation to accompany our remarks on the Events and Presentations section of our Investor Relations page on our website.
Before we begin, I’d like to remind everyone that during today’s call, we will make forward-looking statements. These forward-looking statements whether in prepared remarks or during the Q&A session, are subject to inherent risks and uncertainties. These risks and uncertainties are detailed in the Risk Factors section of our filings with the Securities and Exchange Commission, specifically in the company’s annual report on Form 10-K filed with the SEC on February 15, 2024. Except as otherwise required by federal securities laws, Atomera disclaims any obligation to update or make revisions to such forward-looking statements contained herein or elsewhere to reflect changes in expectations with regards to those events, conditions and circumstances.
Also, please note that during this call, we will be discussing non-GAAP financial measures as defined by SEC Regulation G. Reconciliations of these non-GAAP financial measures to the most directly comparable GAAP measures are included in today’s press release, which is also posted to our website.
Now, I would like to turn the call over to our President and CEO, Scott Bibaud. Scott, go ahead.
Scott Bibaud
Good afternoon and welcome to Atomera’s update call covering the first quarter of 2024. The past 3 months have seen more customer activity progressing to the proposal stage than any in our history. This unprecedented level of interest in our technology as a result of announced customer commercialization, widespread recognition of the efficacy of our MSC technology, and detailed solutions to these issues faced in today’s complex transistors. I will talk more about customer progress after a short comment on the semiconductor market.
This year, we see the semiconductor industry modestly growing led by companies executing in the AI space. The pressure on leading-edge logic fabs to advance their latest nodes with high performance per watt is intense. Most of the growth in the industry is happening here as well as in DRAM, which is snapping back strongly after contracting throughout 2023. In addition, Consumer Cellular is expected to show modest growth. Automotive with its associated power and analog component companies have softened as they work through inventory and see new competition from China, although the consensus seems to be that the outlook for the second half of the year is better.
What does all this mean for Atomera? We are a company that benefits from modest capacity utilization at our IDM and foundry customers, so they can run R&D wafers. We continue to see this favorable environment for the medium term, except in the bleeding edge where capacity is tight, offset by a strong desire to improve performance yield and cost of those new manufacturing processes. Right now, industry dynamics and customer interest indicate a strong willingness to invest.
Now, let’s review customer activity. As you know, our first announced customer on track towards production is STMicroelectronics, who are currently incorporating MST into the design of the next-generation smart power products. We continue to work closely with them on this effort and their development progress is on track to a production release, which will result in royalty revenue for Atomera. Smart Power products belong to the analog, power and discrete MEMS and sensors, or APMS Group, which ST reports publicly.
In their recent earnings announcement, ST reported $2.2 billion in APMS revenue for the first quarter of this year. So, the potential of this business is very large. As I’ve made clear, our first priority as a company is to help ST get the highest possible performance out of MST and to get it into production as quickly as possible. Our next priority is to put other customers under that same path to production and I believe we are making long strides in that direction.
In the last 3 months, we have submitted a historically high number of proposals for licenses and JDAs and these have been for both Phase 1 and Phase 3 customers. Although none of them have closed yet or they would have been announced, we are currently taking a lot more shots on goal than has historically been the case. That said we still haven’t found our way into JDA1’s net. We have proven and they acknowledge that MST can overcome every challenge they’ve given us. From past experience, we know the decision by a BU to move forward with MST is often a matter of intersecting with the customers move to a new process or node. So, I believe that our continued discussions with JDA1 will ultimately bear fruit.
With JDA2, we have gotten our first peak at data, and it looks good. Although the full battery of testing has not been completed yet, early results look promising, with Atomera providing significant improvements in some of the customers most critical requirements. If the final results, including a much wider set of specs look equally good, we hope to put a license in place and start development towards production.
Likewise, at our previously announced fabless licensee, DOE planning and wafer starts are ramping up to determine if MST will be included in their next-generation RF products. If so, this would be another large license and royalty opportunity for Atomera, and we believe it would influence other RF SOI customers to license MST.
Our foundry licensee just completed a new round of MST CAD and is interested in the possible incorporation into one of their next-generation process nodes as well. They’re seeking approval to start a new set of wafers as we speak. As you can tell, each of our licensees is making an effort to incorporate MST into their upcoming technology releases but we also have proposals out with multiple companies that are not yet licensees. The proposals fall into our four focus areas, except one, which is an entirely new high potential area.
During the last quarter, we’ve had substantive discussions about working together with almost all the major companies in the advanced node and memory area. In the advanced node segment, we are offering a variety of solutions to the challenges of making the incredibly complex gate all-around structures used at the bleeding edge. The silicon data and TCAD simulations we are using to validate these solutions are constantly being refined to provide more detail, which is critical to winning these customers. In addition, we continue to secure patents around structures in this quickly evolving area. As an example, just this week, we were notified that our patent titled Gate-All-Around device, including a superlattice has been allowed and will formally issue next month.
In memory, we are focusing on providing performance upgrades to DRAM to meet the needs of AI, while still delivering on the cost requirements that dominate this segment. It’s a tricky balance, but in memories, MST not only improves performance, but it also can lower the cost of the chip itself, making the cost benefit analysis very favorable.
In the RF SOI segment, we have customers who are running, or planning to run wafers at most of the largest manufacturers and our collaborations with major players in the power semiconductor space also continues. I do understand investors frustration that all the good work happening inside is not generating business announcements on the outside. We believe that will happen in time. Our focus has been on making these proposals turn into revenue, and I think we’re making good progress. We expect to make announcements in the coming quarters in several of these areas.
Before I bring this presentation to a close, I want to let you know about a market segment that represents an entirely new source of IP-protected potential revenue for Atomera beyond our main channel of business. As part of our ongoing R&D, we have developed new variations of our silicon lattice films, which have opened additional potential for us in the fast-growing sector of compound semiconductors. We are exploring a number of potential applications, including those involving silicon carbide, gallium nitride, silicon germanium and other compounds that could have applications in enhancing AI chips and quantum computing.
