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205,114 tools. Last updated 2026-06-16 04:11

"Apache Kafka" matching MCP tools:

  • Browse and filter exploits using STRUCTURED FILTERS ONLY (no free-text query). Use this to filter by source (github, metasploit, exploitdb, nomisec, gitlab, inthewild, vulncheck_xdb, patchapalooza, oscs, poc_monitor), language (python, ruby, etc.), LLM classification (working_poc, trojan, suspicious, scanner, stub, writeup, tool, no_code), author, min stars, code availability, CVE ID, vendor, or product. Also filter by AI analysis: attack_type (RCE, SQLi, XSS, DoS, LPE, auth_bypass, info_leak), complexity (trivial/simple/moderate/complex), reliability (reliable/unreliable/untested/theoretical), requires_auth. NOTE: To search by product name (e.g. 'OpenSSH', 'Apache'), use search_vulnerabilities instead — it has free-text query and get_vulnerability already includes exploits in the response. Examples: source='metasploit' for all Metasploit modules; attack_type='RCE' with reliability='reliable' for weaponizable RCE exploits; cve='CVE-2024-3400' for all exploits targeting a specific CVE; vendor='mitel' for all Mitel exploits.
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  • Record mocks for V1 repo-mode API tests using the V1-native CLI command `keploy sandbox local record`. Runs the dev's app under the keploy eBPF agent, drives the V1 chained-CRUD tests from `keploy/api-tests/<resource>/test.yaml`, captures every outbound call (DB queries, Redis ops, downstream HTTP) as mocks, and lays them out at `<app_dir>/keploy/<suite-name>/{tests/, mocks.yaml, config.yaml}` in the standard OSS test-set tree. On success, mocks upload to the Keploy canonical pool by content hash; the hash lands in config.yaml so a teammate's later replay fetches the same bytes. CRITICAL — DO NOT CONFUSE WITH `keploy record sandbox`: * `keploy sandbox local record` (V1, repo-mode) ← this is what the playbook below uses * `keploy record sandbox` (legacy, cloud-mode) ← DO NOT call this for V1 The two are entirely different commands. Cloud-mode requires server-side suites (queried via --suite-ids) — V1 repo-mode reads tests from the local filesystem and never registers them in the cloud. If the dev is in repo storage mode (verify via devloop_resolve_storage's source=persisted, mode=repo), V1 is the ONLY correct sandbox path. STRICT — TIME-FREEZING DOES NOT APPLY TO RECORD. Recording MUST use the dev's regular (prod) Dockerfile or native binary. NEVER spawn the app via Dockerfile.keploy / "-f docker-compose.keploy.yml" / "-tags=faketime" build during record. The faketime binary writes wrong timestamps into captured mocks (it reads time from the offset file, not the wall clock) and the entire capture becomes corrupt — recovery requires re-recording from scratch with the prod binary. If a previous replay failed with expired-JWT and the dev wants to "fix" it, the fix is to re-RUN the replay with --freezeTime, NOT to re-record. The recorded mocks captured against the prod binary are exactly what replay's clock-rewind is designed to validate; touching the record path defeats the whole mechanism. ONLY call this with an explicit dev opt-in. The valid triggers: * Dev directly asks ("capture mocks", "sandbox record", "rerecord the users mocks"). * Post-resource menu (Step 5 of devloop_generate_resource_flow) — dev picks "Capture mocks so CI runs in seconds". * get_session_report shows mock_mismatch_dominant=true AND the dev says yes to your "rerecord?" prompt. Pre-conditions: * Dev's app must NOT already be running (keploy spawns its own copy of the app under the agent's eBPF hooks via the -c command). If a server is up at the target port, KILL IT first or the agent's network capture won't see the traffic. * Real downstream deps (MySQL, Redis, Kafka, etc.) MUST be running — the capture proxies through to them on first contact so the recorded mocks contain real responses. * The test YAML must exist at <app_dir>/keploy/api-tests/<resource>/test.yaml. Returns a playbook for `keploy sandbox local record` with the V1 flag surface: --test-dir, --app-url, -c (spawn command), --container-name (docker-compose only), --skip-mock-upload (offline), --skip-report-upload (offline). Mocks land per-suite at keploy/<suite-name>/. NDJSON progress at --progress-file for the standard tail-til-done loop.
