By NHI Mgmt Group Editorial TeamBased on Drata: “The Future of GRC with GitLab Security Automation Team Lead & GRC Engineer Founder Ayoub Fandi” (December 9, 2025)

TL;DR: Modern GRC is shifting from screenshot-driven audits and annual evidence collection toward continuous, engineering-led assurance, according to Drata’s conversation with Ayoub Fandi. That change matters because AI, automation, and trust centers only work when underlying workflows and data quality are already disciplined, not as a substitute for them.


At a glance

What this is: This is Drata’s analysis of how GRC engineering is redefining compliance as continuous assurance rather than annual evidence collection.

Why it matters: It matters because identity, access, and control evidence is increasingly expected to stay current for auditors, customers, and internal security teams, which changes how GRC must operate across human and non-human systems.


Context

GRC engineering is the move from manual, point-in-time compliance work to designed workflows that keep control evidence current. The core governance gap is not that teams lack effort, but that screenshots, spreadsheets, and annual audit rituals cannot keep pace with modern infrastructure, vendor risk, and AI-assisted operations.

For IAM, PAM, and NHI programmes, that shift matters because control assurance depends on live data about who or what has access, how it changes, and whether evidence is still trustworthy when it is reviewed. The article frames a broader operating model change: compliance is becoming part of the control plane, not a separate after-the-fact activity.


Key questions

Q: How should security teams move from access reviews to continuous assurance?

A: Start by linking identity events to policy decisions. Continuous assurance works when entitlement changes, ownership changes, and exception states automatically trigger evaluation, rather than waiting for a periodic recertification cycle. The goal is to reduce stale privilege as it appears, not to document that someone later approved it.

Q: Why do AI tools fail in GRC when the underlying workflow is inconsistent?

A: AI fails when it is asked to summarise unstructured evidence, inconsistent exceptions, or unclear approval logic. In that situation it produces speed without assurance. Teams get the appearance of efficiency, but not the control integrity needed for credible governance.

Q: What breaks when compliance is measured only at audit time?

A: Point-in-time compliance misses the gap between evidence collection and real operations. Access paths, segmentation boundaries, and machine identities can drift after the review package is prepared, which means the audit may certify a state that no longer exists. Continuous control measurement is needed to keep evidence aligned with runtime reality.

Q: How should GRC teams demonstrate accountability in a continuous assurance model?

A: Every key control should have a named owner, a review cadence, and a clear escalation path when the control drifts. That makes the programme defensible and gives security leaders current data rather than periodic status reports.


Technical breakdown

Why screenshot-based compliance breaks down

Screenshot-driven audits capture a moment, not a control state. That works only when systems change slowly and evidence can be trusted long after it is collected. In practice, cloud infrastructure, vendor ecosystems, and access entitlements change too quickly for static artefacts to remain meaningful. GRC engineering replaces that with repeatable workflows, system integrations, and control checks that can be refreshed continuously. The technical shift is from artifact management to evidence pipelines, where the quality of the workflow matters as much as the result. This is also where data quality becomes a control issue, not just an operations issue.

Practical implication: Build evidence collection into operational workflows so control status is generated continuously rather than assembled at audit time.

How AI changes third-party risk and assurance workflows

AI can help process large control artefacts such as SOC 2 reports, questionnaires, and vendor documents, but only when it is constrained by structured inputs and human review. Generic summarisation is not assurance. It can miss exceptions, flatten nuance, and create false confidence if the underlying data model is inconsistent. In GRC, the technical question is not whether AI can read a document, but whether the workflow preserves traceability, exception handling, and reviewer accountability. That is why purpose-built control workflows matter more than generic large language model output.

Practical implication: Use AI to accelerate triage and pattern-finding, but keep human review and exception validation inside the assurance workflow.

Why continuous assurance depends on control telemetry

Continuous assurance relies on fresh telemetry from the systems that actually enforce policy. That means controls must be observable, measurable, and linked to business context, not just documented. When GRC pulls data from infrastructure, identity, vendor risk, and trust centre processes, it becomes possible to see whether controls are operating as intended rather than whether they were described correctly once a year. For identity teams, that links directly to access lifecycle, privilege review, and third-party governance, including NHI governance where machine identities create their own reporting burden.

Practical implication: Instrument key controls so GRC can report on live access, ownership, and exception status instead of static compliance claims.


NHI Mgmt Group analysis

Continuous assurance is now a control design problem, not a reporting problem. Static evidence collection cannot keep pace with cloud change, outsourced operations, or AI-assisted workflows. The article’s core shift is that GRC must consume live control signals if it is to remain credible to auditors, customers, and operators. Practitioners should treat evidence freshness as part of control effectiveness.

Assurance debt: teams accumulate assurance debt when their controls are technically present but operationally stale. That debt shows up when access reviews, vendor attestations, and policy checks are all technically documented but no longer aligned to current systems. For identity programmes, this is especially visible in access entitlements and non-human identities whose state changes faster than annual review cycles. Practitioners should reduce the gap between control execution and control reporting.