I will highlight just one we are working on. Gallium nitride or GaN, which is a wide band gap material that can be used to produce devices capable of operating at higher temperatures, frequencies and voltages than those based on pure silicon. The market for GaN and power electronics is growing rapidly, dominated by mobile and consumer applications and with a very bright future in automotive. Many of you may recently have switched to a much smaller, faster wall charger and that was likely enabled by GaN. Our recent report by the Yield Group said that the Power GaN market grew by 41% in 2023 and will likely increase at a CAGR of 46% over the next 5 years, potentially exceeding $2 billion per year by 2028.
Compound semiconductor materials have traditionally been difficult to manufacture due to crystal defects, some of which can be caused by a mismatch with nonnative substrates. The mismatch creates stresses at the interface, which propagate through the wafer causing cracks and other defects that have limited both the size and the yield of wafers, making economical manufacturing difficult. Atomera’s MST film can relax or de-strain the interface between two different crystal latices, and we’ve been filing a number of patents over the years related to this effect. Recently, we began working with one of the world’s leading authorities in compound semiconductor fabrication, Professor Edwin Pinar at Texas State University to investigate how MST could help solve this whole manufacturing problem.
A material which can significantly improve the quality of GaN wafers and potentially enable them to be manufactured at a larger size is a game changer that the industry is currently seeking. Early experiments growing GaN wafers using MST have shown very promising results. While we still have work to do, if our current trajectory continues, we should be able to enter the market and generate revenue much more quickly than in our traditional engagements with semiconductor customers, potentially even before the end of this year.
There’s a lot happening at Atomera these days. In addition to all the customer commercial activity and the potential expansion into the compound semiconductor space, we have been evaluating a large number of potential R&D foundry partners, recruiting new marketing talent, working on some critical partnerships and becoming more active in the CHIPS & Science’s Act. We are very optimistic about the prospects opening before us, any one of which could take us over the top as a company.
Our ST engagement has the potential to form the base of revenue for our company, and each of the areas I’ve outlined can grow on top of that base. Compound semiconductors would represent a new segment for us, one with much faster time to revenues, while our traditional business continues to have a massive TAM rich with opportunities for MST.
Although we’re advancing on many fronts, our team remains laser-focused on converting these excellent prospects into licenses that will make Atomera into a profitable and diversified technology leader in the semiconductor industry. Thanks for taking the journey with us.
Now Frank will review our financials.
Frank Laurencio
Thank you, Scott. At the close of the market today, we issued a press release announcing our results for the first quarter of 2024 and this slide shows our summary financials. Our GAAP net loss for the three-months ended March 31, 2024, was $4.8 million or $0.19 per share compared to a net loss of $5 million or $0.21 per share in the first quarter of 2023.
In Q4 of 2023, our GAAP net loss was $4.6 million, which was $0.18 per share. Revenues were $18,000 in Q1 of 2024 compared to $550,000 in Q4 and $0 in Q1 of 2023. GAAP operating expenses were $5 million in Q1 of 2024, which was a decrease of approximately $148,000 from $5.2 million of OpEx in Q1 2023. This decrease in operating expense was mainly due to a $178,000 decline in R&D expenses, reflecting the closure of our outsourced foundry TSI semiconductor at the end of January.
General and administrative expenses increased by $69,000 and sales and marketing expense decreased by $39,000. Sequentially, our GAAP operating expenses decreased by $300,000 from Q4 2023 to $5 million in Q1, reflecting a $134,000 decrease in R&D expenses also due to the R&D – also due to the TSI closure, a decline of $102,000 in sales and marketing expense due to lower headcount and G&A expense declining by $64,000.
Non-GAAP net loss in Q1 2024 was $4 million and compares to a loss of $4.2 million in Q1 2023. And as with our GAAP results this was primarily due to lower R&D expenses. Sequentially, non-GAAP net loss increased by $228,000 from $3.8 million in Q4 as lower revenues were partly offset by the decline in operating expenses. The differences between GAAP and non-GAAP operating expenses in all periods presented are primarily due to non-cash stock compensation expenses, which were approximately $1 million in both Q1 of 2024 and in Q4 2023 and compares to $927,000 in Q1 of 2023. Our balance of cash, cash equivalents and short-term investments on March 31, 2024, was $19.3 million compared to $19.5 million at the end of 2023.
During Q1 2024, we used $4.1 million of cash in operating activities, and we sold approximately 510,000 shares under our ATM facility at an average price per share of $8.06, resulting in net proceeds of approximately $4 million. First quarter operating cash flow includes the collection of $550,000 of fees invoiced after meeting a key milestone in Q4 under our commercial license.
As of March 31, 2024, we had 26.9 million shares outstanding. Revenue in Q1 was approximately $18,000 and consisted of recognizing 3 months of revenue under the MST CAD license to a large semiconductor manufacturer that we announced last quarter. We expect to recognize approximately that same $18,000 of MST CAD license revenue from this customer for the remainder of 2024. For Q2, we expect our total revenue will be approximately $50,000 consisting of the MST CAD license and engineering services. As I stated in our call last quarter, the next major revenue milestone under our agreement with ST will be the grant of the distribution license upon completion of the qualification process, which is largely under ST’s control, so I cannot provide guidance on the timing for recognizing that revenue.
Moving to our expense guidance. Given the lower operating expenses in Q1 due to the lower outsourced R&D spending, which will not ramp back up until we have a replacement for TSI by reducing our full year guidance for non-GAAP operating expenses to a range of $16.5 million to $17.25 million. We also expect to add several headcount this year in sales and marketing and engineering, and our expense guidance reflects the impact of those planned new hires.
With that, I’ll turn the call back over to Scott for a few summary remarks before we open up the call to questions. Scott?
Scott Bibaud
Thank you, Frank. I’m proud of the progress we’ve made in the last quarter, and I hope you get a sense of the momentum we have underway both in development and in new production opportunities. Our team is confident that it’s only a matter of time before we can announce license deals that will further solidify the potential of Atomera’s business for the future. In addition, it is great to give you a peek at our early compound semiconductor work, which could form a whole new revenue stream for the company. We are doing everything in our power to get ST to production quickly, while simultaneously building a diversified, sustained business around that first deal.
Thanks as always for your support. Mike, we can now take questions.
Question-and-Answer Session
A - Mike Bishop
Okay. Thank you, Scott. [Operator Instructions] And right now, our first question comes from Richard Shannon of Craig-Hallum. Richard, if you would kindly unmute and turn on your camera. It’s already on. Great. You may begin.