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  • Deploys a MULTI-CONTAINER app — a repo that ships a docker-compose.yml / compose.yaml (app + its own db/redis/worker containers) — onto ONE VM via podman-compose, and exposes ONE service at https://<name>-<id>.redu.cloud. Use this instead of deploy_app when the repo is a compose stack rather than a single Dockerfile. SAME prereqs + source modes as deploy_app: run check_deploy_prerequisites (network_id + keypair_name), then GIT (`repo`, +git_token for private) or UPLOAD (prepare_upload → source_token). PORT: pass the HOST port the exposed service publishes (the LEFT side of its `ports:` mapping) — redu probes + proxies that exact port; pass `service` to name which service it is (plan_deploy detects both). DB: 'compose' (default) uses the stack's own db service (self-contained); 'single_vm'/'managed' provision a Postgres/MySQL and APPEND its conn env (DATABASE_URL/PG*/MYSQL_*) to the project .env — your compose must REFERENCE those vars to use it (we never rewrite your compose file). Build+provision can take 4-40 min (it pulls/builds every service — heavy ClickHouse/Kafka stacks are slow); poll get_deployment until status='ready', and on failure read build_log (it captures podman-compose logs). TIPS: (1) prefer the project's PREBUILT published images — swap any `build:` block for the published `image:` tag (building from source on the VM is less reliable). (2) redu injects APP_URL/PUBLIC_URL (= the app's public URL) into the env — map the app's own URL/cookie-domain var (SERVER_URL/NEXTAUTH_URL/…) to ${PUBLIC_URL}. (3) multi-surface apps (dashboard + API on separate ports) → pass `expose:[{port,service},…]`, each gets its own URL. ALWAYS run plan_deploy first and confirm the plan + cost with the user.
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  • Returns copy-paste-ready fix recommendations (nginx, Apache, DNS, shell) for the issues found on a domain the caller has already paid for — either an active Monitor/Compliance subscription covering the domain, OR a purchased one-off Report for the domain. Each recommendation carries a stable issue_id, a priority (high/medium/low), a title, prose instructions, one or more config snippets with the target domain already interpolated, a verify command, and a category tag. Use this when the user asks how to fix an issue, wants the exact config to apply, or needs to verify a fix worked. Pass the optional issue_id to scope the response to one specific finding. The response is read-only — this tool NEVER triggers a fresh scan; fixes are computed from the most recent stored scan (including the Report-included re-scan if that was used). Do NOT use this for domains the caller hasn't purchased coverage for — you'll get an upgrade_required error that links to the pricing page. Do NOT use this to run or trigger a scan; call scan_domain for anonymous checks. Requires a valid API key.
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  • Record (or refresh) the sandbox test for one or more existing test suites — captures the request/response per step plus the outbound mocks (DB, downstream HTTP, etc.) against the dev's locally-running app, then links the captures onto the suite. Use this when the dev says "record", "rerecord", "re-record", "refresh the recordings", "capture mocks", or as the RECORD step in FROM-SCRATCH (after create_test_suite). This tool resolves the app (if only a hint is given), resolves ONE OR MORE suites to record (by exact ids OR case-insensitive name substring match), and delegates to a headless playbook. Output produces a RERECORD REPORT — it answers "did the sandbox test get created and linked successfully?". ╔═══ PRE-CHECK — DID YOU ARRIVE HERE FROM A FAILED REPLAY? ═══╗ This tool refreshes the CAPTURED BASELINE (mocks + recorded request/response per step). It does NOT modify the suite's authored assert array or response.body — those are the contract as defined when the suite was created/updated. If the contract changed and you re-record without updating the suite first, the new rerecord fires the suite's stale assertions against the live app, gate-1-fails on the same diff, and the suite comes back unlinked. Before calling THIS tool in response to a failed replay_sandbox_test or replay_test_suite, walk these checks: 1. Read failed_steps[].authored_assertions and authored_response_body in the most recent get_session_report (kind=sandbox_run / test_suite_run). The fields are inlined — no second tool call needed unless the report predates the inlined fields. 