Wesley Edens
Analyst · Evercore ISI. Your line is now open
Right, if you look at - on the following page, there is a cartoon that we showed before which demonstrates kind of how this all works. And bottom line is that we think this is a real game-changer, basically by using ISO containers and filling them up from the big ship and then bringing them to shore and offloading them with just cranes and typical kinds of equipment you'd find in ports already, we basically skip a step of having an intermediate ship. That reduces our CapEx by about 50% and reduces our OpEx by about 50%. It takes the time to deliver from 24 to 36 months down to three to six months. So it's a - it's a huge change across and the first two places where the pilots will be in Nicaragua and in Mexico and you'll see this will transform from a cartoon showing this process to actual performance here in just a few months. So it's a big deal for us. Flipping now briefly to the new business side on Page 14, as I mentioned earlier, we reorganized our sales into two distinct functions; the organic sales groups with our existing terminals and then new terminals and then targeting around the world. We've added more than a dozen new people. The build-out of the origination network for us across the world, we think is a significant step for us forward as an organization and I think - I'm very happy with the people that we have brought in, the organization that we've created. I think the results would speak for themselves here shortly. If you look on Page number 15, just take a quick look at the - what organic growth really means. Here, the five terminals that are under construction are up and running right now. You can see the utilization rate, if you circle there at the bottom of the page, 29%. It means that the 71% of the terminals are still available for new customers. That translates into total capacity of another 8.2 million gallons per day. If you sold all that at our average margins right now, it'd generate another $1 billion in P&L for us. So huge opportunity for us and you're at a huge competitive advantage. We already have the infrastructure built. We already have the logistics in place. We already have the personnel. All we really have to do is just go to our customers, execute with them and get them online. So this is a - it's a big focus for us. It's the best business that we can do. There is lots of things that we think are likely to turn up here in the next months and quarters. But organic growth is clearly one -- it can be one of the real engines of growth for us, cash flow wise, next year. Page 16, the new - the near-term pipeline for our business is actually significant. But what we have done and our reorganization of our - of our origination folks has become very focused on key markets. There are six countries, in particular, around the world that we think have got the characteristics that are the most ideal for our business. Of course, there is - you know, there are several hundred companies in the world and we think that two-thirds of them need our services in one form or the other, but there is a handful, relative handful, they actually have got -- we think the characteristics that will have the biggest impact for us. Those three characteristics are; A, large populations; B, significant existing power infrastructure and in particular existing thermal power that can be converted; and three, significant opportunities for economic growth, especially once the COVID time has passed. So these four circles I show you, there's eight different transactions that we are in the middle of right now. As you can see, there is a real push to the right-hand side. When you look at LNG flows around the world, about 75% or 80% of all LNG goes into Asia. So it's no surprise that when we look at areas that we think we've got the most promise, that's where we are but Central America, South America, Africa, Asia, there is a tremendous amount of opportunities there. Our goal is to be FID on two new projects between now and the end of the year. There is only a couple of months left in the year, but we're down the path on a number of things and I think we've got a good opportunity to bring two of them over the finish line. And then the goal for next year is five to 10 with a real target as a company to be 20 to 30 terminals over the next five years. Turning to hydrogen a little bit and I put a number of slides in here and I'll go through this briefly. But this is a - this is my kind of reset in terms of how we think about the business. Page 18, on the left hand side, here the first thing, to give a little bit of context is, how big is the market for hydrogen today? We all talk about how big we think it can be and what the transition fuel it can be in terms of helping us get off fossil fuels as a world, but how big is it today? A 100 billion kilos of hydrogen are sold every year right now. So, at an average price of about $1.25 a kilo that translates into a hydrogen market today that's a $125 billion. Just to give a little contrast, the LNG market today, which is about 360 million tonnes at about $5 an MMBtu is about $90 billion. So, this will come as a sort of surprise to many people, but the actual hydrogen market today is actually 30% bigger than the LNG market is today. So huge market that exists right now. Where is it all come from? It comes from a couple of different methods, steam-methane reforming and coal gasification in particular. You can