Richard Shannon
Alright. Mike, can you hear me?
Mike Bishop
Yes.
Richard Shannon
Excellent. Hi, Scott and Frank, thanks for taking my questions. I guess maybe I’ll ask the first one here on kind of a new – I know new language you’ve been using here, and you put it in your press release as well but regarding proposals, record number of proposals this quarter versus last. I guess, just to understand the significance of this. To what degree of these proposals, kind of a push mechanism for you versus a pull mechanism from your customers to kind of get an understanding of true demand here and interest? How do we take that?
Scott Bibaud
Yes, Mike, I’m glad you asked that question because it’s important to understand, we don’t push proposals out. We don’t just generate proposals and send them to people. The only time we make a proposal is when we’ve gone far enough down the road with a customer in our work that they are interested in receiving a proposal from us. Of course, we share budgetary ideas about what doing business with us will be from the very first day. But creating a proposal, a term sheet and everything around that is a lot of work. And what we’re talking about is that type of proposal, not just a speculative send it out and hope they respond to a type of thing.
Richard Shannon
Okay. That’s helpful. I just want to make sure on that. And then any kind of sweet spot of technology areas that are – where these proposals are going out on? Is it a different mix than what you’ve had in the past? Obviously, we talked a lot about RF SOI and power.
Scott Bibaud
No, I think I talked a little bit about it in my script, but the proposals are going out in almost all of our focused areas. Yes, I would say, all of our focused areas. And in addition, in one other area that we haven’t talked about before, isn’t something we’ve done a lot of work in so far, but it’s something that we have been hoping to enter for some time. So, it’s good potential.
Richard Shannon
Okay. That’s helpful. Let’s see a question or two on STMicro here. You talked about, I think, the last couple of quarters about – and one of the next major steps here is getting a PDK frozen. Is this something you have visibility into from STMicro and have any expectations on timing for that?
Scott Bibaud
Yes. I think – we definitely have a view into their development process. We don’t have a very clear view into their exact schedule. And if we did, they’ve asked us not to share that publicly, so we won’t be able to provide guidance on exactly when those things get done. But I can tell you that we’re on track. When we shared in prior presentations, kind of a time line and the process, like we had some graphics that we’re showing the process; that’s a standard process that people would use in the industry kind of a standard time line. I still think that, that’s very reasonable. And one thing that both we and ST have agreed that we can say is that we’re on track to that process.
Richard Shannon
Okay. Alright. Fair enough then. Scott, I probably missed writing down the exact language you had on the topic of RF SOI, but I think you said something along the lines of you’re running wafers at most of the manufacturers out there. Maybe if you can repeat that passage and then help us understand the point of that comment, please.
Scott Bibaud
Yes. So, the RF SOI market has got a certain amount of manufacturers that really constitute the bulk of the capacity that’s available in the industry. And today, we’re working with the vast majority of them and starting wafers with a lot of them.
Richard Shannon
Okay. Okay. Fair enough then. Let’s jump over to the large analog player for which you’ve got a license for MST CAD here. I guess just what do you kind of see as the outcome for this work? I think Frank mentioned effecting a license – to generate license revenues throughout this year. I’m not sure if that implies stopping after that point. But what do you expect to be the outcome or hope to outcome here? And when will that happen? And does Frank’s comment about revenues lasting through this year imply it’s not going into next year? And is that the – an end point of the work, or just want to correlate those two comments and understand the dynamics there.
Scott Bibaud
Yes. Okay. I apologize if that was a little confusing. So just our MST CAD tools, we licensed to customers just like Cadence or Synopsys, would license their tools to customers. In this case, we have this customer who has signed up for a one-year license with it. It doesn’t mean they’re going to stop at the end of the year. It just means that, that is a contract that we have in place that would be extended as we got closer, just like most simulation model licenses. And what does that mean? Well, what it means is this large customer is doing work on their next-generation process, and they’re adding MST in to see if that makes sense for them. And they’re adding it in at the simulation level and so then it’s easy for them to try a bunch of different things. We can give them advice on different ways of integrating to get different levels of performance improvement. And when they have seen results that they think they like then our next goal would be to get them to take an installation – a manufacturing license and install it in their fab and actually start running wafers inside their own fab. They could actually do demos with us where they send us wafers and then they run wafers in their fab, but we’d be really encouraging them to install. So that TCAD license is kind of a first step in that direction.
Richard Shannon
Got it. Okay. That’s helpful. Maybe moving over to the first JDA partner here. It’s obviously been in place for, I can’t remember how many years. Like 2 or 3 years now. And I think last quarter, you talked about some strong engagement that was slowed down by the holidays, and you seem to – I can’t remember the exact language you’re looking at my notes here. It sounds like there’s some strong interest from business units here, but no decision made. Maybe you can give us some sense here of some back and forth in more iterations happening that you weren’t expecting? Or maybe just kind of help us out relative to what sounded like you’re getting fairly close to a next step several months ago?
Scott Bibaud
Yes. Yes. I think it’s a very frustrating situation. We did a JDA with these guys a couple of years ago. They gave us a set of specifications. We met all of those specifications. And so, then they said, okay, we’re going to present this to our business units to consider adopting. We have been working with a number of their business units. And last year, they gave us a whole bunch of other tests and specs that they wanted us to run wafers for and do simulations to prove that we could solve them, and we did by the end of last year. We pretty much provided all of that test data. They reviewed, they agreed that we had met all of it. And so now we’re in this very frustrating phase where they’re saying, yes, your stuff seems to work well but until we kind of identify this timing when we’re going to make a change to that particular area, then we’ll decide whether we’re going to adopt it or not and do a license.
And so, we’ve been going back and forth with them on this for months. It may – I think there may be an impression because we can’t give many updates on it that we’re not doing, but we literally are talking to these guys constantly. And right now, we just haven’t gotten to the point where we can announce that we have an agreement. So yes, it’s frustrating for us, and I’m sure it’s very frustrating for investors. It looks like we’re not doing anything. We’re doing a lot. We just haven’t gotten it over the finish line. And I don’t think it’s that unusual. If you look back at our STMicro engagement, we really by, I think 2020, we had shown them all the data that they needed to do an installation and get started, and it wasn’t until 2023 that they finally did a license with us and got started on that. So, to a certain extent, you have to be prepared and sitting on the shelf when they’re ready to grab something off the shelf and put it into place.
