Thank you, Jeff. I appreciate everyone joining us today. I am looking forward to updating everyone on our progress since the start of the first quarter. I will briefly cover the key highlights from the start of the first quarter and discuss the most significant developments and little bit more depth and provide some context for their important. Then I will turn things over to Tim to discuss our financial results. We will be pleased to answer your questions after our prepared remarks. First, we complete the solid-state circuit breaker prototypes related for our first design win 3 months ahead of schedule. The customer completed their initial testing of these prototypes last month and we continue collaborating with them on their first B-TRAN enabled solid-state circuit breaker product ahead of its introduction to the marketplace in the coming months. Second, the potential new EV contactor program with Stellantis that we discussed in our year-end call, in late February was given internal approval at Stellantis and is advancing through their internal purchase order approval process. This would be our second program with Stellantis in addition to the drivetrain inverter program. Third, as we announced in our quarterly results press release earlier today, we secured an order from a third, Forbes Global 500 power management market leader interested in our technology for solid-state circuit breakers for power distribution systems. They're evaluating our technology for circuit protection for power distribution systems with a focus on DC microgrids for solar and wind. With the addition of this customer, we're now engaged with three Global 500 power management market leaders. Design wins with any of these companies could lead to several million dollars or more of annual revenue for us. Fourth, Sekorm, one of our demand creation distributors, secured an order for discrete B-TRAN devices, SymCool power modules and solid-state circuit breaker evaluation boards from a new customer focused on solid-state circuit breaker applications. Fifth, we shipped solid-state circuit breaker evaluation boards with B-TRAN discrete devices to several potential design win customers as we continue to gain significant momentum for our technology in industrial and utility circuit protection applications. And sixth, as we also announced in our press release earlier today, we secured a sales representative partnership with Queensland Semiconductor Technologies, also known as Quest Semi, which expands our reach into key markets in Europe and Asia. Quest Semi stands out for its silicon and high-voltage silicon carbide power semiconductor product offerings, serving markets such as electric vehicles, electric vehicle charging, renewable energy and industrial motor drives. Our products will be a complementary offering for Quest Semi to sell into their existing and prospective customer base along with their own product portfolio. Quest Semi partners with leading technology corporations and top tier universities for transformative applications. Let's briefly turn to what we are repeatedly hearing and seeing from customers, including prospective customers we talked to at the Applied Power Electronics Conference in Atlanta and the PCIM Expo and Conference in Nuremberg, Germany in recent weeks. There's clearly growing awareness and interest in our technology for solid-state circuit protection, both for industrial and utility applications and EV contactors. We expect solid-state circuit breaker customers, including our first design win customer, to drive our initial revenue ramp starting in the second half of this year. The market has wanted to move to solid-state circuit protection due to the rapid growth in distributed energy such as renewables and batteries and its benefits relative to slower acting electromechanical breakers, but there was not a solution that provided low enough conduction losses to make solid-state circuit breakers a practical solution. Due to its ultra-low conduction losses, we believe B-TRAN is the enabling technology that could result in widespread adoption of solid-state circuit breakers for many applications and markets. With the continued growth of renewables, energy storage and EV charging globally, there's a growing and increasingly urgent need to upgrade grid infrastructure to handle these distributed loads and new generation sources to avoid significant grid failures such as wide scale blackouts. To compound the problem, there has been a lack of investment in updating the grid infrastructure over recent decades with significantly outdated grid infrastructure in many places, particularly in the U.S. and the European Union. As an example, a recent article from Reuters stated while the global investment in renewables has doubled over the last fifteen years, the investment in the grid infrastructure has remained relatively flat at $300 billion a year. The same article went on to say that the European Union has estimated that Europe needs to invest over $2 trillion in its grid in the next 25 years. These grid investments will require fast acting solid-state circuit protection, creating an enormous opportunity for our technology in both the short and long term. The situation in the U.S. is similar as much of our grid is even older than Europe's. It is this need for major investments and upgrades in the world's electricity, transmission and distribution systems that is driving the interest of our target customers to develop low-cost, fast-acting, low-loss solutions for circuit protection equipment such as circuit breakers and protective relays. Our target customers are looking for a better semiconductor solution that doesn't rely on silicon carbide if they need to reduce cost and improve solid-state circuit breaker performance. Silicon carbide MOSFETs can't match B-TRAN's ultra-low conduction losses, which is critical to performance in continuously conducting applications like circuit breakers. We're repeatedly seeing customers that have already started evaluating silicon