2. For each failing step: does any authored assertion pin the diverging value? (e.g. assert {path: "$.order.status", expected: "created order"} where the diff says "expected 'created order', got 'created'".) * YES → call update_test_suite FIRST to update that assertion + the response.body field, THEN call this tool. * NO → safe to call this tool directly; the captured baseline drifts but no authored assertion blocks the rerecord. 3. If you can't find authored_assertions in the report (older format) AND don't already know the suite's shape, call getTestSuite({app_id, suite_id, branch_id}) to inspect the assert array before deciding. Don't guess. REFUSE-RULE: if the dev confirms a contract change is intentional and the failing step has a pinned authored assertion on the diverging value, you MUST run update_test_suite before this tool. Calling record_sandbox_test FIRST in that case is the bug this pre-check exists to prevent — don't justify it as "let's just refresh the baseline first". The order is update → record → replay; never record → update. ╚═══════════════════════════════════════════════════════════════╝ ===== BEFORE CALLING — one-time setup ===== (a) APP_ID RESOLUTION (skip if app_id is already known): * Derive a likely app name from the cwd's basename (e.g. cwd=/home/dev/orderflow → "orderflow"). Lowercase it. * Call listApps({q: "<cwd-basename>"}) — the server does a case-insensitive server-side substring match, so you don't paginate the full tenant list (can be hundreds of apps on shared accounts). * Exactly one match → use its id. Multiple → list them and ASK the dev which one (a wrong app_id silently routes traffic + suite creates into the wrong app). Exception: if the compose file / repo layout unambiguously pins one candidate (e.g. compose has service "producer" and one candidate is "<folder>.producer" while others are unrelated siblings), you may pick it AND tell the dev up-front so they can correct. * Zero matches → ASK permission to create a new Keploy app with the derived name; on yes, call createApp({name, endpoint}) and use the returned id. * Alternatively pass app_name_hint to THIS tool and the server resolves it (same rules; multiple/zero → typed error). (b) KEPLOY BINARY VERIFICATION: * Bash: "keploy --version" (or "~/.keploy/bin/keploy --version"). If it exits non-zero the binary is missing. * If missing OR older than this MCP server was built against, install/upgrade: curl --silent -O -L https://keploy.io/ent/install.sh && source install.sh * Re-verify with "keploy --version"; fail loudly if still absent (tell the dev where keploy put the binary so they can add it to PATH). ===== DOCKER-COMPOSE NETWORK RULE (absolute) ===== Use the SAME compose file + service that was used in the validate-curl phase. Do NOT point keploy at a second "keploy-only" compose file — docker-compose isolates each file into its own project + network, so the app container spawned by keploy cannot reach the DB/Kafka containers that validate brought up (and the network-name collision blocks keploy from starting). Correct flow: (i) Validate phase: "docker compose up -d" (brings up app + deps on network <project>_default). (ii) Before calling record_sandbox_test, Bash: "docker compose stop <app_service> && docker compose rm -f <app_service>" — stop ONLY the app service; leave deps running so keploy's new app container can reach them on the existing network. (iii) Pass app_command = "docker compose up <app_service>" (same compose file, same project → same network). container_name = the actual name set by compose (e.g. "orderflow-producer", not "producer"). ===== RESOLUTION RULES (server-side, no guessing) ===== 1. App: caller provides app_id OR app_name_hint. With a hint, the server does listApps({q: hint}). Zero matches → typed error; multiple → typed error listing them so Claude asks the dev. 2. Suites: DEFAULT IS "ALL LINKED". When the dev says "record my sandbox tests" / "rerecord everything" / "refresh my recordings" with no specific suite named, LEAVE BOTH suite_ids AND suite_name_hint UNSET. Do NOT list suites first and pass a comma-joined UUID list back — the CLI resolves "every linked suite for the app" itself, cleaner and less brittle. Only pass a narrower selector when the dev explicitly names suites: - suite_ids (comma-separated, exact) — when you already have the IDs. - suite_name_hint (case-insensitive substring match) — when the