Richard Shannon
Okay. Fair enough.
Scott Bibaud
And typically – When we – typically, when we do a license with a customer, we ask them to pay an upfront license fee when we sign. So, if you’re going to need to do – use the technology in a year, why would you do a license right away, right? So that might be a little bit of a holdup as well.
Richard Shannon
Okay. Okay. Fair enough. I will jump out of line here, but probably come back in, but thanks for all the details, Scott.
Scott Bibaud
Okay.
Mike Bishop
Okay, Richard, thank you. Looking at some of the questions coming in on the Q&A chat, the first one regards STMicro, which is when ST makes the next milestone, what will the scale of fees that Atomera will receive?
Frank Laurencio
Happy to take that one. We’ve said since the time that we signed the – and announced the signature of the deal that it was consistent with our model for licensing to customers, and we expect the total fees to be in the neighborhood of $3 million for all stages of licensing. And this is consistent with that. So, you can do the math based on the revenue recognized already, which was $550,000 last quarter and $150,000 that we had recognized originally when we did the integration license with them several years ago. So, this is pretty significant in terms of revenue. And when I talked about the inability to give revenue guidance, it wasn’t – I wasn’t implying we didn’t know how much it would be, but rather it’s not something that I can give guidance on the timing of when it’s going to be recognized because we – our policy has always been to guide only for the next quarter until we have solid visibility beyond that. And we don’t have that kind of visibility yet. But when we get closer, we will, as long as it’s consistent with our confidentiality with them, we will give guidance when we get closer.
Mike Bishop
Okay. That answered the next question about timing for ST. You answered that quite well. So, another question that came in. Are the record number of commercial proposals for manufacturing and production licenses, are they for manufacturing and production or just integration license?
Scott Bibaud
Yes, I will take that. For the most part, we are trying to push customers to install, and they are – most of our customers are used to working with the big tool manufacturers. And typically, if a tool manufacturer comes in and says, hey, I have got a new tool that will solve some problems for you. The way that works is they usually ask the tool manufacturer to do a number of demos for them first. So, they – the tool manufacturer will do demos back at their fab and send them wafers. Some of them have that mindset with us. And for them, we would have to do, try to do, an integration license before we get to manufacturing. But our goal is to try to get people to install and put it in their fab and start manufacturing those wafers as soon as possible. So, I think all of our proposals that are outstanding right now include are for manufacturing licenses, but I won’t preclude the fact that we might have to do some demos before we get there.
Mike Bishop
Okay. Have there been serious talks with wafer suppliers about a deal for a blanket MST wafers on RF SOI?
Scott Bibaud
Yes. The answer is yes. That’s something that we have been talking about with various wafer suppliers for some time. And I think we don’t have anything to announce on that just yet, but we do believe that when we are in a position where one of our RF SOI customers is ready to make a decision to go to production, I mean which means there will probably be another year or 1.5 years at least before they go to production, we will be able to arrange for a wafer supplier to deliver MST RF SOI wafers to them, if that’s the path they want to go down. So, that is definitely – we have done the pre-work for that, and I think we could put that together. Just to be clear, we also make it available to our RF SOI customers that they can buy RF SOI wafers and deposit MST on them themselves and then they license that from us. So, there is lots of ways in which it can work.
Mike Bishop
Okay. And a question, maybe you can comment on the replacement for TSI. I think you addressed it a little bit in the prepared comments, but has a replacement for TSI been signed?
Scott Bibaud
Yes. I would say we have spoken to almost a dozen companies, maybe less than that, but a lot of companies. And it seems very clear that we have a lot of good options. We have customers who – I mean possible suppliers that are much better process technology that they used to have at TSI, and we have ones with more specialty processes that we want. So, it’s – I think we are getting very close to starting working with one or more of them, and I don’t have any doubt that we will end up working with multiple suppliers, not just one, but I think we will get started with the first one very soon. So, yes, I think the replacement for TSI is well on its way.
Mike Bishop
Okay. Great. And then Richard Shannon had a follow-up question. Richard, if you would un-mute and turn on your camera.
Richard Shannon
Mike, it will not let me turn on my camera, but can you hear me?
Mike Bishop
Yes, we can hear you. Go ahead.
Richard Shannon
Okay. It’s not allowing me to, oh, there we go. Now, we can do this maybe. Yes. There we go. Scott, I wanted to follow-up on one of your responses to my earlier questions here related to STMicro. You said you basically showed them all the data that they had requested back in 2020, but they didn’t start until 2023 when they pulled it off the shelf. So, I guess kind of applying this to your other set of customers’ engagements, how many other customers have you essentially satisfied all of the data that they have asked for and are sitting around? And do you think it’s reasonable to think about a delay between having the technology like satisfying all the specs, and then waiting x number of years. In STMicro’s case, 3 years before you get to production. Is that something that you expect, or is that an extraordinarily long time? How would you relate this to your experiences with other customers that we haven’t gotten to that point, but seem like you have made some good progress?
Scott Bibaud
Yes. It’s a tricky one to answer, Richard. To be honest, ST surprised me. I think surprised all of us. We gave them results. They were very happy with them. And then just – they just never went off the dime. We kept in conversation with them all the time, like every few months, we would meet with them, and they would say, yes, keep waiting. I don’t think that we – so we have a number of other customers that we have run wafers with, and they have seen good results, and they are not currently in the process of going to production. But I couldn’t say exactly how many or whether I think that’s going to be typical that they pull it off the shelf. I can say there are a lot of customers who we – yes, that we have shown the good results to, and we keep talking to them and they keep kind of pushing it off a little, but we do think that we will engage with them sometime soon and JDA1 is a good example, but we have other examples like that. Actually, we have a lot of examples like that. So, yes, the frustrating thing is if they could just see the results and pull the trigger, that would be great. And that’s what – normally in a business like ours, a customer puts out an RFQ, they need a certain type of product, and you go and pitch your product and when they decide yours is the best you win it. That’s what my experience in semiconductors has been my whole career. But this business we have is a little bit different. We are going out and proactively telling them, hey, if you used our technology, we can make your product a little bit better. And for the most part, we are kind of putting that into their minds. So, even after we have convinced them, and that’s the case, we sometimes have to wait until the planned change of that process or node is happening for them to implement it. And – but I can’t say whether that would take a long time or a short time, we haven’t had enough experience in it.
