December 22, 2022

Dire warnings from Dr. Hansen and team

Those who receive Dr. James Hansen's occasional newsletter from his Climate Science, Awareness and Solutions team, will have seen some dire reports before. Still, nothing we have seen is quite as unimaginable or alarming as learning that global warming is happening at the equivalent of 750,000 exploding Hiroshima atomic bombs in our atmosphere per day, every day. From burning fossil fuels. That's a lot of warming . . . !

No one likes to think about nuclear bombs. Their very bad reputation already negatively impacts how people think about nuclear energy (even though bombs are designed to explode and nuclear energy is designed so it can't explode). But in this case, Hansen's comparison really helps. Not just as to the scale of the warming problem but as to level of threat.

Earth's Energy Imbalance chart and climate response.

Fig. 1: 12-month running-mean of Earth’s energy imbalance, based on CERES satellite data for EEI change normalized to 0.71 W/m2 mean for July 2005 – June 2015 based on in situ data.

In today's newsletter, Earth's Energy Imbalance and Climate Response Time, Hansen and team review findings recently detailed in a newly issued report called Global Warming in the Pipeline. From this report we learn that there is a lot more solar energy being absorbed by our planet than is being lost through heat radiation out into space. As they explain, the heat budget of our planet is badly out of wack. There is far more energy coming into our atmosphere than going out. As though we have put an "extra blanket" on the planet, our emissions trap heat and are causing excess warming. Dr. Hansen frames this massive experiment as “human-made geoengineering of Earth’s climate.” He writes:

Earth's Energy Imbalance (EEI) varies from year-to-year (Fig. 1), largely because global cloud amount varies with weather and ocean dynamics, but averaged over several years, EEI tells us what is needed to stabilize climate.[4] When [Dr. Hansen] gave a TED talk 10 years ago, EEI was about 0.6 W/m2, averaged over six years (that may not sound like much, but it equals the energy in 400,000 Hiroshima atomic bombs per day, every day). Now, it appears, EEI has approximately doubled, to more than 1 W/m2. [Emphasis added.] The reasons, discussed in our paper, mainly being increased growth rate of greenhouse gases (GHGs) and a reduction of human-made aerosols (fine particles in the air that reflect sunlight and cool the planet).

It appears that Dr. Hansen's 2012 TEDTalk, Why I must speak out about climate change, explained all these phenomena to us a full decade ago. So, in fact, his recent report is just providing us with an update on how little we have done to address the problem and thus how much worse things are. It is clear, we have not listened to him.

Dr. James Hansen's 2012 TEDTalk

https://www.youtube.com/watch?v=fWInyaMWBY8

In ten years, the amount of forced warming of our planet has nearly doubled and this is not a good thing.

So why has humanity failed to take the requisite actions to stabilize the climate? In characteristic understatement, we’re told it’s because of the climate’s delayed response. In other words, heat applied to oceans and ice sheets will still take a while to fully warm or melt them. Not only do the world’s oceans contain 270 times as much mass as the atmosphere, but water also needs 4 times as much energy as air to raise each unit of mass a degree in temperature. This provides a lag that allows global air temperatures to seem more normal than they really are. Without that lag, we’d likely have acted more aggressively to limit the heating. We’re just not fully experiencing how bad it really is. The good news: the climate’s delayed response gives us a little more time to take meaningful action, before we have so much disruption from our overheated world, that societies break down.

Dan Miller, a co-founder of the venture capital firm, Roda Group and a leading proponent of climate action, took time to review the entire 48 page  Global Warming in the Pipeline paper submitted by Hansen and 14 co-authors. He summarized its findings as follows:

1. The Earth Climate Sensitivity (ECS) — the Earth’s short-term response to a CO2 doubling — is higher than previously assumed. Most scientists said it was ~3ºC, but Hansen et al now say it is 4ºC or more based on paleoclimate data. This means there is more warming “in the pipeline” than previously assumed. 2. While humans have increased atmospheric CO2 by 50% since the industrial revolution, the actual climate forcing from all the added greenhouse gases is now ~4W/m^2, which is equivalent to a doubling of CO2 (i.e., CO2e (including all greenhouse gases, not just CO2) is about 560 ppm). 3. Part of the current warming has been hidden by human-made particulate air pollution (aerosols), mainly sulfur. When North America and Europe started to reduce emissions after the introduction of clean air acts in the 1970's, regional and global warming became more pronounced. In the past decades China and global shipping slashed sulfur emissions through cleaner fuels and sulfur filter systems ('scrubbers'). There are clear signals from ground, ocean and satellite based observations that the rate of global warming has recently doubled, which needs to be taken into account in risk assessments. 4. Assuming today’s forcing (4 W/m^2) stabilizes and human-made aerosols are eliminated, when all feedbacks — including “long-term” feedbacks — play out, we are on track for about 10ºC warming and 6~7ºC if aerosols stay at today’s levels. This is a “scenario” and we still control our future, though we are on track to increase climate forcing from today’s 4 W/m^2. 5. If greenhouse gas forcings keeps growing at the current rate, it could match the level PETM mass extinction within a century. We are increasing climate forcing 20X faster than in the PETM so “long-term” feedbacks won’t take as long as in the paleo record (though some feedbacks will still be much longer than a human lifetime). 6. The paper concludes that we must: (a) implement a carbon fee and border duty (Fee and Dividend); (b) "human-made geoengineering of Earth’s climate must be rapidly phased out,” i.e., we must stop emitting greenhouse gases, remove CO2 from the atmosphere, and research and implement safe solar radiation management to counter the massive geoengineering experiment we are currently running; and (c) we must improve international cooperation to allow the developing world to grow using clean energy. 7. A companion paper will be coming out that addresses the near-term shutdown of the AMOC and associated “multi-meter” sea level rise on a century timescale.

Dan Miller runs a Clubhouse group called Climate Chat. Following the release of Hansen's report, he interviewed Leon Simons, a co-author of the paper, about their findings and the implications. It was a 2.5 hour conversation.  It's not a happy topic but Dan, at least, is willing to confront the hard truths, in this case, that we must act immediately to address the climate crisis.

Part of the hard truth that is increasingly unavoidable, has to do with solutions. Once again, Dr. Hansen recognized the dilemma we have with respect to our options for solutions quite a long time ago: namely that we cannot realistically let go of fossil fuels without finding good alternatives, and the “best candidate is nuclear energy." Here he is discussing this in a 2013 interview:

Even though nuclear energy could dramatically help us alleviate emissions from fossil fuels, many people, including many smart investors, find the idea of proactively supporting nuclear power uncomfortable. They fear and loathe nuclear bombs—rightfully so—and can't emotionally separate those feelings enough to accept that there are compelling benefits from energy achieved by a related technology. Some just love "renewables," which generate energy from free wind and free sun. The costs of installing these have come way down and they are extremely popular, so what's not to like?

Nuclear, in contrast, is very hard to like.  It's so complicated and hard for people to understand, plus it's fraught with scary meltdown scenarios, exclusion zones and radioactive waste. Beside, we know that it's expensive and takes a long time to build, so with solid reasons like that to reject it, why risk putting one's own environmental credibility and "green" loyalty in question by supporting it, since it's already too unpopular to succeed, right?

This type of thinking has made nuclear power, quite likely the best solution we have for eliminating dependence on fossil fuels, easy to either ignore or outright reject. And this might have been the end of the story except for the inconvenient fact that wind and solar are not doing the job of reducing emissions.

It turns out that people not only want but societies need and demand reliable energy.  Even with cheap renewables, fossil fuel usage continues to expand. Because renewables are weather-dependent and the weather doesn't always cooperate. Which is, in turn, why more people are again revisiting the possibility of using nuclear power, because the alternative is natural gas.  This spurred Dan Miller to invite Carl Page, founder of the Anthropocene Institute, into the Climate Chat Clubhouse to explore these issues and discuss why public support for nuclear power has dramatically increased.

It seems Russia's attack of Ukraine followed by energy scarcity elevated global appreciation of several critical facets of energy systems beyond mere price. People woke up to the fact that energy supply security, grid reliability, energy price stability, climate resilience and limiting carbon are all important. Europe's dependence on Russian natural gas and now a war-induced energy crisis has re-focused the world's spotlight on nuclear energy—the only energy solution that addresses all of these critical energy needs. Germany, a nation deeply committed to nuclear phase-out, chose to delay the closures of its last nuclear power plants, rather than risk worsening their energy crisis. California choose to extend the life of Diablo Canyon for similar reasons.

