By NHI Mgmt Group Editorial TeamDomain: Cyber SecuritySource: VeracodePublished January 8, 2026

TL;DR: DevSecOps adoption still breaks down around tool sprawl, automation friction, alert overload, third-party code risk, and weak governance, according to Veracode. The hard part is not adding more checks but making security feedback actionable, measurable, and embedded in SDLC workflows before debt and compliance gaps accumulate.


At a glance

What this is: This is a practitioner guide to the top 10 barriers slowing DevSecOps adoption, with the core finding that fragmented tools, poor automation, and governance gaps undermine security at speed.

Why it matters: It matters because IAM, PAM, and broader security teams increasingly depend on DevSecOps pipelines to enforce policy, while software supply chain risk often intersects with identity, secrets, and access controls.

👉 Read Veracode's guide to the top 10 DevSecOps adoption challenges


Context

DevSecOps adoption fails when security is treated as a late-stage review instead of a design constraint in the software delivery lifecycle. The article argues that teams struggle most where tool fragmentation, false positives, and compliance overhead collide with release pressure, which is a governance problem as much as an engineering one.

For identity practitioners, the relevant intersection is where CI/CD systems, service accounts, secrets, and third-party code all depend on reliable access control and auditability. Weak pipeline governance often becomes credential sprawl, unclear ownership, and policy drift in adjacent IAM and NHI programmes.


Key questions

Q: What breaks when security is added too late in a DevSecOps pipeline?

A: When security is added after development work is mostly complete, teams usually find secrets exposure, privilege issues, and configuration errors only at release time. That delay turns simple fixes into expensive production problems. The pipeline also accumulates trust debt because credentials, certificates, and dependencies remain active longer than intended.

Q: Why do third-party dependencies complicate DevSecOps adoption?

A: Third-party code expands trust beyond what the engineering team directly builds, so security must account for packages, updates, and transitive risk that arrive outside normal release ownership. Without continuous inventory and exception handling, organisations cannot tell whether an exposed dependency is in use, outdated, or already embedded in production.

Q: How do you know if DevSecOps automation is actually helping?

A: Automation is working when it reduces manual triage, shortens remediation time, and produces consistent results without forcing developers to bypass controls. If scans generate repeated false positives, slow builds, or unresolved exceptions, the programme has increased friction without improving security outcomes.

Q: Who is accountable when compliance checks are embedded into the SDLC?

A: Accountability should sit with the teams that own the pipeline stage and the underlying control, not with a separate security function that only reviews outputs. Governance works best when engineering, security, and compliance share evidence, but ownership remains tied to the process that can actually change the result.


Technical breakdown

Why tool sprawl breaks DevSecOps feedback loops

DevSecOps only works when findings from scanners, code review, dependency analysis, and runtime controls can be correlated into one decision path. When each tool reports separately, teams duplicate effort, lose context, and end up negotiating findings instead of fixing risk. The technical problem is not just volume. It is the absence of a shared control plane for risk prioritisation, suppression, and workflow routing across the SDLC.

Practical implication: consolidate security telemetry and define one remediation path for pipeline findings.

How automation fails inside CI/CD pipelines

Automation breaks when security checks are bolted onto pipelines without tuning for build timing, environment variation, and exception handling. Misconfigured scans create noisy results, while brittle integrations can slow deployment enough that teams bypass controls. In practice, DevSecOps maturity depends on stable policy-as-code, predictable gating, and repeatable pipeline behaviour across development, testing, and production branches.

Practical implication: tune pipeline controls for reliability before expanding enforcement scope.

Why third-party code increases supply chain exposure

Third-party dependencies expand the attack surface because security teams inherit the trust assumptions of every package, library, and transitive dependency in use. Software composition analysis helps identify what is present, but not every dependency risk is static. New disclosures, dependency drift, and untracked updates mean teams need continuous inventory and exception management, not one-time approval.

Practical implication: maintain live dependency inventory and tie exceptions to ownership and expiry.


NHI Mgmt Group analysis

DevSecOps adoption is really a control-integration problem, not a tooling problem. The article’s challenge list shows that organisations usually have some security capability already, but it is fragmented across development, operations, and compliance workflows. That fragmentation weakens enforcement, slows remediation, and creates inconsistent decisions across environments. For practitioners, the issue is whether controls can survive the pace of delivery.

CI/CD identity is the hidden governance layer in DevSecOps. Build systems, deployment automation, and scanning tools all rely on service credentials, tokens, and scoped permissions, which makes pipeline identity a real security boundary. When those identities are unmanaged or over-privileged, DevSecOps becomes performative rather than enforceable. The NHI angle is genuine here because pipeline access is itself a machine identity problem.

Alert fatigue is a governance failure when teams cannot separate signal from noise. Excess findings do not just annoy developers. They create policy drift, weak exception handling, and selective compliance where only the most visible issues get attention. The better model is not more alerts but better risk translation, so engineering teams can act on the findings that matter most. Practitioners should measure whether security feedback actually changes code and release decisions.

Compliance becomes a design input only when reporting is embedded in the delivery lifecycle. Manual governance tracking produces stale evidence and hides control gaps until audit time. DevSecOps maturity depends on policy automation, traceable approvals, and consistent evidence generation across the pipeline. That shifts compliance from after-the-fact administration to operational discipline, which is what makes it scalable.

