Thank you, Corrado. And bear with me for a second while I bring up these slides. Okay. And I hope everybody can see. Terrific. So, very excited to be here to talk in a lot more detail about Comstock Fuels. And we're going to cover a lot of things today. Corrado and I were in San Francisco last week at the ABLC NEXT Conference, the Advanced Biofuel Leadership Conference, with a number of members of our team as well. And it was really good. We had two days of back-to-back meetings, meeting with peers in the industry and other technology providers, as well as some potential customers and partners. And while it was good, it was also very striking. Most in this biofuel industry still, especially on the technology side, have a very myopic view. They're focused on one project or one technology, and very few people are talking about how their tech can scale to meet industrywide needs. You contrast that with some time I spent earlier this month at the Advanced Biofuel Association Board Meeting in Washington, DC. And we're very proud to be new members of this association, the ABFA. We think it's a group of the most innovative technology developers and the largest fuel producers, who are all working together to advance the industry to new heights, much different than the rest of the pack that we saw at the conference last week. And the truth is, we've always been taking this approach. Scalability has been at the forefront of our requirements from day one. And we're going to show you some more of that. I'm going to cover three topics today. A couple of these are things we talked about with our peers at the conference last week. But more of this, more interestingly, is some of the stuff we've been talking about privately with potential customers and partners, and we're ready to share it publicly today. We're going to cover our case for the business and how we look at how our value proposition meets the needs of the market. I'm going to dive down a little bit more into how the process works both at the supply chain level and then inside our Bioleum hub. And then we're going to talk about our business plan specifically and how we're going to go about deploying Bioleum hubs across the world. So let's get started here. I think we've covered this a few times before, but to restate. The big opportunity, 228 billion gallons of transportation fuels are consumed in the United States every year. And only 3 billion of those gallons are advanced biofuels today. And we know that there's under construction capacity to double that to 6 billion gallons in 2025. But if you think about it, it's really not that meaningful of a percentage. And so, during my keynote address to the ABLC last week, I challenged our peers that we can all do better. And we showed them a way, a solution, Comstock solution for how we can do it. Now, the one rebuttal to these numbers that's worth touching on is the notion of electrification of vehicles. And we spend a lot of time looking at this. And we look at some extreme scenarios. So if we said here, we electrified transportation to the point where we reduced consumption of fuel by 60%, we go down to 91 billion gallons a year, remember that 6 billion gallons is still only 6.6% of total fuel consumption. Biofuel production needs to grow to bridge this gap to help through this transition. And governments recognize this. And that's why governments around the world, the US included, is bringing more and more support for biofuel production. Now, here's a way that we look at biofuel, cost versus revenue. What does it cost to produce a biofuel and what is the revenue you receive by selling it. On the right side, we want the revenue to exceed the cost. Now with biofuels, the cost is not just driven by the value of the energy you've produced. The credits and other incentives received for producing biofuels weigh heavily on the revenue. The light blue boxes represent that in a couple of different categories, which we'll look at in more detail in a second. On the left side, the light blue box CI reduction, carbon intensity reduction, is what are producers doing today to reduce their carbon intensity score, which leads to this higher revenue. Here's a breakdown of some common biofuels compared to their petroleum alternatives, gasoline and diesel. What you can see here is the contribution of each of these different credits into this price. If we look here at sustainable aviation fuel, $6.60 a gallon. For $2.88 of energy value, the credits received are more than 50% of the total revenue for sustainable aviation fuel. This includes credits from the EPA under the Renewable Fuel Standard, which are known as RINs or renewable identification numbers assigned by the EPA that have a value assigned to them; credit under the Low Carbon Fuel Standard in California where each CI score point reduced is worth a specific dollar value; and finally, the tax credits including the large group of them enacted in the Inflation Reduction Act, which are all dependent on the CI score. Lower CI score means lower carbon intensity means higher revenue. To maintain competitiveness, producers need to minimize the CI score of their fuels. Here's another example. Two different types of ethanol, the same molecule. On the left, conventional ethanol made from corn at $2.28 a gallon. On the right, cellulosic ethanol made from woody biomass, like we produce, valued at $5.10 a gallon because of the additional credits received for the carbon reduction. So again, better feedstock