Inferensys

Prompt

Security Scan Results Triage Prompt for Release

A practical prompt playbook for using the Security Scan Results Triage Prompt for Release in production AI workflows. Designed for AppSec engineers who need to convert raw automated scan outputs into a prioritized, evidence-backed disposition list that determines which vulnerabilities block a release.
Developer doing prompt engineering on laptop, prompt variations visible on screen, casual coding session.
PROMPT PLAYBOOK

When to Use This Prompt

Define the job, reader, and constraints for the Security Scan Results Triage Prompt for Release.

This prompt is designed for AppSec engineers and security-minded QA leads who need to process raw automated security scan results—from SAST, DAST, SCA, or container scanning tools—and produce a release-focused triage report. The core job-to-be-done is converting a noisy list of findings into a prioritized, actionable set of decisions that clearly states which vulnerabilities block the release, which can be deferred with compensating controls, and which are false positives. The ideal user has access to the raw scan output, the application's threat model or security context, and the authority to recommend a disposition for each finding.

Use this prompt when you have a batch of scan results that must be evaluated against a specific release's risk tolerance and deployment context. It is most effective when the input includes finding identifiers, descriptions, severity scores, CVSS vectors, affected components, and any available exploitability indicators. The prompt expects you to supply the release's risk profile, such as internet-facing vs. internal-only deployment, data sensitivity, and any compensating controls already in place. Do not use this prompt for real-time intrusion detection alert triage, for compliance-only scans where every finding must be remediated regardless of risk, or for penetration test reports that require narrative-style analysis rather than structured disposition. It is also unsuitable when the scan tool's severity ratings are the only decision factor and no human security judgment is required.

Before running this prompt, ensure you have normalized the scan results into a consistent format. The prompt works best with structured input, not raw tool output. You should also define your release's security gates in advance—for example, 'no Critical with known exploit' or 'no High in authentication modules'—so the model can apply them consistently. After receiving the output, a human AppSec reviewer must validate each blocking recommendation, especially for findings where exploitability is inferred rather than proven. The prompt is a force-multiplier for triage, not a replacement for security review. Next, move to the prompt template section to copy and adapt the base template for your toolchain and risk thresholds.

PRACTICAL GUARDRAILS

Use Case Fit

Where this prompt works, where it fails, and what you must provide before trusting the output in a release pipeline.

01

Good Fit: Structured SAST/DAST Output

Use when: you have machine-parsable scan results (SARIF, JSON, CSV) from SAST, DAST, or container scanning tools. The prompt excels at normalizing heterogeneous tool output into a single triage view. Avoid when: findings are raw prose, PDF reports, or screenshots without structured data extraction first.

02

Bad Fit: Zero-Day or Novel Exploit Research

Avoid when: the task requires discovering new vulnerability classes, chaining unknown exploits, or conducting original security research. This prompt triages known findings against existing knowledge; it does not perform penetration testing or threat modeling. Guardrail: route novel attack research to a dedicated threat modeling workflow, not a release triage prompt.

03

Required Inputs: CVSS, Asset Context, and Deployment Profile

Risk: without CVSS vectors, asset criticality tags, and deployment context (internet-facing vs. internal), the model cannot assess exploitability or business impact accurately. Guardrail: enforce a strict input schema that includes finding ID, CVSS string, affected asset, network exposure, and data classification before invoking the prompt.

04

Operational Risk: Overriding Human AppSec Judgment

Risk: teams may treat the model's severity justification as authoritative and skip manual review for borderline findings. Guardrail: the prompt output must include a confidence flag and an explicit 'requires human review' field for any finding where exploitability is plausible but uncertain. Never auto-approve a release waiver from model output alone.

05

Pipeline Integration: Pre-Release Gate, Not Post-Release Audit

Use when: the prompt sits inside a CI/CD quality gate that blocks the release pipeline if unresolved criticals or highs remain. Avoid when: you need a historical audit report for compliance without blocking the release. Guardrail: wire the output disposition field directly into your release orchestration tool so 'BLOCK' findings stop the pipeline automatically.