carbide, sometimes as part of formal programs looking for another solution. These prospective customers are starting to evaluate our technology because they see an opportunity to utilize B-TRAN to simultaneously lower costs and improve performance in their planned solid-state circuit breaker product offerings. A recent example of that is our first design win customer. The customer that awarded us this design win is one of the largest circuit protection equipment manufacturers in Asia, targeting industrial and utility markets, data centers and renewable energy applications. This customer previously developed a solid-state circuit breaker prototype with silicon carbide devices. The prototypes did not meet their performance or cost requirements. They had us replace the silicon carbide devices and controls in the prototypes. We inserted our B-TRAN devices and controls in place of the existing silicon carbide MOSFETs and driver circuitry. The B-TRAN enabled prototypes reduced the total conduction losses versus the silicon carbide prototypes by 60%. We completed these B-TRAN enabled circuit breaker prototypes 3 months ahead of schedule. The customer completed their initial testing of the prototype circuit breakers, which went well. We've been asked to incorporate some additional capability into the device drivers to accommodate some of the innovative ideas on the capability they want in the circuit breaker. That work will be done shortly, and the updated breakers will continue customer testing later this month. We're expecting commercial sales from that product later this year. As we previously mentioned and based on the customer's projections, for Ideal Power, the initial product from this customer could translate to revenue of several hundred thousand dollars to us in the first year of sales, with the opportunity to exceed $1 million in revenue for us in the second year of sales. But again, that's just the first product. This is expected to be the first of several products from this customer incorporating B-TRAN into solid-state circuit breakers. This customer offers a variety of circuit breaker products at different ratings. They're eager to bring innovative products to market, and we represent a fast path for them to bring a really differentiated, highly competitive solution to the marketplace. And our development agreement with this customer does not constrain us in any way from working with other companies interested in our technology for circuit breaker solutions. In fact, we can leverage the work we've done with this customer with current and future customers looking to provide the market with circuit breaker products. Now that we captured our first design win for solid-state circuit breakers, we expect this win to help us secure additional design wins with other circuit breaker customers. We've got multiple large global customers that we're working with who have our technology in their lab now and represent what could be significant design wins for us. Would only take a few key design wins to get us to profitability. Similar to the customer we just discussed, we're seeing customers looking for alternatives to silicon carbide devices, particularly for applications requiring very low conduction losses, such as solid-state circuit breakers, protected relays and electric vehicle contactors. Silicon carbide devices typically cost 3 to 5 times the cost of silicon devices. For high power applications that require very fast switching, silicon carbide devices can be a good but somewhat costly solution. For other applications, we believe that our lower cost paired with the ultra-low conduction losses for our technology provide us with a significant and sustainable competitive advantage to silicon carbide and circuit protection applications. In addition, due to lower losses, B-TRAN enabled solid tape circuit breakers require a smaller surface area or less complex thermal management systems to dissipate the heat, resulting in smaller, lighter, lower cost OEM solid-state circuit breaker solutions. Moving on to another exciting market for B-TRAN, electric vehicles. B-TRAN can be used for circuit protection in EV contactors, in the drivetrain for inverters and the EV charging infrastructure. Electric vehicles utilize a lot of power semiconductors. We're seeing a need to bring more cost effective, more efficient solutions to address today's challenges for electric vehicles, including safety, cost and range anxiety. Our technology directly helps in all three of these areas. Many OEMs and Tier 1s we're working with are interested in how our technology can be used for contactors that protect the batteries by providing fast acting control of power to and from the battery and EV subsystems. Since contactors are continuously conducting devices, they need a very low loss, fast acting semiconductor solution to protect the battery system from rising faults that can damage the battery and electronics in the vehicle. They're looking for better solutions that don't rely on silicon carbide because they need to improve performance and tackle cost at the same time as cost remains a major challenge for broad-scale electric vehicle adoption. Stellantis was involved in a program evaluating silicon carbide devices for EV contactors to protect the vehicle's batteries. When we met with Stellantis management, engineering and production teams back in February, we learned about this program from them and were told that the silicon carbide devices were not meeting their performance and cost requirements. We provided material to the Stellantis U.S. and European teams on how B-TRAN can provide the EV contactor solution they're looking for with better performance and lower cost devices than their prototype silicon carbide-based contactor. This immediately led to discussions with Stellantis about a potential program for B-TRAN enabled EV contactors, providing us with a potential second program with one of the world's largest automakers. Based on positive feedback from Stellantis on our technology