Anatomy of a finding
Every finding in LaunchSafe contains the following information:Title & category
A concise description and classification of the vulnerability. Categories follow industry standards including OWASP Top 10, CWE (Common Weakness Enumeration), and SANS Top 25. Example: SQL Injection via unsanitized user input (CWE-89)Severity & CVSS score
Each finding is assigned a severity level based on its CVSS v3.1 (Common Vulnerability Scoring System) score. The score accounts for:- Attack vector — network, adjacent, local, or physical
- Attack complexity — low or high
- Privileges required — none, low, or high
- User interaction — none or required
- Impact — confidentiality, integrity, and availability
Location
For white-box findings: the exact file path, line number, and function name where the vulnerability exists. For black-box findings: the URL endpoint, HTTP method, and parameter where the vulnerability was triggered. For hybrid findings: both — the code location and the runtime endpoint.Evidence
Proof that the vulnerability is real and exploitable:- White-box: data flow trace showing how untrusted input reaches a dangerous sink, with each intermediate step annotated
- Black-box: full HTTP request/response pair showing the exploit payload and the application’s vulnerable response
- SCA: CVE identifier, affected version, advisory URL, and proof-of-concept if available
Remediation
Specific, actionable guidance for fixing the vulnerability:- Code examples showing the vulnerable pattern and the fixed version
- Library or framework-specific recommendations
- Links to relevant documentation and security guides
- For SCA findings: the exact version to upgrade to
References
External links to:- CWE entry explaining the vulnerability class
- OWASP testing guide for the vulnerability type
- CVE entry (for known vulnerabilities)
- Relevant security advisories
Severity levels
Critical (CVSS 9.0–10.0)
Vulnerabilities that can be exploited remotely, with no authentication, and lead to full system compromise. These require immediate action — they represent active, exploitable paths to data breaches, remote code execution, or complete application takeover. Examples:- Remote code execution via insecure deserialization
- SQL injection with data exfiltration capability
- Authentication bypass allowing admin access
- Hardcoded production database credentials in public repository
- SSRF with access to cloud metadata endpoint (AWS IMDSv1)
High (CVSS 7.0–8.9)
Significant vulnerabilities that could be exploited with moderate effort or specific conditions. These should be fixed within days — they represent substantial risk even if exploitation requires some prerequisites. Examples:- Stored cross-site scripting (XSS) in user-generated content
- Insecure direct object reference (IDOR) exposing other users’ data
- Server-side request forgery (SSRF) with internal network access
- Broken access control allowing horizontal privilege escalation
- Dependency with known RCE vulnerability (actively exploited CVE)
Medium (CVSS 4.0–6.9)
Vulnerabilities that require specific conditions, user interaction, or chaining with other issues to exploit. Fix within your current sprint — they represent real risk but aren’t immediately dangerous in isolation. Examples:- Reflected XSS requiring user to click a crafted link
- Cross-site request forgery (CSRF) on state-changing operations
- Missing security headers (CSP, X-Frame-Options, HSTS)
- Information disclosure via verbose error messages
- Weak cryptographic algorithm usage (SHA-1 for signatures)
Low (CVSS 0.1–3.9)
Minor issues with limited security impact. Fix when convenient — these are hardening recommendations rather than exploitable vulnerabilities. Examples:- Cookie without
Secureflag on HTTPS-only site - Missing
X-Content-Type-Optionsheader - Directory listing enabled on non-sensitive paths
- Server version disclosure in HTTP headers
- Debug comments in production HTML
Info (CVSS 0.0)
Informational observations with no direct security impact. Review at your discretion — these may indicate areas for improvement but don’t represent vulnerabilities. Examples:- Outdated dependency with no known CVEs
- Non-standard HTTP methods accepted but unused
- Suboptimal TLS cipher suite ordering
- Missing DNS CAA records
Triage workflow
A professional vulnerability triage workflow follows these steps:1
Review the finding
Read the title, severity, description, and evidence. Understand what the vulnerability is and how it can be exploited. The evidence section shows you exactly what LaunchSafe found.
2
Verify in your application
Confirm the vulnerability exists in your application. For code-level findings, navigate to the file and line number. For runtime findings, try to reproduce using the provided request details.
3
Assess business impact
Consider the finding’s severity in your specific context. A SQL injection on a public endpoint with PII is more urgent than one on an internal admin tool behind VPN. Adjust priority accordingly.
4
Assign and fix
Create a ticket in Jira or Linear (one click from the finding), assign it to the appropriate developer, and apply the remediation. If an auto-fix PR is available, review and merge it.
5
Verify the fix
Run another scan to confirm the vulnerability is resolved. LaunchSafe will mark the finding as fixed if it’s no longer detected.
Auto-fix pull requests
For supported vulnerability types, LaunchSafe can automatically open a pull request with the fix applied. Auto-fix PRs include:
Each PR includes:
- The minimal code change to remediate the vulnerability
- A description explaining what was found and why the fix works
- A link back to the finding in LaunchSafe for full context
- The PR is created from a
launchsafe/fix-*branch for easy identification
Auto-fix PRs are suggestions, not guarantees. Always review the changes before merging — the fix should be tested against your application to ensure it doesn’t break existing functionality.