Business · Hiring
How to Hire a DevSecOps Engineer in 2026: Security Embedded, Not Bolted On
DevSecOps is a distinct discipline from DevOps and from security engineering. Here's what the role actually covers, what skills to screen for, and why supply chain security is now the core competency.
Prathviraj Singh
8 min read
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DevSecOps gets described in three ways: as a philosophy (“security is everyone’s job”), as a toolchain (“we run Snyk in CI”), and as a job title. All three exist, but you are hiring for the third, and the third is meaningfully different from the first two.
A DevSecOps engineer is not a security engineer who also knows Kubernetes. They are not a DevOps engineer who ran a scan once. The role sits in the development pipeline — designing the security gates, maintaining the tooling, tuning the signal-to-noise ratio so that the alerts developers see are worth responding to, and teaching the rest of the team what patterns create vulnerabilities in the first place.
The discipline matured fast after a series of high-profile supply chain incidents. If you are hiring in 2026 and your job description could have been written in 2019, it is out of date.
What a DevSecOps engineer actually does day-to-day
In a mature team, a DevSecOps engineer owns the secure development lifecycle from the point of code commit through to running production. That covers:
Static analysis in CI. SAST tools scan source code without running it. They catch common vulnerability patterns — SQL injection, insecure deserialization, hardcoded credentials, path traversal — before code ships. The hard part of this work is not enabling the scanner; it is tuning it so the false positive rate is low enough that developers do not ignore the alerts.
Dependency scanning. Every application depends on external libraries. Those libraries have vulnerabilities. A DevSecOps engineer sets up automated dependency scanning (using tools like Snyk, OWASP Dependency-Check, or Dependabot) that blocks deployments when a critical CVE is introduced, and manages the process of keeping the dependency tree clean without drowning developers in upgrade work.
Container and image scanning. If the application ships in containers, the container image is part of the attack surface. Trivy and Grype are the most common scanners. A DevSecOps engineer integrates these into the build pipeline so a container with a critical OS-level vulnerability cannot be pushed to a production registry.
Secret scanning. Credentials committed to source control is a persistent and preventable problem. A DevSecOps engineer runs tools like GitLeaks or TruffleHog as pre-commit hooks and CI gates, and manages the process when a secret is found in history.
Supply chain security. Since the SolarWinds compromise in 2020 and the Log4Shell vulnerability in 2021, the software supply chain has become a primary attack surface. DevSecOps engineers now generate SBOMs (Software Bills of Materials) that document every dependency in a build artifact, sign container images and build artifacts with tools like Cosign and Sigstore, and verify signatures in deployment pipelines.
DAST and penetration testing coordination. Dynamic application security testing runs against a live application, finding vulnerabilities that static analysis cannot — like authentication bypass or session fixation. A DevSecOps engineer configures and interprets DAST tooling and coordinates scheduled penetration tests with external security teams.
Security champion programme. The most effective DevSecOps engineers treat the rest of the engineering team as security colleagues, not just consumers of policies. They run training, create secure coding guidelines, and designate security champions within each team who know the standards and can catch issues in code review before they reach the pipeline.
Why supply chain security is now the core competency
The nature of software vulnerabilities has shifted. Individual application code is better reviewed and more hardened than it was ten years ago. The attack surface that sophisticated threat actors exploit now is the supply chain: the libraries you depend on, the build system that assembles your artifacts, the CI/CD platform that runs your pipelines, and the package registries that host your dependencies.
A DevSecOps engineer who does not know how to:
- Generate and validate an SBOM
- Verify the provenance of a dependency before it enters a build
- Sign and verify build artifacts
- Audit the CI/CD pipeline itself for secrets and excess permissions
…is behind current practice. These competencies exist because real attacks have been carried out through these vectors, not as theoretical exercises.
Any candidate you hire in 2026 should be able to talk concretely about supply chain security. If they are fluent in SAST and fuzzy on SBOM, they may have learned the toolchain from resources that predate the modern threat model.
Skills worth screening for
Pipeline integration
Give a candidate a CI/CD configuration file (GitHub Actions or GitLab CI works well) and ask them to add security scanning that: runs SAST on every PR, blocks merge on high-severity findings, scans the Docker image before push, and adds secret scanning. Ask them to talk through their choices.
You are testing whether they know the tools and can reason about where in the pipeline each gate belongs. A common mistake is putting all scanning at the end — an image scan is fine there, but SAST should run early on the PR so feedback is fast.
SAST vs DAST distinction
Ask: “If SAST found no issues in a piece of code that handles user authentication, what could DAST potentially still catch?”
Good answer: DAST can find runtime issues that static analysis cannot — session management flaws, authentication bypass through unexpected request patterns, timing attacks, issues in the interaction between components. SAST reads code; DAST observes behavior.
