Estimated excess uranium inventory from the 2000s-2010s oversupply period was approximately 150 million pounds, sitting in various conversion facilities and being traded among utilities and producers, chronically depressing primary mine demand.

Base load power is electricity that is always-on and weather-independent; only nuclear, hydroelectric, and geothermal can provide true baseload; wind and solar are intermittent and weather-dependent, requiring baseload sources to cycle up/down as backup.

Light-water and boiling-water reactors (the global fleet majority) use uranium enriched to 4-5% U-235; this is distinct from both natural uranium (0.7% U-235) and highly-enriched weapons-grade uranium (>90%), representing civilian standard fuel.

Tech companies are 'buying up land like crazy in Northern Virginia' to establish data centers, with Northern Virginia having more data centers than any other US state, likely due to proximity to DC.

Uranium sector moves are driven by unexpected catalysts (RFPs, producer announcements, geopolitical events) that move the market 'in big big ways'; the current environment is 'fragile' and could be broken by any of several catalysts (large RFP, Kazakh production miss, sectoral news).

Most uranium mining companies will never produce anything; the universe of ~100-130 mining stocks primarily consists of development-stage and exploration-stage companies; only a handful are producing or near-production.

Nuclear industry has done a poor job advocating for itself over the past 20 years, allowing misconceptions to persist despite strong safety and environmental records; this poor PR enabled anti-nuclear sentiment despite strong empirical evidence, contributing to the policy paralysis that lasted from 2011-2020.

Uranium demand is relatively easy to model compared to other commodity sectors because there is no OPEC-like cartel that can unilaterally shift supply (Kazakhstan comes closest but cannot meet production targets), and demand is derived from a fixed, predictable base (number of operating reactors × fuel requirements) that cannot be easily substituted or deferred.

There are hundreds of advanced reactor designs (Generation 4 reactors, small modular reactors) in development, with 80-100+ distinct SMR designs in various stages, representing significant R&D investment but uncertain commercialization timelines and material uncertainty about which designs will achieve commercial deployment.

Western utilities are currently in a temporary stalemate, using tactical maneuvers ('pulling forward material', 'flexing up on old contracts') to avoid signing new long-term uranium contracts at current elevated prices, but these tactics have limited runway because old contracts eventually expire and deferred needs must be filled, making the system fragile and susceptible to sudden demand spikes.

Uranium mining is inherently difficult and unattractive as a business (mining 'sucks'), requiring billions in capex for years of development before production, disincentivizing new entrants and creating structural barriers to supply expansion even at high prices.