dev names suites by human phrasing like "the auth suite" or "deterministic". Every suite whose name contains the substring is recorded. If the dev asks to record suites that don't exist yet (zero match) → typed error. Any ≥1 match is fine. DO NOT prompt the dev for which suites to record — default to all linked if they didn't name any. ===== DISCOVERY — when the dev hands you a bare suite_id with no app_id / branch_id ===== Suites live on a (app_id, branch_id) tuple. A bare suite_id has NO on-disk hint about which app or branch holds it; you have to RESOLVE both before calling this tool. Walk these steps in order — STOP as soon as getTestSuite returns 200: 1. Detect the dev's git branch: Bash `git rev-parse --abbrev-ref HEAD` in app_dir. If exit non-zero / output is "HEAD" → not a git repo / detached HEAD; ASK the dev for the Keploy branch name. 2. Resolve candidate apps via the cwd basename: Bash `basename $(pwd)` → call listApps with q=<basename>. Usually 1–2 candidates. If 0 → ASK; if >1 → walk every candidate in step 4. 3. For each candidate app, call list_branches({app_id}) and find the branch whose `name` matches the git branch from step 1. That gives you {branch_id}. If no match → not this app, try next. 4. Verify with getTestSuite({app_id, suite_id, branch_id=<from step 3>}). 200 → resolved; 404 → wrong app/branch, try next. 5. If steps 2–4 exhaust without a hit, walk every OPEN branch on each candidate app via list_branches → getTestSuite. Then try main (branch_id omitted). If still nothing → ASK the dev for the {app_id, branch_id} pair. The standard pattern when "search the suite by id" returns nothing is NOT "give up and ask the dev which app" — it's "the suite exists on a BRANCH, walk discovery". Suites created via create_test_suite + rerecord on a Keploy branch are INVISIBLE to a main-view listTestSuites; you have to scope each call to a branch. After resolving once in a session, REUSE the {app_id, branch_id} for any subsequent suite-targeted call (replay_sandbox_test, update_test_suite, replay_test_suite); don't re-walk discovery for every action. ===== PREREQUISITES ===== - app_command: shell command that starts the dev's app (e.g. "docker compose up producer"). - app_url: base URL the app listens on, e.g. http://localhost:8080. - app_dir: absolute path to repo root. - container_name if app_command is docker-compose. - keploy binary on PATH. If `which keploy` returns nothing, install it before calling this tool with: `curl --silent -O -L https://keploy.io/install.sh && source install.sh`. ===== AFTER CALLING — walk the playbook ===== The response includes a "playbook" array; execute its steps in order. The flow is HEADLESS — one background process, NDJSON progress events on a local file, no separate HTTP surface to bind. THERE IS NO SEPARATE CLEANUP STEP — the CLI exits on its own once phase=done is written. 1. Spawn the `keploy record sandbox --cloud-app-id …` process via Bash (run_in_background). Capture its PID into $KEPLOY_PID. 2. Poll progress by repeatedly calling Bash with `tail -n 1 $PROGRESS_FILE`. Each call returns instantly; the MCP round-trip between calls paces the loop. DO NOT wrap in a sleep loop — Claude Code's Bash rejects standalone `sleep N` and chained-sleep patterns. Read .phase off each line; stop when phase=done. The wait_for_done step's built-in `kill -0 $KEPLOY_PID` check is the safety-net for silent early-exit (CLI died before writing the terminal event) — it lets the loop exit instead of spinning forever on a dead process. 3. Read the terminal event (last line of $PROGRESS_FILE). It carries data.ok, data.error (on failure), data.test_run_id (on success). 4. On data.ok=true: call get_session_report(app_id, test_run_id) with verbose=true to surface the rerecord report. On data.ok=false: show data.error to the dev directly (optionally tail the log_file for stderr context) and SKIP get_session_report (there's no run to fetch). Auto-replay + linkTestSetToSuite run INSIDE the CLI process before it writes phase=done — if the terminal event says ok=true, linkage already happened. You do NOT need to wait for a separate post-success window; the CLI doesn't exit until it's fully done. INTERRUPTED FLOWS: if your conversation dies between step 1 and step 2 (Claude crashes, connection drops, dev cancels), the CLI keeps running in the background. It's not orphaned — it'll finish its run and write phase=done. To abort early, the dev can `pkill -f "keploy.