06

Tool Drift: Scanner Output Format Changes

Risk: when your SAST/DAST tool updates its output schema, the prompt may silently misinterpret fields or drop findings. Guardrail: version-lock the expected input schema in the prompt instructions and add a pre-processing validator that rejects scan files with unknown fields before they reach the model.

PROMPT PLAYBOOK

Copy-Ready Prompt Template

A reusable triage prompt for AppSec engineers to prioritize automated security scan findings and produce a release-blocking recommendation per vulnerability.

This prompt template is designed to be copied directly into your AI harness, IDE, or orchestration layer. It accepts raw security scan output, release context, and your organization's risk tolerance, then returns a structured, prioritized finding list. Every placeholder is enclosed in square brackets and must be replaced with concrete values before execution. The template enforces a strict output schema so that downstream automation—such as ticketing systems or release dashboards—can consume the results without manual reformatting.

text
You are an application security triage specialist reviewing automated security scan results for an upcoming software release. Your goal is to determine which findings block the release and which can be deferred, with clear justification for each disposition.

## INPUT
Scan results (JSON or markdown table):
[SCAN_RESULTS]

Release context:
- Application name and version: [APP_NAME] [VERSION]
- Deployment environment: [ENVIRONMENT]
- Internet-facing: [IS_INTERNET_FACING]
- Data classification handled: [DATA_CLASSIFICATION]
- Regulatory requirements: [REGULATORY_REQUIREMENTS]
- Known compensating controls: [COMPENSATING_CONTROLS]

## CONSTRAINTS
- Organization risk tolerance: [RISK_TOLERANCE]
- CVSS threshold for automatic blocking: [CVSS_BLOCK_THRESHOLD]
- Exploitability must be assessed in the context of [DEPLOYMENT_CONTEXT]
- Do not recommend blocking a release for findings with proven, validated compensating controls
- If a finding lacks sufficient evidence for a confident disposition, flag it as NEEDS_MANUAL_REVIEW

## OUTPUT_SCHEMA
Return a JSON object with this exact structure:
{
  "release_id": "string",
  "triage_timestamp": "ISO8601",
  "summary": {
    "total_findings": int,
    "blocking_findings": int,
    "deferred_findings": int,
    "needs_manual_review": int
  },
  "findings": [
    {
      "finding_id": "string",
      "cve_id": "string or null",
      "title": "string",
      "severity": "CRITICAL|HIGH|MEDIUM|LOW|INFORMATIONAL",
      "cvss_score": float or null,
      "exploitability_assessment": "string (explain why this is exploitable or not in the deployment context)",
      "compensating_controls": "string (describe existing controls that reduce risk, or state 'none')",
      "disposition": "BLOCK_RELEASE|DEFER|NEEDS_MANUAL_REVIEW",
      "disposition_justification": "string (specific reasoning tied to evidence, context, and risk tolerance)",
      "remediation_guidance": "string (actionable fix or investigation steps)"
    }
  ],
  "residual_risk_statement": "string (summary of risk remaining after recommended dispositions are applied)"
}

## INSTRUCTIONS
1. Parse all findings from [SCAN_RESULTS].
2. For each finding, assess severity, exploitability in [DEPLOYMENT_CONTEXT], and the effectiveness of any [COMPENSATING_CONTROLS].
3. Assign a disposition: BLOCK_RELEASE if the finding exceeds [CVSS_BLOCK_THRESHOLD] and lacks adequate compensating controls; DEFER if risk is below threshold or adequately mitigated; NEEDS_MANUAL_REVIEW if evidence is insufficient.
4. Write a specific disposition_justification that references concrete evidence, not generic statements.
5. Produce the final JSON conforming exactly to OUTPUT_SCHEMA.
6. If [SCAN_RESULTS] is empty or unparseable, return a valid JSON object with an error field: {"error": "No parseable scan results provided"}.

