Given the amount of public dollars already put into this without success and the amount of money they are going to have too continually pour into this to make it successful it seems like a serious hail mary. Even if they do have the brightest minds working on it. I wish them the greatest success - we need this.
To your point it's an incredibly privileged investing position to be in and to be honest - he can take a lot of the gains he has already had in relatively uninteresting companies that have been successful and hope to something truly remarkable for humanity.
But an incredibly high return if successful. Nuclear fission (edit... accidentally wrote fusion here), if we can figure it out, is potentially the golden ticket to reducing our carbon footprint. Unlike geothermal energy, it can be done anywhere. Unlike wind or solar, it can be done at any time. It doesn't have the safety issues associated with fusion, nor does it generate waste products nearly as hard to deal with.
Right now, carbon emissions breakdown in the US are broken down by:
Transportation - 29% Electricity production - 25% Industry - 23% Commercial and Residential - 13% Agriculture - 10% Land use and forestry - 12%
By moving to fusion, you can all but eliminate fossil fuel usage in the first two (and largest) categories. You can knock a large chunk out of the next two categories, where much of the emissions is due to burning fossil fuels for energy (heating, etc.). You'll still have emissions from agriculture and land use, but you can clamp down on most emissions in a big way.
If you can figure out fusion and get it working on an industrial scale level on par with other forms of electricity production (which is a big if), then you'll have achieved a monumental technological leap and you'll make a lot of money while at it.
They need to prove that the research works to actually produce net electricity - which requires a scientific breakthrough. Next after a research breakthrough - they need to make this a product -- then a commercial product. During that process they need to make this a commercially viable economically viable product that can compete against other forms of energy in the marketplace. They will need to get through serious regulatory requirements. And remember that they need to make this commercially viable to produce electricity at a very low cost - its super competitive at baseload power cost range.
By the time this comes to market the energy landscape will be completely different. It is already moving incredibly quickly.
Like I've said on other post - we need these kinds of moonshots but let's not have them distract against the other important work of deploying already commercially ready technology into the market.
The UK recently announced a regulatory regime for fusion, with significantly lighter requirements than fission since safety and proliferation issues are much less troublesome. That would be even more the case for aneutronic fusion. Possibly the US would be silly enough to get in the way but many other countries certainly wouldn't, including China.
As an American this is accurate and depressing.
They’re in a really good position here because they actually don’t. Being a no-carbon power source puts them in an almost new market. The government can (should) regulate carbon fuel away, and pour money into this in a non-market way to tip scales. Energy is heavily regulated but also heavily government funded.
To be fair to your comment though air pollution relating to climate warming has been treated as a tragedy of the commons problem for ever.
Fusion is what they are doing here. Fission we have already figured out and have been generating power from for decades.
Fusion does not have the runaway reaction safety issues that fission has.
Also, what you're describing is what we've known since we fairly easily harnessed fusion to make a hydrogen bomb.
Controlling the reaction rate so it doesn't explode is metastable with fission, and nearly impossible with fusion. This solution is basically just using tiny explosions.
[1]: Nuclear is one of the safest kinds of energy we have even including every absurd disaster. We already know how to deal with the waste, and the unit cost of managing nuclear waste is very low (the up-front costs are high, but we're already committed to those costs).
What do you mean "with perfect reliability"? Do you mean it can buy the panels and turbines and batteries? How much reliable energy capacity does $30B buy?
> Displacing a megawatt of carbon-generated power now is worth a lot more than displacing that same megawatt in 10 years, because 10 megawatt-years worth of carbon did not, thereby, go into the atmosphere.
Yes, there are different return-on-investment curves and the short term obviously favors things which can be deployed quickly. The question is which pays off the best for the relevant timescales. Also, we should invest in both--now isn't the time to pinch pennies nor to put all of our eggs in one basket.
Why d'you think? Helion has been super successful with their demos so far. The timelines are optimistic but I don't see why you'd expect the technology itself to fail with, say, >80% probability.
1. Impossible to get anywhere close to good investing rounds. And deal flow requires serious capital on any meaningful technology (sorry carbon accounting software doesn't move the needle, needed but it isn't a game changer).
2. Investing in companies in the market as an equity holder. It feels like it doens't actually help the company - there's an argument that it helps the industry as there is more money/attention/talent attraction. Seems like a poor investment for myself given the P/E ratios on most of the companies.
3. Investing in actual projects - small returns but meaningful results. You don't get the outsized returns on companies growing quickly.
4. I do believe the success of humanity in the climate tech space is actually not through moon shots but a constant deployment of ready tech (read solar, ESS, wind, etc) and getting our politicians to probably signal the value proposition that climate tech brings. I do think moon shots have a place and we should bet on them.
I am open to ideas on how to help and new models if anyone has any!
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The bottling industry similarly ran campaigns in the 70s to convince people that litter pollution was a personal responsibility problem, so that it wouldn't have to pay to clean up its mess.
Similarly, rather than making safer cigarettes, the cigarette industry ran commercials and hired "experts" to testify that the cause of household fires was flammable furniture (not cigarettes). As a consequence, several generations grew up around toxic flame retardants.
Ultimately personal responsibility cannot carry the day. Not only is it politically impossible to convince everyone to give up their luxuries and frivolities, but even if we could, these things account for a small share of our pollution. We need to transition our economy to clean energy. Carbon tax (or "pricing" if you chafe at the word "tax") is necessary (but probably not sufficient).
Yes, this will probably "harm the economy" in the same way that limiting one's credit card debt "harms their personal finances".
I think the place where software could be really useful is with demand response and grid management. There's tons of work in that space already.
Seems to me that long-duration storage and electrochemical production of fuels/chemicals/materials are the places where new technology is really needed, thinking ahead to when we get to 100% decarbonization of the grid and beyond that to when we try to decarbonize everything else. If the exponential growth and learning rates of solar keep up, in 15-20 years it will meet our entire projected primary energy demand and cost 5x less than the going rate for electricity right now. (Those are big 'if's, though!)
Alan Kay[0]: "The key to the Parc approach was to be able to do many experiments in the future without having to optimize." What technology are we going to need 15-20 years from now, when solar energy is 5x cheaper, that doesn't exist yet? My thinking is that electrochemistry is the big missing puzzle piece. If we totally dropped fossil fuels, we'd need to pump something like the entire present-day electric grid's worth of power into making chemicals/fuels.
Some companies with new technologies in this space that I like:
-Form Energy: low-cost iron-air batteries
-Prometheus: solar fuels from CO2
-Boston Metal: zero-carbon steelmaking
-Twelve (formerly Opus 12): other chemicals from CO2
-Carbon Engineering: air capture of CO2
[0]https://news.ycombinator.com/item?id=11955020
Edit: formatting
If electricity gets just a little cheaper (and it's fairly obvious that it will), then Power-to-Gas technology becomes viable, and could displace fossil fuels quite rapidly.
I'm looking into it. Email in profile if you're interested.
When we get to the point of putting Graphene batteries in planes than can fully recharge in the time it takes to unload and reload passengers/luggage it’s going to be pretty incredible.
Once the hydrogen-powered aircraft start flying, kerosene-powered craft will find it impossible to compete.