Primarystorage
69 posts

Primarystorage
@primarystorage_
20 years structured finance. Not a Bitcoin maxi. Not a TradFi evangelist. Unifying both makes a better financial system.





BREAKING: The price of diamonds has crashed to its lowest level this century.




⚠️GOOGLE SAYS A QUANTUM ATTACK ON BITCOIN TAKES JUST 9 MINS WITH A 41% SUCCESS RATE Google's quantum team now says cracking Bitcoin may require less than 500K qubits, far below the “millions” once assumed. Research suggests an attack could take 9mins, faster than a typical 10-min block confirmation, giving a 41% success rate. Google now flags 2029 as a key deadline to upgrade Bitcoin’s cryptography before quantum becomes a real threat.






Sell your house! Invest in bitcoin through $strc which is somehow related to $mstr which has exposure to $btc which they’ve saddled with debt or some type Do not just buy $btc on robinhood!!! Buy it through some convoluted corporate structure and trust it will be ok!!!! 😂😂😂😂






Cracking a Bitcoin key with a quantum computer is like robbing a bank that burns down the moment you walk through the door. Every serious fund tracks dormant wallets. The second old coins move, the world sees it on a public ledger in real time. The sell-off destroys the value before you can cash out. And anyone sophisticated enough to crack Bitcoin keys is sophisticated enough to know this. They won't sell, they'll move coins to quantum-resistant wallets and preserve the network. Transparency is the immune system. That's the beauty of a public ledger. Quantum breaks cryptography in theory. Game theory breaks the attacker in practice.

New Google paper: Shor’s algorithm compiled to 1,200 logical qubits + 70M Toffoli gates breaks ECDLP-256. <500K physical qubits. Minutes to execute. Every ECC-based chain is now on a hard deadline. research.google/blog/safeguard…


🚨 Google has sounded the quantum alarm 🚨 Today, they released groundbreaking progress towards breaking crypto using a quantum computer. TLDR - Existing cryptography is dead. Mempool attacks are real. We must migrate to post-quantum now. Thread 🧵




Cracking a Bitcoin key with a quantum computer is like robbing a bank that burns down the moment you walk through the door. Every serious fund tracks dormant wallets. The second old coins move, the world sees it on a public ledger in real time. The sell-off destroys the value before you can cash out. And anyone sophisticated enough to crack Bitcoin keys is sophisticated enough to know this. They won't sell, they'll move coins to quantum-resistant wallets and preserve the network. Transparency is the immune system. That's the beauty of a public ledger. Quantum breaks cryptography in theory. Game theory breaks the attacker in practice.


Cracking a Bitcoin key with a quantum computer is like robbing a bank that burns down the moment you walk through the door. Every serious fund tracks dormant wallets. The second old coins move, the world sees it on a public ledger in real time. The sell-off destroys the value before you can cash out. And anyone sophisticated enough to crack Bitcoin keys is sophisticated enough to know this. They won't sell, they'll move coins to quantum-resistant wallets and preserve the network. Transparency is the immune system. That's the beauty of a public ledger. Quantum breaks cryptography in theory. Game theory breaks the attacker in practice.

Many are wondering "what Google saw" that caused them to revise their post-quantum cryptography transition deadline to 2029 last week. It was this: research.google/blog/safeguard…