Adaptation guidance: Replace [SCAN_RESULTS] with the raw output from your SAST, DAST, SCA, or container scanner. The [COMPENSATING_CONTROLS] field should list controls already in place—such as WAF rules, network segmentation, or auth requirements—that may reduce exploitability. Set [CVSS_BLOCK_THRESHOLD] to match your organization's policy (commonly 7.0 or 9.0). If your scanner outputs findings in a non-standard format, preprocess the data into JSON before inserting it into this template. For high-risk releases, always route findings marked NEEDS_MANUAL_REVIEW to a human AppSec engineer before the release decision is finalized.

IMPLEMENTATION TABLE

Prompt Variables

Required and optional inputs for the Security Scan Results Triage Prompt. Each placeholder must be populated before the prompt is assembled and sent. Validation notes describe how to verify the input is fit for purpose before execution.

PlaceholderPurposeExampleValidation Notes

[SCAN_RESULTS_JSON]

Raw security scan output in structured JSON format from the scanner tool

{"findings": [{"id": "CVE-2024-1234", "severity": "critical", ...}]}

Must parse as valid JSON. Must contain a 'findings' array. Reject if empty or missing required severity field.

[SCAN_TOOL_NAME]

Identifies the source scanner to apply tool-specific severity mappings and known false-positive patterns

Snyk, Trivy, Checkmarx, Semgrep

Must match an approved scanner name from the configured allowlist. Reject unknown or unsupported scanner names.

[RELEASE_CONTEXT]

Describes the release boundary, affected services, and deployment scope to assess exploitability

Release v2.4.1 for payment-service and auth-service only

Must be a non-empty string. Should reference specific services or components. Warn if too generic to assess impact.

[SEVERITY_THRESHOLD]

Minimum severity level that qualifies a finding for blocking consideration

HIGH, CRITICAL

Must be one of: CRITICAL, HIGH, MEDIUM, LOW. Defaults to HIGH if not provided. Reject invalid values.

[COMPENSATING_CONTROLS]

Known runtime controls, WAF rules, network policies, or other mitigations already in place

WAF blocks SQLi patterns; auth-service runs as non-root user

Optional. If provided, must be a non-empty string. Null allowed. Used to downgrade exploitability scores.

[DEPLOYMENT_ENVIRONMENT]

Target environment for the release to assess environmental exploitability factors

AWS us-east-1 production, internal-only VPC

Must be a non-empty string. Should specify network exposure level. Warn if 'public internet' is implied without explicit controls.

[PREVIOUS_TRIAGE_NOTES]

Prior triage decisions for recurring findings to maintain consistency across releases

CVE-2024-1234 accepted risk in v2.4.0 due to internal-only exposure

Optional. If provided, must be a non-empty string. Null allowed. Used to detect disposition drift.

PROMPT PLAYBOOK

Implementation Harness Notes

How to wire the security scan triage prompt into an AppSec release gate workflow with validation, retries, and human review.

This prompt is designed to operate as a decision-support tool within a CI/CD quality gate, not as an autonomous release blocker. The ideal integration point is a post-scan pipeline step where aggregated SARIF, CycloneDX, or vendor-specific JSON reports are available. The application harness should collect scan results from multiple tools (SAST, DAST, SCA, container scanning), normalize them into a unified finding schema, and inject them into the [SCAN_FINDINGS] placeholder. The [RELEASE_CONTEXT] placeholder must include the target environment, data classification, exposure surface, and any compensating controls already in place. The [POLICY_THRESHOLDS] placeholder defines the organization's severity-to-action mapping—for example, 'Critical with known exploit must block; High without compensating control must block; Medium requires security lead approval.'

Validation and output enforcement is critical because the prompt produces structured JSON that downstream systems consume. Implement a post-generation validation layer that checks: (1) the output is valid JSON matching the expected schema, (2) every finding has a non-empty disposition field from the allowed enum [BLOCK, APPROVE_WITH_CONDITIONS, ACKNOWLEDGE, DEFER], (3) BLOCK dispositions include a specific policy reference, and (4) exploitability_assessment fields contain reasoning, not just labels. If validation fails, retry the prompt once with the validation errors appended to the [CONSTRAINTS] section. After two failures, escalate to the on-call AppSec engineer with the raw scan data and partial output. Log every invocation with the prompt version, model, input hashes, output, validation results, and final disposition for auditability. This trace is essential for post-release review and regulatory evidence.