*sandbox"` manually; otherwise just let it complete and resume by re-reading the progress file on the next turn. ===== NDJSON SCHEMA — the contract ===== Every line in the progress_file is one JSON object with this envelope: { "ts": "<RFC3339-nano>", "command": "record" | "test", "phase": "<phase-name>", "message": "<optional human-readable>", "data": { ... phase-specific ... } // optional } The phase vocabulary is intentionally extensible — new lifecycle phases get added over time as the CLI grows (started, agent_up, app_starting, suites_running_start, record_done, auto_replay_skipped, upload_done, linking_done, etc.). There are only TWO phases the AI must handle programmatically; everything else is informational and you should NOT switch on phase names you don't recognize: * phase != "done" → keep polling. Optional: surface message/data to the dev as ambient progress ("agent is starting...", "suites uploading..."), but never branch on a specific intermediate phase name. * phase == "done" → terminal event. Stop polling. The data envelope carries: - data.ok bool true on success, false on failure - data.error string (only on ok=false) one-line failure summary - data.test_run_id string (only on ok=true) pass to get_session_report - data.app_id string echo of the app_id passed to the tool - data.artifact_dir string local path to captured/replayed artifacts - data.dashboard_url string UI link to drill into the run If you observe a phase you don't recognize, IGNORE it and keep polling. If "done" itself is renamed by a future CLI version, the wait_for_done step's PID-alive guard is your safety net (the poll loop exits when the CLI dies); surface log_file contents to the dev. ===== "ALL SUITES FAILED CAPTURE" — special signal ===== If you see a `phase: "auto_replay_skipped"` event with `message: "all suites failed during rerecord; skipping replay + linking"` ahead of the terminal `done` event, every suite failed at the CAPTURE phase (before auto-replay even ran). The CLI fails closed in this case — auto-replay and suite linking are SKIPPED, so every per_suite entry comes back linked=false. Watch for this trap: the terminal `data.ok=true` because the CLI itself completed cleanly (it didn't crash; it just had nothing to record successfully). DO NOT read data.ok=true as "rerecord succeeded" — read `<linked>/<total>`. If linked == 0, this is a HARD failure that needs diagnosis, not a partial-linkage case. ALWAYS surface the dashboard URL on this case. The terminal `done` event still carries `data.dashboard_url` and `data.test_run_id` (atg's TestSuiteRun was created during the capture phase); emit them verbatim so the dev can drill into per-step failures in the UI: "0/N suites have a sandbox test — every suite failed during the capture phase, so auto-replay and linking were skipped. Dashboard: <data.dashboard_url> (test_run_id=<id>)" EDGE CASE: if `data.test_run_id` is empty, atg never inserted a TestSuiteRun (typically a pre-flight validation failure — branch-id rejection, app unreachable, etc.). The dashboard URL won't resolve. Skip the URL, surface the log_file contents instead so the dev can read the early-stage failure. Recovery is the same as WHEN linked=false below — read failed_steps for each suite and pick route B (fix code) / C (update suite + record again) / SKIP. Don't infra-retry; capture-phase failures across every suite usually mean the app is broken, the suite shapes are stale, or the dev's local app isn't reachable. ===== LINKAGE VERIFICATION ===== After get_session_report returns, for EVERY suite that went into this record, call getTestSuite({suite_id}) and check whether the suite has a sandbox test (linked=true / non-empty test_set_id). A suite without a sandbox test cannot be replayed — replay_sandbox_test will 400 on it with "no sandboxed tests" until a successful record produces one. ===== WHEN linked=false — recovery rules ===== A suite with linked=false after record_sandbox_test means the record process couldn't produce a sandbox test for that suite. The SUITE ITSELF still exists; it just has no sandbox test. Diagnose WHY by reading the rerecord report's failed_steps for that suite: * No failed_steps OR pure infra error (link-commit / upload failed, no step diverged) → call record_sandbox_test AGAIN scoped to just the unlinked suite_ids. The tool is idempotent on the suite; safe to re-run. * failed_steps with assertion diffs (response shape, body fields, status code shifted from what the suite expected) → the suite is stale