Client: Example Corp · Assessment: May 2026 · Version: 1.0

Organisational Readiness

Source: Singapore QRI self-assessment.

Readiness by Domain

Maturity across the five QRI domains. Source: QRI self-assessment.

DomainLevelMeaning

Findings by Severity

. Click a slice to filter the list below. Source: all scan tools, .

Findings by Domain

. Source: all scan tools, .

External provider Quantum Readiness vs Your Usage

Provider readiness (from public disclosures, 2026) against which providers your questionnaire and scan show you rely on.

ProviderReadinessCommitmentYou useSource

Organisational Readiness

Readiness by Domain

DomainLevelMeaning

Findings by Severity

Findings by Type

ProviderReadinessCommitmentYou useSource

Organisational Readiness

Readiness by Domain

DomainLevelMeaning

Findings by Severity

Findings by Type

ProviderReadinessCommitmentYou useSource

Organisational Readiness

Readiness by Domain

DomainLevelMeaning

Findings by Severity

Findings by Type

ProviderReadinessCommitmentYou useSource

Organisational Readiness

Readiness by Domain

DomainLevelMeaning

Findings by Severity

Findings by Type

ProviderReadinessCommitmentYou useSource

Organisational Readiness

Readiness by Domain

DomainLevelMeaning

Findings by Severity

Findings by Type

ProviderReadinessCommitmentYou useSource

Cryptographic inventory by domain. Click a filter graph to narrow the list. Scan: .

Inventory Overview

All findings across the 5 sections. Click a filter to narrow the list.

Network 5 findings
Code 4 findings
Infra 4 findings
Data 4 findings
PKI 5 findings

Remediation Backlog

Every finding, prioritized. Click a row to expand, or click its status to update it. The deadline column follows the selected standard.

Recommended Quantum Integrations — connect a part of your stack to a quantum-ready technology, with the article behind each.

Complete the questionnaire to unlock your recommended quantum integrations, tailored to your sector.

Remediation How-tos

What each finding's action means and how to carry it out.

Rotate a TDE key to ML-KEM-768

Transparent Data Encryption keys wrap the data-at-rest encryption. Generate a new ML-KEM-768 key in your KMS, re-wrap the database encryption key with it, and point the database at the new wrapped key. Run in a maintenance window; retain the old key until the data is re-encrypted or migrated.

Re-wrap a KMS key with ML-KEM

A customer master key wraps data keys. Create a new ML-KEM-768 CMK, re-wrap each data key with it, then schedule the RSA-2048 CMK for retirement. Verify nothing still references the old key before disabling it.

Decommission SSLv2/3

Disable SSLv2 and SSLv3 and the cipher suites they enable (RC4, DROWN, POODLE) in the server configuration. Allow only TLS 1.2 and 1.3, then re-scan to confirm the protocols no longer negotiate.

Upgrade a service to TLS 1.3

Update the server to offer only TLS 1.3 and disable RSA key exchange in favour of (EC)DHE. Verify with sslyze or testssl that TLS 1.0/1.1 and RSA cipher suites are gone.

Disable RSA key exchange

Remove all TLS_RSA_* cipher suites from the server so key exchange uses ephemeral (EC)DHE only. This stops a future quantum computer from decrypting captured handshakes.

Re-issue a certificate with a shorter lifespan

Generate a new certificate with a validity of 366 days or less (per policy), replace the long-lived one, and update the issuer. Re-scan to confirm the lifespan is now compliant.

Add PQC key exchange

Enable a hybrid post-quantum key exchange such as X25519MLKEM768 on the endpoint. This requires a TLS stack that supports ML-KEM; fall back to classical ECDHE for compatibility.

Replace MD5 with SHA-256

Find every MD5 usage (hashing, checksums, signatures), switch to SHA-256 or SHA-384, and update any stored hashes. MD5 is not collision-resistant and must not be used for security.

Replace 3DES with AES-256

Replace DES/3DES with AES-256 (GCM where possible). 3DES has a 64-bit block size and is deprecated; migrate any legacy data encrypted with it.

Migrate JWT signing

Plan the move from RS256 (RSA) to a quantum-safe signature (ML-DSA-based JWT) once the IETF standard lands. In the meantime, track the standards work and document the migration path.

Pin a dependency to a PQC-aware release

Update the library to a version that defaults to quantum-safe algorithms, pin the exact version, and re-run the scan to confirm the weak default is gone.

Re-encrypt Ansible Vault

Re-encrypt the vault file with a stronger key derivation and rotate the vault password. Ansible Vault uses password-derived keys, so a weak password or key exposes the secrets.

Migrate a KMS key

For signing keys, migrate to ML-DSA; for encryption keys, ML-KEM. Create the new key in the KMS, re-wrap the dependent keys, and retire the ECDSA/RSA key.

Monitor

No immediate action required. Revisit on the next scan or when standards change. This item is recorded for traceability but is not urgent.

Plan a hybrid CA

Issue a parallel ML-DSA certificate hierarchy alongside the RSA root, so both are valid during the transition. This lets endpoints validate either signature while you migrate.

Migrate a CA to ML-DSA

Plan the intermediate CA migration: re-issue the intermediate under an ML-DSA root, then re-issue leaf certificates. Coordinate with relying parties so trust chains remain valid.

Rotate the SSH CA

Issue a new SSH CA key (Ed25519 or ML-DSA), re-sign host and user keys, and update the trusted CA on every host. Retire the RSA-2048 CA after the transition.

Migrate DNSSEC to a PQC algorithm

Wait for a standardized PQC DNSSEC algorithm, then rotate the ZSK and KSK. Until then, monitor the standards process and keep the current keys.

Integration Technologies

Emerging quantum technologies, how to integrate them, and the article behind each.

PQC for Legacy Systems

Deploy a gateway proxy that terminates TLS; apply hybrid X25519 + ML-KEM-768 key exchange; phase the rollout from edge to internal services; verify existing applications keep working unchanged.

Read the article →

Hybrid QKD + PQC (MadQCI)

Stand up an SDN-controlled QKD network; seed ML-KEM with QKD-derived key material; deploy virtual key management (vKMS + a Quantum Security Controller); run a long-duration benchmark over TLS.

Read the article →

QRNG via D-Bus

Deploy a D-Bus service that exposes a quantum random number generator as a shared resource; build an OpenSSL 3 provider that replaces the built-in RNG; secure remote access with PQC TLS; test across virtualised environments.

Read the article →

Quantum Time Synchronization

Deploy an entangled-photon source; run two-way time transfer between nodes to compute clock offsets; integrate with classical timing infrastructure; validate the precision gain.

Read the article →

Hybrid Quantum-Classical Networks (QuANET)

Assess existing fiber; add WDM add-drop multiplexing (O-band quantum + C-band classical on the same fiber); set up active polarisation stabilization; run a pilot link with both traffic types.

Read the article →

Quantum as HPC Accelerator

Verify Slurm + QDMI support; add quantum processors as scheduled Slurm nodes alongside CPUs and GPUs; deploy the QDMI standardisation layer; test job submission.

Read the article →

Quantum Readiness Index

5 domains, 15 questions. Answer A–D for your organisation — takes a few minutes.

Demo only — your answers are mocked and will not be stored.