EU Cyber Resilience Act puts secrets and access control in scope

At a glance

What this is: This analysis says the EU Cyber Resilience Act turns secrets management and privileged access control into core compliance requirements for products with digital elements.

Why it matters: It matters because IAM, PAM, and NHI programmes now have to prove auditable control over credentials and privileged access across the product lifecycle, not just in operations.

👉 Read Akeyless's analysis of CRA compliance for secrets and access control

Context

The EU Cyber Resilience Act moves product security from guidance into enforceable obligation for software and hardware sold in the European Union. For identity teams, that matters because the regulation pulls credentials, access control, auditability, and lifecycle governance into the compliance boundary rather than leaving them as internal engineering choices.

The practical issue is not only whether a product is secure by design, but whether the organisation can demonstrate control over secrets, privileged access, logging, and vulnerability handling across the full lifecycle. That makes secrets management a governance problem as much as a technical one, especially where products are cloud-connected, distributed, or updated continuously.

Key questions

Q: What breaks when a product still relies on standing secrets under the CRA?

A: Standing secrets create a compliance problem because they are hard to prove controlled across issuance, use, rotation, and revocation. Under the CRA, that weakens secure-by-design claims and makes audit evidence incomplete, especially when secrets support product functionality or privileged administration.

Q: Why does the Cyber Resilience Act make secrets management a compliance issue?

A: Because the CRA requires organisations to protect sensitive data and prevent unauthorized access throughout the product lifecycle. Secrets are the entry points for software, services, and administrators, so their handling becomes part of the regulatory evidence for secure-by-design and secure-by-default claims.

Q: What are the signs that secrets governance is failing CRA expectations?

A: Frequent exceptions, fragmented vaults, hardcoded credentials, and unclear ownership are all warning signs. If a team cannot show where a secret lives, who can use it, when it expires, and how it is revoked, the control environment is not mature enough for CRA scrutiny.

Q: Who is accountable for secrets and access control under the CRA?

A: Accountability sits with manufacturers and software providers, not only operators, because the CRA places responsibility on the product side of the relationship. Security, engineering, and compliance teams must jointly evidence how secrets, privilege, logging, and update processes are controlled across the lifecycle.

Technical breakdown

How the CRA turns secrets into regulated control points

The Cyber Resilience Act treats credentials, API keys, certificates, and encryption keys as sensitive data that must be protected throughout the product lifecycle. In practice, that means the control objective is not merely secrecy, but provable handling: secure storage, controlled issuance, rotation, and revocation. Static credentials and manual handoffs are weak because they create hidden access paths that are hard to audit and easy to persist. For products with digital elements, secrets are now part of the compliance surface, not an implementation detail.

Practical implication: Practitioners should map every secret type to an owner, lifecycle, and evidence source before they can claim CRA alignment.

Why just-in-time access matters for auditability

Just-in-time access changes privileged access from a standing entitlement to an on-demand event with a clear start and end. That is important under the CRA because the regulation expects stronger control over unauthorized access and better traceability of who accessed what, when, and why. Standing privilege makes audit trails noisy and accountability vague. Ephemeral access narrows exposure and creates cleaner evidence for reviews, incident response, and conformity assessments.

Practical implication: Practitioners should prefer ephemeral privilege models where products or administrators do not need persistent elevated access.

Why lifecycle security matters more than point-in-time hardening

The CRA is lifecycle legislation, not a one-time certification exercise. Security must exist at design, deployment, maintenance, update, and reporting stages, which means controls must survive change. Secrets sprawl, certificate drift, and unmanaged access policies become compliance problems when they prevent consistent security posture over time. That is why centralized governance matters: fragmented vaults and disconnected access tools make it difficult to prove continuity of control when products evolve.

Practical implication: Practitioners should align secrets, certificates, and privileged access with the product lifecycle rather than treating them as separate operations tasks.

Threat narrative

Attacker objective: The objective is to gain or preserve unauthorized access to product functionality, sensitive data, or privileged control paths while avoiding traceable governance boundaries.

1. Entry occurs when products, services, or operators rely on hardcoded credentials, shared secrets, or weak default access to reach product functionality or sensitive data.
2. Escalation follows when standing privilege or fragmented vaulting lets an actor reuse or expand that access beyond the original task or system boundary.
3. Impact occurs when unauthorized access persists undetected, allowing misuse of credentials, exposure of sensitive data, or inability to prove secure control during compliance review.

Breaches seen in the wild

• Hugging Face Spaces breach 2024: Unauthorised access to Hugging Face Spaces may have exposed secrets users stored for AI apps; tokens were revoked and org tokens removed.

Read and download The State of NHI & AI Agent Breach Report 2026, covering 150+ breaches impacting Non-Human Identities including AI Agents.

NHI Mgmt Group analysis

CRA compliance makes secrets management a product governance control, not a back-office hygiene task. The regulation forces organisations to prove that credentials, certificates, and keys are handled securely across the full lifecycle of a product with digital elements. That changes the governance question from whether secrets exist to whether they are controlled, evidenced, and revocable. The practical implication is that secrets policy now sits alongside product assurance and compliance evidence.