relative to current app behavior. The CONTRACT changed: - Change is INTENTIONAL (new field, renamed key, different status code is the new normal) → call update_test_suite to update the affected step's response / assertions to match the new contract, THEN call record_sandbox_test on the updated suite. - Change is UNINTENTIONAL (app regressed) → fix the app code first, then call record_sandbox_test. No suite update needed; the original test was correct. * failed_steps with 500s / handler crashes / connection refused → the app is broken at the wire level. Fix the app, then call record_sandbox_test. Don't update_test_suite to absorb a real failure. NEVER: * Don't call create_test_suite to "redo" the suite — it already exists; re-creating authors a duplicate (see BEFORE CREATING in create_test_suite). * Don't blindly loop record_sandbox_test without diagnosing failed_steps first; if the cause is suite-vs-app mismatch, retries won't help. ===== MANDATORY OUTPUT — Phase 2 section ===== Your final message to the dev MUST contain a section with this exact heading (do NOT collapse into a single pass/fail table with the rerecord report; do NOT merge with Phase 1 or Phase 3): ### Phase 2 — Sandbox-test linkage **<linked>/<total> suites have a sandbox test** _Suites with a sandbox test_ | Suite name | suite_id | test_set_id | Capture pass/total | | --- | --- | --- | --- | | <name> | <suite_id> | <test_set_id> | <p>/<t> | (emit even if zero — one row per linked suite, or "_(none)_" in place of rows) _Suites without a sandbox test_ (omit ONLY if every suite linked) | Suite name | suite_id | Likely cause | | --- | --- | --- | | <name> | <suite_id> | gate1 / gate2 / infra | Likely-cause decoding: assertion diffs → gate 1 upstream-replay failure; upstream-passing + mock-replay-diff → gate 2 mock-determinism mismatch; zero failures + still unlinked → infra link-commit issue. Then proceed to replay_sandbox_test ONLY for the suites that DID link; the unlinked ones will 400 on replay. ===== DO NOT ===== * DO NOT fall back to raw keploy CLI (`keploy rerecord -t …`) if the MCP tool drops mid-flow — the CLI subcommand runs test-sets directly and does NOT update the suite's test_set_id. See MCP DISCONNECT RECOVERY in the top-level instructions.
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  • Provisions a managed ClickHouse database (OLAP / columnar analytics engine, Apache-2.0) on a dedicated VM on your private network — its OWN resource, NOT a relational database. Use it for analytics / observability workloads that need a column store (PostHog, Langfuse, event analytics, time-series). It is PRIVATE — reachable only from another instance on the same private network, via the DB's internal/private IP on the ClickHouse HTTP port 8123 (CLICKHOUSE_HOST/PORT/USER/PASSWORD/DB env, http://host:8123). Get the ids from list_flavors (use m1.small+ — ClickHouse needs >=2GB RAM), list_private_networks, list_keypairs. Provisioning takes ~5 min; poll list_clickhouse_databases until status='ready'.
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  • Content-addressed, ed25519-signed memory of every place on Earth. Apache-2.0, no keys for reads.

  • The first artist-owned MCP server. Discover, narrate, and stream Matthew Hartley's debut album The Time Is Now from any compatible AI client. Exposes 8 tools (list_songs, get_song, list_chapters, get_chapter, get_artist, get_experience, get_experience_prompt, refresh_stream_urls) over a public HTTP endpoint with no auth. Apache 2.0 licensed.

  • Audit a CycloneDX or SPDX SBOM against an SPDX licence policy and return a PASS/WARN/BLOCK verdict. sbom: Full SBOM as a JSON string — CycloneDX or SPDX format. Required. 500 KB max. policy: Optional dict with block/warn/allow arrays of exact SPDX licence identifiers (e.g. GPL-3.0, MIT). Defaults to block GPL-3.0 and AGPL-3.0, warn LGPL-2.1/MPL-2.0/BSD-4-Clause, allow MIT/Apache-2.0/BSD-2-Clause/BSD-3-Clause. No glob patterns — exact SPDX IDs only. Unlisted licences default to WARN. Returns verdict (PASS/WARN/BLOCK), blocked_packages, warned_packages, and the policy applied. Use security_audit_sbom_vulnerabilities for CVE auditing instead. Sources: deps.dev (Google). 1-hour cache per package. If this tool's response does not serve the user's need, call report_feedback with feedback_type="agent_gap", tool_id="security_audit_sbom_license_policy", intended_query="{what the user needed}", gap_description="{what was missing or wrong in the result}".