see that electrolysis is a very small part of it. All you really need to know about steam-methane reforming, SMR, and coal gasification is it produces hydrogen, but it does so in a very, very dirty fashion. Basically 11 kilos of CO2 created for every kilo of hydrogen with SMR, 22 kilos of CO2 created for every one kilo of hydrogen created by coal gasification. That - what does that means in the world? It means that to produce hydrogen, which is the cleanest of all fuels, it generates 2.5% of all global emissions. So it's a bit of a disaster from an environmental standpoint, that's the bad news. The good news is there's lots you can do about that. If you look at Page number 19, just again to give a little bit of context, the hydrogen that we are looking at in our projects can come from three basic feedstocks, one, water, obviously, largely free. It's not exactly free, but we put it as free because that's essentially what it is. It can come from gas or it can come from coal. Those both have chemical compositions that are actually able to create a lot of hydrogen if they're broken up properly. The production technologies, we've looked at over a 150 companies. So we've seen a lot of different production technologies - really three different types here. electrolysis, which is the process to take water and split it into oxygen and hydrogen, Methane pyrolysis; and coal pyrolysis. All you really need to know is that these are processes that use significant amounts of heat and although they are similar to the technology that are used right now, the significant difference is they can be made entirely clean, we believe, and I'll talk about that in a second. So the best price at the bottom here. I draw lines under just - and just for reference. And what this really represents is our view of, if everything worked perfectly in the world, which of course it doesn't, what is the theoretical price at which you could create hydrogen; water, $0.80 a kilogram, that's basically $0.02 continual power a 100% efficiency of your electrolyzer, gas, through methane pyrolysis, $0.60 a kilogram; coal, $0.20 a kilogram. That's the one to actually draw a line under because there is a little bit to talk about there. Look at Page number 20, when we tried to dimension the problems and what we're trying to address, what's our focus? Well, three sectors; power, industrial and transportation combined to about 80% of all emissions. So, in very simple terms, it wouldn't be perfect, but if you could actually turn those three sectors from burning dirty fossil fuels to running clean hydrogen, you'd go long ways towards cleaning up the CO2 in the atmosphere for us. So, on the right-hand side, I put a box together that just shows you, in dimensions, what the relative competition is of fossil fuels versus hydrogen today. So, as I said, if we're able to generate hydrogen at $1 a kilogram, right, to convert that into an MMBtu equivalent, just multiply by 7.5. Well, power today, look at power in the United States, Henry Hub, which is the index at which natural gas is sold is about $3. Say it cost them $0.75 in transport cost to get that natural gas into their power plant, $3.75. So what that means to me when I look at this is that, even in our kind of "best-case scenario" using kind of conventional electrolyzers, we're still about 50% higher in price with hydrogen than we are with natural gas. Industrial, as I said in that earlier page, the average price that is paid for the industrial hydrogen that's created is about $1.25. $1.25 times 7.5 is about $9.5. So the dollar versus - the $7.50 for hydrogen versus $9.50 could be competitive, again in the best case. Transportation, there's a big gap there. I put an asterisk next to it because that is before the cost of logistics, which is a big deal, right? So in order to get basically hydrogen to people in service stations or in gas stations or in trucking stations or whatever around, there is a significant cost to that. And so, while you look at these two, you'd say on paper, day one, the electrolyzer could have the biggest impact potentially on transportation. The other two is actually simply not good enough. The goal then is actually very simple, either you have to find a way to make hydrogen at roughly 50% lower than what we think is the best case or the governments have to step in and do one or two things. They have to either subsidize the production cost of hydrogen bringing it down, so it's more in line competitively or they have to put a tax in place on people that are burning dirty fuels. When they carbon tax, what I really mean is, make it more expensive for people to burn those dirty fuels, so that our fuel is more cost-competitive. And those are both things, I think, the government could and should consider. But without that, if you want to just take care of it yourself, then you need to actually produce it cheaper. So Page 21, the goal is actually very simple. It's zero emissions and something that's become very clear to me is, I think the way that we characterize hydrogen and its production, in my opinion, is not really correct. We say that electrolysis is clean, "if the power comes from renewable source." In other words, it's the -- as I say, it's the Hippocratic Oath of hydrogen, first do no harm. Instead if you're not creating emissions, then therefore it's clean and so we call that green, but the characterizations are little confusing, at least to me. There is green and there's blue