Claims

Constellation CEO stated that long lead-time equipment (large pumps and motors) has already been ordered, which is critical because manufacturing capacity for these specialized nuclear-grade components has largely left North America and must be rebuilt or sourced from overseas.

Fukushima was a watershed event that forced the nuclear industry to move beyond design basis standards to 'beyond design basis' planning, accounting for worst-case scenarios that exceed historical precedent; this has made modern reactors far safer than they were before.

Nuclear power plants must shut down for refueling (typically every 18 months to annually), meaning Microsoft will need backup power or a second reactor to avoid data center downtime, which significantly increases the operational complexity and cost of the arrangement.

China is currently building approximately 20 nuclear reactors simultaneously, demonstrating industrial capacity that the US lost over the past 30 years of minimal nuclear construction; the US must somehow rebuild this capability in a few years to compete.

OpenAI has requested 35 GW of electrical capacity from the US government, equivalent to 5-7 data centers of 5 GW each, which represents 25-35% of current total US nuclear electricity production and demonstrates a demand scale that dwarfs existing supply capacity.

TMI-1 currently has a 60-year operating license, is already 50 years old with only 10 years of license life remaining, so Constellation must apply for a license extension to 80 years as part of the $1.6 billion refurbishment to support the 20-year Microsoft contract.

Data centers cannot operate with solar or wind power because they require 24/7 high-quality, stable electricity with no voltage reductions or frequency variations, which only nuclear can reliably provide at scale.

Producing 35 GW of capacity from wind requires 9,375 square miles of land; from solar requires 1,350 square miles; from nuclear requires 54 square miles—a ~170x difference in land efficiency between nuclear and wind.

Three Mile Island restart represents the first of many reactor restarts that will be necessary, signaling a shift from nuclear plant retirements to nuclear plant extensions and restarts as the industry recognizes the value of aging reactors.

If Three Mile Island replaces 50% of its core with new fuel and increases enrichment to extend the fueling interval from 12 months to 18 months, uranium demand would be roughly 3x the annual requirement of a steady-state reactor, creating a significant spike in near-term uranium purchases.

Germany's energy transition away from nuclear toward renewables has resulted in higher energy prices and industrial competitiveness problems; companies are relocating to other countries with cheaper, more reliable power.

SMRs (small modular reactors) face a fundamental economics challenge: building many smaller reactors costs more per unit of capacity than building one large reactor, and mass production at the scale needed (1,200+ SMRs for 35 GW) has never been demonstrated.

Rolls-Royce in the UK is positioning to mass-produce SMRs with contracts from Poland, Czech Republic, and UK National Grid, but no SMR has been built and operated at scale anywhere, creating technology and production risk.

There are only four SMRs under construction in North America (Darlington in Canada), none of which have been completed or operated, representing zero proven operating track record for SMR technology.

Some SMR designs use exotic fuel types like TRISO fuel, which have been tested in research reactors but never operated in commercial power reactors, creating uncertainty about real-world fuel performance.

There is an existing uranium supply deficit even before AI data center demand materializes; spreadsheet models show that current planned production cannot meet current committed reactor demand.

Multiple new reactors across different countries (Turkey 4, Bangladesh 2, Egypt 4, Saudi Arabia 16 planned, Czech Republic 2, Poland 1 early stage) are coming online in the next 5 years, each representing a first core fuel demand spike.

Ontario's nuclear supply chain is the best it has ever been because steady orders for CANDU reactor refurbishment and maintenance have maintained industrial capacity over 30+ years, contrasting with US capacity loss.

TMI-1 is a 50-year-old reactor that was shut down in 2019 purely for economic reasons (unable to sell power for more than production cost), not for technical deficiency; it was running fine when shut down.

The TMI 2028 restart timeline is ambitious but credible because: (1) the reactor is technically sound, (2) informal NRC discussions have likely already occurred, (3) Constellation has experience and resources, (4) Microsoft contract creates financial incentive.

Microsoft's $16 billion, 20-year deal with Constellation Energy to power its data center with Three Mile Island Unit 1 represents a fundamental shift in how AI/data center operators source electricity, choosing nuclear over renewables despite the historical baggage of the TMI site.

When Microsoft chose Three Mile Island over other available shut-down nuclear plants, this choice was limited because there are very few US reactors that were shut down for economic reasons rather than technical issues—maybe half a dozen at most (Palisades, Dwayne Arnold, and a few others are among the only options).

In 2020, the Three Gorges Dam set a world record for highest annual power production by a single hydropower station after generating 11.8 billion kilowatt hours.

The Three Gorges Dam became operational in 2003 and is a crucial source of electricity for Central and Eastern China as well as Guangdong Province in the South.

The Three Gorges Dam helped China switch from coal-based power plants to hydropower, reducing the nation's reliance on coal which was previously used in significantly large quantities for power generation.

Traders and hedge funds are the 'apex predators' in uranium markets, creating convexity during bull markets when sentiment improves and yellow cake/Sprott trade at premiums to underlying asset NAV, amplifying gains for equity investors.

Germany has become so addicted to inexpensive, reliable Russian natural gas that it based its entire economic system on it, not just providing electricity but serving as the base material for the entire petrochemical sector which is exported, and without this gas the electricity sector, petrochemical sector, and entire German industrial model will be gone within two years.