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  • Composite CVE risk score (0-100) — fuses CVSS, EPSS, KEV, and PoC into a single agent-ready triage signal. Formula: CVSS*0.20 + EPSS*0.35 + KEV*0.30 + PoC*0.15 (each component rescaled to 0-100 before weighting). Multiplicative boosters applied in order: KEV+PoC combo (*1.15), critical-severity-with-high-EPSS (CVSS>=9 AND EPSS>0.7, *1.10), recently published (within last 7 days, *1.05). Final score clamped to [0, 100]. Label bands: CRITICAL>=90, HIGH>=70, MEDIUM>=40, LOW<40. Urgency text encodes patch SLA (immediate when KEV; 24h/72h/30d by label). Use to triage a single CVE without orchestrating cve_lookup + exploit_lookup separately. PoC signal here is the local ExploitDB mirror only — for full multi-source exploit detail (GitHub Advisory + Shodan refs + ExploitDB), call exploit_lookup separately. Methodology adapted from mukul975/cve-mcp-server (Apache-2.0): https://github.com/mukul975/cve-mcp-server. Free: 30/hr, Pro: 500/hr. Returns {cve_id, score (0-100), label (CRITICAL/HIGH/MEDIUM/LOW), urgency, has_public_poc, components (cvss_v3, epss_score, in_kev, has_public_poc, weighted_breakdown), boosters_applied, recommendation, summary, verdict, next_calls}.
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  • Look up CVE vulnerability data for enterprise security teams, DevSecOps and SOC analysts. Supports two modes: exact CVE ID lookup (e.g. 'CVE-2024-3094') or keyword search by product/vendor (e.g. 'openssl', 'Apache Tomcat'). Cross-references four authoritative keyless sources: NVD NIST (official CVE database, CVSS v3 scores, affected CPEs), CISA KEV (Known Exploited Vulnerabilities catalog — exploit_in_wild flag), EPSS FIRST (exploit probability 0-1), GitHub Security Advisories (ecosystem-specific: npm/pypi/maven). Returns structured vulnerability records with CVSS v3 scores, affected product version ranges, CWE weakness classification, references and exploitation status. Signals engine produces P0/P1/P2 alerts: P0=CVSS>=9 + active exploitation, P1=CVSS>=7 or EPSS>=70%, P2=CWE pattern clusters. Relevant for EU NIS2 and DORA supply chain risk obligations. Optional env: NVD_API_KEY (raises NVD rate-limit 5→50 req/30s), GITHUB_TOKEN (raises GHSA GraphQL rate-limit). Cache TTL 6h. SLA <=25s p95.
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  • List pages in Redpanda API reference documentation. Returns endpoints, schemas, and topic pages with URL, title, type, and description. SCOPING (important for accurate results): - api="all" or omit: Lists all available APIs - api="admin": Cluster management operations (brokers, partitions, configs, users) - api="cloud-controlplane": Redpanda Cloud resource management (clusters, networks, namespaces) - api="cloud-dataplane": Cloud cluster data operations (topics, ACLs, connectors) - api="http-proxy": Kafka operations over HTTP (produce, consume, offsets) - api="schema-registry": Schema management (register, retrieve, compatibility) Use this to browse API structure. For general Redpanda docs, use ask_redpanda_question instead.
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  • Retrieve container logs (error, access, or PHP). Requires: API key with read scope. Args: slug: Site identifier log_type: "error" (Nginx/Apache errors), "access" (HTTP request log), or "php" (PHP-FPM errors, WordPress sites only) lines: Number of lines to retrieve (1–500, default: 100) search: Optional keyword filter — only lines containing this string Returns: {"log_type": "error", "lines": ["2024-01-15 ... error ...", ...], "count": 42, "truncated": false} Errors: NOT_FOUND: Unknown slug VALIDATION_ERROR: Invalid log_type or lines out of range
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  • Fetch the SPDX licence identifier for an open source package version. Read-only. No side effects. Idempotent. package: Package name e.g. flask. Required. version: Exact version string e.g. 2.3.0. Required. ecosystem: One of PyPI, npm, Maven, Go, Cargo, NuGet, RubyGems. Required. Returns the SPDX licence identifier e.g. MIT, Apache-2.0, GPL-3.0. Use this to verify licence compatibility before including a dependency. Use security_fetch_package_vulnerabilities instead when checking for security issues not licences. Verified source: deps.dev (Google). 1-hour cache. If this tool's response does not serve the user's need, call report_feedback with feedback_type="agent_gap", tool_id="security_fetch_package_licence", intended_query="{what the user needed}", gap_description="{what was missing or wrong in the result}".
