Sachin and Adam
00:04:17 · Carrie von Muench
It changed the challenge in the field from where in the scientific landscape could this work to how do we drive a target to this pressure, which is a a challenge the private sector is very well suited to solve. Our colleagues at Sandia National Laboratory had achieved the second best fusion performance ever with a much, much, much more efficient system. And then my cofounder Keith had invented technology that makes those kinds of systems, pulse power systems, even more compact and cost effective like you're seeing right here. And so put those things together, you knew the conditions for ignition high gain fusion. You can build an affordable modular mass manufacturable device to reach them. You've got a big fusion project that's a big engineering and execution project together with all the things that are hard about first of a kind projects, but not a scientific moonshot. And so the team had come together to do this. Eric Lander, Keith, who you met, Will, our chief scientist, and Leland, our VP of engineering. And it was clear we could do this thing. Also, it was gonna cost order a billion dollars to build a fusion machine that gets more energy out than is stored in the system, and that it might be a lot easier to find the first 100,000,000 than the next nine. So I, yeah, I met the team as they're beginning to wrestle with that question, this question of how do we solve for this. And my old team had done some... Had tried to solve for this problem in biotech, particularly for new modalities or new kinds of drugs where know that if you deliver a big thing, it's massively valuable for investors and the team. And, also, there aren't enough comps in the market. Not enough people have done this to know exactly how the market's gonna value progress along the way. And so you can derisk financing risk for investors and for the team by saying we're gonna collect commitments for the capital we need to do the whole thing, and we're gonna call it as milestones that we pre agreed are achieved. So I met the team, yeah, as a friendly extra brain to help figure that out, and, I got so excited about what they were building, both the scientific foundation and the tractable path to low cost.
00:06:02 · Carrie von Muench, Adam Miller
Everybody I was calling for diligence was voting with their feet to come make this happen, including many of the people who built the last big fusion machine in this country to have worked at the National Ignition Facility. And, yeah, we had a great group of investors around the table, and I blanked, here we are. [00:06:16] S2: Yeah. And deciding to join a mission like this, it's such an arduous task because this is not a company that you're gonna return the funding like a few years time. This is like a, you know, a decade or multi decade journey. What's So your personal why for joining on a journey like this and really committing to that?
00:06:34 · Carrie von Muench
[00:06:34] S0: Well, I think there is no more important mission than trying to produce basically unlimited abundant energy forever. We need so much more energy in this country. We need to build energy to power AI, right, the age of intelligence, but also advanced manufacturing, also all the things that drive human quality of life. Right? There are no energy... There are no sort of poor countries that are energy rich. That's not a thing and vice versa. And looking ahead five, ten years at a world in which, for example, we in The United States are energy constrained and our adversaries are not, that's a really scary world. If you look at a world in which we can produce as much energy as we need to do all the things we wanna do as a society, that's a really exciting world and a really freeing world. And so I can't imagine a more exciting mission to be a part of. Then the question becomes, do you believe you can do it? Like, do you believe this is gonna work? And do you, are you excited to work with people that are gonna be in the trenches with you every day along the way? And I think the reason I'm here is because I got to conviction on the answer that'll work. And I really love working with the people every day. That matters. Right? Your partners in the trenches every day are super important. And I think, yeah, we've got a real shot at at changing the energy landscape forever.
00:07:42 · Sachin, Carrie von Muench
[00:07:42] S1: Do you remember a particular, like, moment where you realize that, okay, you know, China's very far ahead on on energy kind of production compared to The US. If you kind of go down the supply chain, you know, nuclear is one of our big moonshots of getting there. Was there a particular moment where you realized, oh, wow. This is where I wanna spend, you know, the next decade plus my career? [00:08:02] S0: I don't... I can't pinpoint a specific moment. It's more of a growing realization, if that makes sense. Yeah. I think I think we've... Right. We've seen demand now, energy demand grow at rates we haven't seen since World War two. Like, we need... And that's been changing year over year over year, so I think the urgency of the problem has been growing. And I think I think the thing that was interesting for me was sort of the gradual dawning realization that, like, this could actually work. That particularly what Pacific Fusion is doing, what this team is doing, what our our technical team can do could solve that problem forever. Like, that was something that didn't happen overnight. You spend a lot of hours with people. And particularly for someone like me who's not a fusion expert, what that means is you talk to a lot of experts in the field. And when your conclusion every time you call one of them is that they come join your company, often walking away from, like, a pension to do it, that's a pretty strong signal.
00:08:02 · Carrie von Muench, Adam Miller
[00:08:02] S0: I don't... I can't pinpoint a specific moment. It's more of a growing realization, if that makes sense. Yeah. I think I think we've... Right. We've seen demand now, energy demand grow at rates we haven't seen since World War two. Like, we need... And that's been changing year over year over year, so I think the urgency of the problem has been growing. And I think I think the thing that was interesting for me was sort of the gradual dawning realization that, like, this could actually work. That particularly what Pacific Fusion is doing, what this team is doing, what our our technical team can do could solve that problem forever. Like, that was something that didn't happen overnight. You spend a lot of hours with people. And particularly for someone like me who's not a fusion expert, what that means is you talk to a lot of experts in the field. And when your conclusion every time you call one of them is that they come join your company, often walking away from, like, a pension to do it, that's a pretty strong signal. [00:08:54] S2: Yeah. Yeah. You mentioned you weren't a fusion expert, so you had to be extremely diligent in this decision to join the team. You had to do all your research. Why choose to spend your life in Korea on nuclear fusion rather than any other types of energy sources?
00:09:08 · Carrie von Muench
[00:09:08] S0: Well, we have lots of other types of energy sources that work. Right? Like, the lights are on in this building. We we are powering a lot of what we do today with things like solar and wind and and combined cycle gas turbines and geothermal and traditional fission. I think the thing we're running into right now is we can't seem to build the technology we have fast enough to meet demand. Otherwise, we wouldn't be seeing such a big shortfall. And the the reason that fusion is such an exciting solution is because it solves all those problems. You don't need fuel, really. Like, your fuel is basically water. It is so energy dense. So let's think of it like manufactured energy. You build a fusion machine, you get energy out in perpetuity. You don't need pipeline infrastructure, so you're not constrained in where you can site it. You don't need natural resources like wind or sunshine, meaning that, you know, if you're outside of London in December, you can still power the things that you need to do, and there are no carbon emissions from the process, and you don't produce long lived waste. So it's been a holy grail for a really long time. The question is, can you make it work? And in parentheses, when can you make it work? And how much will it cost to make it work? And I think that's where we've really seen a a bend in the curve in the last couple of years with the breakthroughs breakthroughs that I mentioned.