This prompt is designed for platform teams who treat prompts as production code and need a definitive, automated final gate before closing a deprecation window. The core job-to-be-done is confirming that a deprecated instruction version has zero residual references across all active agent configurations, in-flight session stores, and fallback or rollback paths. The ideal user is an SRE, a release engineer, or a platform operator responsible for the cleanup phase of an instruction deprecation. You should have already completed the prerequisite steps: issuing a formal deprecation notice, draining or migrating active sessions to the new instruction version, and updating all primary configuration stores. This prompt does not perform the removal or migration; it verifies that those steps were fully effective and identifies any lingering risk before you declare the deprecation complete.
Prompt
Deprecated Instruction Cleanup Verification Prompt

When to Use This Prompt
Determine if the Deprecated Instruction Cleanup Verification Prompt is the right tool for your current stage in the instruction lifecycle.
Use this prompt when you need a structured, evidence-backed report rather than a manual grep or a simple config check. It is appropriate when your system has multiple places where an instruction version ID could hide—such as a central agent config database, a Redis-backed session state store, a fallback chain defined in a deployment manifest, or a rollback snapshot in a CI/CD artifact repository. The prompt is designed to accept a list of these scan targets and a specific deprecated version identifier, then produce a verification report with a clear pass/fail status and a residual-risk inventory. For example, if you deprecated instruction-set/v2.3.1 and migrated all traffic to v2.4.0, you would provide the deprecated version string and a manifest of scan targets. The prompt will then flag any instance where v2.3.1 still appears, such as a sticky session in a long-running support chat or a fallback override in a regional deployment config.
Do not use this prompt if you are still in the active migration phase or if you have not yet attempted to remove the deprecated instructions. It is a verification tool, not a removal tool. It is also not a substitute for a migration dry-run or a compatibility check; use the dedicated Migration Dry-Run Simulation Prompt or the Instruction Compatibility Check Prompt for those earlier stages. If your system does not have a programmatic way to query session state or configuration, you will need to build that retrieval harness first—this prompt assumes the evidence is available to be scanned. Finally, if the deprecated instruction is tied to a regulated workflow that requires a formal audit trail, pair this prompt's output with the Instruction Audit and Traceability Prompt to produce a complete compliance record before closing the deprecation window.
Use Case Fit
Where the Deprecated Instruction Cleanup Verification Prompt works and where it introduces risk. Use this card grid to decide if this prompt fits your operational context before integrating it into a CI/CD or audit pipeline.
Good Fit: Post-Deployment Cleanup Verification
Use when: You have completed a rollout that removes deprecated instructions and need automated confirmation that no active configs, fallback paths, or session states still reference the old rules. Guardrail: Run this prompt as a gated step in your release pipeline before closing the deprecation ticket.
Bad Fit: Real-Time Session Interception
Avoid when: You need to block or rewrite deprecated instructions during live inference. This prompt is designed for asynchronous audit and verification, not for inline request rewriting. Guardrail: Use a routing or middleware layer for real-time interception; reserve this prompt for post-hoc or pre-release scanning.
Required Inputs: Agent Config Inventory
Risk: Incomplete or stale configuration inventories produce false negatives, leaving deprecated instructions undetected. Guardrail: Require a machine-generated manifest of all active agent configs, session state stores, and fallback instruction registries as input. Never rely on manual lists.
Operational Risk: Residual Reference Blind Spots
What to watch: Deprecated instructions may persist in prompt templates, few-shot examples, or tool descriptions that are not indexed in your primary config store. Guardrail: Expand the scan scope to include example banks, tool schemas, and static prompt fragments. Flag any unscanned surface in the residual-risk section of the report.
Operational Risk: False Confidence from Partial Scans
What to watch: A clean report can create a false sense of security if the verification scope was too narrow. Guardrail: The output must include an explicit scope declaration and a confidence score. Require human sign-off when confidence is below the team's threshold or when any config surface was unreachable during the scan.