🧵 THE QUANTUM GAME THEORY OF BITCOIN Why the profit-maximizing quantum attacker saves Bitcoin, and gets paid the most for doing it. Quick napkin. The Setup. Let: S = 6.9M BTC with exposed public keys (Google, March 2026) P₀ = BTC price pre-attack H = attacker's pre-accumulated holdings in quantum-safe wallets Total supply cap = 21M BTC (minus unmined) actor gains quantum capability to break ECDSA. Three strategies available. Only one is Nash-optimal. You crack S and dump on the market. You're selling into your own crash. Liquidity evaporates. If S = 6.9M BTC and daily volume is ~30K BTC, you'd need 230 days of total market volume. Price hits zero before you exit 0.1% of your position. Payoff_A ≈ S × P_collapse → 0 This is the strategy everyone fears. Is also the worst one. Strategy B: Keep the stolen coins. You crack S, move to your own wallet, hold. Problem: You're now the most hunted entity on earth. Every intelligence agency, every exchange, every node operator is watching your addresses. Permanent sell overhang suppresses price. Market prices in the risk you dump at any time. Payoff_B = S × P₀ × (1 - overhang_discount), but you can never spend it without revealing yourself. Payoff_B is large on paper, zero in practice. Strategy C: The real print Stage 1 Accumulation. Quietly buy H bitcoin over months into BIP-360 quantum-resistant addresses. No signal to market. Cost basis = H × P₀. Stage 2 Positioning. Load deep OTM puts across Deribit, CME. Short MSTR, COIN, BITO. Total premium outlay = C (small, these are far OTM). Stage 3 Execution. Crack every vulnerable address. Send ALL coins to a provable burn address. Not your wallet. Burned. Verifiably, permanently gone. Stage 4 Crash capture. Market panics. BTC drops x%. Put payoff = f(x) where f is convex in the decline. Deep OTM puts go from pennies to multiples of face value. Payoff_puts = C × leverage_multiple × (P₀ - P_crash) Stage 5 Supply shock. Before burn: your share of supply = H / 21M After burn: your share of supply = H / (21M - S) If S = 6.9M: H / 14.1M vs H / 21M = 1.49x multiplier on your ownership share. You just increased your effective BTC position by 49% without buying a single additional sat. Stage 6 Transparency. Go public. Announce what you did and prove it. Why? Because silence creates uncertainty. Will the attacker dump? suppresses recovery. Proof of burn removes the overhang instantly. Transparency is a commitment device it makes the recovery credible. This isn't the moral choice. It's the greedy one. Every day of uncertainty you eliminate accelerates the recovery that your long position profits from. Stage 7 Recovery capture. Network hard forks to quantum-resistant signatures (BIP-360 is already on testnet). Existential risk resolved. Satoshi overhang gone forever. Post-recovery price P₁ > P₀ because: Supply permanently reduced by S/21M = 33% Existential risk eliminated Network provably survived its worst-case scenario Your stack H is now worth: H × P₁ where P₁ reflects the new scarcity Total Payoff Comparison. Strategy A (sell): Π_A ≈ 0 (can't exit) Strategy B (keep): Π_B = S × P₀ × discount (large on paper, inaccessible, permanent target) Strategy C (burn): Π_C = Puts profit + H × (P₁ - P₀) + H × P₁ × (S / (21M - S)) The third term is the supply compression premium. It's pure upside that only exists in Strategy C The Deeper Insight. The attackers incentives are perfectly aligned with Bitcoin's survival. They want: The network to upgrade (protects their remaining stack) The price to recover (that's where the real money is) Confidence to return (drives P₁ above P₀) This is a mechanism design result: Bitcoin's transparency and fixed supply turn the attacker into its greatest advocate.

🧵 THE QUANTUM GAME THEORY OF BITCOIN Why the profit-maximizing quantum attacker saves Bitcoin, and gets paid the most for doing it. Quick napkin. The Setup. Let: S = 6.9M BTC with exposed public keys (Google, March 2026) P₀ = BTC price pre-attack H = attacker's pre-accumulated holdings in quantum-safe wallets Total supply cap = 21M BTC (minus unmined) actor gains quantum capability to break ECDSA. Three strategies available. Only one is Nash-optimal. You crack S and dump on the market. You're selling into your own crash. Liquidity evaporates. If S = 6.9M BTC and daily volume is ~30K BTC, you'd need 230 days of total market volume. Price hits zero before you exit 0.1% of your position. Payoff_A ≈ S × P_collapse → 0 This is the strategy everyone fears. Is also the worst one. Strategy B: Keep the stolen coins. You crack S, move to your own wallet, hold. Problem: You're now the most hunted entity on earth. Every intelligence agency, every exchange, every node operator is watching your addresses. Permanent sell overhang suppresses price. Market prices in the risk you dump at any time. Payoff_B = S × P₀ × (1 - overhang_discount), but you can never spend it without revealing yourself. Payoff_B is large on paper, zero in practice. Strategy C: The real print Stage 1 Accumulation. Quietly buy H bitcoin over months into BIP-360 quantum-resistant addresses. No signal to market. Cost basis = H × P₀. Stage 2 Positioning. Load deep OTM puts across Deribit, CME. Short MSTR, COIN, BITO. Total premium outlay = C (small, these are far OTM). Stage 3 Execution. Crack every vulnerable address. Send ALL coins to a provable burn address. Not your wallet. Burned. Verifiably, permanently gone. Stage 4 Crash capture. Market panics. BTC drops x%. Put payoff = f(x) where f is convex in the decline. Deep OTM puts go from pennies to multiples of face value. Payoff_puts = C × leverage_multiple × (P₀ - P_crash) Stage 5 Supply shock. Before burn: your share of supply = H / 21M After burn: your share of supply = H / (21M - S) If S = 6.9M: H / 14.1M vs H / 21M = 1.49x multiplier on your ownership share. You just increased your effective BTC position by 49% without buying a single additional sat. Stage 6 Transparency. Go public. Announce what you did and prove it. Why? Because silence creates uncertainty. Will the attacker dump? suppresses recovery. Proof of burn removes the overhang instantly. Transparency is a commitment device it makes the recovery credible. This isn't the moral choice. It's the greedy one. Every day of uncertainty you eliminate accelerates the recovery that your long position profits from. Stage 7 Recovery capture. Network hard forks to quantum-resistant signatures (BIP-360 is already on testnet). Existential risk resolved. Satoshi overhang gone forever. Post-recovery price P₁ > P₀ because: Supply permanently reduced by S/21M = 33% Existential risk eliminated Network provably survived its worst-case scenario Your stack H is now worth: H × P₁ where P₁ reflects the new scarcity Total Payoff Comparison. Strategy A (sell): Π_A ≈ 0 (can't exit) Strategy B (keep): Π_B = S × P₀ × discount (large on paper, inaccessible, permanent target) Strategy C (burn): Π_C = Puts profit + H × (P₁ - P₀) + H × P₁ × (S / (21M - S)) The third term is the supply compression premium. It's pure upside that only exists in Strategy C The Deeper Insight. The attackers incentives are perfectly aligned with Bitcoin's survival. They want: The network to upgrade (protects their remaining stack) The price to recover (that's where the real money is) Confidence to return (drives P₁ above P₀) This is a mechanism design result: Bitcoin's transparency and fixed supply turn the attacker into its greatest advocate.