Renewables like solar and wind are interesting as part of the energy picture in Europe, but Europe doesn't have many sunny or windy places, so Europeans will need oil and natural gas, but oil and natural gas are the internationally traded fossil fuels that are relatively low carbon compared to coal and wood.

Opening the Dutch natural gas fields would cause flooding problems for the Netherlands since most of the country is below sea level, and the country is very nervous about this for good reasons given that earthquakes have been caused by gas bubbles.

About 70% of the electricity generated in Germany in the last month was coal and lignite, and European nations are returning to burning wood for heating and power at a scale not seen since the early industrial age, which is as carbon-intensive as burning lignite, creating a sharp trade-off between global warming and staying warm in winter.

European shale gas reserves exist but are located under population centers (unlike US shales in North Dakota and West Texas), making fracking politically impossible due to neighborhood opposition, and even if pursued, European shales are deeper, smaller, thinner, and less petroleum-dense than US shales, yielding only 1/6 the oil production for equivalent investment.

China will absorb the entirety of the energy shortage from disrupted Russian energy flows to the Eastern Hemisphere, which is more than enough to trigger something far worse than the 1970s oil crises specifically for China.

Even if Europe decided to exploit shale gas tomorrow, the projects require financial authorization, project management, regulatory approval, pipeline construction, drilling, and operation—all of which require years to complete, making even a best-case timeline of 3-4 years for major infrastructure projects like deepwater ports, assembling navies, and running pipes, which is far too slow to address immediate energy crises.

The Russian oil export disruption has not yet occurred because Russia was able to shut in wells in non-core permafrost zones (Tatarstan and Kyrgyzstan), reducing exports by only about one million barrels per day for 6-8 weeks before restarting, but when sanctions on maritime insurance expand on January 1st to cover any vessel carrying Russian cargo combined with European oil price caps, this will lock in at least 2-3 million barrels per day of disruption, which will be sufficient to cause pump freeze as water freezes in pipes, taking Russian oil offline for decades.

The optimal energy policy objective is to maximize the ratio of total standard of living provided to humanity divided by ecological impact; optimizing only for impact reduction necessarily results in far fewer humans, while ignoring impact maximizes planetary damage.

There are no utopian energy solutions, only tradeoffs; accepting this reality crystallizes policy debate to the substantive question of which tradeoffs to make rather than debating whether harm-free solutions exist.

Doomberg published 'Gaining Steam' highlighting that three BCF/day additional Permian natural gas pipeline demand to Mexico is expected by 2030, which could conflict with LNG export demand if supply is insufficient; this raises questions about natural gas availability for multiple end-uses.

If Western nations eliminated all fossil fuel use while allowing others to use them freely, the only result would be making fossil fuels cheaper for developing nations to use, thereby accelerating global consumption rather than reducing it.

France generates 70-80% of its electricity from nuclear power and maintains a developed economy despite managing reactor maintenance issues; this proves 50-year-old nuclear problem (scaling deployment) was already solved and can be replicated.

In water-scarce regions, energy provides services to enable water production, and the energy needed to produce 100 gallons per day via ocean desalination equals approximately one hour of residential electricity consumption, which compares favorably to other energy expenditures

Natural gas in the United States is in deep surplus with more supply than domestic demand can absorb, while European natural gas commands a premium due to import dependency and scarcity.

The United States will become a net exporter of all energy products by the end of 2019 and the cost of production in American shale fields will drop below Saudi Arabia's production costs by the end of 2020, fundamentally changing American policy preferences from energy market stability to deliberate disruption.

Leyh used to work at Makani, which manufactures special windmills that are actually eight-bladed acrobatic planes that circle on a tether, and the thing holding back renewables right now is the cost of storage.

Leyh mentioned that a coal-fired power plant was going to be built near Gerlach Nevada to feed Los Angeles, but LA decided they didn't want to add that to the playa, so the plant was not built.

Germany experienced a situation where the price of electricity went negative due to an excess supply from a 'perfect storm' of simultaneous solar and wind generation, demonstrating that renewable energy distribution and storage (not generation) is the limiting factor in renewable energy economics.

A nuclear renaissance is underway globally with governments actively endorsing nuclear power as part of their energy strategy, as evidenced by Ontario breaking ground on an SMR, Saskatchewan pursuing SMR development with Cico and Westinghouse, and Bill Gates' Terrapower breaking ground on natrium reactors in Wyoming.

Artificial intelligence data centers require reliable 24/7 power and are increasingly looking at small modular reactors as a power solution, creating a new and growing demand driver for uranium that was not as prominent in previous uranium cycles.

Virtually every home in the northern US already has natural gas hookups, making CNG (compressed natural gas) home fill-up stations economically feasible if price differentials justify investment.

Several things must happen for the nuclear renaissance to materialize: nuclear industry must deliver on promises, supply chain development is needed, labor force training for technicians is required, and administrative state constraints must continue to be removed.

Philip 66, the top midstream company, is building out infrastructure to extract and process natural gas and NGLs (natural gas liquids) from the Permian, enabling further oil production and using NGLs in its own refineries, showing how fungibility deployment drives economic activity.