securevector-ai-monitor 4.8.0

Real-time AI threat monitoring. Protect your apps from prompt injection, leaks, and attacks in just a few lines of code.

SecureVector

Security & Observability for AI Agents

Audit every tool. Catch the threats. All locally.

• Secures tool calls and LLM traffic — locally. Allow / deny / ask, enforced at agent runtime via native plugins, framework SDKs, or the multi-provider proxy. Nothing leaves your machine.
• Tamper-evident audit chain — every tool call appended to a SHA-256 hash-chained log, verifiable from the Tool Activity tab.
• 72 detection rules + Guardian ML — OWASP LLM Top 10 + 28 agent-attack chains (prompt injection, jailbreaks, credential exfiltration, PII). An offline ML model catches obfuscated/encoded attacks regex misses — sub-millisecond, fail-open. Details ↓
• Token + cost tracking — per-agent, per-model spend in real time.
• Apache 2.0, no signup — pip install and you're covered in 60 seconds.

Works with every agent

Agent / runtime	How to add	Audit runtime_kind
Claude Code	Native plugin — inline hooks, zero proxy	claude-code
OpenAI Codex (CLI 0.133+)	Native plugin	codex
GitHub Copilot CLI	Native plugin	copilot-cli
Cursor	Native plugin	cursor
OpenClaw / ClawdBot	Native plugin	openclaw
LangChain	SDK — securevector-sdk-langchain (pip install)	langchain
LangGraph	SDK — securevector-sdk-langgraph (pip install)	langgraph
CrewAI	SDK — securevector-sdk-crewai (pip install)	crewai

Native plugins enforce inline (zero proxy); SDKs secure tool calls — all on one enforcement core, so a single tool_id="Bash" rule covers Bash on Claude Code, exec_command on Codex, and shell calls on Cursor & OpenClaw. SDK modes: observe logs (tool runs), enforce blocks. Install from the Integrations tab.

Also supported for LLM traffic (no per-agent runtime_kind attribution): the multi-provider proxy — Ollama · n8n · any OpenAI-compatible app via OPENAI_BASE_URL; the MCP server — Claude Desktop & other MCP clients (pip install securevector-ai-monitor[mcp]); and a raw POST /analyze for any HTTP client. MCP tools invoked from a plugged-in harness are attributed to that harness's runtime_kind.

Website · Getting Started · Verify your install · Discord · Dashboard Screenshots

▶ Watch the Demo

Threat detection, tool permissions, and cost tracking — running locally in real time.

What's new in v4.8.0

• Framework SDKs for LangChain, LangGraph, and CrewAI — pip-installable middleware/tool wrappers that secure tool calls and stream them onto the Agent Map by runtime_kind (see the "Works with every agent" table above).

What's new in v4.7.0

• Fleet management (cloud accounts, optional) — fleet-wide Agent Maps + Agent Runs for devices enrolled via a mint token (SVET); opt-in and metadata-only. Non-enrolled (local-only) installs forward nothing.
• SecureVector Guard for Cursor — native plugin + hooks for the Cursor agent (see the plugins table above).

Full release history in the CHANGELOG.

How It Works

SecureVector protects your AI agents at three layers:

• Pre-install — the Skill Scanner analyzes agent skill packages for shell access, network calls, and hidden risks before you install them
• Runtime — audits every tool call to a SHA-256 hash-chained log, and scans prompts, responses, and natural-language tool inputs (WebFetch / Skill / Task / Agent prompts) for injection attacks, data leaks, and unauthorized access. Shell command bodies and file content are audited but not threat-scanned — that scope mismatch produced false positives, see the v4.2.0 notes above.
• Observe — the SIEM Forwarder ships every threat + tool-call audit to your SOC in OCSF 1.3.0 format (Splunk HEC, Datadog, Microsoft Sentinel, Google Chronicle, IBM QRadar, OTLP, generic webhook, or a local NDJSON file) so AI events correlate with your existing security signals. Metadata-only by default; raw data is opt-in per destination.

For OpenClaw, the native plugin runs inside the agent with zero latency. For other frameworks, the multi-provider proxy intercepts traffic. 100% local — events only leave the machine when you configure a SIEM destination you control.

The Problem	The Fix
AI agents are powerful — and completely unprotected. Every prompt your AI agent sends, every secret it handles, every piece of user data — goes straight to the LLM provider with nothing in between. No spend limit. No injection protection. No audit trail. You're flying blind.	SecureVector runs on your machine. For OpenClaw/ClawdBot, the native plugin handles everything — zero latency, no proxy overhead. For LangChain, CrewAI, and other frameworks, the multi-provider proxy routes traffic across OpenAI, Anthropic, Ollama, and more. It blocks threats, enforces tool permissions, and hard-stops agents that blow their budget. 100% local. No accounts.

Quick Start

Step 1 — Install or download

pip install securevector-ai-monitor[app]
securevector-app --web

Or download the app: Windows · Linux · DEB · RPM · macOS

Step 2 — Open the app

Open http://localhost:8741 in your browser, or double-click the installed binary.

Step 3 — Connect your agent

OpenClaw / ClawdBot (plugin, zero latency)	LangChain, CrewAI, Ollama, n8n (proxy)
Observability & Monitoring — Go to Integrations → OpenClaw, click Install Plugin, restart OpenClaw. Done. No proxy, no env vars.	Observability & Monitoring — Go to Integrations, pick your framework, click Start Proxy, and set the env var shown on the page.