Richard Shannon
It seems like in all the conversations we have had on these conference calls and offline as well, it just smells like RF SOI kind of is mirroring STMicro in a way where it seems like you have suggested or outright told us that you satisfied the requirements. And I think once or more than once you have even talked about some requirements to changing at some point. But it seems like RF SOI mirrors a lot of what you described with STMicro, is that a fair comparison?
Scott Bibaud
Yes. And let me just – so, let’s say we have a customer, and we don’t engage with them and we engage with them as soon as we can, right, as soon as we can get them interested enough to start testing out our technology. And that customer had a plan for some process to bring out a new version of it in 2 years. And so, they are working on that new process. And simultaneously, we are trying to show to them that our technology is good. And maybe even with only 1 year left, they say, wow, your technology is really good. But it’s too late to implement into our other process. We have already been working for it for more than 2 years. And so, you kind of missed the bus on that one. Now, we have to wait for that one to go to production and then be in production for a few years before they make a new version of it. And so sometimes that’s just what we face. But like I say, if we have enough shots on net, we are going to hit the right timing with some of them and the other ones will come back around.
Richard Shannon
Okay. Fair enough perspective. One last question for me, Scott, just touching on the topic of leading edge, and I think I have even asked this in past calls here, but it sounds like you have got some long period of engagement with multiple players at leading edge. I guess my essential question here is, do you think that work is mature enough here that you have the possibility of intersecting with the first generation of a new technology coming out. You are talking about nanosheet or gate-all-around here, which I think it’s being implemented first on the 2-nanometer node with one or more guys out there. Do you think you are going to be early enough to do that, or does that seem like it might be more of a follow-on derivative process later in the timeframe?
Scott Bibaud
Hard to say, I can say that the leading-edge guys know about our technology, and they know how it could help them. And so, it’s kind of – obviously, if one of them had decided they were definitely going to do that, they certainly would have had to do a license with us. One of the things about gate-all-around and the new nodes, they are so hard to make. They are so complicated that they can’t just – what we call a demo in the industry is when they run some wafers, and they send them to us and then we put our technology on and then we send them back. But for gate-all-around, it’s so complicated to make these things that we can’t do that. We really have to install at the customer site. And so when we do that, they have to sign a license. When they do a license, we definitely will announce it. And obviously, we haven’t announced it yet. But those – I think we are well positioned to get into one of those. I also think the gate-all-around and even the most advanced FinFET nodes still are running at relatively low yields compared to like more mature nodes. And there is room for us to be even incorporated to improve yield in those designs. So, fingers crossed that we will get that done.
Richard Shannon
Okay. Fair enough. That’s all my questions again, Scott. Thank you.
Scott Bibaud
Sure. Thanks Richard.
Mike Bishop
Okay. And just one last question here from the Q&A line and that is, could you describe how the business model for entering the GaN market would be different from your approach to license – approach to-date to licensing of MST?
Scott Bibaud
Yes. So, the GaN market is very interesting. Actually, this whole compound semiconductor, it’s an area that we have been doing research on for a few years. So, although this is our first announcement, it isn’t something we just started thinking about. So, there is multiple ways that our business model can be used for GaN. We can just license our MST technology, just like we do today with regular semiconductor makers to adopt MST on wafers and then build GaN wafers on top of that. That’s one way that we could do it. We will probably license our GaN technology separately from the rest of our licensed technology because it may have very high value. The second thing we could do is maybe we could become a manufacturer of GaN wafers at least in modest volumes, and that would allow us to generate revenue. And if it was a very high-value technology, maybe we could make a very nice-looking gross margin there and help to subsidize the rest of our business. We don’t have a decision to do that yet. I mean we have a very strong philosophy about making a business model that’s got a lot of leverage to the bottom line. And so, if we were to become a manufacturer, obviously, we would have to have a lot more CapEx, which might not work well with that. But we could do something on the smaller volume manufacturing side. And – but I think for our customers who would go into high-volume manufacturing, it’s most likely that we have licensed directly to them. So, we have been looking at the GaN market for a while. We have had a lot of marketing studies going on about how to approach it, but we haven’t got a final determination about what we do. I can tell you, I think it’s a – it would be a much faster time to market. And I am pretty excited about the prospects of MST there and the prospects in a few other areas in the compound semiconductor market.
Mike Bishop
Great. Okay. Scott, why don’t – that concludes the Q&A session, if you could proceed with any closing comments.
Scott Bibaud
Okay. Sure. Well, I hope today we have given you a good picture of the compelling prospects which Atomera is pursuing. We will be at the Oppenheimer 9th Annual Emerging Growth one-on-one conference on May 9th. If you are planning to attend, I would welcome the opportunity to meet. Please continue to look for our news, articles and blog posts, which are available, along with investor alerts on our website, atomera.com. Should you have additional questions, please contact Mike Bishop, who will be happy to follow-up.
Thank you again for your support and we look forward to our next update call.
Mike Bishop
ATOM no surprises, as expected results.
https://www.accesswire.com/856425/atomera-provides-first-quarter-2024-results
Now a look back at timing for STM, last earnings CC
But as people will remember for ST, they did their phase 3 work a long time ago, kind of put it on the shelf. And now they're taking this, and they're doing it for a brand-new process node. So, they do have some work to try to -- I mean, I think they're going to get very good results on their first run, but their goal is to spread MST in a lot of places, so they can get good results across more and more components in their designs.
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Atomera, STMicro sign deal to use new chipmaking material
By Stephen Nellis
April 26, 20233:29 PM
"Atomera Chief Executive Scott Bibaud told Reuters that STMicro, with the new deal, is now Atomera's closest customer to moving to mass production. Bibaud said there is no firm timeline for when chips with Atomera technology will be in production, but it could be within 12 to 18 months."
As Chips Scale Down, Leakage Current Goes Up. How Are Developers Responding?
