Snyk
Snyk is an AI-powered developer security platform that provides comprehensive application security testing including static application security testing (SAST), software composition analysis (SCA), container security, infrastructure as code scanning, and secrets detection to identify and remediate vulnerabilities across code, open-source dependencies, containers, and cloud infrastructure throughout the software development lifecycle. The platform integrates natively into IDEs, SCMs, and CI/CD pipelines with DeepCode AI-powered analysis to deliver context-aware risk scoring, automated vulnerability prioritization with up to 80% accurate security autofixes, and actionable remediation guidance that enables development teams to build fast and stay secure with minimal false positives while maintaining compliance with regulatory standards.
Snyk Integration with DefectDojo
Snyk covers a lot of ground — open source dependencies, proprietary code, container images, and infrastructure as code — and it does it in a way developers will actually engage with. But Snyk's native platform is optimized for the developer feedback loop, not for the security team's need to track remediation commitments, enforce SLAs, manage risk acceptance decisions, and report posture across a portfolio of hundreds of projects. Integrating Snyk with DefectDojo fills that gap. Findings from every Snyk scan type flow into a single vulnerability management workflow where you can deduplicate, age, assign, and report on them — without losing the developer-friendly detail Snyk provides.
Why Snyk Matters
Snyk has built one of the most comprehensive developer-first security platforms available, covering the full application stack from code to cloud.
- Snyk Open Source scans dependency manifests and lock files across all major package ecosystems (npm, PyPI, Maven, Go modules, NuGet, RubyGems, and more), surfacing CVEs and license issues with fix advice and exploitability context
- Snyk Code is a SAST engine that uses semantic analysis and a large training corpus to detect security issues in proprietary code — including cross-function dataflow vulnerabilities — with low false positive rates compared to rule-based alternatives
- Snyk Container scans base images and application dependencies within containers, mapping vulnerabilities to specific layers and identifying which base image upgrade would resolve the most findings
- Snyk IaC analyzes Terraform, CloudFormation, Kubernetes manifests, and Helm charts for misconfigurations before they reach production
- Snyk's vulnerability database is maintained by an in-house research team and includes exploitability scoring, social trends, and mature/unmaintained package signals — context that makes prioritization more defensible than raw CVSS alone
- All four scan types produce JSON output that DefectDojo can ingest, making it practical to centralize findings regardless of which Snyk product tier your organization uses
Advantages of This Integration
Snyk surfaces the risk. DefectDojo operationalizes the response.
- Unified view across all Snyk scan types: Open source, code, container, and IaC findings live in separate Snyk projects. DefectDojo aggregates them under a single product structure, giving security teams one place to assess total application risk rather than context-switching between Snyk dashboards.
- Remediation lifecycle management: Snyk shows you what's vulnerable. DefectDojo tracks whether anything was done about it — who was assigned, when the SLA expires, whether the fix was verified, and whether the finding was re-introduced after remediation.
- Deduplication across projects and scan types: The same CVE appearing in a dependency both directly and transitively, or in both the application image and the base image, gets consolidated rather than generating redundant open findings. You address the root cause once.
- SLA enforcement with breach tracking: DefectDojo applies configurable SLA policies by severity. Critical findings from Snyk Open Source get a 7-day target; High severity gets 30 days. Breach dates are tracked and surfaced in dashboards and reports automatically.
- Risk acceptance with documented rationale: When a vulnerability has no fix, is in a non-reachable code path, or is accepted pending a scheduled upgrade cycle, DefectDojo captures the justification, the approver, and the expiration date. That record survives reimports and is auditable.
- Portfolio-level reporting: Security teams managing dozens or hundreds of repositories get aggregated metrics on open findings by severity, scan type, age, and SLA status — the kind of data needed for board reporting, compliance evidence, and resource prioritization.
- Ticketing workflow for remediation handoff: Triaged Snyk findings can be pushed from DefectDojo directly to Jira, GitHub Issues, or ServiceNow with CVE details, fix version, and affected dependency included — giving developers what they need to act without requiring Snyk platform access.
How This Integration Works
Snyk produces JSON output via its CLI that DefectDojo's Snyk parser consumes directly. The same workflow applies across all four Snyk scan types, with minor variations in the CLI command.
Step 1 — Run Snyk and capture JSON output
# Open source dependency scan
snyk test --json > snyk-results.json
# Code (SAST) scan
snyk code test --json > snyk-code-results.json
# Container image scan
snyk container test <image>:<tag> --json > snyk-container-results.json
# Infrastructure as code scan
snyk iac test --json > snyk-iac-results.json
For Snyk Open Source, --all-projects is useful in monorepos to capture all manifests in a single scan:
snyk test --all-projects --json > snyk-results.json
Step 2 — Import into DefectDojo
Use Snyk Scan as the scan type for all Snyk JSON output formats:
curl -X POST https://<defectdojo-host>/api/v2/import-scan/ \
-H "Authorization: Token <your-api-token>" \
-F "scan_type=Snyk Scan" \
-F "file=@snyk-results.json" \
-F "engagement=<engagement-id>" \
-F "product=<product-id>" \
-F "active=true" \
-F "verified=false"
Step 3 — Reimport for recurring scans
For repositories scanned on a regular cadence or on every CI run, use the reimport endpoint to update existing findings rather than accumulate redundant test records:
curl -X POST https://<defectdojo-host>/api/v2/reimport-scan/ \
-H "Authorization: Token <your-api-token>" \
-F "scan_type=Snyk Scan" \
-F "file=@snyk-results.json" \
-F "test=<test-id>"
DefectDojo marks findings absent from the new scan as resolved, creates records for new findings, and leaves previously accepted or false-positived findings untouched.
