This prompt is designed for security operations and product security teams who need to generate structured, evidence-backed technical advisories from a corpus of CVE records, vendor bulletins, and internal security documentation. The core job-to-be-done is converting a natural-language question—such as 'What is the exploitability of CVE-2024-1234 on our current kernel version?'—into a disciplined advisory that includes a CVE reference, an affected-version matrix, an exploitability assessment, and a prioritized remediation plan. The ideal user is an AI engineer or security analyst integrating this prompt into an internal RAG pipeline where the retrieved context is already scoped to a trusted document collection.
Prompt
Technical Security Advisory RAG Prompt

When to Use This Prompt
Define the job, the user, and the operational boundaries for deploying a security advisory RAG prompt in production.
Use this prompt when the output must be actionable by infrastructure and remediation teams. It is appropriate when the system has access to a curated, versioned knowledge base of vulnerability data and when the cost of a hallucinated CVE identifier or a wrong version range is high enough to require strict grounding and citation. The prompt includes explicit instructions to abstain when evidence is missing, to flag stale advisory data, and to separate confirmed exploitability from theoretical risk. This makes it suitable for environments where a misleading answer could trigger unnecessary patching or, worse, leave a critical vulnerability unaddressed.
Do not use this prompt as a general-purpose security chatbot or as a substitute for a live threat intelligence feed. It is not designed for open-ended threat hunting, raw log analysis, or incident response coordination. The prompt assumes that retrieval has already occurred and that the provided context contains structured advisory data. If your system cannot reliably retrieve CVE records, vendor fix versions, or CVSS vectors, this prompt will not compensate for that gap. For high-severity or actively exploited vulnerabilities, always pair the generated advisory with a human review step before it reaches remediation teams or automated patch management systems.
Use Case Fit
Where this prompt works, where it fails, and what you must provide before deploying it in a security operations workflow.
Good Fit: Structured Advisory Generation
Use when: you need to generate a consistent advisory from a known set of CVEs, vendor bulletins, and internal KB articles. The prompt excels at producing structured outputs with CVE references, affected-version matrices, and exploitability assessments. Guardrail: always provide the retrieved context as a pre-assembled block; do not rely on the model's parametric knowledge for current vulnerability data.
Bad Fit: Real-Time Threat Hunting
Avoid when: you need live threat intelligence, active exploit detection, or zero-day analysis from raw logs. This prompt synthesizes existing advisory data—it does not perform dynamic investigation or connect to live feeds. Guardrail: pair this prompt with a separate retrieval pipeline that fetches fresh CVE data and vendor advisories before generation; never pipe unsanitized log data directly into the prompt.
Required Inputs: Grounded Source Documents
What to watch: the prompt will hallucinate CVE details, affected versions, or CVSS scores if the retrieved context is incomplete or stale. Guardrail: enforce a strict contract—every advisory field must be traceable to a source chunk in the retrieved context. Implement a pre-generation check that verifies CVE IDs, vendor names, and version strings exist in the provided evidence before synthesis begins.
Operational Risk: Stale Advisory Data
What to watch: security advisories age rapidly. A CVE marked as 'unpatched' in last week's retrieval may have a vendor fix today. The prompt has no awareness of time unless you provide it. Guardrail: include a retrieval_timestamp in the prompt context and instruct the model to flag any advisory content older than your defined freshness window. Add a human-review gate for advisories recommending critical actions based on data older than 24 hours.
Scale Risk: High-Volume CVE Batches
What to watch: feeding dozens of CVEs into a single prompt can cause the model to drop low-severity items, merge unrelated vulnerabilities, or produce truncated output. Guardrail: batch CVEs by severity or product and process them in separate prompt calls. Implement a post-generation diff check to ensure every input CVE appears in the output advisory set.
Compliance Risk: Actionable Remediation Language
What to watch: the model may generate prescriptive remediation steps ('apply patch X immediately') that conflict with your organization's change-management policy or maintenance windows. Guardrail: constrain the prompt to produce remediation prioritization and references rather than direct operational commands. Route all remediation actions through your existing ticketing and approval system, never directly from model output.
Copy-Ready Prompt Template
A reusable prompt template for generating technical security advisories from CVE records, vendor bulletins, and internal documentation.
This prompt template is designed to be dropped into a RAG pipeline where retrieved context—CVE entries, vendor advisories, and internal security documentation—has already been assembled. It instructs the model to synthesize a structured advisory that prioritizes actionable remediation, explicitly flags data staleness, and separates confirmed exploitability from theoretical risk. The template uses square-bracket placeholders for all variable inputs, making it straightforward to wire into an application that populates these fields before inference.
codeYou are a technical security advisory assistant. Your task is to generate a concise, actionable security advisory using ONLY the retrieved context provided below. Do not use any external knowledge or training data. ## CONTEXT [RETRIEVED_CONTEXT] ## INSTRUCTIONS 1. **Synthesize an advisory** that addresses the user's question: [USER_QUESTION]. 2. **Structure the output** strictly according to the following schema: - **Executive Summary:** A one-paragraph summary of the threat, its severity, and the most critical remediation action. - **Affected Systems Matrix:** A markdown table listing each affected product/version, its status (e.g., Affected, Not Affected, Under Investigation), and the source document reference. - **Vulnerability Details:** For each relevant CVE, provide the CVE ID, CVSS score, exploitability assessment (e.g., "Proof of Concept Exists", "Actively Exploited", "Theoretical"), and a concise technical description grounded in the context. - **Remediation & Mitigation:** A prioritized list of actions (patch, configuration change, workaround) with explicit steps and source references. - **Data Freshness & Confidence Notes:** Explicitly state the publication date of the newest and oldest source documents used. Flag any information that appears stale (e.g., a CVE last modified over 90 days ago without a vendor fix) or where sources conflict. If the context is insufficient to answer the question fully, state what is missing. 3. **Constraints:** - Every factual claim must be directly supported by a citation to a source document in the context (e.g., [Source: CVE-2024-XXXXX]). - Do not fabricate CVSS scores, affected versions, or remediation steps. - If the user's question falls outside the scope of a technical security advisory (e.g., asks for legal advice, writes marketing copy), respond with: "This request is outside the scope of a technical security advisory." - The advisory must be self-contained and not require the reader to have access to the original context to understand the core message.
To adapt this template, replace the placeholders with your application's runtime values. [RETRIEVED_CONTEXT] should be a pre-formatted string of your top-k retrieval results, ideally with clear document IDs for citation. [USER_QUESTION] is the raw query from the security analyst. The output schema is designed to be parseable; you can further constrain the model by replacing the markdown structure with a strict JSON schema in the instructions if your downstream system requires it. For high-stakes deployments, always pair this prompt with a validation step that checks for the presence of required fields and source citations before the advisory reaches a human reviewer.
Prompt Variables
Required inputs for the Technical Security Advisory RAG Prompt. Each placeholder must be populated before the prompt is assembled and sent to the model. Validation notes describe how to programmatically verify the input before generation.
| Placeholder | Purpose | Example | Validation Notes |
|---|---|---|---|
[USER_QUESTION] | The security advisory question or request from the user | What is the exploitability score for CVE-2024-12345 and are there any known workarounds? | Non-empty string; minimum 10 characters; strip leading/trailing whitespace; reject if contains only punctuation or single words |
[RETRIEVED_ADVISORIES] | Top-k retrieved security advisory chunks from CVE databases, vendor bulletins, and internal security docs | CVE-2024-12345: CVSS 9.8, remote code execution in Apache Foo 2.1.0 through 2.3.5. Vendor advisory published 2024-03-15. Patch available in 2.3.6. | Array of strings; minimum 1 chunk; each chunk must have source metadata (CVE ID, vendor, publish date); reject empty array; deduplicate identical chunks before insertion |
[ADVISORY_METADATA] | Structured metadata for each retrieved advisory chunk including source, date, and version | {"cve_id": "CVE-2024-12345", "source": "NVD", "published": "2024-03-15", "modified": "2024-03-20", "cvss_score": 9.8} | Valid JSON object per chunk; must contain cve_id or advisory_id field; publish_date must be parseable ISO 8601; reject if metadata is missing required fields or dates are in the future |
[AFFECTED_PRODUCT_CONTEXT] | Known product inventory or software bill of materials for the organization querying | Apache Foo 2.2.1 deployed on 12 production hosts; Apache Foo 2.3.0 in staging; upgrade window scheduled Q2 2024 | String or structured JSON; null allowed if product context unknown; if provided, must include product name and version; validate version format matches advisory version scheme |
[CITATION_FORMAT] | Required citation style for CVE references and source attribution in the output | CVE-YYYY-NNNNN (Source: NVD, Published: YYYY-MM-DD) | Non-empty string; must contain CVE-YYYY-NNNNN pattern reference; validate format string contains required citation elements before prompt assembly |
[CONFIDENCE_THRESHOLD] | Minimum confidence level required to include an advisory finding in the answer | 0.85 | Float between 0.0 and 1.0; default 0.7 if not specified; reject values below 0.5 for security advisory use; log warning if threshold exceeds 0.95 |
[STALENESS_WINDOW_DAYS] | Maximum age in days for advisory data before it is flagged as potentially stale | 90 | Integer greater than 0; default 90 if not specified; advisory chunks with publish_date older than this window trigger staleness warning in output; validate against current date at generation time |
Implementation Harness Notes
How to wire the Technical Security Advisory RAG prompt into a production application with validation, retries, and human review gates.
