Exploring Bitcoin’s oldest addresses, quantum computing, public-key cryptography, and the unanswered questions surrounding Satoshi Nakamoto’s untouched fortune.
More than 1.1 million Bitcoin have remained untouched since 2009.
They belong — at least according to overwhelming on-chain evidence — to Bitcoin’s anonymous creator, Satoshi Nakamoto.
For over fifteen years, these coins have never moved.
Yet as quantum computing advances, an uncomfortable question is becoming increasingly difficult to ignore:
Could the largest dormant Bitcoin fortune in history eventually become vulnerable?
The answer is far more complicated than most headlines suggest.
1. Anatomy of a Myth: Why Satoshi’s Coins Are Called the “Weakest Link”
To understand this hypothesis, we must first look at the pessimistic scenario accepted by the majority of crypto experts.
Address Type (P2PK): Satoshi’s early coins are not stored on familiar modern addresses (P2PKH or Bech32), but rather on the simplest P2PK (Pay-to-PubKey) format.The Problem: On these addresses, the user’s public key is exposed directly on the blockchain (it’s not a hashed key, but raw code).The Quantum Threat: Theoretically, a powerful future quantum computer utilizing Shor’s algorithm could mathematically derive the private key from an exposed public key in a reasonable amount of time.
This is why traditional consensus dictates that if a sufficiently powerful quantum machine ever emerges, Satoshi’s coins will be the first and most probable target for attack. They are massive, ancient, and feature exposed keys.
But what if we are underestimating the architect of the system?
2. The High-Entropy Hypothesis: Could Satoshi Have Used “Physical Chaos”?
This is where things get genuinely fascinating. In cryptography, entropy is the measure of true randomness.
Low Entropy: When a key is generated using a standard pseudo-random number generator (PRNG) relying on system clocks, process times, or session IDs. Cracking such a key for a quantum computer is elementary.High Entropy: Randomness harvested from the physical world — hardware thermal noise, radioactive decay, atmospheric interference, or intentional erratic movements (a task fundamentally impossible for any quantum computer to crack, as such data sources possess a truly chaotic nature).
Imagine a simple example: what if we take an ordinary microphone and generate entropic data based on an acoustic source, say, the sound of raindrops hitting a wooden window frame during a storm? Think about it — how many such unique, unpredictable sources of entropy could be created? More than just one.
Why Might Satoshi Have Done This?
He was a perfectionist and a paranoid. The person (or group) who designed Bitcoin understood cryptography at an exceptionally high level. Relying on a standard, vulnerable random number generator to mint the most vital coins in the system would have been an unforgivable amateur mistake.The Isolated Environment of 2009. In those early months, Satoshi worked alone. He had total freedom to experiment with manual key generation in an isolated environment, applying unorthodox physical sources of randomness.The Clean Distribution. Early blockchain researchers note that the distribution of public keys in the genesis blocks looks remarkably uniform and “clean,” subtly hinting at superior code quality and high initial entropy.
3. How Bitcoin is Preparing for the Quantum Era
While the hypothesis of high entropy adds a layer of optimism, Bitcoin developers are not leaving things to chance. The cryptographic community is proactively engineering defensive mechanisms.
Long before truly dangerous quantum computers materialize, the Bitcoin community will almost certainly implement a soft fork to transition to post-quantum cryptographic algorithms (such as lattice-based signatures or other quantum-resistant schemes). This will allow users to safely “migrate” their funds from legacy addresses to modern ones without fearing mathematical decryption.
However, what happens to old, dormant addresses (including Satoshi’s coins), where no one is present to execute a manual migration? That remains an open protocol question that the community will have to resolve via consensus in the future.
Conclusion: Noise or Foundation?
Let’s step away from the opinions of famous social media voices and public figures for a moment, and ask ourselves one simple question:
Could a person who built such a high-tech blockchain, created the most high-performing project structure in history, and possessed some of the deepest knowledge in cryptography, have simply ignored or failed to account for the eventual emergence of supercomputers and AI applications? Of course not.
It is genuinely disheartening to see certain prominent figures making completely absurd public proposals like: “Let’s protect Satoshi’s Bitcoin assets by simply burning them, freezing them, or rewriting them via a fork.” They forget the core law of Bitcoin that must never be broken: no single coin can ever be changed, rewritten, or destroyed — neither through a fork nor through any other coercive mechanism. The right to private property here is absolute.
Those who propose such solutions are simply underestimating Satoshi. This person took care of their assets and the security of the system far better than critics can possibly imagine.
My hope is that these public figures finally begin genuinely researching the internal mechanisms of how Bitcoin works, understand what it was built for, and stop spreading panic, moving instead to discussing truly serious matters. The palace of the digital economy is built to last centuries.
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Satoshi’s Lost Million: Are Bitcoin’s Oldest Coins Really Vulnerable to Quantum Computing? was originally published in Coinmonks on Medium, where people are continuing the conversation by highlighting and responding to this story.