Thanks, Jim. Good afternoon, everyone, and welcome to our second quarter fiscal '25 earnings conference call. Thanks for joining us today. I actually have a number of topics that I'm going to go through. I'll try and get through them quickly. We've had a lot of inbound request for information and to clarify all the different markets that we have been expanding into, particularly, a lot of questions around the AI side. So, I thought I would spend a little bit of time just making sure to bring everybody up to speed and kind of normalize what everybody understands about that. So bear with me as I go through this. Chris will then cover some details related to our financials a little bit shorter than normal to make up for my longer portion of this thing and then we'll open up for questions. I'll start with a brief overview of the quarter's key highlights and share updates on the key markets we're targeting for our semiconductor test and burn-in, including notable progress in those new markets. We're excited to share the significant progress we've made on the key objectives we outlined at the start of the fiscal year, particularly, expanding our product reach into additional large and fast growing markets. Our market diversification into sectors such as artificial intelligence, processors, gallium nitride power semiconductors, data storage devices, silicon photonics integrated circuits and flash memory is driving new opportunities to attract customers and drive revenue growth. This progress includes our wafer level burn-in solutions and also the success we're achieving with the new semiconductor package part test and burn-in product lines we acquired through our acquisition of Incal Technology that we closed last August. This acquisition has led to the acceleration of our market diversification with particular success and leverage expanding our total available market in AI processors. We're pleased to report meaningful progress in our efforts to penetrate the high power processors market, including artificial intelligence or AI processors, graphics processor units or GPUs, and application specific integrated circuits or ASICs, AI processors and accelerators. These advancements include wins in both wafer level burn-in and package part burn-in applications. Let me start with our new success with the AI processes for wafer level test and burn-in. Last month, we were thrilled to announce a major milestone for us, securing our first AI processor customer for wafer level burn-in. After successfully demonstrating the performance and throughput of our systems at our headquarters here in California, this innovative AI customer selected our new high power FOX-XP solution for production wafer level test and burn-in of their AI processors. This includes initial volume production orders for multiple high power FOX-XP systems and our proprietary WaferPak Contactors, which enable full wafer contact for testing and burning in of AI processors in wafer form before system integration. This achievement represents a significant technological and commercial breakthrough for Aehr, significantly expanding the market potential for our FOX-XP wafer level test and burn-in systems. AI processor burn-in is a significant opportunity for Aehr. AI processors have tens of billions to even greater than 200 billion transistors on a single semiconductor die. Transistors act as the fundamental building block functioning as an electronic switch to control the flow of electrical current, essentially representing the on and off states necessary for processing information on digital circuits, allowing for the creation of complex logic operations within the single chip by combining numerous transistors together. Large complex processors have always been subject to the challenge of early failure rates that are higher than the application requires. Companies like Intel, AMD, and NVIDIA have always had many of their products and for some companies, all of their processors require a production burn-in for screening out early failures. This is also the case for AI processors in ASICs. Companies use test and burn-in systems to qualify a new process and AI processor design to determine the device's early failure rates, intrinsic and steady-state failure rate over time and also how long the devices will last before they begin to fail due to the end-of-life warehouse. This is really where our acquisition of Incal plays a huge role in our strategy for AI processors as the Sonoma ultra-high power package for test and burn-in system is extremely good for this qualification application. I'll also talk about Sonoma in more detail later. During the semiconductor qualification process, customers characterize the failure rates over time for a given device and then implement a production burn-in to effectively accelerate and induce the early failures so that these devices can be screened out and not shipped to customers. In the case of wafer level burn-in and screening, they can remove the devices before they're packaged with other processors in high bandwidth DRAM memory or HBM into very expensive packages using substrates like CoWoS packaging from TSMC. Once you understand that AI processors need production burn-in and then you look at devices such as Hopper or Blackwell from NVIDIA, or the AMD Instinct MI325X GPU accelerator, it becomes intuitively obvious why customers would like to move this production burn-in step to wafer level if they can to avoid throwing away very expensive packages and the remaining good processors in HBM. With Aehr providing the first ever solution for wafer level burn-in in an AI processor in partnership with this customer and their outsourced assembly and test or OSAT partner, we have shown that our high power FOX-XP multi-wafer systems and proprietary wafer pack contactors can be a viable solution for testing and burn-in of AI processors in wafer form to avoid having to burn-in these devices in package or system form where the cost of test and the cost of yield loss due to failing devices during burn-in is much more expensive and impactful to overall manufacturing yield. We've already shown the solution working at our facility in California and will begin shipping the production systems and wafer packs already this month. The systems will have a very visible footprint at the OSAT they will be installed and used at, and we're working together on marketing this wafer level production burning capability to other AI processor suppliers in partnership with this OSAT as I speak. Now, let me turn to the package part test and burn-in level of AI processors using our new Sonoma system. During the second quarter, we secured our first production AI processor customer for package part burn-in receiving initial volume production orders for multiple Sonoma ultra-high power systems. This customer is a large scale data center hyperscaler providing computing power and storage capacity to millions of individuals and organizations worldwide. System shipments have already commenced to their OSAT contract manufacturer doing test and burn-in for them in Asia. Again, this is for production burn-in and screening of all devices shipped to screen out early failures. This customer was and continues to use the Sonoma system for process and device qualification as I detailed a few minutes ago. The Sonoma system is a system that combines high parallelism of ultra-high power devices under tests or dots with very high current – high performance power supplies that allow many voltage zones ranging from multiple core power zones to many other lower power zones on the same device, very flexible digital test resources for device, individually controlled liquid cooling of each device under test, and what we feel is the world's best software and user interface for device testing and debug for device qualification and reliability testing and bring-up. I have personally heard from multiple customers that they often use the Sonoma system to debug the test patterns of their devices and use this data to feedback to their multi-million dollar ATE systems from the likes of Advantest and Teradyne. We have a large and growing installed base of Sonoma systems around the world at test labs, OSATs, and IDMs used for this qualification and reliability testing of new devices and semiconductor process nodes. What is new is this is the first customer and it's a large one, that is purchasing Sonoma for their volume production needs for test and burn-in of their AI processors. This is an area where the combination of Incal and Aher was very well-received by customers as Incal simply did not have the support infrastructure worldwide as Aehr does to support the needs of production customers, nor did they have the manufacturing capacity that we do to build a large number of systems for production customers. We see significant potential to expand our packaged part test and burn-in business in the rapidly growing AI semiconductor market with our ultra-high power Sonoma product line, and already have a team working on multiple enhancements to address both qualification and production test and burn-in needs of a wide range of AI processor suppliers, test labs and OSATs. Aher is now able to offer our customers both the ability to do production wafer level burn-in and other AI processors and accelerators as well as reliability qualification and production burn-in at the packaged part level with our Sonoma system. Aehr Test Systems is the only company in the world offering the flexibility to customers of both wafer level and packaged level test and burn-in solutions for AI processors. We estimate that the combined market for wafer level and packaged part reliability test and production burn-in of AI processors will surpass $100 million annually in the future. The AI semiconductor processor market is growing very fast. According to the SNS Insider, the AI chip market size was valued at over $60 billion in 2023, and is expected to grow to over $600 billion by 2032, 10X increase and a CAGR of almost 30% over that period. The types of processors and applications for AI processors or processors with AI focus is also expanding rapidly from the historical general purpose GPU based processors used for LLM generation and inference to application specific integrated circuits aimed at specific accelerator functions in data centers and hyperscalers and edge AI processor used in autonomous vehicles, robotics and security. These devices and their applications demand extremely high quality, reliability and security. With our comprehensive product portfolio for reliability, test and burn-in of AI semiconductors, we feel Aehr is poised to capture a meaningful share of this market. Now let me talk about the expansion into our gallium nitride market. Last week, we were excited to announce another exciting milestone with our first gallium nitride or GaN semiconductor production order. This customer is a leading automotive semiconductor supplier and a key player in the gallium nitride power semiconductor market. We're thrilled to have received their initial production purchase order, marking their commitment to advancing volume production wafer level burn-in and other GaN devices using our FOX-XP platform. This achievement expands our production wafer level burn-in market for power semiconductors beyond silicon carbide applications used in electric vehicles, data center power conversion and solar to now include GaN, a high-performance compound semiconductor optimized for mid-power applications such as data centers, solar energy, automotive systems and consumer electronics and PCs. Over the past 12 months, we've collaborated with this lead customer using our FOX-NP system leading to their purchase of multiple wafer packed reference designs on a diverse set of GaN applications. GaN offers a much broader application range than silicon carbide and is poised for significant growth in the coming decade. While the largest market segment for silicon carbide, about 70% is for the electric vehicle and EV charging infrastructure markets. GaN is very diversified and is not dominated by EVs or autos. With many more end-use applications, there are many more customers and a broader market for GaN -- semiconductor suppliers than for SIC with our fewer EV and charging customers but are at higher volume per customer than the average customer for GaN suppliers. With an expected compound annual growth rate, CAGR exceeding 40%, the GaN market is projected to surpass $2 billion in annual device sales by 2029, according to Yole Group. Additionally, Frost & Sullivan estimates GaN semiconductors will account for over 10% of the worldwide power semiconductor as soon as 2028. This transformative technology represents a significant growth opportunity for Aehr's wafer level test systems and WaferPak full wafer contactor, positioning us to capitalize on the expansion of the GaN market. My next topic is silicon photonics, which continues to show signs of market adoption for chip-to-chip communication and for optical networking switching. We remain very enthusiastic about the silicon photonics market, particularly for the new application of silicon photonics integrated circuits for use in optical chip-to-chip communication that we see as a significant market opportunity for our products. Last year, we shipped a new high power configuration of our FOX-XP system to our lead customer for a new family of silicon photonics integrated circuits aimed at optical chip-to-chip communication. This system with our proprietary WaferPak full-wafer contractors allows for testing over 8,000 high power optical devices in parallel on each of nine wafers before they're singulated and placed into a fiber-optic transceiver for data center and telecommunications infrastructure or for placement and co-package optics for optical chip to chip communication. Multiple companies, including AMD, NVIDIA, Intel, TSMC, and GlobalFoundries have announced product roadmaps for devices using optical chip-to-chip communication with the new announcements in just the last week coming out of Taiwan on new silicon photonics-based ICs by TSMC and NVIDIA. The new FOX-XP system configuration with higher-power WaferPaks enables production test of up to 3,500 watts of power per wafer and up to nine full wafers in parallel. It also includes Aehr Test latest chamber configuration, which has a smaller overall footprint and is compatible with Aehr's new WaferPak auto aligner that provides air customers with fully automated material handling, enhanced reoperation of 6-inch to 12-inch wafers using industry-standard wafer cassettes and FOUPs, and can also support mobile robot and overhead transfers of wafers in those FOUPs. This is a system that we leverage for the production system for wafer level burn-in of AI processors as well. We've designed a number of new wafer packs for engineering and initial samples for this lead customer of our high power silicon photonics solution this fiscal year. These are very impressive devices with significant improvements in size, power and data rates that we feel are likely to ramp to production in time to address the chip-to-chip optical communications market opportunity. The hard disk drive market is another opportunity for Aehr's wafer level testing burn-in systems, and we're excited about our opportunity for production burn-in and stabilization of devices used in hard disk drives using our FOX-CP systems and WaferPak contactors. Our lead customer for this application is ramping this year and has told us they will purchase multiple production systems from us over the next few quarters to support their planned production rollout and ramp. This customer-first announced back in 2019 prior to the COVID-19 pandemic, initially purchased our CP single waiver attestant burden solution to support the qualification and early test stages of this new product aimed at the enterprise and data center markets. We view the data storage market both for hard disk drives and flash-based semiconductor solid state disk drives as significant growth opportunities for our systems. These markets have applications with devices made up of multiple dye in complex structures or multiple dye stacked on top of each other before they are put into higher level packages or systems. These devices require exceptionally high levels of quality and long-term reliability of the die before they are put into the packages or systems, which aligns perfectly with the capabilities of our wafer level test and burn-in systems. And speaking of solid-state disk drives and NAND flash memory, we're making steady progress on our ongoing benchmarking project with a major flash memory supplier to evaluate the benefits of using our FOX-XP solution for wafer level test and burn-in and other flash memory devices. This application is for 100% test and burn-in of devices to be used in mission-critical applications such as enterprise storage. As part of this evaluation, we're advancing the development of a low-cost high fine-pitch MEMS-based WaferPak for full-wafer contact of all NAND devices on a 300-millimeter wafer, including support for high-density 3D NAND technology supporting up to greater than 200 layers. One of the key challenges with addressing the new devices on customers' NAND roadmap is that not only is there a significantly higher number of die per wafer, but the power per die and therefore power per wafer to test these wafers has increased significantly. Support for high power wafer testing is something that Aehr's is particularly good at with our FOX-XP multi-wafer test and burn-in systems and wafer packs. This new WaferPak design is also capable to support DRAM testing should customers choose to pursue DRAM burn-in in the future. We aim to complete the proof-of-concept phase in a few months, enabling us to advance its benchmark to either a production solution evaluation or secure a commitment from the customer to develop a production test cell. This would position us to generate our first revenue from this NAND opportunity as early as our next fiscal year. We believe this represents the leading edge of a significant opportunity for our solutions for semiconductor memories with the NAND flash market being the key initial focus. Looking ahead, we see long-term potential to expand the DRAM wafer level test and