DevSecOps Platform — Shift-Left Security
Embed security into every CI/CD pipeline: SAST, secret scanning, SCA, container hardening, and DAST — in one developer-friendly console with zero ticket sprawl.
DevSecOps Platform — Shift-Left Security for Engineering Teams
Threatstealth embeds SAST, dependency scanning (SCA), secret detection, container hardening, and DAST into your CI/CD pipeline — delivering findings in the same queue engineers already use for bug triage, with remediation guidance developers can act on immediately.
- SAST on every commit — Semgrep static analysis with 400+ rule sets covering OWASP Top 10 and CWE Top 25
- Secret detection — scans commits and Git history for hardcoded API keys, tokens, and credentials
- SCA dependency scanning — CVE and licence risk across NPM, PyPI, Maven, Go modules, and Cargo
- Container image hardening — base image and dependency CVE scanning against your registry on push
- DAST web application scanning — dynamic testing of running applications against the OWASP Top 10
- Compliance evidence — every scan and remediation generates timestamped SOC 2 and ISO 27001 evidence
Why Shift-Left Security Cuts Cost and Risk Simultaneously
Security vulnerabilities found at code-commit time cost roughly 10× less to remediate than the same vulnerability discovered post-deployment — the developer still has the change in context, there is no production rollback required, and no customer data has been exposed during the window between deployment and discovery. Shift-left security through DevSecOps tooling moves the security feedback loop from the post-deployment penetration test or bug bounty report to the pull request — the earliest and cheapest point in the software development lifecycle at which a vulnerability can be detected and fixed. Threatstealth's DevSecOps platform integrates with GitHub, GitLab, Bitbucket, and Azure DevOps to trigger scans automatically on every push and report findings back to pull requests as inline comments, enabling developers to understand and fix security issues within the same workflow they use for code review.
- 10× cost reduction — fixing vulnerabilities at commit vs post-deployment based on NIST software security research
- Developer context retention — fix while the code change is fresh, not weeks later when context is lost
- No rollback complexity — catching issues pre-merge eliminates emergency hotfix deployments and production rollbacks
- Inline PR comments — security findings surfaced as pull request comments in GitHub, GitLab, and Bitbucket
- Developer-owned remediation — most findings assigned directly to the committing developer without security team handoff
SAST, SCA, Secret Scanning, and Container Hardening in One Console
A complete DevSecOps posture requires coverage across four distinct attack surfaces that most organisations address with separate tools: SAST finds security weaknesses in the application code itself before any test or production deployment; SCA (software composition analysis) identifies vulnerable open-source dependencies that make up the majority of a modern application's codebase; secret detection identifies credentials, API keys, and tokens that have been accidentally committed to version control; and container hardening ensures that container base images and dependency layers don't introduce CVEs that propagate across every deployment. Running each capability as a separate tool requires separate integrations, separate console logins, and manual cross-referencing of results. Threatstealth consolidates all four into one finding queue with consistent severity scoring and one remediation workflow.
- SAST — Semgrep static analysis covering Python, JavaScript, TypeScript, Go, Java, Ruby, PHP, and more
- SCA — dependency CVE detection and licence risk assessment across all major package ecosystems
- Secret scanning — regex and entropy-based detection for API keys, tokens, passwords, and connection strings
- Container hardening — base image CVE scanning with specific upgrade path recommendations for each vulnerable layer
- One queue — all four finding types normalised into a single severity-ranked remediation queue