Model choice and latency considerations matter here. Use a model with strong reasoning capabilities (GPT-4o, Claude 3.5 Sonnet, or equivalent) because the task requires multi-step reasoning across exploitability, compensating controls, and policy alignment. Expect 15-45 seconds per invocation depending on finding count. For releases with hundreds of findings, batch the input into chunks of 25-30 findings per invocation and merge results. Human review is mandatory for any finding with disposition BLOCK or APPROVE_WITH_CONDITIONS—the harness should create a review ticket with the finding details, model reasoning, and a required sign-off before the release gate proceeds. Never allow the model's output to directly fail a build without human confirmation. For high-compliance environments, store the full prompt-response pair as an immutable artifact in the release record alongside the human reviewer's decision and timestamp.

PRACTICAL GUARDRAILS

Common Failure Modes

Security scan triage prompts fail in predictable ways. These are the most common failure modes and how to prevent them before they affect a release decision.

01

Severity Inflation from Scanner Noise

What to watch: The model treats every scanner-reported severity at face value, inflating low-impact findings into release blockers because the scanner used 'CRITICAL' for a theoretical issue with no exploit path. Guardrail: Require the prompt to distinguish scanner-assigned severity from assessed severity, and include a mandatory exploitability check that overrides the scanner label when no attack vector exists in the deployed configuration.

02

Missing Compensating Control Recognition

What to watch: The model recommends blocking release for a vulnerability that is already mitigated by a WAF rule, network segmentation, or authentication requirement, because it only evaluates the finding in isolation. Guardrail: Include a required field for compensating controls in the output schema, and instruct the model to check whether existing controls reduce exploitability before assigning a disposition. Test with findings where controls are documented in the input context.

03

Hallucinated CVE Details or Fix Versions

What to watch: The model fabricates CVE descriptions, CVSS vectors, or fixed-in version numbers when the scan report provides only a CVE identifier without full details. Guardrail: Constrain the prompt to use only evidence present in the provided scan results. Add an explicit instruction: 'If CVE details are not in the input, mark exploitability as UNASSESSED rather than inventing details.' Validate output claims against input sources in eval.

04

Context Window Truncation of Finding Lists

What to watch: Large scan results exceed the context window, causing the model to triage only the first N findings and silently omit the rest without indicating incomplete coverage. Guardrail: Chunk scan results by severity tier or service before prompting. Include a completeness check in the output schema requiring the model to report total findings received vs. findings triaged. If counts don't match, flag for human review.

05

Disposition Drift Across Similar Findings

What to watch: The model assigns inconsistent dispositions to nearly identical vulnerabilities across different services—blocking a SQL injection in one component while accepting the same pattern in another. Guardrail: Include few-shot examples demonstrating consistent disposition logic. Add a post-processing consistency check that groups findings by vulnerability type and flags disposition disagreements for human reconciliation.

06

Over-Prioritization of Fixable Over Dangerous

What to watch: The model recommends blocking release for low-severity findings with available patches while deferring a high-severity finding because remediation is complex or unknown, inverting true risk priority. Guardrail: Structure the output schema to require severity and exploitability assessment before remediation difficulty. Include an eval check that verifies no HIGH-severity exploitable finding is deferred while a LOW-severity finding blocks release.

IMPLEMENTATION TABLE

Evaluation Rubric

Use this rubric to test the Security Scan Results Triage Prompt before shipping. Each criterion targets a specific failure mode common in vulnerability triage automation. Run these checks against a curated set of known scan results and edge cases.

CriterionPass StandardFailure SignalTest Method

Severity Justification

Every finding includes a specific, evidence-backed reason for its assigned severity, citing a CVSS vector, exploitability metric, or business context.

Severity is stated without justification, or justification is generic (e.g., 'it's critical').

Parse output for each finding. Assert that the severity_justification field is non-empty and contains a reference to a metric or context from the input.