Well maybe not shutting down existing plants makes sense, you might be thinking. But isn't it true that building new nuclear is too expensive and takes too long? The answer is not necessarily. Although Gen III nuclear power plant construction experiences have been mixed, with many in that class greatly delayed and vastly over-budget, a few of these Gen III plants have been built on time and in budget and nearly all are finally being completed. These are newer, safer light water designs and the learning process on those new designs has begun. Which means that costs of new builds can come down, if they get proper support. The question now for the industry and the world, is whether we are going to build on that construction knowledge to improve on past performance or abandon it.

Additionally, there's been movement in a whole new direction for nuclear technology: that of innovation.  Gen IV nuclear, or what many call advanced nuclear and next-generation nuclear, are innovative new designs on the cusp of commercialization. A new crop of developers are working to reimagine nuclear without water cooling. These designs largely rely on  physics for cooling, rather than muscular engineering. This reduces the need for back-up safety systems and redefines how small and how quickly nuclear can be built.

Next-gen is now widely expected to be smaller, modular, manufactured and constructed in a period of months and will be well-suited for use by corporate and industrial sites, college campuses, data centers, district heating systems and remote villages around the world. These advanced fission designs are engineering evolutions of previously demonstrated technologies such as molten salt, high-temperature gas and liquid metal-cooled reactors that do not require scientific discovery or breakthroughs. Fusion, which is developing the potential of magnetic confinement, inertial confinement and even metallic lattice confinement (formerly called "cold fusion") to generate massive amounts of carbon-free energy, still requires significant scientific breakthroughs but they also seeing progress and are widely expected to be ready to serve energy needs by mid-century.

[Click image to learn more about why Dr. Hansen and other scientists are suing the EPA.]

The question now is, will this growing global support for nuclear energy and the efforts of innovators to redesign nuclear for the 21st century enable us to meet our urgent climate goals?  Can we build nuclear faster while steadily reducing costs? Or will lingering antinuclear prejudice induce an investor delayed response that prevents construction of new Gen III designs and commercialization of a range of Gen IV designs?

The answer to that question will determine whether or not humanity meets or misses our very limited window to eliminate fossil fuels emissions by 2050. This is why we applaud the growing investor enthusiasm for building existing commercially-viable Gen III nuclear plants, as well as investing in the further development of innovative Gen IV designs, including fusion. We need them all if we are to have any hope of supplanting the 100 million barrels of oil burned every day and the 80% of electricity powered by coal and gas before it is too late.

According to Dr. Hansen, it is already very late and our climate situation is frighteningly dire. People need to act with urgency and purpose on climate: we can no longer afford delay. What we decide to do to move off the wrong path that we have been on up until now will set our course, perhaps permanently. We need good alternatives to fossil fuels. Nuclear power may not be environmentalists' or investors' first choice but it has decades of proven efficacy and safety. Best of all, current innovations hold the promise of being able to scale rapidly to serve the world's urgent energy needs.

Those who invest wisely into this risky "contrarian" area may ultimately reap the reward of seeing their investments succeed. If they do, it means they will have helped displace fossil fuel as the energy of choice and provided a compelling clean energy alternative. And for that, there could well be extraordinary returns.  There are plenty of risks for sure but, as it looks now, the risks of not investing in the solutions that can reduce emissions could well be far worse.

Hansen and team have  recently detailed new warnings and updated data in a newly issued report called Global Warming in the Pipeline, which has been submitted to Oxford Open Climate Change for publication. Read more of the history of Dr. James Hansen's research into the heating effect of CO2 in the atmosphere.  In August 1981, the New York Times published Study finds warming trend that could raise Sea Level, a report by Walter Sullivan about the study Dr. Hansen and six colleagues wrote which revealed the risk of sea level rise from global warming.

November 23, 2022

Giving Thanks & Getting

anksgiving isn't typically a time for making investment decisions . . . but it should be.

Americans give thanks in many ways, notably through the national holiday we call "Thanksgiving." We celebrate the abundance of the land we inherited centuries ago by feasting on turkey and other delicious indigenous foods, which sustained our existence as pilgrims. The holiday of Thanksgiving has survived  generations of tumult, crisis and even war relatively unchanged.  But we've arrived at a point at which we must recognize that humanity's current path—dumping fossil fuel waste into the atmosphere that is rapidly heating our climate—is disrupting those same ecosystems which have long supported us. Thus, it might be time to consider celebrating Thanksgiving both by honoring the bounties of nature that we have enjoyed and by working to save the ecosystems that have always supported human life and reverse the damage that we are doing by investing in climate solutions.