Standing privilege is now a regulatory liability, not just an architectural smell. The CRA’s emphasis on unauthorized access, secure-by-default posture, and auditability makes persistent access harder to defend. If access can exist without a clear business need and an expiry boundary, it is difficult to argue that the product is secure by design. Practitioners should read this as pressure to eliminate unmanaged elevation windows and demonstrate task-bound privilege.

Fragmented secret management creates compliance gaps that no amount of documentation can paper over. When secrets are scattered across environments, the organisation cannot show consistent issuance, rotation, or revocation across the product lifecycle. The CRA rewards evidence of continuous control, not policy statements. This is where a named concept matters: compliance-grade secret continuity is the ability to show that a secret remains governed from creation to retirement. Without that continuity, auditability fails at the exact point the regulation cares about most.

The CRA extends identity governance into product assurance, where human, machine, and service access all matter. The regulation does not separate internal access policy from product security outcomes. It expects manufacturers to control access paths that software, services, and operators use to reach sensitive functions. The implication is that IAM, PAM, and NHI governance can no longer be managed as adjacent disciplines; they are part of the same compliance story.

Zero-trust access control becomes a compliance enabler only when it is measurable. The article’s core message is not that zero trust is fashionable, but that it creates evidence: ephemeral credentials, logging, and least privilege produce the traceability the CRA expects. The practitioner conclusion is straightforward. If access cannot be issued on demand, observed, and revoked cleanly, the control is not yet CRA-ready.

From our research library:

• Companies are dedicating an average of 32.4% of their security budgets to secrets management and code security, with US organisations leading at 40.8%, according to the State of Secrets in AppSec.
• 54% of organisations are dissatisfied with their current secrets management solution because not all secrets are secured, and 43% cite lack of central management, according to the 2024 State of Secrets Management Survey.

What this signals

Compliance-grade secret continuity: the CRA pushes organisations to prove that credentials, certificates, and keys remain governed from creation through revocation, not merely protected at rest. For IAM and PAM programmes, that means lifecycle evidence becomes as important as control design, especially where products are distributed across cloud and on-prem environments.

The most useful way to read the regulation is as a demand for measurable access boundaries. If privileged access cannot be issued on demand and cleaned up without residue, then the organisation will struggle to show secure-by-default operation during product assurance and audit.

Zero Trust Architecture becomes relevant when the compliance problem is no longer just who can log in, but how access is constrained, observed, and revoked across the full product lifecycle. That makes the control plane, not the login screen, the real governance boundary.

For practitioners

• Map CRA-controlled secrets Inventory credentials, API keys, certificates, and encryption keys used by products with digital elements, then assign each to an owner and lifecycle state. The goal is to prove you can issue, rotate, and revoke every secret that matters to product security.
• Replace standing privilege with JIT access Move privileged administrative and service access to task-scoped issuance with expiry and approval evidence. That makes access review and incident tracing materially easier under CRA expectations for auditability and unauthorized access prevention.
• Centralise audit evidence for secrets and access Ensure access requests, authentications, rotations, and revocations are logged in one traceable path that can feed security monitoring and conformity evidence. Fragmented logs weaken the ability to show continuous control across the lifecycle.
• Remove hardcoded credentials from product pathways Scan code, configuration, and deployment pipelines for embedded secrets, then replace them with controlled secret issuance and short-lived credentials. Hardcoded values are difficult to prove secure under secure-by-design obligations.
• Align vulnerability handling with access governance Tie vulnerability response, patch coordination, and secure update processes back to the same identity and secret controls that protect runtime access. CRA readiness depends on showing that remediation and access control work together, not separately.

Key takeaways

• The CRA turns secrets, privileged access, and lifecycle traceability into evidence-bearing controls for products with digital elements.
• Static credentials and fragmented access governance create compliance exposure because they are difficult to audit and harder to justify under secure-by-design expectations.
• Organisations should treat secrets management, JIT access, and revocation evidence as part of product conformity, not as separate security chores.

Key terms

• EU Cyber Resilience Act: A European Union law intended to raise the security baseline for hardware and software with digital elements. It requires security considerations across design, development, market placement, and maintenance, so manufacturers, importers, and distributors carry clearer responsibility for product cybersecurity throughout the life cycle.
• Just-in-Time Access Request: Just-in-Time Access Request is a pattern that grants access only when it is needed and only for the duration required. It reduces standing privilege by making access temporary, policy driven, and task scoped. This approach is especially useful for contractors, sensitive systems, and short-lived operational work.
• Secret Continuity: Secret continuity is the ability to account for a credential, key, or certificate from creation through rotation, use, and revocation. It becomes a governance requirement when organisations must prove that secrets remain controlled across the full product lifecycle.
• Secure-by-Design: Secure-by-design means security requirements are built into the development process rather than added after release. The practical aim is to define minimum acceptable controls early, then enforce them consistently so products cannot ship without passing baseline security checks.

What's in the full article

Akeyless's full article covers the operational detail this post intentionally leaves for the source:

• How the CRA's lifecycle requirements map to secrets management, access control, and auditability
• The specific role of certificate lifecycle management in product security compliance
• Why just-in-time access and Zero Standing Privilege reduce regulatory exposure
• How centralized governance helps multi-cloud and hybrid environments support conformity evidence

👉 The full Akeyless article explains the CRA timeline, compliance obligations, and control areas in more detail.

Deepen your knowledge

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