April 05, 2021
All About Circuits
Scaling down the transistor to the next smallest node often sounds like a fool-proof way to improve IC performance. In reality, however, scaling introduces many hardships for IC designers. One of the most notable challenges with scaling is the increased prominence of leakage current, which significantly contributes to overall chip power consumption.
Scaling down the transistor to the next smallest node often sounds like a fool-proof way to improve IC performance. In reality, however, scaling introduces many hardships for IC designers. One of the most notable challenges with scaling is the increased prominence of leakage current, which significantly contributes to overall chip power consumption.
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Leakage?
MST can be used to reduce power consumption by lowering the leakage, just as it can be used to boost performance. Dealing with increased gate leakage at lower process geometries is one of the most difficult tasks for semiconductor designers. During third-party tests, gate leakage reductions of more than 60% were demonstrated by preventing unwanted transistor current flow in the vertical direction.
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STMicroelectronics introduced new innovations in silicon process technology that incrementally leverage existing manufacturing approaches. Fully Depleted Silicon On Insulator, or FD-SOI
FD-SOI is a planar process technology that relies on two primary innovations. First, an ultra-thin layer of insulator, called the buried oxide, is positioned on top of the base silicon.
* Now STM is playing with introducing MST and looks to me may be targeting the the buried oxide layer.
November 16, 2023
Atomera Continues to Improve Our MST-SP 5V PMIC Power Switch
Our further optimizations have made the already best-in-class device even better, especially the PMOS device. We are demonstrating up to 30% lower N-device RSP, up to 40% lower P-device RSP, with LG 20%-40% shorter than competitive offerings. These improvements mean that MST-SP provides even higher cost savings and power reductions versus conventional technologies.
The Result: MST-SP enables a die shrink up to 20% for PMICs and other 5V device applications
Additionally, smaller dies also consume less power, generate less heat, and enable the manufacturing of chips at a lower cost per unit. Therefore, advancements in semiconductor technology that shrink the size of the die are instrumental in driving improvements in computing performance.
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Additionally, smaller dies also consume less power, generate less heat, and enable the manufacturing of chips at a lower cost per unit. Therefore, advancements in semiconductor technology that shrink the size of the die are instrumental in driving improvements in computing performance.
Security STM / STMicroelectronics N.V. - Depositary Receipt (Common Stock)
Institution BlackRock Inc.
Latest Disclosed Ownership 76,018,157 shares
Ownership 8.30%
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BlackRock recently filed as required when they went over 5% in Atomera.
Looked up Institutional holders for Atomera and STMicro
#1 for both is BlackRock
The timing of Jeff Lewis's departure is really odd.
Management changes based on retirement are usually announced at quarterly filings and 3 to 6 months is a minimum norm. Ask any salesman and you know it is all bout closing the deal to keep your job. Scott says the pace of customer interactions have really ramped since STMicro decided to take the scale production. The pressure on Jeff to close deals is probably higher than ever? Retirement or the two parties not seeing eye to eye?
So Jeffrey tenders his resignation BUT, it's not effective immediately. He's still employed (at least on paper) until March 29th. That tells me that there must be a process in place and he wasn't let go for cause. That was Monday the 11th. Starting Tuesday, at the open, Intermarket Sweep trades began and gained steam for the rest of the week along with large-block Cross-trades in conjunction with large block Form "T" trades both Pre-market and After Hours. As of Friday, the total pre and post market volume for the past 4 days is equal to the Avg Daily Volume. That's huge for a low volume and low float stock like ATOM. The question is who and why?
Just for clarity why the Sweep trades caught my eye;
Intermarket sweep orders (ISO) is a type of stock market order that sweeps several different market centers and scoop up as many shares as possible from them all. Sweeps are typically large blocks, meaning that the trader placing the order has some major financial backing. Sweep orders indicate that the buyer wants to take a position in a hurry, which could imply that he or she is anticipating a large move in the underlying stock's share price in the very near future.
What is the difference between a block order and a sweep order?
A block trade is a privately negotiated transaction, with variables such as shares and position balancing at play. A Sweep trade is an aggressive transaction broken up and sent across multiple exchanges.
In conclusion, I'm questioning the timing of Jeff's departure time-line (March 29th) and the sudden large block trades in a hurry the next 4 days after the 8K release of Jeff's resignation. There has been no sudden sell-off so that suggests to me that someone(s) are accumulating. For what reason are they accumulating and is the timing of the sudden rash of sweep trades and Jeff's resignation coincidental/related, is what I'm pondering. Short covering? Has/is there a buyout coming (and that's why Jeffrey is retiring?
Just things to think about imo...🤔
62 y.o. licensing Expert Jeff Lewis announced his retirement form Atomera
The big question being was it job performance related. Atomera is now entering a period where potential licensing should be ramping up if STMicro is seeing validation of the results in scale that the TCAD trials indicated. Lewis was hired in 2021 and Atomera likely knows by now if he the best man for what is about to become the most important position in the com[any if MST is taking the next step.
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Not seeing anything on the Linked In page for Jeff Lewis.
Why a Soitec link? Nov 2023 Whitepaper
Using wafers from Soitec, Atomera has been able to demonstrate the unique dopant retention of
MST on ultra-thinned RF-SOI substrates. Regular RF-SOI (high resistivity, trap-rich) substrates
were thinned to 120A silicon on BOX thickness, and then blanket MST layers plus a 30nm capping
silicon layer were grown. After growth, and during regular device fabrication, the wafers were
implanted with boron. The as-implanted boron profile is quite broad as shown in the white open
circles in Figure 10. The MST oxygen layers then trap diffusing boron to create the steep profiles
as shown in blue (after RTA anneal) and red (after full thermal Dt of the RF-SOI manufacturing
process). Compared to the SSRW profile formed by selective epitaxial growth on the boron-doped
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MST® for PMIC and RF-SOI Switches
Copyright © 2022-2023 Atomera Incorporated p. 10
SOI structure in Figure 9, MST enables greater than a10x steeper SSRW profile by implanting
boron into the SOI substrate after blanket MST epi growth.
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Summary
MST provides doping engineering and mobility enhancement, enabling the further scaling of key
semiconductor switch devices. MSTcad is a silicon verified tool for Sentaurus users, which helps
optimize the integration of MST. We have used MSTcad to engineer MST-SP, an industry-leading
5V switch for PMIC applications. MSTcad is actively in use to improve higher voltage and RF-
SOI devices, and there are many further applications of the technology.