Given how large the climate problem is, the personal actions we might take, such as turning down the heat or even buying an electric car, will not make sufficient difference. Sadly, scientists tell us that the whole world must reduce emissions by a matter of gigatons in rapid fashion and we are running out of time to act, so our modest personal actions won't make enough difference. We must seek to find things that we can do which provide greater leverage. It turns out, investing in innovation is one of the ways that small individual actions can accumulate to make a big difference.

Why innovation? We know that climate change is caused by humanity's use of fossil fuels. While we want to stop burning of coal, oil, petroleum and natural gas, at the same time, no one wants to have to go without reliable sources of electricity, heat or transportation. Thus, the dilemma we face is that clean renewables like wind and solar don't provide a direct, reliable replacement for the widely available sources of fossil fuel energy.

What we need are better clean energy alternatives. We are forced to burn these dirty, carbon-emitting fuels to  have comfortable, warm, well-furnished homes and functioning societies because we don't have better options available. We don't want intermittent lights, intermittent refridgeration, intermittent heart monitors or even intermittent Youtube videos. This is what makes addressing climate change so challenging for Americans: we're not willing to go cold turkey on the quality of life that we have enjoyed as a result of the abundance of fossil fuels. This is why we desperately need better options!

Investing in innovative ventures can accelerate their success in commercializing better energy alternatives. We have very few clean energy options and they all have significant downsides—such as intermittency—and there simply is nothing that is a runaway winner in terms of competing with natural gas or petroleum fuels. Which is why it is time for investors to step up and invest in those ventures innovating to create these improved technologies. These may be risky investments but if they can produce a broader set of clean energy options that enable us to maintain our lifestyles while reducing emissions, they will be very successful investments.

This is what Nucleation Capital is doing. Providing an investment vehicle that allows more investors to invest in some of the most exciting, most competitive clean energy alternatives coming out of the advanced nuclear sector.  For many, investing in solar or wind power is appealing because they think "renewable" energy is what's needed. In fact, wind and solar power will always be intermittent—and that will never compete directly with fossil fuels. What's needed to replace fossil fuels is clean, reliable, dense energy and many energy experts see next-gen nuclear as our best option.

Nuclear energy may not yet be as popular as renewables but what's popular doesn't necessarily translate into great investment returns. Even winning consensus investments don't beat winning contrarian investments.  Which is why, for those looking for impactful investments that are off the beaten path and which, by their nature, can produce extraordinary returns, nothing can beat nuclear energy innovation, which we believe will be the black swan of clean energy.

The advanced nuclear sector is the most under-appreciated clean energy sector that is innovating as fast as conceivably possible. This sector, more than any other, holds out tremendous promise for a technological solution to our climate dilemma, yet these innovators need access to more capital. Next-generation nuclear innovators are solving safety, scalability, cost, construction time and all the other issues we have long associated with traditional nuclear and making it into the energy source of our future. They are, for example, developing reactor designs that won't require water cooling or siting next to bodies of water. Innovators are also working to solve other problems that have held back the growth of nuclear, namely closing the fuel cyle and providing safe, permanent waste storage, among other things.

So, if you'd like to do more than just give thanks with your turkey, consider allocating some of your discretionary investment capital to a fund investing in the innovations that would allow us to end our dependence on fossil fuels. We expect that, over the next decade, the nations of the world will begin deploying any number of advanced designs to power cities, factories, campuses, ships, industry and homes without emissions, thereby maintaining energy security and grid reliability without needing fossil fuels. We'll even use nuclear to generate synthetic hydrocarbons (for where liquid fuels are still needed) and power carbon drawdown so can begin to reverse global warming.

Yes, investing in advanced nuclear is high risk. Yet it only poses the risk of losing your money (so allocate accordingly). Not solving climate change, however, risks losing everything we hold dear. Our propery, our children, our traditions. Which is why more investors are considering allocating a portion of their investible capital to investments that can meaningfully reduce demand for fossil fuels. Whether they can invest a lot or little doesn't matter so much: they will still get the satisfaction of knowing that they are using their money to make a difference in the final years that we have to rescue our future.