and there's grey and there's even turquoise and I think that has less - is less important to categorize it that way than in a much more simple way, which is no emissions. And when we look back at that earlier chart, you see that, you water and gas and coal. And coal in its pyrolysis - this coal pyrolysis could be to generate hydrogen as cheap as $0.20 a kilogram, which again would be less than the $0.50 threshold that you need to really go turn on the power. If you can sequester the CO2 that comes out of that, not like spit it into the atmosphere, it then becomes very, very clean power. There's a number of articles have been written around this. So if you actually go in, there's a Forbes article that I actually read just last night about coal pyrolysis and things that have been done around the world. I think you're going to hear an awful lot about this and as odd as it may seem that the dirtiest of the fossil fuel is may be real gateway to creating really, really clean hydrogen for us. I think it's got a lot of promise, simply because if the governments don't intervene and make it more expensive to run on fossil fuels, and the market has to go produce it, this is the place where it's going to end up going. So last thing, page 22, what do we do this quarter? We did two things, Long Ridge, which is the photo there. This is a -- it was an abandoned smelter site, aluminum smelter site that the infrastructure found -- another kind of a sister company had taken over, really an interesting asset, they're building a 485 megawatt power plant there. We are partnering with them to bring in and burn at least part of the feedstock to be hydrogen with the goal for it to all be hydrogen at the end of the day. Really, my goal in this is presuming success. In other words, presuming that we can find a clean way and a cheap way to create hydrogen, what does the field data actually support? So we know what GE tells us they think it will do and we trust them, of course, but we want to go see and verify that ourselves. This will be a real opportunity as this gets up and running next year to run hydrogen through it, see the field data and see how it actually performs in practice. So that's going to be a big experiment for us and something that could be very productive. Then on the right-hand side of the page, this is the company that we invested in called H2OPro or H2Pro. It's an Israeli-based electrolyzer. It basically is a much more efficient way of electrolysis. In simple terms, it has got two different cycles that it runs through and it uses the heat that has created from the first cycle to make the second cycle more efficient. So it's kind of a combined cycle as I'd like to think of it, in lay terms, as electrolyzer. The bottom line is that it uses 30% less electricity, less than 50% of the CapEx of the traditional electrolysis and it achieves efficiencies close to a 100%. So on paper and the laboratory, this actually looks like a very promising technology. We made a small investment and we're going to partner with these guys to basically build a prototype, so we can get actually the field data for it. But again, this is something we think is an exciting next step for us. Just flipping to the next section on COVID, I'm going to turn it over to Chris to talk about this in a second, but we posted this on our web page. This is page 24. Posed this on our webpage. And I just want to give a little bit of an update in terms of what we have done as a company, because essentially, at least from my perspective, I've been sheltering from work since the 11th of March. So we've been here every day, and we actually, our company has been coming to work since the 1st of June. Once COVID happened, again, my point of departure was when Adam Silver like suspended the NBA season on March 11th, a few folks came on March 12th. There was a handful that were around at 13th, then it was a new world. At the end of the day, our office here in New York, on the following Monday, there were 12 people and my dog. So that's we were socially distanced, because this is a large office and there's very few people here. As the months passed, we had more and more people that wanted to come to work. And so basically, we set out to create environment for them that; number one, was as safe as possible environment they could be in and they could feel comfortable coming to work; and number two, allow us to put in place the testing biometrics and other protocols to ensure that we're giving our employees the best chance of being here and safe; and then also, we did a number of things with our folks in the field because as I said at the beginning, we're an essential enterprise, our customers rely on us to -- for the power and the gas to run their businesses. And so, of all the things that we did here, and I'll have Chris talk about the one that I'm most proud of is that in the months of May and June, which were kind of the peak months in terms of uncertainty of not knowing what's going to go on, what's going to happen with this, we reached out into all of our field personnel. We paid them basically a bonus of 150% of their salary for those two months to -- just as an acknowledgment that what they were doing was important to us, important to their customers and we want to do the right thing. So, all these actions at the end of the day total up to about $1 million in cost, so it's not free to do this, but the results on them have been really terrific so far. Chris?