in this case, cellulosic versus corn, leads to a better, more valuable product. And we think the most efficient way to do this, to reduce the CI score of the fuel across the board, is to use the lowest CI score feedstock. And to produce the lowest CI score feedstock at scale, we need a new supply chain. We think the best way to build it is by using existing infrastructure of established industries as much as possible. And that means using waste streams from the forest products industry to produce feedstock for advanced biofuel production. We can do this in abundant quantities today. It's not a new idea, and we're not the first to suggest it. But the problem is you can't stick a tree directly into a refinery and make fuel. Instead, plant the tree. Bioleum fills the gaps necessary to enable this supply chain. Our Bioleum hubs can process forest waste and other qualifying biomass feedstocks into valuable low CI score fuel intermediates. These are feedstocks for existing fuel producers to convert into low carbon fuels in existing refineries. This point is important. We're not going it alone here. We're not looking to become a vertically integrated fuel producer one facility at a time. We think that's a very slow way to grow a new supply chain. Instead, we're working in a very coordinated way with upstream and downstream counterparties, to develop a solution that will scale to meet the needs of this industry, so we can build this supply chain that you see on the screen. Or even better, this one that has 100 Bioleum hubs using 25 million tons of biomass, producing 2.5 billion gallons of advanced biofuel with extremely low CI scores. So I'm sure you're thinking, is this even possible? Is this another dream? It seems really big. And let's look at the numbers. 25 million tonnes of biomass is not very material. The Department of Energy has identified a billion tons of biomass that could be used for fuel and is talking about expanding to 2 billion tons of biomass. In just over seven years, around 200 corn ethanol plants were built when that technology reached economic viability, with multiple parties working together at the same time. Finally, the refiners are sitting there saying, they see the growth in this market, they're investing in more capacity, and they're concerned about their available feedstock from vegetable oils running out in the next five to seven years or so. So we think the numbers are supportive of it. And it's a modest goal. But the better question is why Bioleum, why us? And the answer is our performance. The CI score. We create the most emissions reduction for our downstream processors. Our ethanol with a CI score of 16 substantially beats the alternatives, corn ethanol and sugarcane ethanol. Our Bioleum is class leading when compared to the other feedstocks usable today in existing renewable fuel refineries, like soybean oil or used cooking oil. And the fuels that are produced in those refineries using these feedstocks beat the alternatives again, every time with substantial reduction versus their petroleum fuel alternatives. Refiners need low carbon feedstocks and our Bioleum hubs enable them at scale. Alright, so how does it work? Let's go a little bit deeper on to the supply chain and then the processes inside the hub. Our Bioleum hubs taken forest product waste and other qualifying feedstocks, along with fats, oils and greases, as well as hydrogen, produce three primary output streams, ethanol, the D3 cellulosic ethanol that carries the highest value that we saw earlier, our Bioleum HBO, which is a drop in feedstock for existing renewable refineries who can produce SAF and renewable diesel from that feedstock, as well as green chemicals like furfural and glycerol, which are important renewable precursor chemicals for many other things. Inside the hub, we have a number of different processes occurring and we break them down into a series of pathways. Now there's three of them that we're going to talk about here today. Pathway number one is our first commercial pathway. This takes woody biomass, separates the cellulose and Bioleum. This is what we've been talking about for the last two years. We convert the cellulose to sugar and on to ethanol. The Bioleum again is combined with the free fatty acids extracted from the fats, oils and greases to produce the by Bioleum HBO, the drop in feedstock for the renewable refinery. Pathway number two, which is also commercial ready today, uses kraft lignin. Kraft lignin is a byproduct of the kraft pulping process, also known as the sulphate process, which has been in use since the late 1800s in pulp and paper industry. In the 1930s, they had a breakthrough where they created a near closed loop process and the lignin that came out of the wood is used for heat and power. In this process, they produce an excess of lignin. Now lignin can be drawn off and converted into Bioleum for conversion into more Bioleum HBO, and this is our second pathway. Or third pathway, we've also talked about before, it's the subject of our grant that's been funded by the DOE. We're happy to say we received notification a few weeks ago that the grant has been approved to move forward. We're in final planning with Department of Energy, and are expected to kickoff here in the next few weeks. And we look for a bigger announcement when that occurs. But this process, the circled area around process G uses technology from a company called Xylome, where we convert our sugar into fat to feed back into the