and its applications and the success of the first 2 phases of our drivetrain inverter program, we expect to not only continue advancing the custom B-TRAN module for their EV drivetrain inverter, but also add a new high-priority program for EV contactors. We're pleased to announce that the EV contactor program has been approved internally at Stellantis up through and including their Chief Technology Officer. We've already provided them a scope and cost for the program for review. Our focus is to finalize the deliverables and schedule for the program and provide any additional information they need as they go through their formal purchase order approval process for this high-visibility program. While they have identified the contactor program as a high priority, we continue to work with them on the timing and scope of work for the third phase of the inverter program. The contactor program with Stellantis is expected to move faster than the drivetrain program because B-TRAN value proposition for EV contactors is similar to that of solid-state circuit breakers, very fast acting, safer and more reliable with programmability and diagnostic capability, and B-TRAN is an enabling technology for the application. We're extremely excited about this new program as the implementation of EV contactors is not nearly as complex as undertaking and implementing a new EV drivetrain platform. This program would meaningfully accelerate our timeline to substantial product revenue from our relationship with Stellantis. In addition to our work with Stellantis, we're also progressing with other prospective automotive customers. As an example, we're collaborating and recently shared initial test results with a global Tier 1 automotive supplier on an alternative solid-state circuit breaker design that they conceived to lower cost and potentially simplify their breaker design compared to the standard approach for solid-state circuit breakers. This Tier 1 automotive supplier has a broad product portfolio and sells into not only automotive, but industrial markets as well. There are likely several potential opportunities with this customer, including opportunities for both solid-state circuit breakers and EV contactor products. Moving on to the macro level, some investors have expressed concern related to the recently enacted tariffs and shifting trade policies. While the trade situation is very fluid, we expect minimal impact from tariffs in place today. Power semiconductors are exempt from most tariffs currently in effect, including those applicable to the countries where we fabricate wafers and package B-TRAN dye. This limits the potential impact on us. There's also been no slowdown whatsoever in terms of customer engagement and customers' interest in our technology for their future products. Although the situation remains dynamic, an example being the significant reductions in tariffs with China in recent days, we're well positioned to mitigate the impact of future changes in tariffs and trade policies and other supply chain risks. Ideal Power utilizes an asset-light business model, leveraging the large investment already made in silicon wafer processing and packaging. We are dual sourced for essential supply chain activities such as wafer fabrication and packaging in different parts of the world with ample capacity to support anticipated customer demand over the next few years. Our dual-sourcing strategy in disparate geographies has no exposure to China. In this environment, we remain focused on our execution. We continue to have excellent engagement with our customers on their technology roadmaps and we're actively working to ensure our supply chain is geographically diverse down to the component level to mitigate cost and revenue impacts of tariffs and minimize the impact of any future supply chain disruptions. Looking briefly at innovation, the first engineering run of our next generation B-TRAN dye was successfully completed, and we currently have multiple engineering runs in fabrication for our next generation design. As you may recall, this dye will be roughly half the size of the current dye, translating to more than twice as many dye per wafer, while providing the same voltage and current rating capability as our current device. This next generation B-TRAN dye design is part of our long-term cost reduction roadmap. Implementation of next generation dye design will effectively double the available capacity of dyes from our wafer fabrication partners, thereby supporting our planned sales ramp and large volume target customers for the industrial and automotive markets. Looking at our expanding B-TRAN patent estate, we currently have 94 issued B-TRAN patents with 45 of those outside of the United States. Our current geographic coverage for our patents includes North America, China, Taiwan, Japan, South Korea, India and Europe, all representing our high-priority patent coverage geographies. As a result of our continuous innovation, our list of pending patents is now at 70. To further protect our intellectual property, we treat the proven double-sided wafer process flow we developed to make our devices as a trade secret and do not disclose identity of and we work under strict confidentiality with our wafer fabrication partners. So even if a competitor studied our patents, they wouldn't have the knowhow to fabricate the device. In summary, we're excited about the opportunity for B-TRAN as enabling technology for solid-state circuit breakers and EV contactors and that our relationship with Stellantis continues to expand. We think 2025 is shaping up to be a pretty exciting year for us with additional design wins in the coming months and our initial revenue ramp beginning in the second half of this year. We've got several things in the works that I think are going to be some great commercial announcements, so please keep an eye on the news flow that's going to be coming out from us in the coming months. Now I'd like to turn the call over to Tim Burns to review our financials. Tim?