*  The "Th" image above is the period table symbol for the element Thorium, and comes curtesy of the Thorium Energy Alliance, which advocates for the use of thorium along with uranium as a fuel for nuclear energy. 

September 27, 2022

Nucleation Capital presents at TEA’s 11th Future of Energy Conference


The Thorium Energy Alliance (TEA) is a 501(c)3 Educational advocacy organization composed of engineers, scientists, and concerned citizens interested in reducing the cost of energy, increasing the availability of critical materials and protecting the health of the planet and the future of the human race. In particular, the group's objective is to lay the foundation for a future that benefits from energy generated by thorium, which is a fertile element about four times more abundant than uranium. Their stated goals are:

  • To restart a Homogeneous Fuels Research Reactor program and commercialize the Molten Salt Reactor and the supply chain infrastructure behind it.
  • To establish the United States Thorium-Bearing Rare Earth Refinery Cooperative
  • Support the reemergence of a Western Rare Earths infrastructure by working with Rare Earth producers to create a cooperative consortium to refine Rare Earths and sequester Thorium for future use.

TEA typically convenes an annual event which updates the community but, due to Covid, it has been three years since the last conference. Thus, this year's event is something of a reunion and celebration for the organization's members. Not only is the group unveiling a new exhibit at the National Museum of Nuclear Science & History, the conference venue. It is also celebrating a slate of successes achieved by its coterie of pronuclear advocates, who have been working hard to protect America's existing nuclear power plants from premature closures.

The conference is open to any interested party that wants to learn about the latest developments in Thorium Uses, Advanced Energy, Critical Materials, & Policy. Although the event appears to be at capacity, it is possible to participate through a livestream to Youtube for most of the sessions.  Day one (Oct. 13th) has been dedicated to a review of the progress of pronuclear policies and advocacy successes, followed by a screening of "Atomic Hope" with a discussion by Director Frankie Fenton. Day two (Oct. 14th) will see more than a dozen speakers, including Valerie Gardner, managing partner of Nucleation Capital, discussing topics ranging from materials advances and grid policies, to the status of specific nuclear ventures and nuclear financing.

December 12, 2021

An historic investment opportunity

Until recently, nuclear innovation was not something an ordinary investor could invest in, even if you wanted to. For most of nuclear energy's history, most all design, development and testing was done through the National Labs with government funding and large corporations adapted those designs for the utilities. President Jimmy Carter defunded nuclear energy research and development and privatized that activity. By that time, however, a lot of work had been done to test a wide range of alternative approaches to generating electricity from fission and this work helps set the stage for today's innovations.

On December 20, 1951, the Experimental Breeder Reactor (EBR-I) made history, generating electricity from fission and proving the thesis that fissile material could be used for peaceful purposes. The National Labs worked on some 52 different designs and configurations over about fifty years. The second Experimental Breeder Reactor, the EBR-II, a liquid metal-cooled fast reactor, ran for more than thirty years between 1961 and 1994.

Eventually, the pressurized Light Water Reactor (LWR), which was preferred and purchased by the Navy, became the utility industry's reactor of choice. Over the course of three decades, the U.S. built approximately 110 LWRs. Then, in the mid-1990s, President Jimmy Carter ended federal funding for nuclear research within the labs and, like space exploration, further nuclear energy development was privatized.

Fortunately, innovation in nuclear energy didn't stop entirely. Quite a number of innovative engineering teams sought to move fission and fusion nuclear energy forward through private ventures. In 2016, when Third Way hosted the First Annual Advanced Nuclear Summit and Showcase, there were about four dozen ventures that attended. Since then, the field has continued to grow, with many of these ventures raising capital privately to fund their ongoing work. Today there are about 250 ventures or initiatives working to develop new energy generation approaches, spanning fission, fusion, subcritical reactors and a burgeoning area of Low Energy Nuclear Reactors (LENR) which, given the climate crisis are needed more urgently than ever to replace fossil fuels.