Software supply chain risk now sits inside everyday engineering choices. The article’s third-party code challenge reflects a wider pattern where dependency trust is inherited faster than it is verified. That is why software composition analysis, ownership mapping, and timely remediation matter as much as vulnerability detection. Practitioners should treat dependency governance as continuous exposure management, not a procurement checkpoint.

What this signals

Pipeline governance is becoming identity governance by another name. As CI/CD environments inherit more automated credentials, secrets, and third-party trust, the distinction between software delivery and identity control keeps narrowing. Practitioners should expect audit questions to move from code quality alone toward who or what can act inside delivery systems. For a framework lens, NIST SP 800-53 Rev 5 Security and Privacy Controls remains relevant wherever access, logging, and configuration control need to be evidenced.

The practical signal is that teams will be judged less on how many tools they have and more on whether those tools produce decisions that engineers can actually use. That means measurable remediation latency, clear exception ownership, and repeatable pipeline enforcement will matter more than tool count. The named concept here is control-integration debt: the accumulated friction that appears when security controls exist but cannot operate coherently across delivery stages.

If the article’s challenge set feels familiar, it is because most programmes have already passed the point where adding another scanner changes outcomes. The next maturity step is to connect policy, pipeline identity, and evidence generation so governance is continuous instead of episodic. Practitioners should watch for environments where security success is measured by coverage, not by reduced exposure or faster remediation.


For practitioners

  • Implement a single remediation workflow Map findings from code scanning, dependency analysis, and compliance checks into one triage process so teams do not resolve the same issue in multiple tools. Tie each finding to an owner, severity threshold, and due date, and track whether exceptions are approved or simply ignored.
  • Harden pipeline identity and permissions Review CI/CD service accounts, tokens, and deployment credentials for least privilege, short-lived scope, and clear ownership. Remove shared credentials, separate build and release permissions, and revoke access that is not tied to a specific pipeline function.
  • Tune security automation for developer workflows Validate that scans run within acceptable build times, produce consistent results across environments, and suppress duplicate or low-value findings. Use policy-as-code where possible so enforcement is deterministic rather than dependent on manual review.
  • Track third-party dependency exposure continuously Maintain a live inventory of open-source and vendor-supplied components, including transitive dependencies and update status. Require owners for exceptions and make expiry dates visible so dependency risk does not become permanent.
  • Embed compliance evidence into the SDLC Generate audit-ready evidence from pipeline events, approvals, and policy checks instead of reconstructing it later. This reduces manual reporting effort and makes control gaps visible before they become audit findings.

Key takeaways

  • DevSecOps adoption fails most often where security controls are fragmented, noisy, or hard to operationalise inside delivery workflows.
  • The most important hidden dependency is pipeline identity, because CI/CD permissions, tokens, and service accounts can undermine governance if they are over-privileged or poorly owned.
  • Practitioners should focus on integrated remediation, continuous dependency oversight, and evidence generation that is built into the SDLC rather than reconstructed later.

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 define the regulatory obligations.

FrameworkControl / ReferenceRelevance
NIST CSF 2.0PR.IP-1DevSecOps adoption depends on embedding security into development processes and workflows.
NIST SP 800-53 Rev 5SI-2Patch and vulnerability handling maps to secure change and remediation discipline.
CIS Controls v8CIS-16 , Application Software SecurityApplication security controls are central to embedding scanning and remediation into SDLC workflows.
ISO/IEC 27001:2022A.8.25Secure development lifecycle controls are directly relevant to DevSecOps governance.

Use SI-2 to tighten how security findings are prioritised, patched, and verified in release cycles.


Key terms

  • DevSecOps: A software development approach that integrates security practices — including NHI governance, secrets scanning, and secure credential handling — throughout the CI/CD pipeline rather than treating security as a post-deployment activity.
  • CI/CD Pipeline Identity: The machine identity used by continuous integration and deployment systems to authenticate to code repositories, registries, and cloud environments during automated build and deployment.
  • Software Composition Analysis: Software composition analysis is the inspection of dependencies and packages to identify known vulnerabilities in third-party or transitive code. It complements secret scanning by answering a different question: what exploitable software weaknesses are present in the container, regardless of whether credentials are embedded.
  • Policy as Code: Policy as code stores authorization logic in version control and evaluates it through testable, reviewable rules. For agent governance, it makes runtime decisions reproducible and measurable, which is critical when actions can be triggered by untrusted content and executed at machine speed.

What's in the full article

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

  • The article expands the full list of 10 DevSecOps adoption barriers and how they show up in day-to-day programmes.
  • It outlines the specific operational issues behind tool sprawl, automation bottlenecks, and developer alert fatigue.
  • It describes how governance, compliance reporting, and executive buy-in influence DevSecOps adoption.
  • It closes with the article's recommended adoption approach and ebook offer for practitioners who want a broader playbook.

👉 Veracode's full article covers the complete challenge list and the adoption guidance behind it.

Deepen your knowledge

The NHI Foundation Level course, the industry's only accredited NHI security programme, covers NHI governance, machine identity security, and secrets management. It is a useful baseline for practitioners who need to connect identity controls to broader delivery and security workflows.
NHIMG Editorial Note
Published by the NHIMG editorial team on August 2, 2026.
NHI Mgmt Group — the independent authority on Non-Human Identity, IAM, and Agentic AI security. nhimg.org