The Technical Security Advisory RAG prompt is designed to operate within a retrieval-augmented generation pipeline that pulls from CVE databases, vendor advisories, and internal security documentation. The implementation harness must enforce strict input validation, output schema compliance, and evidence grounding before any advisory reaches a security analyst. Because the output includes exploitability assessments and remediation prioritization, a human review step is mandatory for any advisory rated CRITICAL or containing a remediation_timeline of less than 24 hours.
Wire the prompt into your application by first assembling the retrieval context. Query your vector store and structured CVE database in parallel, deduplicate results by CVE ID, and sort by published_date descending. The [CONTEXT] placeholder expects a JSON array of advisory objects, each containing cve_id, description, cvss_score, affected_products, vendor_advisory_url, and last_modified. Validate that every object has a non-null cve_id before injection. The [INPUT] placeholder accepts a natural-language question from the security analyst, such as "What is the current exposure for CVE-2024-1234 in our environment?" The [RISK_LEVEL] placeholder should be set to high or critical when the query involves actively exploited vulnerabilities, which triggers stricter output validation and mandatory human review.
After the model returns a response, validate the output against the expected schema: advisory_id, cve_references (array of CVE IDs), affected_version_matrix (object mapping product to version ranges), exploitability_assessment (enum: none, proof_of_concept, active_exploitation), remediation_priority (enum: immediate, scheduled, monitor), and stale_data_flags (array of CVE IDs where last_modified is older than 30 days). Use a JSON Schema validator in your application layer. If validation fails, retry once with the original prompt plus the validation error message appended as a [CONSTRAINTS] note. If the retry also fails, log the failure and escalate to a human analyst with the raw model output and validation errors attached. For observability, log every prompt version, retrieval query, model response, validation result, and human review decision to your security operations audit trail.
Model choice matters here. Use a model with strong instruction-following and structured output capabilities, such as Claude 3.5 Sonnet or GPT-4o, and set temperature to 0.1 or lower to reduce variability in CVE references and version matrices. Enable structured output mode if your provider supports it, passing the expected JSON schema directly rather than relying on prompt-level formatting instructions alone. For stale advisory data, implement a pre-retrieval freshness check: if any retrieved CVE has a last_modified date older than your configured threshold (default 30 days), inject a [STALE_DATA_WARNING] into the prompt context that instructs the model to flag those CVEs explicitly. This prevents the model from presenting outdated information as current without warning the analyst.
The most common production failure mode is the model hallucinating CVE IDs or version ranges that do not appear in the retrieved context. Mitigate this by implementing a post-generation evidence check: extract every CVE ID from the model output and verify it exists in the original retrieval results. If any CVE ID is not found, either strip it from the output or retry with an explicit instruction to only reference CVEs present in the provided context. A second failure mode is the model producing overly confident exploitability assessments when evidence is thin. Configure your eval pipeline to flag any exploitability_assessment of active_exploitation that is not supported by at least two distinct sources in the retrieval context. When this flag fires, downgrade the assessment to proof_of_concept and add a note that active exploitation could not be confirmed from available sources.
Common Failure Modes
Technical security advisory prompts operate on high-stakes, rapidly changing data. These are the most common failure modes when generating advisories from CVE databases, vendor feeds, and internal documentation, along with practical mitigations.
Stale Advisory Data
What to watch: The model synthesizes an advisory from a CVE record that has been superseded, patched, or revised, producing outdated remediation guidance. This is common when retrieval indices lag behind NVD updates or vendor advisories. Guardrail: Attach a retrieval_timestamp to every source chunk and instruct the model to surface the advisory publication date and last-modified date in the output. Implement a freshness check that compares retrieved dates against the current date and flags advisories older than a configurable threshold.
CVE-to-Advisory Hallucination
What to watch: The model fabricates a plausible-sounding exploitability assessment, affected version range, or CVSS vector string that is not present in the retrieved source. This is especially dangerous when the model confidently invents a "critical" rating or a specific vulnerable configuration. Guardrail: Require the output to include inline citations for every quantitative claim (CVSS score, affected versions, exploitability metrics). Add a post-generation verification step that checks each cited value against the source chunk and strips unsupported claims before the advisory is shown.
Vendor Advisory Conflict Silencing
What to watch: When multiple vendor sources disagree on severity, affected products, or remediation steps, the model may silently pick one or blend them into a false consensus, hiding the conflict from the security analyst. Guardrail: Explicitly instruct the model to detect and surface conflicting guidance in a dedicated "Vendor Discrepancies" section. Use a structured output schema that requires an array of conflicts with source attribution, rather than a single resolved advisory block.
