Buy vs Build vs Bury

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Last week, the White House announced Project Vault, a $12B program to build a strategic reserve of dozens of critical minerals as a hedge against Chinese supply disruption. This is the most aggressive domestic minerals play in a generation, and a big step in the right direction.

And yet, we can’t shake the feeling we’re overlooking a high-leverage opportunity from the unlikeliest of places: our trash cans. Across the press releases and procurement plans we’ve read, recycling is still a small, scattered line item when you size it up against the big, shiny stockpile.

So, today’s question: why is recycling a rounding error in our strategy to break the mineral chokehold?


The Case for Recycling

This February, Americans will dump ~500,000 tons of dead electronics. Today alone, we’ll send 416,000 phones, 142,000 computers, and 37,000 cars to landfills, shredders, or low-road export channels. These devices being put to digital pasture are laden with critical minerals and rare earth elements (REEs) — already mined, already refined, already in the alloys our government, defense industrial base, and critical technology industries are so desperate to secure.

Conservatively, a third of U.S. e-waste still ends up landfilled or burned, and somewhere between a tenth and two-fifths of ‘recycled’ devices quietly leave the country. All in, recovered REEs from end‑of‑life products cover ~1% of annual U.S. demand.

As we put up tens of billions to dig rock and build vaults, we are spending an order less on recycling. There’s no silver bullet here. Mines, refineries, science, finance, and alliances all must play their part. But we think recycling could play a bigger part in closing the strategic gap.


Today we share eight reasons why:

  1. The single-use problem. You know what they say: One Man’s Trash Is Another Man’s Concentrated Feedstock. A neodymium magnet from a hard drive is ~30% REE by weight; typical ore runs below 2%. That’s a 15× enrichment factor before you even touch a chemical. This is the crux of the issue: we pay to import critical materials embedded in finished goods, then bury/export them at end-of-life when there’s still residual value.
  2. Weaning off Chinese refineries. Cocktail party chatter on this matter (unclear if this has ever actually happened) conflates mining and refining. But as you, dear reader, of course already know, our chokepoint is midstream processing. China holds ~67% of global mining (big but manageable), 91% of refining, 87% of oxide separation, and ~92% of magnet production. The good news: a recycled magnet is already a finished alloy, not mixed ore. Salvage more from magnets, motors, and battery materials → re-enter the chain after the most chemically complex, pollutive, China-dominated step.
  3. Heavy REE independence. Whereas light REEs can be mined in California or Allied countries, the heavies largely originate from ionic clay deposits in southern China and Myanmar. But! Good news again. We’ve been importing heavy REEs for decades in our finished products. Dysprosium and terbium, two of the heavy REEs that folks talk about most at these fictional cocktail parties, let permanent magnets perform at ultra-high temperatures in jet engines, missile guidance systems, and submarine drive motors. They can be found in decent quantities across spent hard drives, MRI machines, EV motors, and wind turbines. Beyond the stockpiles we’re building now, our domestic e-waste stream may be the only scalable near-term source of defense-critical heavy REEs that doesn’t require Beijing’s stamp of approval.

Keep reading for the next five reasons — yes, the very next one gets into unit economics — and then drop us a line letting us know what you thought.,