Cryptographic asset management

Manage algorithms, certificates, libraries, and dependencies as operational assets

Qubrisk treats cryptography as an operational dependency rather than a quarterly audit finding. Each asset keeps the evidence, system context, policy decision, owner, and verification trail required to move it safely.

Decision brief

Primary query
cryptographic asset management
Best for
Teams that need reviewable cryptographic evidence, ownership, and continuous migration control.
Safety boundary
Evidence supports decisions; it is not proof of implementation safety or compliance.

Cryptographic asset management is broader than certificate renewal and narrower than generic vulnerability management. The program must represent algorithms, protocols, libraries, keys or key references, certificates, configurations, and the software relationships that make a change risky. It also needs a decision trail: why an asset is allowed, when that decision expires, and what proves a migration worked.

Qubrisk organizes this work around assets and projects. Security teams define policy and evidence requirements; engineering teams see the repository, location, dependency, owner, and next action; leaders see coverage, backlog, exceptions, and drift. Open exports reduce lock-in and allow the same evidence to support reviews outside the product.

Capabilities

What the operating model needs to do

01

One asset record

Keep discovery evidence, business context, policy status, owner, exceptions, and migration activity together.

02

Policy lifecycle

Version policy, distinguish existing debt from new violations, and require expiring suppressions.

03

Work orchestration

Turn prioritized assets into accountable migration work with deadlines, verification criteria, and rollback notes.

04

Portable evidence

Export CBOM, SARIF, JSON, and CSV so stakeholders can independently inspect the record.

Workflow

A repeatable path to evidence

Use explicit scope, accountable decisions, and verification gates. Keep unknowns visible so progress is not manufactured by narrowing the denominator.

  1. 1

    Model the estate

    Import projects and ownership, then connect each observed cryptographic asset to a concrete system.

  2. 2

    Set policy

    Define allowed, deprecated, vulnerable, and review-required states without claiming universal safety.

  3. 3

    Prioritize

    Combine confidence, exposure, business criticality, dependency impact, and data lifetime.

  4. 4

    Verify change

    Attach tests, review evidence, deployment status, and a post-change scan before closing work.

Expected deliverables

Artifacts the next team can inspect

  • Normalized asset register
  • Versioned policy outcomes
  • Exception register with expiry
  • Migration backlog and ownership
  • Evidence and audit exports

Buyer checklist

Questions for a proof of value

  1. 01Does the platform cover software cryptography as well as certificates?
  2. 02Can asset context survive tool and team handoffs?
  3. 03Are exceptions attributable and time-bound?
  4. 04Can policies distinguish new drift from accepted baseline debt?
  5. 05Can we export the complete record without proprietary formatting?

Limits and cautions

What this page does not promise

  • Private keys should not be collected into an inventory product.
  • Ownership inference must be reviewable rather than silently accepted.
  • Policy status is an organizational decision, not a universal security verdict.
Local-first discovery

Start with evidence from one representative repository

Run a scoped scan, inspect every result, export the CBOM, and decide whether the evidence is strong enough to support your operating model.

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