Process Fit: Compliance Audit Trail Generation
Use when: You must produce evidence for internal or external reviewers that deprecated instructions were fully removed by a specific date. Guardrail: Store the verification report alongside the deployment record. Include the scan timestamp, scope, and reviewer identity to create a defensible audit artifact.
Copy-Ready Prompt Template
A reusable prompt template for verifying that deprecated instructions have been fully removed from all active agent configurations, session states, and fallback paths.
The following prompt template is designed to be dropped into a verification pipeline after a deprecation window has closed. It instructs the model to scan provided configuration artifacts, session state inventories, and fallback definitions for any trace of a specified deprecated instruction. The template uses square-bracket placeholders that your application must populate before each run. Do not use this prompt for real-time session interception or as a guardrail during active conversations—it is a batch verification tool meant for post-rollout cleanup audits.
textYou are a deprecated instruction cleanup verifier. Your task is to confirm that a specific deprecated instruction has been fully removed from all active agent configurations, session states, and fallback paths provided to you. ## DEPRECATED INSTRUCTION TO VERIFY [DEPRECATED_INSTRUCTION_ID] [DEPRECATED_INSTRUCTION_TEXT] ## ARTIFACTS TO SCAN ### Active Agent Configurations [AGENT_CONFIGS] ### Active Session State Inventory [SESSION_STATES] ### Fallback Path Definitions [FALLBACK_PATHS] ## VERIFICATION CRITERIA 1. Search each artifact for the exact instruction text, its instruction ID, and semantically equivalent rules that would produce the same behavior. 2. Flag any artifact that still contains the deprecated instruction, a close variant, or a rule that would override the deprecation. 3. For each flagged artifact, identify the specific location (config key, session field, fallback rule name) and the residual text found. 4. Assess whether the residual presence is active (will execute) or inert (present in audit logs or comments only). ## OUTPUT SCHEMA Return a JSON object with this exact structure: { "verification_id": "string", "deprecated_instruction_id": "string", "scan_timestamp": "string (ISO 8601)", "total_artifacts_scanned": number, "clean_artifacts": number, "residual_findings": [ { "artifact_type": "agent_config | session_state | fallback_path", "artifact_identifier": "string", "location": "string", "residual_text": "string", "match_type": "exact | semantic_variant | override_risk", "active_status": "active | inert | uncertain", "remediation_suggestion": "string" } ], "overall_status": "clean | residual_found | uncertain", "risk_flags": ["string"] } ## CONSTRAINTS - Do not hallucinate findings. If no residual is found, return an empty residual_findings array and overall_status "clean". - If you are uncertain about a match, set active_status to "uncertain" and add a risk_flag explaining why. - Do not modify any artifact. This is a read-only verification scan. - If an artifact is malformed or unreadable, flag it in risk_flags with the artifact identifier and reason.
To adapt this template, replace each placeholder with data from your configuration store, session database, and fallback registry. The [AGENT_CONFIGS] placeholder should receive serialized YAML or JSON blobs representing the current deployed configurations for every agent in scope. The [SESSION_STATES] placeholder expects a structured inventory of active session metadata—not full conversation transcripts—sufficient to identify which instruction versions are loaded. The [FALLBACK_PATHS] placeholder should contain the fallback rule definitions that would activate if a primary instruction is unavailable. Before wiring this into an automated pipeline, validate that the output JSON matches the schema exactly and add a post-processing step that quarantines any artifact flagged with active_status: "active" for immediate remediation.