CVE triage and prioritisation
Give a realistic scenario: a scan just flagged 47 vulnerabilities across your dependency tree, ranging from critical to low, and you have one sprint to address them. How do they prioritize?
Good answers consider: whether the vulnerable code path is reachable in production, whether there is a known exploit, whether a fix is available (and whether the fix is a patch or a major version bump with breaking changes), and which components are customer-facing vs internal. Candidates who want to fix everything in order of severity are not thinking about business risk; candidates who immediately dismiss lows without looking at context are not thinking carefully either.
Secret management
Ask how they would handle a developer reporting that they pushed a private key to a public repository two hours ago. Walk through the response.
Good answer covers: revoke the key immediately, audit access logs for any use between the push and the revocation, use the platform’s secret scanning tools to check whether bots may have picked it up, rotate any other credentials that may have been co-located, add a pre-commit hook to prevent recurrence, and document the incident.
SBOM fluency
Ask what an SBOM is, why it matters, and what format they would generate it in (SPDX and CycloneDX are the two standards). Then ask: once you have an SBOM, what do you do with it?
Candidates who can only define it but cannot describe the downstream use (vulnerability matching against the SBOM, license compliance checking, attestation for regulated industries) have textbook knowledge without depth.
Red flags
“We don’t have time to implement security scanning right now.” DevSecOps engineers who deprioritise the pipeline in favour of manual reviews are reverting to the pre-DevSecOps model. The whole point is automation.
No opinion on false positive tuning. SAST scanners create noise. A candidate who has never dealt with tuning rules to reduce false positives has not used these tools in a production environment with real developers.
Security as compliance only. Candidates who frame all security work as “passing the audit” rather than actually reducing risk will build checkbox security rather than real security.
No security champion experience. Senior DevSecOps engineers should have tried to make the people around them more security-aware. If the candidate has only ever worked on tooling and has never trained, documented, or mentored on security, they are operating below the level that scales.
Where this role sits relative to your existing team
Before hiring, check whether you need a DevSecOps engineer or whether you need to move existing DevOps work toward DevSecOps practices. If you have no CI/CD security gates at all, a DevOps engineer who can prioritise security work might be a faster path than a dedicated hire. If you have compliance obligations, a regulated client, or active threats that require mature security tooling, a dedicated DevSecOps engineer pays for itself quickly.
For context on how this role fits alongside DevOps and SRE, see the DevOps hiring guide. For questions about security roles that focus on architecture and incident response rather than the pipeline, see the cybersecurity engineer hiring guide.
Frequently asked questions
- What is the difference between a DevSecOps engineer and a security engineer?
- A security engineer typically operates at the policy, architecture, and incident response layer — defining standards, running penetration tests, handling breaches. A DevSecOps engineer works inside the development pipeline: configuring and tuning SAST/DAST scanners, managing dependency scanning, building secure CI/CD gates, and ensuring that vulnerabilities are caught before code ships. The roles overlap but the focus is different. DevSecOps is closer to a platform engineering role that specialises in security.
- What tools should a DevSecOps engineer know in 2026?
- Core toolchain: Semgrep or SonarQube for SAST, OWASP ZAP or Burp Suite for DAST, Snyk or OWASP Dependency-Check for SCA (software composition analysis), Trivy or Grype for container scanning, GitLeaks or TruffleHog for secret scanning, and Cosign/Sigstore for artifact signing. Platform integration (GitHub Actions, GitLab CI, Jenkins, or Tekton) matters as much as the tools themselves.
- What is an SBOM and why does it matter for hiring?
- An SBOM (Software Bill of Materials) is a formal list of every component in a software artifact — libraries, versions, licenses, and provenance. It became a regulatory and contractual requirement in many sectors following a US Executive Order in 2021. A DevSecOps engineer who cannot generate, validate, and act on SBOMs is missing what is now a baseline competency for any team shipping software to government, healthcare, or financial services clients.
- Should DevSecOps be a separate role or embedded in DevOps?
- Both models work, but the dedicated role works better above a certain scale. For teams below about 20 engineers, a DevOps engineer with strong security instincts can cover most DevSecOps ground. Above that, a dedicated DevSecOps engineer can build the tooling, maintain the playbooks, and run the security champion programme that makes the whole engineering team more secure — work that gets deprioritised when it shares a role with platform reliability.
- What does a DevSecOps engineer earn in 2026?
- In the US, a mid-level DevSecOps engineer runs $130,000-$175,000. Senior engineers who combine pipeline architecture, cloud security, and supply chain security expertise run $175,000-$240,000+. Cloud security certifications (AWS Security Specialty, GCP Security Engineer) and familiarity with compliance frameworks (SOC 2, FedRAMP, HIPAA) push rates toward the top of the range. For remote hiring context, see [what it costs to hire a developer](/blog/what-it-costs-to-hire-a-developer-2026/).
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