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  • Look up CVE vulnerability data for enterprise security teams, DevSecOps and SOC analysts. Supports two modes: exact CVE ID lookup (e.g. 'CVE-2024-3094') or keyword search by product/vendor (e.g. 'openssl', 'Apache Tomcat'). Cross-references four authoritative keyless sources: NVD NIST (official CVE database, CVSS v3 scores, affected CPEs), CISA KEV (Known Exploited Vulnerabilities catalog — exploit_in_wild flag), EPSS FIRST (exploit probability 0-1), GitHub Security Advisories (ecosystem-specific: npm/pypi/maven). Returns structured vulnerability records with CVSS v3 scores, affected product version ranges, CWE weakness classification, references and exploitation status. Signals engine produces P0/P1/P2 alerts: P0=CVSS>=9 + active exploitation, P1=CVSS>=7 or EPSS>=70%, P2=CWE pattern clusters. Relevant for EU NIS2 and DORA supply chain risk obligations. Optional env: NVD_API_KEY (raises NVD rate-limit 5→50 req/30s), GITHUB_TOKEN (raises GHSA GraphQL rate-limit). Cache TTL 6h. SLA <=25s p95.
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  • Look up CVE vulnerability data for enterprise security teams, DevSecOps and SOC analysts. Supports two modes: exact CVE ID lookup (e.g. 'CVE-2024-3094') or keyword search by product/vendor (e.g. 'openssl', 'Apache Tomcat'). Cross-references four authoritative keyless sources: NVD NIST (official CVE database, CVSS v3 scores, affected CPEs), CISA KEV (Known Exploited Vulnerabilities catalog — exploit_in_wild flag), EPSS FIRST (exploit probability 0-1), GitHub Security Advisories (ecosystem-specific: npm/pypi/maven). Returns structured vulnerability records with CVSS v3 scores, affected product version ranges, CWE weakness classification, references and exploitation status. Signals engine produces P0/P1/P2 alerts: P0=CVSS>=9 + active exploitation, P1=CVSS>=7 or EPSS>=70%, P2=CWE pattern clusters. Relevant for EU NIS2 and DORA supply chain risk obligations. Optional env: NVD_API_KEY (raises NVD rate-limit 5→50 req/30s), GITHUB_TOKEN (raises GHSA GraphQL rate-limit). Cache TTL 6h. SLA <=25s p95.
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  • Analyse the HTTP security headers of any public URL. Grades each header (A–F) for: Strict-Transport-Security, Content-Security-Policy, X-Frame-Options, X-Content-Type-Options, Referrer-Policy, Permissions-Policy, X-XSS-Protection, Cross-Origin-Opener-Policy, Cross-Origin-Resource-Policy, and Cross-Origin-Embedder-Policy. Returns an overall score (0–100), per-header grades, missing headers, and fix snippets for Express, Nginx, and Apache. Use this to audit any website's HTTP hardening posture.
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  • Search the Exploit Intelligence Platform for vulnerabilities (CVEs). Returns a list of matching CVEs with CVSS scores, EPSS exploitation probability, exploit counts, CISA KEV status, VulnCheck KEV, InTheWild.io exploitation signals, and ransomware attribution. Supports full-text search, severity/vendor/product/ecosystem/CWE filters, CVSS/EPSS thresholds, plus any_exploited and ransomware filters. When sort is omitted, the API may automatically prefer newest exploitation, exploit, or nuclei-template activity based on the filters you set. Examples: query='apache httpd' with has_exploits=true; vendor='fortinet' with severity='critical' and is_kev=true sorted by epss_desc; any_exploited=true with ransomware=true for ransomware-linked CVEs; cwe='89' with min_cvss=9 for critical SQL injection CVEs.
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  • Get metadata + descriptors for one SPDX license id (e.g. "MIT", "Apache-2.0", "GPL-3.0-or-later").
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  • Look up a single OSV.dev advisory by ID. Accepts GHSA / CVE / PYSEC / RUSTSEC / GO / OSV / DSA / ALPINE / DEBIAN / UBUNTU and other documented identifier prefixes. License: Apache 2.0.
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  • Cross-ecosystem vulnerability advisory lookup via OSV.dev. Given an ecosystem (PyPI, npm, Go, crates.io, Maven, NuGet, RubyGems, Packagist, etc) and a package name (optional version), returns advisories affecting that package. License: Apache 2.0.
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  • Search CVEs by vendor with optional product and date range filters. Vendor is matched against the NVD CPE namespace, e.g. 'apache', 'microsoft'.
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