AI amplifies process quality rather than replacing it. The article is clear that AI only helps when the underlying workflow is disciplined and the data is clean. That is a governance lesson for both human identity and NHI programmes: automation can scale a weak process just as easily as a strong one. Practitioners should make traceability, exception handling, and reviewer accountability non-negotiable before introducing AI into assurance workflows.

GRC is becoming the system of record for trust decisions. The strongest version of the article’s argument is that security leaders want current, defensible data on risk ownership, trend, and mitigation, not a quarterly recap. That places GRC closer to the operating core of security and identity governance, including trust centres, third-party risk, and privileged access oversight. Practitioners should design GRC as a decision layer, not a documentation layer.

Modern assurance depends on machine-readable governance. As controls become continuous, governance has to be encoded in systems that can observe, validate, and report without manual reconciliation. This does not remove humans from the loop, but it does change where human judgment is needed: policy exceptions, escalation thresholds, and ownership decisions. Practitioners should translate governance expectations into observable control telemetry.

What this signals

Assurance becomes credible only when evidence is generated where the control lives. For identity and access programmes, that means ownership, entitlement state, and exception handling have to be machine-readable before they can be reported confidently. Teams that still separate compliance evidence from operational control will keep rebuilding the same gap at audit time.

Continuous assurance also changes how security leaders consume GRC. Once reporting is fresh enough to support day-to-day decisions, GRC stops being a retrospective function and starts acting as a decision layer for risk ownership and investment trade-offs. That shift is especially relevant where human identity, privileged access, and NHI governance need the same source of truth.


For practitioners

  • Implement continuous evidence pipelines Replace screenshot collection with automated evidence feeds from identity, cloud, and governance systems so control status stays current.
  • Standardise exception handling in assurance workflows Define how control exceptions are captured, reviewed, approved, and re-opened so AI-assisted triage does not erase context.
  • Tie compliance checks to infrastructure-as-code Scan policy, configuration, and identity changes before deployment so compliance is assessed at the same point security is enforced.
  • Treat vendor risk as a continuous signal Refresh third-party reviews from current attestations, trust centre data, and contract changes instead of relying on annual reassessments.
  • Make control ownership visible to security leadership Map each key control to an owner, a review cadence, and a current status so GRC can support decisions with defensible data.

Key takeaways

  • GRC engineering reframes compliance as an operating model built on current evidence, not an annual scramble for audit artefacts.
  • The article links AI usefulness to process discipline, meaning automation improves assurance only when workflows, ownership, and data quality are already structured.
  • For identity programmes, the practical shift is toward live telemetry for access, exceptions, and control ownership so governance can support real-time decisions.

Standards & Framework Alignment

This section maps relevant standards and security frameworks to the operational risks and controls described in this guidance.

NIST CSF 2.0, NIST SP 800-53 Rev 5 and CIS Controls v8 set the technical controls, while ISO/IEC 27001:2022 defines the regulatory obligations.

FrameworkControl / ReferenceRelevance
NIST CSF 2.0GV.OV-01 — Oversight of the Risk Management StrategyContinuous assurance depends on governance oversight that stays current with operational control state.
PR.AA-05 — Access Permissions, Entitlements and AuthorizationsThe article's identity angle centres on current access evidence and entitlement governance.
Recommendation — Use GV.OV-01 to keep governance reporting aligned with live control evidence. Apply PR.AA-05 to continuously validate entitlements instead of reviewing them only at audit time.
NIST SP 800-53 Rev 5AU-6 — Audit Record Review, Analysis, and ReportingContinuous assurance relies on timely review and reporting of control telemetry.
Recommendation — Use AU-6 to turn control data into actionable, recurring assurance reporting.
CIS Controls v8CIS-5 — Account ManagementThe article's governance model depends on current ownership and account visibility.
Recommendation — Apply CIS-5 to keep account ownership and lifecycle evidence continuously current.
ISO/IEC 27001:2022A.5.35 — Independent review of information securityIndependent review is relevant to continuous assurance and evidence quality.
Recommendation — Use A.5.35 to ensure assurance evidence is reviewed independently and on an ongoing basis.

Key terms

  • Continuous Assurance: A control model that checks identity and security conditions continuously instead of only during scheduled audits. It improves readiness in dynamic environments, but it requires clear thresholds, exception handling, and human accountability so automation does not outpace governance.
  • GRC engineering: The application of engineering methods to governance, risk, and compliance work. Instead of relying on manual evidence collection and static reports, teams design repeatable workflows, automate control checks, and connect outputs to operational systems so assurance can be maintained continuously.
  • Assurance Debt: Assurance debt is the accumulation of blind spots created when security programmes can report activity but cannot continuously verify trust. It grows when controls are periodic, fragmented, or disconnected from runtime behaviour, especially in environments with fast change and machine identities.
  • Trust Center: A vendor-published collection of security, privacy, and compliance artefacts used to support customer due diligence. It is only useful when the information is current, specific, and consistent with contractual and operational reality, rather than being a marketing summary.

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NHIMG Editorial Note
Published by the NHIMG editorial team on July 11, 2026.
Updated on October 11, 2026.
NHI Mgmt Group, the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org