Data Granularity: What Gets Imported
|
Field |
Source in Snyk Output |
Notes |
|---|---|---|
|
Title |
title + packageName |
e.g., "Remote Code Execution in lodash" |
|
Severity |
severity |
critical, high, medium, low — mapped to DefectDojo severity levels |
|
CVE ID |
identifiers.CVE |
One or more CVEs associated with the vulnerability |
|
CWE ID |
identifiers.CWE |
Where Snyk maps to CWE (common in Snyk Code findings) |
|
CVSS Score |
cvssScore |
Snyk's CVSS v3 score |
|
Package Name |
packageName |
The vulnerable dependency |
|
Package Version |
version |
Installed version at scan time |
|
Fix Version |
fixedIn |
Version(s) in which the vulnerability is resolved |
|
Exploit Maturity |
exploit |
No Known Exploit, Proof of Concept, Functional, High — Snyk-specific context |
|
Reachability |
reachability |
Reachable / Not Reachable (Snyk Code and Open Source with reachability enabled) |
|
Description |
description |
Snyk's vulnerability description including attack scenario |
|
Remediation |
remediation.upgrade / remediation.patch |
Specific upgrade path or patch recommendation |
|
References |
references |
Links to CVE, NVD, Snyk advisory, and related resources |
|
File Path |
from (dependency chain) |
The dependency chain from root manifest to vulnerable package |
|
IaC Resource |
resource |
For IaC findings: the specific resource block with the misconfiguration |
|
Language / Ecosystem |
language / packageManager |
e.g., javascript/npm, python/pip, java/maven |
Use Cases
In a CI/CD pipeline for dependency hygiene: Snyk Open Source runs on every merge to the main branch. Results reimport into DefectDojo, updating the active finding set for that repository. Security engineers triage new findings weekly, accept or assign remediation, and track SLA compliance through DefectDojo dashboards — without having to log into Snyk for every review cycle.
Across a microservices architecture: An organization with 60 microservices runs Snyk across all of them in a nightly pipeline. DefectDojo aggregates results by product (one per service), giving the security team a ranked list of which services carry the most unresolved Critical and High findings. Remediation effort can be directed at the highest-risk services first, informed by actual data rather than guesswork.
For container base image governance: Snyk Container scans application images in the registry and identifies which base image version is responsible for the majority of CVEs. DefectDojo tracks which image tags have been scanned, which findings are open, and whether base image upgrades recommended by Snyk have been implemented — closing the loop between the scanner recommendation and verified remediation.
For IaC misconfiguration management pre-deployment: Snyk IaC findings for Terraform and Kubernetes manifests import into DefectDojo as part of the infrastructure pipeline. Security and platform teams jointly triage misconfigurations, apply risk acceptance decisions where compensating controls exist, and track which findings have been remediated in subsequent IaC scans — all in DefectDojo rather than in CI logs.
During a compliance audit: DefectDojo's engagement history, finding lifecycle records, and risk acceptance audit trail provide structured evidence of continuous vulnerability management across open source, code, container, and IaC scan coverage — covering the application security testing requirements of SOC 2, PCI DSS, and ISO 27001 without additional reporting work.
Operational Tips
- Create separate engagements per Snyk scan type: Open source, code, container, and IaC findings have different owners and remediation timelines. Keeping them in separate DefectDojo engagements (or even separate products) makes assignment and SLA tracking cleaner than mixing all finding types into a single engagement.
- Use --all-projects cautiously in large monorepos: Snyk's monorepo output can include findings from many manifests in a single JSON file. Validate that the DefectDojo parser is handling multi-project output correctly for your repo structure before relying on it for SLA tracking.
- Map Snyk exploit maturity to DefectDojo severity adjustments: Snyk's exploit maturity field (Functional, Proof of Concept, No Known Exploit) is valuable prioritization context that raw CVSS doesn't capture. Consider adjusting DefectDojo severity on import or using tags to surface exploit maturity for triage.
- Tag findings by ecosystem on import: Tagging findings with the package manager (npm, pip, maven) in DefectDojo enables filtering and reporting by ecosystem — useful for understanding which language stack is driving the most dependency risk across your portfolio.
- Leverage reachability data where available: For Snyk findings with reachability analysis, findings flagged as Not Reachable are strong candidates for lower-priority handling or risk acceptance. Capturing this in DefectDojo finding notes during triage prevents the same reachability assessment from being re-done on every scan cycle.
- Align scan frequency with SLA windows: If your Critical SLA is 7 days, running Snyk and reimporting into DefectDojo weekly means findings could already be near SLA breach before the first update. For high-criticality applications, daily or per-commit scanning gives DefectDojo the data it needs to track SLA compliance accurately.
- Store Snyk ignore rules decisions in DefectDojo: Snyk supports .snyk ignore files for suppressing findings in the scanner. Where possible, prefer managing suppression decisions as risk acceptances in DefectDojo instead — the rationale is documented, auditable, and tied to an expiration date rather than silently embedded in a config file.