Exploitability Assessment

Each finding includes a concrete exploitability assessment (e.g., 'network-exploitable', 'local-only', 'requires user interaction') derived from the scan metadata.

Exploitability is missing, defaults to 'unknown', or contradicts the provided CVSS vector string.

Validate that the exploitability_assessment field is present and maps to one of the allowed enum values. Cross-reference a sample against its input CVSS string.

Compensating Control Identification

For findings where a compensating control is mentioned in the input context, the output correctly identifies and links it to the finding.

A known compensating control from the input is ignored, or a control is hallucinated without source evidence.

Provide an input with a specific WAF rule or network policy. Assert that the corresponding finding's compensating_controls array includes that exact control.

Disposition Accuracy

The recommended disposition (e.g., 'block_release', 'defer', 'accept_risk') is logically consistent with the severity, exploitability, and compensating controls.

A critical, network-exploitable finding with no controls is marked as 'defer', or a low-severity finding is marked as 'block_release'.

Use a decision table of pre-defined scenarios. Assert that the output disposition matches the expected disposition for each scenario.

Output Schema Compliance

The entire JSON output is valid and strictly conforms to the expected schema, including required fields, enum values, and array types.

The output is missing a required field, contains an invalid enum value, or has a type mismatch (e.g., string instead of array).

Validate the output against the defined JSON Schema using a programmatic validator. The test fails on any schema violation.

Hallucination Check

No finding, CVE, or control is present in the output that was not present in the input scan data or provided context.

The output contains a CVE ID, a vulnerability description, or a control name that was not in the input.

Extract all unique CVE IDs and control names from the output. Assert that each one is a substring match within the raw input text.

Priority Ordering Logic

Findings are sorted by priority, with 'block_release' items first, followed by high-severity items, then others. Ties are broken by CVSS score.

A 'defer' finding is listed before a 'block_release' finding, or ordering is random.

Extract the ordered list of findings. Assert that the disposition field is in descending order of severity ('block_release' > 'defer' > 'accept_risk') and that CVSS scores are non-increasing within each disposition group.

ADAPTATION OPTIONS

Adapt This Prompt

How to adapt

Add structured input parsing for multiple scanners (SAST, DAST, SCA, container scanning). Include [COMPENSATING_CONTROLS] as a structured object mapping finding types to existing mitigations. Add [DEPLOYMENT_CONTEXT] with network exposure, auth boundaries, and data classification. Require output in a strict JSON schema with per-finding fields: finding_id, scanner_source, original_severity, triage_severity, exploitability_rationale, compensating_control_match, disposition, blocking_justification.

Prompt snippet

code
Output must conform to this schema:
{
  "findings": [
    {
      "finding_id": "string",
      "scanner_source": "SAST|DAST|SCA|CONTAINER",
      "original_severity": "string",
      "triage_severity": "BLOCKER|HIGH|MEDIUM|LOW|INFO",
      "exploitability_rationale": "string (max 200 chars)",
      "compensating_control_match": "string|null",
      "disposition": "MUST_FIX|SHOULD_FIX|ACCEPT_RISK|FALSE_POSITIVE",
      "blocking_justification": "string|null"
    }
  ],
  "summary": {
    "total_findings": "number",
    "blockers": "number",
    "accepted_risks": "number",
    "false_positives": "number"
  }
}

Watch for

  • Schema drift when scanners add new severity levels or finding types
  • Compensating control matching failing silently when control descriptions don't exactly match finding terminology
  • Missing cross-scanner deduplication causing the same vulnerability counted multiple times
Prasad Kumkar

About the author

Prasad Kumkar

CEO & MD, Inference Systems

Prasad Kumkar is the CEO & MD of Inference Systems and writes about AI systems architecture, LLM infrastructure, model serving, evaluation, and production deployment. Over 5+ years, he has worked across computer vision models, L5 autonomous vehicle systems, and LLM research, with a focus on taking complex AI ideas into real-world engineering systems.

His work and writing cover AI systems, large language models, AI agents, multimodal systems, autonomous systems, inference optimization, RAG, evaluation, and production AI engineering.