Know exactly where your system breaks under quantum.

Most systems don't fail at encryption. They fail where data becomes visible. Find your exposure. Fix it before it matters.

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Step 1 — Regulatory context

Where is your organization based?

Why this matters ▾

Different jurisdictions have different post-quantum migration timelines and regulatory requirements. EU, US federal, and APAC have distinct compliance pressures.

United States

European Union

United Kingdom

Asia-Pacific

Other

Industry

Financial Services

Healthcare

Government / Defense

Technology / SaaS

Insurance

Blockchain / Digital Assets

AI / Data Platform

Legal

Other

Company size

1–50 employees

50–500

500–5,000

5,000+

Step 2 — Data profile

How long must your most sensitive data remain confidential?

Why this matters ▾

Data with long lifetimes is already at risk from "store now, decrypt later" attacks. If an adversary captures it today, quantum systems can decrypt it in the future.

Less than 1 year

1–5 years

5–10 years

10+ years

What types of sensitive data do you handle?

✓PII (personally identifiable information)

✓Financial records

✓Health / medical data

✓Trade secrets / IP

✓Credentials / auth tokens

✓Blockchain keys / wallets

✓Government / classified data

✓None of the above

Is sensitive data transmitted externally?

Yes

Step 3 — Cryptography stack

What encryption do you use today?

✓TLS only (HTTPS)

✓Encryption at rest

✓Application-layer encryption

✓HSM / KMS

✓Custom cryptography

Which key algorithms are in use?

Why this matters ▾

RSA and ECC are directly broken by Shor's algorithm on a quantum computer. AES is quantum-resistant. If you don't know, that's a finding in itself.

✓RSA

✓ECC / ECDSA / ECDH

✓AES

✓Ed25519

✓Kyber / ML-KEM (post-quantum)

✓Dilithium / ML-DSA (post-quantum)

✓Don't know

Step 4 — Exposure surface

Where is sensitive data visible in plaintext?

Why this matters ▾

Every point where data exists in plaintext is an exposure surface — not just for quantum attacks, but for any compromise. Most breaches happen where data is readable, not where it's encrypted.

✓API layer

✓Internal services

✓Logs / observability

✓AI / analytics / ML pipelines

✓Database queries

✓Customer support tools

✓Nowhere (data never decrypted)

Step 5 — AI processing

Do you process sensitive data with AI or LLMs?

Yes

Step 6 — Operations

How often do you rotate encryption keys?

Never

Annually

Automated / continuous

Infrastructure model

Cloud (AWS / GCP / Azure)

On-premise

Hybrid

How many vendors touch sensitive data?

1–3 vendors

4–10 vendors

10+ vendors

Step 7 — Verification

Can you prove sensitive data was never exposed in plaintext?

Why this matters ▾

After a breach, the first question is: "Was data exposed?" If you can't prove it wasn't, you're assumed compromised. Cryptographic attestation provides mathematical proof of data state at any point in time.

Partial (logs, audit trails)

Yes — cryptographic attestation

Can you prove what computation ran on sensitive data?

Yes

Not sure

Can a third party independently verify that proof?

Yes

Not sure

Quantum Risk

—

Answering...

Exposure Map

What Breaks First

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Get a migration path tailored to your stack, data profile, and risk level.

Your system can be secured in 3 phases

Your system currently cannot prove:

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Quantum Readiness Assessment

Know exactly where your system breaks under quantum.

Where is your organization based?

Industry

Company size

How long must your most sensitive data remain confidential?

What types of sensitive data do you handle?

Is sensitive data transmitted externally?

What encryption do you use today?

Which key algorithms are in use?

Where is sensitive data visible in plaintext?

Do you process sensitive data with AI or LLMs?

Is data decrypted before AI processing?

Are prompts, outputs, or embeddings stored?

How often do you rotate encryption keys?

Infrastructure model

How many vendors touch sensitive data?

Can you prove sensitive data was never exposed in plaintext?

Can you prove what computation ran on sensitive data?

Can a third party independently verify that proof?

Exposure Map

What Breaks First

Compare to Industry

Generate your system-specific architecture plan

Your system can be secured in 3 phases

Your system currently cannot prove: