Runs large Bitcoin mining facilities in Texas, Georgia, and Washington, and is trying to rent the same power-hungry sites to AI computing customers.
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Runs large Bitcoin mining facilities in Texas, Georgia, and Washington, and is trying to rent the same power-hungry sites to AI computing customers.
What this company is and how it runs — written from structure, not news.
Core Scientific runs Bitcoin mining facilities in Texas, Georgia, and Washington, where it holds long-term power purchase agreements that lock in a fixed electricity rate in exchange for a commitment to draw continuous, full-load power from substations that utilities sized specifically around that never-varying consumption curve. Because the company must keep those substations fully loaded to avoid paying for unused power, it runs its Bitmain Antminer and MicroBT Whatsminer machines at constant full capacity around the clock — and when Bitcoin's network difficulty rises enough that mining no longer covers the contracted electricity cost, the only way to keep the substations earning is to swap in GPU clusters drawing equivalent wattage. The interconnection rights those substations represent took years of grid impact studies with ERCOT and state grid operators to secure, so any competitor trying to build equivalent capacity today must join the same multi-year queues that capital alone cannot shorten. The risk is that AI computing customers may need different power density per rack, different cooling, or proximity to fiber routes that the Texas, Georgia, and Washington sites were never positioned to serve — in which case the same interconnection agreements that keep competitors out would also prevent Core Scientific from reconfiguring its facilities into something its new customers actually want.
How does this company make money?
Three streams. First, the company mines Bitcoin itself — when its machines successfully add a block to the Bitcoin network, it earns the Bitcoin block reward plus any transaction fees attached to that block; how much that is worth swings with Bitcoin's price and how hard the network math is at any given moment. Second, it charges institutional clients a monthly fee for every ASIC miner those clients have hosted in its facilities, based on how much power and rack space each machine uses. Third, it bills enterprise customers for GPU cluster time on an hourly or monthly reserved basis for high-performance computing workloads.
What makes this company hard to replace?
Hosted mining clients have their physical Bitmain Antminer and MicroBT Whatsminer machines bolted into racks inside these facilities — moving them requires logistics coordination, insurance, and downtime that costs real money. The multi-year take-or-pay power contracts that make these facilities competitive are not available to copy; a rival facility would need years of its own grid impact studies just to get comparable utility interconnections. New entrants also have to take on the same long-term electricity price risk before they can offer equivalent terms.
What limits this company?
The maximum power the existing substations in Texas, Georgia, and Washington can deliver is the hard ceiling on everything. Adding more mining machines or GPU servers beyond what those interconnections were sized for requires filing new grid impact studies with ERCOT, Georgia Power, and Washington state grid operators and waiting through multi-year queues. Spending more money does not make those queues move faster.
What does this company depend on?
The company cannot run without long-term power purchase agreements with utilities in Texas, Georgia, and Washington. It also depends on Bitmain Antminer and MicroBT Whatsminer hardware supply chains for its mining machines, the Bitcoin network continuing to use proof-of-work as its consensus mechanism, the physical substation interconnections those utilities provisioned, and industrial cooling equipment rated for the constant heat that cryptocurrency mining produces.
Who depends on this company?
Institutional clients who host their own ASIC miners in these facilities would lose revenue immediately if the power or cooling systems went down. The Bitcoin network itself relies partly on large operations like these for stable hash rate — if several big facilities went offline at once, the network's total computing power would drop noticeably. Regional grid operators in Texas ERCOT, Georgia Power territory, and Washington state also count on these facilities as large, predictable industrial loads they can lean on when balancing the grid.
How does this company scale?
Inside an existing facility, adding more Bitmain Antminer or MicroBT Whatsminer units is relatively straightforward — plug them into available rack space and power connections and hash rate goes up. What does not scale cheaply is geography: opening a site in a new region means negotiating new utility-scale power purchase agreements, building out transmission infrastructure, and completing grid interconnection studies, all of which take years and cannot be rushed by writing bigger checks.
What external forces can significantly affect this company?
Federal Reserve interest rate decisions affect how much institutional money flows into Bitcoin mining infrastructure — higher rates make financing new equipment and facilities more expensive. Texas's deregulated electricity market creates chances to buy power cheaply but also exposes the company to grid instability events. When China bans cryptocurrency mining, large volumes of used Bitmain Antminer and MicroBT Whatsminer machines flood the global market, pushing down the value of the company's own equipment.
Where is this company structurally vulnerable?
If AI computing customers turn out to need different power densities per rack, different cooling systems, or locations close to major fiber routes that the Texas, Georgia, and Washington sites do not sit on, the company is stuck. The very interconnection agreements that keep competitors out also prevent the company from rebuilding its facilities to match what AI customers actually need — leaving it paying for contracted electricity it can neither mine Bitcoin with profitably nor rent to AI clients.
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