Prompt Variables
Required inputs for the Deprecated Instruction Cleanup Verification Prompt. Each placeholder must be populated before the prompt can produce a reliable cleanup verification report.
| Placeholder | Purpose | Example | Validation Notes |
|---|---|---|---|
[DEPRECATED_INSTRUCTION_IDS] | List of deprecated instruction identifiers to verify as fully removed | ["v2.1-risk-scoring", "legacy-refusal-policy", "pre-migration-fallback"] | Must be a non-empty array of strings matching known instruction version IDs. Validate against the instruction registry before execution. |
[CONFIG_SOURCES] | Paths or references to all active agent configs, system prompts, and policy files to scan | ["prod/agents/risk-agent.yaml", "prod/policies/global-system-prompt.txt", "staging/fallback-config.json"] | Each source must be resolvable and readable by the scanning tool. Validate file existence and parseability before prompt execution. |
[SESSION_STATE_SOURCES] | Locations of active session state stores to check for in-flight sessions still referencing deprecated instructions | ["s3://session-store/prod/active/", "dynamodb:sessions:prod"] | Sources must be accessible with read permissions. Validate connection and schema before scanning. Null allowed if no session state exists. |
[FALLBACK_PATH_SOURCES] | References to fallback, rollback, and escalation configs that might contain stale instruction references | ["prod/fallback/rollback-v3.json", "prod/escalation/default-chain.yaml"] | Each fallback path must be parseable. Validate that fallback configs are not themselves deprecated. Null allowed if no fallback paths exist. |
[INSTRUCTION_REGISTRY] | Canonical source of truth for all current instruction versions to compare against | "prod/registry/instruction-manifest-v4.json" | Must be a single authoritative source. Validate registry completeness and version freshness before using as comparison baseline. |
[SCAN_DEPTH] | How exhaustively to search for residual references: surface, deep, or full-transitive | "full-transitive" | Must be one of: surface, deep, full-transitive. Surface checks config headers only. Deep follows includes and imports. Full-transitive traces all dependency chains. |
[RESIDUAL_RISK_THRESHOLD] | Confidence level below which a potential residual reference is flagged for human review | 0.85 | Must be a float between 0.0 and 1.0. Lower values produce more false positives. Higher values risk missing ambiguous references. Recommend 0.80-0.90 for production. |
[OUTPUT_FORMAT] | Desired structure for the verification report | "structured-json-with-evidence" | Must be one of: structured-json-with-evidence, summary-markdown, or ci-check-pass-fail. CI check format returns exit-code-compatible pass/fail only. |
Implementation Harness Notes
How to wire the Deprecated Instruction Cleanup Verification Prompt into a production-grade verification pipeline.
This prompt is designed to be run as a scheduled verification job, not a one-off manual check. Wire it into your CI/CD or release pipeline so that every instruction version bump triggers a cleanup scan. The prompt expects a structured inventory of all active agent configs, session states, and fallback paths. Feed it a JSON or YAML manifest generated by your configuration management system—never paste raw configs by hand. The output is a machine-readable cleanup verification report that your deployment gate can consume directly.
Input assembly: Build the [CONFIG_MANIFEST] placeholder by querying your agent registry, feature flag store, and session state database. The manifest must include: agent_id, active_instruction_version, deprecated_instruction_versions, session_count, fallback_instruction_version, and last_verified_timestamp. For [DEPRECATION_POLICY], supply your organization's deprecation window rules (e.g., "versions deprecated >30 days must have zero active sessions"). Validation layer: Before the model sees the manifest, run a structural validator that confirms every required field is present and that version strings match your semver pattern. Reject malformed manifests at the application layer—don't make the prompt debug your data.
Model selection and retries: Use a model with strong structured output discipline (GPT-4o, Claude 3.5 Sonnet, or equivalent). Set temperature=0 and enforce the output schema with your model provider's structured output mode or a post-processing JSON schema validator. If the output fails schema validation, retry once with the validation error appended to [CONSTRAINTS]. If it fails twice, escalate to a human operator with the raw manifest and both failed attempts. Logging: Capture the full prompt, manifest, output, and validation result to your observability platform. Tag each run with instruction_version and cleanup_run_id for traceability. Human review gate: If the report flags any residual_risk: true entries, block the deployment and route the report to the platform team's review queue. Do not auto-resolve residual risks.
