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PostQuantum – Quantum Computing, Quantum Security, PQC

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AI-Powered Encryption: Where the Hype Breaks Down
Marin Ivezic · 2026-06-25 · via PostQuantum – Quantum Computing, Quantum Security, PQC
AI-Powered Encryption

Table of Contents

This article is part of the Quantum Snake Oil Dictionary a series examining terms used in quantum technology marketing. The series is divided into Red Flag Terms (terms with no established technical meaning that almost always signal hype or fraud) and Misused Terms (legitimate concepts routinely stripped of context in marketing). This entry is a Red Flag Term.

A note before we begin. This entry covers “AI-powered encryption” and its relatives (“AI-enhanced cryptography,” “AI-driven encryption,” “intelligent encryption”). I am not writing about any specific company or product. Some products described this way may use machine learning in entirely legitimate ways. The term earns a place here because of a specific claim it often smuggles in: that an AI is the source of the cryptographic security. That claim inverts how cryptography works.

Where AI Legitimately Meets Cryptography

Start with what is real, because there is plenty of it, and dismissing it would be its own kind of error.

Machine learning has become a genuine tool of cryptanalysis — the science of attacking ciphers. The landmark result is Aron Gohr’s 2019 work presented at CRYPTO, which used a deep neural network to build a differential distinguisher for the block cipher Speck32/64 that outperformed the classical equivalent, then used it to mount a practical key-recovery attack on a reduced-round version. That paper opened a research direction now several hundred papers deep, with neural distinguishers applied to Simon, Simeck, and other designs. AI is doing real cryptographic work there.

Machine learning also shows up in side-channel analysis, where models classify power traces or electromagnetic emissions to extract keys from physical implementations. It appears in fuzzing and automated vulnerability discovery, in anomaly detection across network traffic, and in tooling that helps cryptographers search for differential characteristics. Every one of these uses points AI at the job of finding weaknesses or analyzing behavior. That is the pattern. Legitimate AI in cryptography lives on the attack-and-evaluation side.

What “AI-Powered Encryption” Usually Means

The marketing claim runs in the opposite direction. It positions the AI as the thing that creates or strengthens the encryption: an intelligent system that generates keys, adapts the cipher in real time, or produces ciphertext an attacker supposedly cannot unwind, with the AI itself cited as the reason it is secure.

The archetype is documented. A company called Crown Sterling marketed “TIME AI,” described in its own materials as the world’s first dynamic, non-factor-based quantum AI encryption software using time, the variability of music, and artificial intelligence to generate key pairs. Schneier catalogued it as a textbook case of snake oil, ticking several of the warning signs he first wrote down in 1999. The “AI” in that pitch was doing no cryptographic work. It was doing marketing work.

Why an AI Cannot Be the Source of Cryptographic Security

There are concrete reasons the claim fails, and they are worth stating plainly.

Cryptographic security rests on problems that are stable, well-defined, and studied in the open, so the community can reason about exactly how hard they are. A neural network’s behavior is none of those things. Its decision boundary is opaque, it is non-deterministic in training and often in inference, and it cannot be reduced to a hardness assumption you can analyze. “The model classified this ciphertext as secure” is not a security argument, because no theorem connects that classification to the cost of an attack.

Kerckhoffs’s principle applies here with full force. Security must live in the key, not in an opaque model the vendor hopes an attacker cannot reproduce. If the secret is really the model, you have rebuilt security-through-obscurity with extra steps and a marketing budget.

There is also a symmetry the pitch ignores. If a defender can train an AI to make ciphertext look unbreakable, an attacker can train an AI too, and the attacker’s models are exactly the ones Gohr’s line of work keeps improving. Cryptography is built on worst-case hardness and on attackers who get to use every tool you have and more. A heuristic that something appears secure to one model is not protection against a better model, a classical attack, or a careful human.

The Tell: Which Way Is the AI Pointed

Here is the practical way to separate the real from the performance. Ask which direction the AI faces. A serious team points machine learning at its own cipher to break it, then publishes what the models could and could not do, treating any success as a weakness to fix. A vendor selling “AI-powered encryption” points the AI at the customer and asks them to accept its presence as evidence of strength. That is the line between cryptanalysis and decoration.

Questions to Ask a Vendor

“What does the AI do — does it attack the cipher or generate the security?” If the AI evaluates or stress-tests a published algorithm, that may be useful. If the AI is the reason the encryption is claimed to be unbreakable, you have found the problem.

“Which standardized algorithm provides the actual confidentiality?” A solid product can use machine learning around the edges while real, analyzed algorithms do the cryptography. Find out what those algorithms are.

“Can you state the security claim without using the words ‘AI’ or ‘intelligent’?” A real claim survives this translation into specific algorithms and assumptions. A claim that collapses without the buzzword had no cryptographic content to begin with.

The Bottom Line

AI is a real and rising force in cryptography, on the side of breaking and testing ciphers. Marketing that presents an AI as the source of your encryption’s strength has the relationship backwards. Cryptographic security comes from hard problems studied in the open and from algorithms that survive public attack, not from a model’s confidence that something looks safe. When you see “AI-powered encryption,” find out which way the AI is pointed. Inward, at the vendor’s own cipher, is research. Outward, at you, is a sales pitch.

Quantum Upside & Quantum Risk - Handled

My company - Applied Quantum - helps governments, enterprises, and investors prepare for both the upside and the risk of quantum technologies. We deliver concise board and investor briefings; demystify quantum computing, sensing, and communications; craft national and corporate strategies to capture advantage; and turn plans into delivery. We help you mitigate the quantum risk by executing crypto‑inventory, crypto‑agility implementation, PQC migration, and broader defenses against the quantum threat. We run vendor due diligence, proof‑of‑value pilots, standards and policy alignment, workforce training, and procurement support, then oversee implementation across your organization. Contact me if you want help.

Talk to me Contact Applied Quantum

Photo of Marin Ivezic

I am the Founder of Applied Quantum (AppliedQuantum.com), a research-driven consulting firm empowering organizations to seize quantum opportunities and proactively defend against quantum threats. A former quantum entrepreneur, I’ve previously served as a Fortune Global 500 CISO, CTO, Big 4 partner, and leader at Accenture and IBM. Throughout my career, I’ve specialized in managing emerging tech risks, building and leading innovation labs focused on quantum security, AI security, and cyber-kinetic risks for global corporations, governments, and defense agencies. I regularly share insights on quantum technologies and emerging-tech cybersecurity at PostQuantum.com.