🧵 THE QUANTUM GAME THEORY OF BITCOIN Why the profit-maximizing quantum attacker saves Bitcoin, and gets paid the most for doing it. Quick napkin. The Setup. Let: S = 6.9M BTC with exposed public keys (Google, March 2026) P₀ = BTC price pre-attack H = attacker's pre-accumulated holdings in quantum-safe wallets Total supply cap = 21M BTC (minus unmined) actor gains quantum capability to break ECDSA. Three strategies available. Only one is Nash-optimal. You crack S and dump on the market. You're selling into your own crash. Liquidity evaporates. If S = 6.9M BTC and daily volume is ~30K BTC, you'd need 230 days of total market volume. Price hits zero before you exit 0.1% of your position. Payoff_A ≈ S × P_collapse → 0 This is the strategy everyone fears. Is also the worst one. Strategy B: Keep the stolen coins. You crack S, move to your own wallet, hold. Problem: You're now the most hunted entity on earth. Every intelligence agency, every exchange, every node operator is watching your addresses. Permanent sell overhang suppresses price. Market prices in the risk you dump at any time. Payoff_B = S × P₀ × (1 - overhang_discount), but you can never spend it without revealing yourself. Payoff_B is large on paper, zero in practice. Strategy C: The real print Stage 1 Accumulation. Quietly buy H bitcoin over months into BIP-360 quantum-resistant addresses. No signal to market. Cost basis = H × P₀. Stage 2 Positioning. Load deep OTM puts across Deribit, CME. Short MSTR, COIN, BITO. Total premium outlay = C (small, these are far OTM). Stage 3 Execution. Crack every vulnerable address. Send ALL coins to a provable burn address. Not your wallet. Burned. Verifiably, permanently gone. Stage 4 Crash capture. Market panics. BTC drops x%. Put payoff = f(x) where f is convex in the decline. Deep OTM puts go from pennies to multiples of face value. Payoff_puts = C × leverage_multiple × (P₀ - P_crash) Stage 5 Supply shock. Before burn: your share of supply = H / 21M After burn: your share of supply = H / (21M - S) If S = 6.9M: H / 14.1M vs H / 21M = 1.49x multiplier on your ownership share. You just increased your effective BTC position by 49% without buying a single additional sat. Stage 6 Transparency. Go public. Announce what you did and prove it. Why? Because silence creates uncertainty. Will the attacker dump? suppresses recovery. Proof of burn removes the overhang instantly. Transparency is a commitment device it makes the recovery credible. This isn't the moral choice. It's the greedy one. Every day of uncertainty you eliminate accelerates the recovery that your long position profits from. Stage 7 Recovery capture. Network hard forks to quantum-resistant signatures (BIP-360 is already on testnet). Existential risk resolved. Satoshi overhang gone forever. Post-recovery price P₁ > P₀ because: Supply permanently reduced by S/21M = 33% Existential risk eliminated Network provably survived its worst-case scenario Your stack H is now worth: H × P₁ where P₁ reflects the new scarcity Total Payoff Comparison. Strategy A (sell): Π_A ≈ 0 (can't exit) Strategy B (keep): Π_B = S × P₀ × discount (large on paper, inaccessible, permanent target) Strategy C (burn): Π_C = Puts profit + H × (P₁ - P₀) + H × P₁ × (S / (21M - S)) The third term is the supply compression premium. It's pure upside that only exists in Strategy C The Deeper Insight. The attackers incentives are perfectly aligned with Bitcoin's survival. They want: The network to upgrade (protects their remaining stack) The price to recover (that's where the real money is) Confidence to return (drives P₁ above P₀) This is a mechanism design result: Bitcoin's transparency and fixed supply turn the attacker into its greatest advocate.