Tool integration: This prompt works best when paired with a configuration scanner tool that the model can call to verify its findings. Define a verify_config tool that accepts an agent_id and instruction_version, then returns the live config state. The prompt's [TOOLS] placeholder should include this tool definition. The model should use it to confirm suspected residual references before flagging them. Avoid: Do not give the model write access to your config store. This is a read-only verification prompt. Any cleanup actions must happen through your standard change management process, not through model-initiated tool calls.
Expected Output Contract
Defines the fields, types, and validation rules for the cleanup verification report. Use this contract to build a post-processing validator before the report reaches a dashboard or reviewer.
| Field or Element | Type or Format | Required | Validation Rule |
|---|---|---|---|
report_id | string (UUID v4) | Must match UUID v4 regex; reject if missing or malformed | |
scan_timestamp | string (ISO 8601 UTC) | Must parse as valid ISO 8601; must be within 5 minutes of system clock at validation time | |
target_config_scope | string (enum) | Must be one of: agent_configs, session_states, fallback_paths, all_active_configs | |
deprecated_instruction_id | string | Must match pattern DEP-[0-9]{4}; reject if not found in known deprecation registry | |
cleanup_status | string (enum) | Must be one of: fully_removed, partially_removed, still_present, verification_failed | |
residual_instances | array of objects | Each object must contain config_path (string), detected_fragment (string), and last_observed (ISO 8601); array may be empty if fully_removed | |
fallback_path_checked | boolean | Must be true or false; if target_config_scope includes fallback_paths, must be true | |
residual_risk_level | string (enum) | Must be one of: none, low, medium, high, critical; if cleanup_status is still_present, must be medium or higher | |
verification_evidence | array of strings | Each entry must be a non-empty string; minimum 1 entry if cleanup_status is fully_removed or partially_removed; entries must reference specific config paths or session IDs checked | |
recommended_action | string | If present, must be non-empty; required when residual_risk_level is medium or higher; must contain actionable next step, not generic advice |
Common Failure Modes
When verifying deprecated instruction cleanup, these failures surface first in production. Each card pairs a common breakage with a concrete guardrail to catch it before it reaches users.
Zombie Instructions in Fallback Paths
What to watch: Deprecated instructions removed from primary configs still live in error-handling fallbacks, retry paths, or degraded-mode prompts. When the system hits an error, it resurrects old behavior. Guardrail: Scan all fallback and retry prompt templates separately. Add a deprecated_instruction_id field to every prompt config and reject any deployment where a deprecated ID appears in any path, not just the happy path.
Session State Carrying Stale Instructions
What to watch: Active sessions initialized before the deprecation still hold the old system prompt in their conversation history. The model continues following deprecated rules because they're baked into the context window. Guardrail: Run a session inventory query filtering for created_at < deprecation_cutoff AND status = active. Flag these sessions for migration or forced re-initialization. Never assume config updates propagate to in-flight sessions.
Partial Cleanup Across Agent Fleet
What to watch: The deprecated instruction is removed from agent A but still referenced in agent B's handoff prompt, tool description, or shared instruction library. Multi-agent systems create hidden coupling. Guardrail: Build a cross-agent instruction dependency map before cleanup. After removal, run a fleet-wide grep for the deprecated instruction ID or signature phrase. Treat any hit as a block for declaring cleanup complete.
Silent Substitution Without Behavioral Equivalence
What to watch: A deprecated instruction is replaced by a newer one that looks equivalent but changes edge-case behavior—different refusal thresholds, altered tool permissions, or shifted output formats. Guardrail: Run the substitution through a regression test suite comparing outputs on a golden dataset before and after the swap. Flag any output diff that isn't purely cosmetic. Require explicit sign-off for behavioral deltas.
Cleanup Verification Blind to Dynamic Configs
What to watch: The verification scan checks static config files but misses instructions loaded from feature flags, A/B test buckets, database rows, or runtime-injected context. Deprecated rules survive in dynamic sources. Guardrail: Inventory all instruction sources—static files, databases, feature flags, remote config, and session injection points. Verify each source independently. Add a runtime assertion that logs a warning if a deprecated instruction ID is ever loaded into a prompt.