August 2023 White Paper:
MST-SP 5V PMIC Power Device
Pushing the Industry’s Leading Performance Higher
Hideki Takeuchi, Shuyi Li, and Robert Mears,
In 2022, we launched our MST-SP® (smart profile) product, an asymmetric 5V power device for
PMIC and other applications (details are available in the Atomera white paper, “MST® for PMIC
and RF-SOI Switches”).
Summary and Future Work
The MST-SP device was designed as a power switch for Li-ion battery applications, based on a
source engineering concept for LG scaling. MST’s unique dopant profile control feature enhances
the LG scaling while maintaining BV, HCI, and SOA requirements for scaled devices. Our results
in 2022 demonstrated that MST-SP was the industry’s best-in-class power switch device. Our
further optimizations have extended this lead, especially in the PMOS device – demonstrating up
to 30% lower N-device RSP, up to 40% lower P-device RSP, with LG 20%-40% shorter than
competitive offerings. These improvements mean that MST-SP provides even higher cost savings
and power reductions versus conventional technologies.
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MST dopant profile control will be effective for drain engineering of higher voltage power switch
devices as well. Work is in progress and will be reported soon.
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Takes patience as Atomera continues to deliver results that are moving from lab to application.
Presented oral presentation overnight at IEEE conference Bangalore
[5H-4]
SSROI (super-steep retrograde on insulator) substrates for RF switch and LNA device performance enhancement Hideki Takeuchi; Atomera Inc., USA. Atomera -Soitec- Hideki Takeuchi with San Jose State University.
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The Soitec connection looks closer than what Scott can say?
Adding at a lower price on more good news.
Soitech does a lot of work with STM and the research out of San Jose State University throws in MST for a synergistic boost when deposited onto ultra-thin RF-SOI wafers. Anyone doubt STM is already using the combo in next generation wafers?
And now they are going to present a joint paper...😏 HMmmmmmmmmmm....
Heaven help them if they’re thinking like me lol.
Time will tell but low 6’s seem like a good deal to me. Just adding to my pile.
15K volume buyer just now too, someone thinking like you.
Added a bunch today. Maybe I’m just a glutton for punishment lol.
Nice investigative work 👏
Sonic and STMicro are partners in Silicon Carbide Wafers
From CC
Recently, we were invited to give a paper coauthored with Soitec and San Jose State University at the upcoming IEDM conference in March, which will provide details on how MST on an RF-SOI substrate can enhance performance of both RF switches and LNAs.
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Scott mentions blanket wafers being a short path to royalties. Soitec's SIC solution is a thin wafer glued over the SC wafer. The industry is so secretive and Scott can only hint because partners do not even allow their names to be mentioned. Filling in the blanks is a huge part of investing in this sector. So my guessing continues as I dig.
STMicro I Silicon Carbide (SIC) wafers
In 2023, ST plans to invest about $4 billion in capex. About 80% will be devoted to its 300-mm wafer fabs and SiC manufacturing capacity, including its SiC substrate initiative.
Last year, ST continued to ramp up its SiC front-end device production in Ang Mo Kio, Singapore, and announced a plan to build a $730 million integrated SiC epitaxial substrate manufacturing facility in Catania, Italy. Production is expected to start in 2023 and ramp up in 2024, said Merli....
In 2023, ST plans to invest about $4 billion in capex. About 80% will be devoted to its 300-mm wafer fabs and SiC manufacturing capacity, including its SiC substrate initiative.
- can MST help with a major problem, when it comes to yield rate, SiC sucks
Short path to royalties?
One of the interesting things about our solutions in those areas is that some of them can be implemented on a (blanket wafer), meaning that we can make an MST wafer that doesn't have to get integrated into the rest of the process flow.
Mass exodus of traders thinking they would see a pop after CC. A point I liked from CC
Scott Bibaud
"But as people will remember for ST, they did their phase 3 work a long time ago, kind of put it on the shelf. And now they're taking this, and they're doing it for a brand-new process node. So, they do have some work to try to -- I mean, I think they're going to get very good results on their first run, but their goal is to spread MST in a lot of places, so they can get good results across more and more components in their designs."
* My rose colored glasses on, company has been in right place and is now entering right time as shrinking chip = more benefit from MST. STM will be proving TCAD results with actual scale product. A long list of partners will be waiting to see outcome on scale production before taking their projects off the shelf.
LOS GATOS, CA / ACCESSWIRE / February 13, 2024 / Atomera Incorporated (NASDAQ:ATOM), a semiconductor materials and technology licensing company, today provided a corporate update and announced financial results for the fourth quarter and fiscal year ended December 31, 2023.
Recent Company Highlights
Achieved revenue from commercial licensee for two milestones
Second customer completed installation of MST technology
Executed an MSTcad license with a large semiconductor manufacturer
Management Commentary
"There is clear evidence the company is executing on its strategy to commercialize MST. With our technology now installed at two customer fabs, we're focusing on moving additional customers along the engagement pipeline toward the royalty phase," said Scott Bibaud, President and CEO. "The semiconductor industry is currently in an ideal state to adopt new technology and the performance improvements enabled by MST are compelling to fabs and foundries seeking to gain cost-effective advantages in highly competitive markets."
Financial Results
Revenue for the fourth quarter of 2023 was $550,000. The Company incurred a net loss of ($4.6) million, or ($0.18) per basic and diluted share in the fourth quarter of 2023, compared to a net loss of ($4.3) million, or ($0.18) per basic and diluted share, for the fourth quarter of 2022. Adjusted EBITDA (a non-GAAP financial measure) in the fourth quarter of 2023 was a loss of ($3.8) million compared to an adjusted EBITDA loss of ($3.5) million in the fourth quarter of 2022.
For fiscal year 2023, revenue was $550,000, compared with $382,000 in fiscal 2022. Net loss was ($19.8) million, or ($0.80) per basic and diluted share for fiscal 2023, compared to ($17.4) million, or ($0.75) per basic and diluted share in fiscal 2022. Adjusted EBITDA for fiscal 2023 was a loss of ($16.6) million compared to an adjusted EBITDA loss of ($14.1) million in fiscal 2022.
