Independent educational knowledge hub

Cryptography
Resilience

Know your cryptography. Understand your dependencies. Be ready for change.

Cryptographic resilience is the continuous ability to discover, understand, govern and transform the cryptography an organisation depends on.

Explore the resilience journey

Cryptography is everywhere. Visibility often is not.

Cryptography protects identities, applications, APIs, infrastructure, transactions, data and communications. Yet it is often distributed across platforms, products, libraries, certificates, keys and third parties with no single view of the full dependency landscape.

When algorithms weaken, standards change, certificates fail or quantum-safe migration becomes necessary, organisations need more than a list of assets. They need ownership, context, prioritisation and the ability to change safely.

The cryptography resilience journey

Resilience is not a one-time migration project. It is a repeatable operating capability that connects visibility, risk, governance and transformation.

01

Discover

Find cryptographic assets, certificates, keys, algorithms, protocols and embedded dependencies.

02

Understand

Add business context, ownership, data sensitivity, exposure and dependency relationships.

03

Govern

Define policy, standards, accountability, lifecycle controls, exceptions and risk decisions.

04

Transform

Prioritise remediation, modernise weak cryptography and design for safe, repeatable change.

05

Resilience

Continuously adapt as technologies, threats, standards and organisational dependencies evolve.

Build the foundations before the next migration.

Cryptographic resilience sits at the intersection of technology, governance, architecture and risk. These are the core areas this project explores.

Free · 5–7 minutes

How ready are you to change the cryptography you depend on?

The Cryptography Governance Readiness Check uses 18 questions across six dimensions to surface the gaps that can make future cryptographic change difficult — before they become migration blockers.

✓ A visual readiness profile across six governance dimensions✓ Personalised prompts based on your weakest readiness signals✓ No registration, company details or technical artefacts required
Take the Readiness Check →
Not another compliance questionnaire.

The questions are designed to make you think about what your organisation could actually identify, own and change if cryptography became unacceptable tomorrow.

Quantum readiness is a governance problem before it becomes a migration problem.

Post-quantum migration is not just an algorithm swap.

Replacing a vulnerable algorithm is only the visible part of the challenge. Organisations first need to know where vulnerable cryptography exists, what depends on it, who owns it, which data requires long-term protection and how change can be coordinated across technology estates and suppliers.

Quantum readiness therefore becomes a test of cryptographic visibility, governance and agility — and a powerful driver for building resilience now.

The core question

How quickly could your organisation identify and safely replace a cryptographic dependency that became unacceptable tomorrow?

Cryptographic resilience is a team sport.

No single security function can solve it alone. Sustainable resilience depends on coordinated ownership across technical, risk and business teams.

Information SecurityEnterprise ArchitecturePKIIdentity & AccessApplication DevelopmentInfrastructureCloudRisk & ComplianceProcurementThird-Party RiskData ProtectionBusiness Owners

Technically accurate. Risk-focused. Decision-oriented.

The knowledge base is written for Information Security Risk Management and adjacent security-governance audiences. Technical depth is included when it changes a risk decision, while source material is prioritised from authoritative public standards and guidance.

Read About & Methodology →

Grounded in public standards and technical guidance.

This project connects practical cryptography governance to authoritative public sources including NIST, ENISA, IETF and other relevant standards bodies and primary technical guidance. Source references are included throughout the knowledge base.