Thank you, Clyde and thank you all for being here today and investing your time to participate in our quarterly update. As you have seen in our earnings release today, we finished our first quarter solidly meeting both our financial and operating expectations. In addition, we remain on track to achieve our full year plan. While we continue to follow external global events closely and monitor market volatility, our main investor themes and objectives for 2022 remain consistent and our focus on execution remains paramount. In our year end earnings call, we outlined our go forward strategy and our progress to date building product partnerships and infrastructure to meet our key objectives. We also spent time differentiating our unique business model and disruptive technology platform versus peers in our last call, you also had a chance to hear from several customers in the automotive and Industrial markets directly. They shared with us the value of the AEye intelligent sensing platform brings to their solutions. We would like to first emphasize the importance of 2022 as we intend to both begin shipping the 4Sight product for industrial markets with our partner Sanmina, as well as transferring the B-sample of our first joint automotive ADAS product to our partner Continental. In today's call we intend to do a quick review of the market dynamics. The differentiation of our disruptive intelligent sensing platform, and illustrate why we and our partners believe AEye sensor-based operating system is uniquely positioned to enable the evolution of smart vehicles, infrastructure, and assets. We will use the majority of our time today to focus on our execution with an update on the fourth key investment theme, commercialization, industrialization, and capital light manufacturing. We will touch on both the 4Sight product line, as well as our joint Continental ADAS product. We believe we will be the only company in our peer group to bring up volume production capabilities with multiple manufacturers. The market headline is sensors are a highly desired addition to many vehicles, infrastructure and other assets. Cameras and radars, our interpretive sensors with unique strengths and weaknesses, but have one attribute in common. They collect information and intelligently guess. Lidar is a deterministic sensor which can provide definitive data for many decisions, enabling new value-added features that can be standalone, like hub to hub trucking or highway autopilot for consumer vehicles, or Lidar can also complement radar and cameras to increase reliability or accuracy for existing features, such as in slower speed, traffic jam assist. What is clear is that Lidar's commercial performance has continued to increase substantially over the last several years. Concurrently, it's manufacturability is maturing and therefore size, weight, power, and costs continue to be optimized as Lidar is being applied across numerous industries. Many of us already have a Lidar sensor in our smartphones, Advanced Driver Assistance Systems in our cars, and we experience traffic flow optimization on toll roads and other parts of our infrastructure. We believe Lidar has a wide range of applications well beyond what most people have imagined. That said all Lidar are not the same. With many traditional Lidar systems, data is collected in a fixed and limited manner and then passed along to a perception engine. This is a one way flow from the sensor into an application software layer. AEye software on the edge is different. First, we can control hardware components individually, using a software-based operating system located on the sensor with two-way communication to change the way the sensor works, depending on different environments. In addition, the 4Sight operating system does not silo itself from other sensors. Customers can create unique systems that can use maps, cameras, radars, and IMUs to trigger the Lidar. So they can be more intelligent and efficient when collecting critical information. As recently demonstrated with Continentals, integration of its current Aedes suite, including radar and camera with our joint Lidar product. Finally, and most importantly, to software defined architecture is natively compatible to manage data over its local sensor network, and to be enabled for over the air updates. So we can change the way the hardware performs through software, allowing our customers in the future the ability to upgrade and new features and functionality. While this seems too good to be true, you only have to look to your smartphone to see the path that has already been taken by many durable goods manufacturers and infrastructure providers in automotive, specifically, the acceleration of EVs provides a natural greenfield opportunity to create. software definable platforms for cars. The future is now one powerful example of the software defined ability is adaptive placement. The 4Sight platform enables automotive OEMs to embed the same Lidar sensor and various integrated locations using AEye's proprietary sensing software. This optimizes performance for the vehicle specific packaging and integration without detracting from design or limiting performance. AEye's operating system provides OEMs with the ability to transform the sensor performance and enhanced data capture across various mounting locations and vehicles. This is in contrast to most traditional sensors today. Which cannot be optimized for placement tolerances and applications, making them sub-optimal across a platform with multiple brands and models. At the end of the day, the ability to change the mounting locations and the height, as well as correct for curvature and transmissivity of external surfaces allows us to increase platform adoption, optimize feature implementations, and reduce cost and complexity. This same adaptive placement capability and software definability conversely allows AEye to customize across markets. Along the use of the same hardware on a roof mount at four meters and a negative 40-degree angle on a Class A truck, as a grow mount at 65 centimeters and a negative 15-degree angle on a trendy sports car. Up until this point, we have been talking about how our adaptive systems can add intelligence into current vehicles, infrastructure, and assets. So let's take a step back and discuss the future and what differentiates the Software Defined Vehicle from a traditional vehicle today that has intelligence siloed in many subsystems. On the left, you see a vehicle with all of its technology and functionality set when you purchase it. In many cases, you would need to physically change or alter a component to adjust the hardware functionality of the vehicle. On the right, you see a vehicle with a more streamlined platform reference design, reducing complexity, and allowing for the flexibility to control the hardware more efficiently as part of an overall system. As we continue to advance cars with software, you will see systems begin to consolidate into software definable platforms with more connectivity both within and outside the vehicle with this added connectivity and distributed Intelligence within the vehicle, the opportunity to add value and increase revenue from software expanse. The AEye operating system model is architected to complement this migration, focus not on hardware alone, but on collecting the best data for decision making. Adding features to add safety and performance for the consumer and driving profitability for the OEM. For example, in the future, arrange sensor may trigger a rain performance mode or a camera may trigger a Lidar to confirm an object. This distributed intelligence is key for what we consider a software enabled vehicle in a recent reported was estimated a Tesla today makes 67% of his profits from these types of software enabled features. While our products already have the adaptability to be definable across multiple applications using the same hardware. The real power in the future, where cars may be driven for 10 years. Maybe the ability to continue to adapt overtime and update remotely using OTA and acronym for over the year updates. As an example, as new vehicles increased software content, OEMS, we'll be able to update software over the life of the vehicle, similar to have your phone gets updates today, vehicles will be able to send and receive data, enabling them to continuously increase in value. These updates will allow new features and functionality translating to improved safety and performance. As vehicles and infrastructure head towards over the year evolution, we believe our software-defined sensor will be a key enabler of these new business models. In summary, we believe the power of AEye's unique sensor platform is that is intended to be a set of hardware components that can be manufactured, then configured for any high value use case in the software. For instance, OEMs or Tier ones could use the sensors operating system to enable ADAS features that can be bundled for a range of consumer vehicles. The same operating system could be used by system integrators in the ITS or intelligent traffic systems market, who are able to optimize the sensor for pedestrian safety at intersections, or forecasting traffic flow on toll roads. Trucking can leverage high performance, high reliability sensors designed for first mile, last mile, or hub to hub applications. In the high demand rail and aviation markets each sensor can be optimized for the extreme range and the resolution they require. So let's talk about execution and our progress around commercialization and scalability. There's no better place to start than our latest product, the 4SightM, which we intend to transfer to volume production later this year. I would now like to introduce Tom Fallon, Executive Vice President of Strategic Business Development at Sanmina. Our 4Sight manufacturing partner. Take it away, Tom.