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Can Bitcoin Go to Zero? AI Stress-Test Guide

Can bitcoin go to zero? Use AI tools to model the real failure conditions, quantum risks, and institutional floors instead of repeating the same talking points.

6 min readBeginner

Why this question keeps hitting during every dip

You’ve watched Bitcoin drop hard again. Friends text “is this the end?” Search volume for can bitcoin go to zero spikes. Skeptics like Jeremy Grantham say it will “certainly” get there eventually. The usual articles all answer the same way: theoretically possible, practically almost impossible.

I got tired of that loop. So I started feeding the question into AI tools the way I’d stress-test any dataset – force failure modes, demand numbers, and refuse the happy path. That’s the tutorial. Not another list of reasons it won’t. A workflow you can run yourself in ChatGPT, Claude, or whatever LLM you like.

Quick setup: what the network actually looks like right now

Price first: about $76,000-$76,800 as of mid-to-late 2026 snapshots, market cap near $1.53 trillion. Circulating supply sits around 20.08 million of the 21 million cap. Hashrate? Roughly 830-880 EH/s on recent pulls from explorers like BitInfoCharts.

Strategy holds roughly 845,000 BTC. US spot ETFs hold ~1.2 million+ combined, AUM in the $95-100B range. Lost or long-dormant coins (common estimates 2.3-4 million) already shrink the spendable float. Any true-zero story has to wipe buyers at every price while blocks keep landing – and pure demand-collapse models often skip that thinner float.

Hands-on: AI prompts that force real zero-scenario analysis

Open your preferred LLM. Don’t ask “will Bitcoin go to zero?” That’s how you get the consensus paragraph. Run a sequence that builds a failure tree instead.

Prompt 1 – Force the simultaneous conditions

Act as a skeptical systems analyst. List every condition that must be true AT THE SAME TIME for Bitcoin's market price to reach and stay at exactly $0 USD permanently. For each condition give: (a) current evidence for/against, (b) weakest link, (c) rough order-of-magnitude probability if known. No cheerleading. Cite mechanisms from the original design.

You’ll get global regulatory coordination, cryptographic break, total miner abandonment, permanent demand collapse, and usually the quantum angle. Push back on vague answers: “Quantify the coordination problem across G20 + rest of world.”

Prompt 2 – Quantum timing trap

Here’s the gotcha most “can’t go to zero” pieces skip. Public resource estimates for Shor on secp256k1 (Google Quantum AI work and related arXiv analyses, including arXiv:2606.14484) cut prior million-qubit folklore down – some models land under ~500k physical qubits. Short-range angle: once a pubkey hits the mempool, key derivation on the order of ~9 minutes shows up in those writeups. Average block time is ~10 minutes. Uncomfortable overlap.

Using the latest public resource estimates for Shor's algorithm on Bitcoin's curve, model a short-range quantum attack on a mempool transaction. What is the practical window? How does Bitcoin's existing difficulty adjustment and potential soft-fork migration interact? What percentage of supply is currently more exposed (reused/exposed keys)? Give concrete numbers where papers provide them.

PoW hashing is a different fight – Grover is only quadratic. Signatures and migration speed versus hardware timelines are the real pressure. Forecasts stay wide and bimodal; one Monte-Carlo style read put roughly a one-in-six shot of a relevant machine by 2035. Exact timing before a successful post-quantum soft-fork still isn’t pinned in any official doc. Governance becomes the bottleneck, not a single lab demo.

Pro tip: After the model answers, paste real hashrate and fee data from a block explorer and ask it to recalculate miner revenue under a 90% price crash. Watch how fast the security-budget chat gets concrete. As of recent snapshots the block reward is 3.125 BTC; fees are only a small slice of miner revenue (on the order of well under 1% of reward in quiet windows).

Prompt 3 – Build your personal floor matrix

  1. Feed current holdings data (ETFs, Strategy, known sovereigns) and lost-coin estimates.
  2. Ask: “Calculate the minimum number of never-sellers required to absorb all liquid supply at $1, $10, $100. What does that imply for a true zero?”
  3. Then: “Now invert it. Design the smallest credible cascade that liquidates those holders and still leaves zero bid.”

That inversion step is where models usually flinch. Keep the flinch. It teaches improbability better than a polished explainer. Don’t treat the struggle as a breathing break – log where the cascade breaks and move on.

Common pitfalls when you let AI answer this

Models recite the obituaries and stop. Trackers sit around 470-517 “Bitcoin is dead” headlines since 2010. Force them past the ritual count.

Price ≠ network survival. Through multiple 80%+ drawdowns (2011, 2014-15, 2018 and later) the chain kept producing blocks. Zero price means zero remaining economic interest in those blocks. Split the two in every prompt.

Hallucinated “official” probabilities show up constantly. There aren’t any. Stamp every figure yourself: as of [paper date or data pull].

What the runs spit out

Binary yes/no dies after a few rounds. Coordinated global bans look logistically brutal. Demand evaporation fights ideology, ETF balance sheets, and coins that never move. Quantum is real and time-bounded – migratable if social consensus moves. The slow burn almost nobody prices into absolute zero: after final halvings the block reward heads to zero and security rides the fee market alone.

One honest pause: the harder you push the model to invent a clean path to $0, the more independent failures it has to stack. That pile-up is the signal. Not a vibes-based “sub-1%” slogan.

Failure mode Key dependency Current counter
Total demand collapse No buyer at any price Institutional + HODLer floor + lost coins
Cryptographic break CRQC + un-migrated keys Migration path exists; PoW safer
Network abandonment Miners + nodes exit Difficulty adjusts; ideology persists
Fee market failure (far future) Security budget post-reward Unknown; depends on usage

Re-run that table quarterly. Fresh explorer numbers. Beats another recycled explainer.

When this AI workflow is the wrong tool

Need a trading signal for next week? Stop. Scenario trees don’t spit entry prices. Want reassurance your bags are safe forever? The honest run will annoy you. Model starts sounding like a maxi or a goldbug? Reset the system prompt – analysis left the chat.

Also skip it when you haven’t opened primary sources. Cross-check whitepaper mechanics at bitcoin.org/bitcoin.pdf and the latest quantum resource papers before treating any AI summary as fact.

FAQ

Can bitcoin go to zero in the next two years?

No credible simultaneous-failure path looks likely on that horizon. Ugly drawdowns? Fully on the table.

What’s the single most under-discussed path toward lasting damage?

Picture coins still sitting in exposed address types when a cryptographically relevant machine arrives, while a migration soft-fork crawls through social consensus. That’s the pairing – not a cartoon global ban. Run Prompt 2 with current exposed-key estimates; don’t outsource the timing math to a headline.

Should I just ask ChatGPT “will Bitcoin hit zero” every month?

That’s how you collect the same consensus paragraph on repeat. Keep a living pack instead: hashrate, ETF flows, fee share of miner revenue, latest qubit estimates. Re-run the failure-tree prompt after each major macro shock or paper. Value lives in the delta between saves, not the first answer. Treat the LLM like a tireless junior analyst who needs ruthless edits – never an oracle.

Next action: copy Prompt 1 and Prompt 2 into your tool now, paste today’s price and hashrate from any explorer, and force a one-page failure matrix. Save it. Open it again after the next 30% move. That’s how you stop googling the same question every cycle.