The Company had $19.5 million in cash, cash equivalents and short-term investments as of December 31, 2023, compared to $21.2 million as of December 31, 2022.
The total number of shares outstanding was 26.1 million as of December 31, 2023.
Fourth Quarter and Fiscal Year 2023 Results Webinar
Atomera will host a live video webinar today to discuss its financial results and recent progress.
Date: Tuesday, Feb. 13, 2024
Time: 2:00 p.m. PT (5:00 p.m. ET)
Webcast: Accessible at https://ir.atomera.com
Note about Non-GAAP Financial Measures
In addition to the unaudited results presented in accordance with generally accepted accounting principles, or GAAP, in this press release, Atomera presents adjusted EBITDA, which is a non-GAAP financial measure. Adjusted EBITDA is determined by taking net loss and eliminating the impacts of interest, depreciation, amortization and stock-based compensation. Our definition of adjusted EBITDA may not be comparable to the definitions of similarly-titled measures used by other companies. We believe that this non-GAAP financial measure, viewed in addition to and not in lieu of our reported GAAP results, provides useful information to investors by providing a more focused measure of operating results. This metric is used as part of the Company's internal reporting to evaluate its operations and the performance of senior management. A table reconciling this measure to the comparable GAAP measure is available in the accompanying financial tables below.
About Atomera Incorporated
Atomera Incorporated is a semiconductor materials and technology licensing company focused on deploying its proprietary, silicon-proven technology into the semiconductor industry. Atomera has developed Mears Silicon TechnologyTM (MST®), which increases performance and power efficiency in semiconductor transistors. MST can be implemented using equipment already deployed in semiconductor manufacturing facilities and is complementary to other nano-scaling technologies already in the semiconductor industry roadmap. More information can be found at www.atomera.com.
https://finance.yahoo.com/news/atomera-provides-fourth-quarter-fiscal-210100298.html
https://ir.atomera.com/download/companies/270138a/Presentations/Q423%20Update%20Call%20deck%20FINAL.pdf
ARM finished today up $33 billion. Wall Street pumping other people's money into nose bleed big tech valuations.
Nvidia is up from $450 Billion to start 2023 to $1.8 Trillion as of today.
Sellers on the end of those buys are now loaded with cash and tend to have interest in finding the next technology companies with big upside. If a big Wall Street firm is on Tuesday's CC the upside will be explosive.
ARM valuation is currently up $26 billion. ATOM valuation moves $26 million on a $1 move.
Atomera not a "breakthrough technology" that Wall Street loves to pump. It does have widespread upgrade potential for the chip industry that is currently being validated at scale by STMicro. A little boring but if chip design sees end customer adoption and value I think it is an easy sell for widespread adoption as it is a cheap and easy installation.
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2024 has the potential to be a very big year
ARM up another 40% today. Wow.
kt
ARM's 50% move today shows investors are moving beyond the Magnificent 7. Atomera has a fast developing story of boosting chip performance as chips become smaller and more demanding. CC coming this Tuesday. Hope to see Scott double down on STM will go to production.
Also expect to hear JDA1 seeing more value in the MST performance boost with latest chip designs.
Scott Bibaud “very confident we’ll get to royalty revenue with STM” in QA session Needham Conference
The focus on coming earnings and conference call
When will MST be qualified by STMicro rather than will it be adopted. A huge de-risking event if STMicro confirms scale production validates benefits they saw with TCAD.
Agreed. Patience. Thanks for posting a reminder of his achievements and fact MST been in development 20+ yrs. Its time is coming. STMicro first license signed last year. Revenue stream from production eminent.
Robert J. Mears
Dr. Mears is a recognized pioneer and leading expert in nano-scale material science and engineering. In the mid-1980’s, Dr. Mears re-engineered silica optical fiber by adding atoms of erbium (rare earth element) to silica to invent the Erbium Doped Fiber Amplifier (EDFA), a transformative technology for long-distance optical networks.
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In optical telecommunications this happened between the mid-1980s and 1990s when a device called the erbium-doped fibre amplifier was born, grew up and went to work. It revolutionized telecommunications and is nowadays a vital part of the global optical fibre network that is the backbone of the information age.
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Patince folks as the MST play out is a long term big payday.
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Took a few years but Atomera's is now sitting in the right spot at the right time.
2022 -Nvidia CEO Jensen Huang Our transistors are going to find limits, and we’re at atomic scales. And so [this problem] is a place where material science is really going to come in handy.”
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MST being a material science a lot of companies are now have a more serious interest in.
Lou Baseness - found this from his pay site
No nonsense. No fluff. Just vital intelligence to connect the dots on the market's next major tech trends and top investments, based on patent filing activity.
Found this old news from Lou Basenes
Atomera has developed patented technologies that extend Moore's law, facilitating transistors at sizes as low as 2nm and 3nm. The company has already announced several "Joint Development Agreements," which are essentially time- and cash-intensive agreements with semiconductor manufacturers to create the next wave of chips of all sorts, primarily for mobile, EV, 5G, etc. The JDA partners have not been announced, but the fees paid by the JDA partners were taxed at the same rate as South Korea, so it is widely speculated that the first JDA partner is either SK Hynix or Samsung.
The company is extremely capital-light. It has few employees and an annual cash burn under $10M. It has more than $20M cash on hand and no debt.
The stock itself is kind of a marvel. Only 23M shares outstanding. The company has generated no significant revenue yet, so there are 4.3M shares held short. With average volume of about 200k, we're looking at more than 20 days to cover.
However, the company is set to generate revenues primarily from its extensive patent collection. This means that if and when the chips that use its patented MST technology pay royalties, nearly 100% of that revenue will go to the company.
The current stock price is about $14. If given a P/E comparable to other semiconductor companies, even $50M in revenue (!) would mean a stock price above $100. Literally any meaningful revenue from even a single fab would put the stock price north of $250.
Given the current market cap (under $350M), and the high level of institutional ownership (more than 6M shares), practically any decent effort could cause this to squeeze like few have seen.
*Not able to find the Fox Business mention today
Notice the April $12.50 Call strike action (volume and open interest) past couple of days? Another 300+ contracts today although I'm not sure whether they were sold or bought...
Catalyst or a hedge? April is the pivot point regardless...🤔
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