burn-in, further broadening our market reach. So you'll notice that I led with the new market opportunities, but we'll now provide an update on silicon carbide wafer level test and burn-in, a market that in fact was almost 90% of Aehr's revenue last year. Aehr also continues to expand its presence in silicon carbide power semiconductor market, a critical sector for power conversion for electric vehicle traction inverters, charging infrastructure and a range of industrial data center and infrastructure applications. Based on recent market forecasts and large suppliers of silicon carbide semiconductors, growth in silicon carbide sales outside of China should remain challenging before recovering in calendar 2026. We believe we're well-positioned in this market as we have a large customer base and are currently engaged in benchmarking efforts with multiple potential new silicon carbide customers around the globe, including in China. While we remain cautiously optimistic about the opportunities in China, we also recognize the geopolitical, trade, and intellectual property risks associated with this market. Recently, we filed a lawsuit in China against a local supplier for intellectual property infringement. This action relates to features of products by that company targeted wafer level burn-in in silicon carbide devices that we believe infringe on Aehr's intellectual property and patents granted to Aehr by the Chinese Patent Office. Our current fiscal year forecast includes contemplated orders and revenue yet to be booked for silicon carbide wafer level burn-in systems and WaferPak destined for silicon carbide manufacturers in China. It is important to bring this to our shareholders' attention as recent trade-related developments in the U.S. and the emergence of competitive offerings in China that we believe infringe on our intellectual property have heightened the risk associated with bookings and revenue from Chinese customers. As we look at the composition of our total revenue for this fiscal year, silicon carbide is expected to account for less than half of our total revenue as we've seen our expansion into additional other markets capture real market-share gains. AI processors, including wafer level and packaged parts, could comprise as much as 40% of our total revenue this fiscal year, up from effectively zero revenue last year. GaN, hard disk drive, silicon photonics integrated circuits, and other semiconductor packaged part revenues will comprise about another 20% of revenue. We're not pivoting away from silicon carbide, but rather are generating what we see of the growth in the other market opportunities while not seeing the growth in silicon carbide this year like we saw last year. According to recent market research from companies such as Yole, the estimated revenue for silicon carbide semiconductors in 2024 was around $2.5 billion, and expected to reach $10 billion by the end of the decade, a 4X increase. To put this into perspective, the semiconductor market is projected to grow from about $600 billion overall in '24 to over $1 trillion by the end of this decade. So silicon carbide will be about 1% of the overall semiconductor market by 2030. Aehr's innovative solutions are poised to capitalize on this growth in the overall semiconductor market by addressing the critical reliability needs of next-generation applications and leveraging key megatrends shaping the semiconductor industry. Reliability has become a critical priority across a wide range of industries, including combustion and electric vehicles, data centers, electrification of the world's infrastructure, and a wide range of artificial intelligence applications. Factors such as smaller semiconductor geometries, the increasing adoption of compound and optical semiconductors, and the complexities of ensuring semiconductor reliability on ever increasing power and performance of semiconductors and advanced packaging are driving the demand for wafer level and packaged part and test and burn-in systems. Aehr solutions are instrumental in reducing early operational failures and ensuring long-term device performance in these rapidly advancing markets. With strong customer engagements, expanding market opportunities, and innovative products designed to meet the volume demands, we're optimistic as we move into the second half of our fiscal year and maintain our previously stated financial guidance for the fiscal year. As we've stated before, though given the nature of our business with our high average selling prices of a single production system and a set of WaferPaks, our quarterly revenue can experience significant variability if system orders anticipated by the quarter end are delayed by even a few days. This was the case in last quarter and one of the key reasons we do not provide quarterly guidance. In the case of both our new GaN and wafer level AI customers, both requested us to pre-build systems that we fully expected to ship to them within the quarter. However, the purchase orders were not finalized until after the quarter ended. Looking ahead and above the quarter-to-quarter variations, we're excited about the current and emerging market opportunities for our products, which not only position us for a successful fiscal year but also lay a solid foundation for long-term sustainable growth in years ahead. Lastly, and before I turn it over to Chris, it's with great sadness that we acknowledge the passing of Avi Ray Chaudhuri, our EVP of Research and Development, who lost his battle with cancer last month. On behalf of everyone at Aehr Test, we extend our deepest sympathies to his family. Avi's friendship, leadership, and the tremendous contribution to Aehr Test will always be remembered and cherished. It was an honor to work alongside Avi, and he'll be deeply missed. In the interim, Don Richmond, our CTO, who previously held this role before Avi joined us a year and a half ago, had stepped in and assumed Avi's responsibilities at Aehr, and would continue in this capacity until further notice. With that, let me turn it over to Chris and then we'll open up the lines for questions.