Bioleum HBO production process. And the project we're working on here is testing the economic viability of this process at scale. Now, there's a lot of different technologies here and a lot of different processes. And we get a lot of questions about where did they all come from. Most of this has been developed by our team, acquired by our team and part of the core package of our technology. Process A, our Bioleum process; process D, the upgrading of FOGs; process F, the upgrading of kraft lignin are all 100% Comstock Fuels technology. Process B, converting from cellulose to sugar is a Comstock Fuels process that uses biologics from Novozymes, who's the best in the business. And process E is where we've integrated the technology we've exclusively licensed from RenFuel, which is a fast track to us getting to that drop in feedstock for existing refiners in operation today. And then, again, process G is Xylome's process that we're validating today in our project with the DOE. As we're doing this and we're integrating technology and we're developing technology, we're also thinking about downstream processes all the time. We also look at how can we integrate downstream, whose technology does our process, our products slide directly into and compatibly work with. And these are just a few examples. There's a lot of downstream processes that can use our products. We think these are some of the best out there. And it's worth noting that these are also fellow members of the ABFA with us. So we're at the technology there. I'm sure everyone will take a look at the slides. Please do send us any questions you have, and we'll do our best to answer them. But the real question, back to the beginning, is how are we going to build 100 Bioleum hubs. Sounds like a big goal. The first thing we're going to do is build one. It's going to be 100,000 dry metric tons per year capacity. It's going to produce $40 million to $50 million per year in income from our projections today. It's going to cost about $300 million to build. We have a plan in place to use non-dilutive funding at the project level to fund the build of this first facility. Now, the first facility does a lot of things. It proves commercial viability, it derisks for future projects, and it gives us a testbed to optimize and to add on future development as our R&D projects proceed. But beyond that, we're looking to develop and license hubs 2 through 100 and even beyond that. Our full scale hub will be 250,000 dry tons per year capacity. It'll produce around $100 million per year in projected income for that licensee who owns and operates this facility. And with today's estimates, it'll cost about $500 million to build. Now the work we do with hub number one to derisk the future is going to allow us to bring up multiple EPCs, executing multiple projects for multiple clients simultaneously, so we can build this supply chain industrywide in very short order. We think the economics [indiscernible]. Over $15 million in annual royalties for each hub back to Comstock Fuels. This is over $70 per metric ton of biomass. It makes the economics great for the customer and it makes very good economics for us. Let's address a couple of questions upfront with how we're putting this together and where we're getting the pieces from. And the first question that I always get asked is where does the feedstock come from to get started? So let's start with some of the secondary feedstocks. The fats, oils and greases today are the primary feedstock for these renewable diesel refinery customers. What we're really doing in our process is enhancing those fats oils and greases. We're increasing our capacity and we're increasing our performance. So the supply chain for them in our first facility will come with our partners. The hydrogen we require, well, that's also an ingredient, a primary input to the renewable diesel refineries. And our partners here have very good insight into the supply chains for hydrogen and how we should site our facility to make this efficient. The biomass is really a function of this. Once we have our renewable diesel refinery interested in Bioleum, they're saying that they want to buy it, well, the forest products industry is very pragmatic. And they're bringing that feedstock to us, they see the opportunity that we're creating, and they want to be part of it. Both the upstream and downstream see the opportunity we're creating, and both of them want to be part of our new supply chain. We enable the downstream with new, better feedstock. We enable the upstream with new high value markets for their forest product waste. Both groups are interested in licensing and operating hubs. Both groups are using their resources to help us get there. Our upcoming milestones are very straightforward. A commitment for offtake, a commitment for feedstock and a commitment for the funding we need to develop this project for hub number one. Those are the next three up that everyone should be looking out for. And they're coming soon. Beyond that, next year, we'll be kicking off a full feasibility study with a site identified and selected. We'll be selecting an engineering procurement construction company. We'll be submitting pathway approvals to the necessary regulators. And we'll be securing the funding source for the construction of hub number one. So I'm going to stop there and turn it back to Corrado. I appreciate everybody listening. That was a lot. And we look forward to take any questions you have on it.