Remediation Over-Prioritization
What to watch: The model recommends "patch immediately" or "apply workaround" without considering environmental context, exploit availability in the wild, or compensating controls already in place, leading to alert fatigue or misallocated ops time. Guardrail: Design the prompt to produce a prioritization matrix that separates the vendor's severity from an internal triage recommendation. Include a [DEPLOYMENT_CONTEXT] input variable (e.g., internet-facing, internal-only, containerized) and instruct the model to condition remediation urgency on that context.
Affected-Version Range Drift
What to watch: The model paraphrases affected version ranges (e.g., "versions prior to 3.2.1") into an incorrect or incomplete list of specific versions, causing ops teams to miss vulnerable instances or patch unaffected ones. Guardrail: Instruct the model to reproduce affected version ranges verbatim from the source and include them in a structured version_matrix field. Add a validator that diffs the output version strings against the retrieved source text and rejects paraphrased ranges.
Internal Documentation Leakage
What to watch: The model mixes internal-only remediation procedures, asset tags, or architecture notes from [INTERNAL_DOCS] into an advisory intended for distribution to customers or partners. Guardrail: Use separate retrieval pipelines for public and internal sources. Include a [ADVISORY_AUDIENCE] variable (internal, customer, partner) and instruct the model to redact or omit any internal-only context when the audience is external. Add a human review gate for any advisory marked for external distribution.
Evaluation Rubric
Criteria for evaluating the quality of a generated technical security advisory before it is shipped to users. Use these tests to catch hallucinated CVEs, stale data, and missing remediation steps.
| Criterion | Pass Standard | Failure Signal | Test Method |
|---|---|---|---|
CVE Reference Accuracy | All referenced CVE IDs are present in the provided [RETRIEVED_CONTEXT] and match the description. | A CVE ID is fabricated, or the description is hallucinated and does not match the source advisory. | Parse output for CVE patterns; for each, assert presence in [RETRIEVED_CONTEXT] with a substring match on the description. |
Affected Version Completeness | The output includes an 'Affected Versions' matrix that exactly matches the versions listed in the source advisories. | A version range is broadened, narrowed, or invented without source evidence. | Extract the version matrix; compare string distance against all version strings in [RETRIEVED_CONTEXT]. Fail if edit distance > 0 for any entry. |
Exploitability Assessment Grounding | The exploitability rating (e.g., 'Low', 'High') is explicitly supported by a CVSS vector string or a direct quote from the source. | The output assigns a severity or exploitability rating without citing a CVSS score or a vendor assessment. | Check for the presence of a CVSS vector or a direct quote immediately following the rating. Fail if neither is present. |
Remediation Prioritization Logic | Remediation steps are ordered by severity (CVSS score) and exploitability, with the highest-risk item first. | Remediation steps are listed in a random or alphabetical order that does not reflect risk priority. | Extract the list of remediation items and their associated CVEs. Verify that their order corresponds to a descending sort of the CVSS scores found in the context. |
Stale Data Flagging | If any source advisory is older than the [STALENESS_THRESHOLD_DAYS] input, the output contains a 'Data Freshness Warning' section. | An advisory older than the threshold is presented as a current, actionable item without a staleness warning. | Parse the |
Abstention on Missing Data | If the [RETRIEVED_CONTEXT] contains no relevant advisories, the output is exactly the string specified in [NO_DATA_RESPONSE]. | The model generates a generic security overview or fabricates a plausible-sounding advisory when no context is provided. | Provide an empty [RETRIEVED_CONTEXT] array. Assert the model output is an exact string match for the [NO_DATA_RESPONSE] constant. |
Output Schema Compliance | The output is valid JSON that parses without errors and contains all required fields: | The output is a Markdown block, plain text, or valid JSON that is missing a required field. | Run |
Confidence and Uncertainty Language | For any assessment based on a single source or a disputed advisory, the output includes a confidence qualifier such as 'Single-source assessment' or 'Conflicting advisories exist'. | A conclusion drawn from a single disputed source is stated as an absolute fact. | Provide context with a single source marked |
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Give teams answers from docs, tickets, runbooks, and product data with sources and permissions.
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Adapt This Prompt
How to adapt
Start with the base prompt and a single CVE feed. Use a simple [ADVISORY_QUERY] placeholder and a flat list of retrieved CVEs as [RETRIEVED_CONTEXT]. Skip strict output schema enforcement initially—focus on whether the model correctly identifies affected products and severity.
Prompt snippet
codeYou are a security advisory assistant. Using only the CVE records below, answer the question. [RETRIEVED_CONTEXT] Question: [ADVISORY_QUERY]
Watch for
- CVEs cited without version ranges
- Severity inflation when context is thin
- Model inventing exploit details not in the retrieved records

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.
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