Interest in bringing atomic energy into the 21st Century is stronger than it's ever been. Congress has been strongly supportive of advanced nuclear, passing the Nuclear Energy Innovation and Capabilities Act (NEICA) in 2018, the Nuclear Energy Innovation and Modernization Act (NEIMA) in 2019, both signed by President Trump, and portions of the Nuclear Energy Leadership Act (NELA) and the Nuclear Energy Research and Development Act (NERDA) as part of the Energy Act of 2020, signed by President Biden. All of these major pieces of legislation seek to support the emergence of next generation technologies through a variety of mechanisms, including providing a growing amount of non-dilutive funding to help these ventures get their innovations certified and to market. Nevertheless, most all of the ventures developing solutions must still raise private funds in order to succeed.

Many ventures have had success attracting venture capital at various stages. Recently, Commonwealth Fusion announced a $1.8 Billion fundraise, which they hope will enable them to prove their approach to producing electricity from fusion, something that has never yet been achieved. From the list of well-known funders, it's clear there are a growing number of venture firms and wealthy individuals paying more attention to this area. This is good for the sector and for those institutions and individuals who can afford to play at the high-ticket level of traditional venture capital firms. But there hasn't been a way for the majority of accredited investors to invest in advanced nuclear.

Unfortunately, committing million dollar sums to a single deal or even a venture fund is out of reach for all but a few extraordinarily wealthy individuals in the top 1% of investors. That is until now. In the last few years, venture capital is been disrupted by tech innovations funded by venture firms (see how Venture Capitals are eating their own dogfood.) Specifically, investment platforms have been developed that profoundly automate most all of what historically has made venture capital very expensive. The AngelList rolling fund, which enables investors to participate in ventures funds through a low-cost subscription, has delivered exactly the kind of disruption that brings increased democratization to venture capital.

AngelList is not the only group pioneering new structures. For the first time in history, a range of crowdfunding, angel investment communities and online venture platforms now make it possible for investors at many levels to access a very rich variety of venture deals through both funds and SPV syndications and participate at far lower and more affordable capital levels, not just in advanced nuclear but across nearly every sector where innovation is happening.

Nevertheless, at every level, venture investing remains a high risk/high return asset class. Before one invests in a private angel deal (typically an earlier-stage funding round) or in later-stage venture rounds, such as a Series A or Series B fundings, one needs to assess one's own appetite for risk and interest in doing some homework to vet the opportunity, called "due diligence." Investing in private equity can boost returns but, at the same time, it often takes work and mature judgment to reduce mistakes, because an investor cannot easily sell their equity, once cash has been exchanged. One has to plan to hold on to the equity while it remains illiquid, even when it is clear that the venture is failing. This can result in the total loss of one's capital. The SEC, in fact, deems venture investing too risky for any but sophisticated investors, or those deemed "accredited investors." These are people or firms with sufficient assets that they are deemed capable both of assessing their investment risks but also being able to afford to lose their capital, without serious impacts, should their investment fail.

Online platforms further open up the possibility for a much more diverse range of fund sponsors and managers with unique types of expertise to create specialized investment vehicles in areas previously overlooked by the large pool of generalist venture funds. Which is great news for innovations happening in many sectors, including advanced nuclear, since highly technical sectors can be very challenging for generalists. This has enabled many new funds, like Nucleation Capital, to develop unique investment theses and connect with the growing numbers of accredited interested in investing in this area. Investors who are deemed accredited are finally able to access private equity at capital levels that work for them.

With the climate crisis driving demand for new types of safe, affordable clean energy, this is an exciting and historic moment of convergence. Not only is there a growing swell of next generation nuclear ventures seeking to create technologies to address the world's urgent demand for clean energy and carbon management, they are raising capital right when access to private equity has finally become affordable to millions more investors, some of whom are motivated to invest their values.

As new and unfamiliar as it is, there are growing numbers of investors looking to diversify their portfolios with angel and venture investments. Hopefully, they will take the time learn more about what venture capital is and select their investments wisely.  Fortunately, the use of venture platforms are providing both guidance and deal flows, which enables new investors to achieve a level of diversification which, just as with public market portfolios, has been shown to improve returns for angel investors and venture capitalists alike. Diversification is particularly important in venture, however, since the goal of venture investors is to invest a wide enough range of ventures that the few that do succeed more than compensate for those that don't.

For further reading about venture capital, here are some additional articles that provide more background but there are plenty more.

© 2025 Nucleation Capital | Terms & Policies

Nucleation-Logo