False Clean Report from Cached Prompts
What to watch: The cleanup verification runs against source-of-truth configs and reports success, but the model-serving layer is still using a cached version of the old prompt. Production behavior doesn't match the verification result. Guardrail: After config cleanup, force a prompt cache invalidation or version bump. Sample live production prompts post-deployment and confirm the deprecated instruction is absent from actual model requests, not just config stores.
Evaluation Rubric
Use this rubric to evaluate the quality of the Deprecated Instruction Cleanup Verification Prompt's output before shipping. Each criterion targets a specific failure mode common in cleanup verification reports.
| Criterion | Pass Standard | Failure Signal | Test Method |
|---|---|---|---|
Config Scan Completeness | Report lists all active config sources (agent configs, session states, fallback paths) and explicitly states whether each was scanned. | Missing config sources; vague language like 'all configs checked' without enumeration. | Schema check: verify the [CONFIG_SOURCES] array in output contains all expected source types from the input manifest. |
Deprecated Instruction Identification | Every instance of a deprecated instruction is flagged with its exact location (file, session ID, config key) and the deprecated text. | False negatives (missed deprecated instructions); location described as 'somewhere in the system'. | Golden dataset test: inject known deprecated strings into a test config set and verify 100% recall. |
Residual Risk Flagging | Report includes a [RESIDUAL_RISK] section that flags any configs that could not be scanned, were inaccessible, or returned ambiguous results. | No residual risk section; or risk section is empty when scan coverage is less than 100%. | Logic check: if [SCAN_COVERAGE] < 1.0, [RESIDUAL_RISK] must contain at least one entry. |
False Positive Control | Report distinguishes between deprecated instructions and similar-but-current instructions, with a confidence score for each match. | Current instructions flagged as deprecated; confidence scores missing or all set to 1.0. | Adversarial test: include near-miss strings that differ by one word from deprecated instructions and verify they are not flagged. |
Fallback Path Coverage | All defined fallback paths are explicitly checked for stale instruction references, with results per path. | Fallback paths listed but not checked; or fallback paths omitted entirely from the scan. | Schema check: [FALLBACK_PATHS] array length must match the number of fallback paths in the input configuration. |
Session State Handling | Active sessions containing deprecated instructions are listed with session IDs, user impact assessment, and migration urgency. | Active sessions ignored; or sessions listed without any indication of whether they are still in flight. | Integration test: provide a mock session store with known deprecated sessions and verify all are reported with correct IDs. |
Actionable Remediation Output | Each finding includes a specific remediation action (remove, migrate, lock, monitor) and the target location. | Findings with no remediation; or generic advice like 'clean up deprecated instructions'. | Schema check: every item in [FINDINGS] must have a non-null [REMEDIATION_ACTION] field from the allowed enum. |
Report Structure Validity | Output strictly conforms to the defined [OUTPUT_SCHEMA] with all required fields present and correctly typed. | Missing required fields; extra untyped fields; malformed JSON that passes a lenient parser but fails strict validation. | Automated schema validation: parse output with a strict JSON schema validator and reject on any deviation. |
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Adapt This Prompt
How to adapt
Add structured output schema, retry logic, and eval assertions. Wire the prompt into a CI/CD pipeline that runs on every config change. Include a residual_risk flag and require human sign-off for any HIGH risk finding.
codeFor each [AGENT_ID] in [AGENT_INVENTORY]: Scan active_config, session_state_snapshot, and fallback_config. Return [OUTPUT_SCHEMA] with deprecated_id, location_type, line_ref, context_snippet, risk_level. If any risk_level == HIGH, set requires_human_review: true.
Watch for
- Silent format drift when the model changes JSON field names
- Stale agent inventories missing newly deployed configs
- False confidence when deprecated instructions appear in compressed or encoded form

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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