Block Mode (only if you want to enforce blocking) — Toggle Block Mode on the dashboard. The proxy starts automatically and blocks threats before they reach the LLM. Adds ~10–50ms latency per request. Applies to both plugin and proxy integrations.

If the app fails to launch because ports 8741/8742 are already in use, use --port <port> of your choice — the proxy starts automatically on port+1. See Configuration for proxy or web/api port settings.

Open-source. 100% local by default. No API keys required.

Screenshots

All screenshots are from a local app instance.

🗺️ New in v4.5.0 — Agent Map & Runs

Agent Map — your whole fleet at a glance: device → harness → agent → tool, across tree / radial / mesh / Sankey views. Blocked calls pop red, secret-touching agents wear a lock. Click any node to drill into its run.

Agent Runs — a turn-by-turn trace of every tool call with its allow / block verdict, risk, and reason. Here a prompt-injection and a credential-exfiltration attempt are both caught and blocked.

Tool Call History — 305 calls, 158 blocked: bash rm -rf, gmail_send to attacker, use_aws_cli stopped

Dashboard — threat counts, cost metrics, and tool permission status

LLM Cost Tracker — per-agent spend, budgets, and token breakdown

Skill Scanner — static security analysis for AI agent skills

What You Get

Tool Audit & Permissions	Threat Detection
Every tool call is recorded into a SHA-256-linked audit log — tamper-evident, verifiable from the Tool Activity tab's Re-verify audit chain button (or via the /api/tool-permissions/call-audit/integrity endpoint). Each row stores a 200-char preview of the tool input AFTER secret redaction (sk-/pk-, GitHub PAT, AWS AKIA, JWT, labelled credential kv-pairs) — raw payloads are never persisted. Queryable per agent / per device / per runtime. Allow / deny / ask rules per tool are enforced at the agent runtime via PreToolUse hooks (Claude Code, OpenAI Codex, OpenClaw) or the multi-provider proxy. UI Block clicks deny calls everywhere, not just on the proxy.	Audits every tool call to the hash chain. Scans every prompt, response, and natural-language tool input (WebFetch / Skill / Task / Agent prompts) for prompt injection (direct and indirect), jailbreaks, PII leaks, credential exfiltration, and tool-result injection. 72 detection rules covering the OWASP LLM Top 10 + 28 agent-attack chains. Shell command bodies and file content are audited but not threat-scanned — the community rule pack was designed for LLM prose and produced false positives on shell syntax. Monitor-by-default; opt-in block mode for hard-stop.
Skill Scanner	Cost & Token Tracking
Scan agent skills and tool packages before installing. Static analysis across 10 categories detects shell access, network calls, env var reads, code exec, base64 payloads, symlink escapes, and more. Optional AI review filters false positives automatically.	Per-agent, per-model token and USD spend in real time. Daily budget limits with auto-stop. Both the Claude Code plugin and the OpenAI Codex plugin read session transcripts locally (CC: ~/.claude/projects/*.jsonl; Codex: ~/.codex/sessions/*/*/*/rollout-*.jsonl) to surface input / output / cache tokens with a 7-day trend chart per runtime — no cloud round-trip, no token data leaves your machine.
SIEM Forwarder	Full Visibility
Forward every threat + tool-call audit to your SOC in OCSF 1.3.0. Supports Splunk HEC, Datadog, Microsoft Sentinel, Google Chronicle, IBM QRadar, OpenTelemetry/OTLP, generic webhook, or a local NDJSON file. Metadata-only by default; raw data is opt-in per destination.	Live dashboard showing every LLM request, tool call, token count, and threat event. Per-agent Replay timeline merges threat scans + tool audits + cost into one feed.
100% Local by Default
Runs entirely on your machine. No accounts required. No data leaves your infrastructure unless you configure a SIEM destination. Open source under Apache 2.0.

Performance: Rule-based analysis (default) adds ~10–50ms per request. Optional AI analysis adds 1–3s depending on the model and provider — shown on the dashboard so you can measure it against your actual traffic. Tool-permission decisions (allow / block / log_only): see the Tool Permissions guide.

Works With Everything

Your AI Stack — LangChain · LlamaIndex · CrewAI · AutoGen · LangGraph · n8n · Dify · OpenClaw/ClawdBot — or any framework that makes HTTP calls to an LLM provider.

LLM Providers — OpenAI · Anthropic · Ollama · Groq · and any OpenAI-compatible API.

Run Anywhere — macOS / Linux / Windows · Docker & Kubernetes · AWS / GCP / Azure · VMs · Lambda / Workers / Vercel.

Agent Integrations

Agent/Framework	Integration
LangChain	securevector-sdk-langchain (tool-call SDK, recommended) or LLM Proxy
LangGraph	securevector-sdk-langgraph (tool-call SDK, recommended) or LLM Proxy
CrewAI	securevector-sdk-crewai (tool-call SDK, recommended) or LLM Proxy
Any OpenAI-compatible	LLM Proxy — see Integrations in UI
OpenClaw / ClawdBot (LLM gateway agent)	Native plugin (zero latency) — proxy only for block mode
n8n	Community Node
Claude Desktop	MCP Server Guide
Any OpenAI-compatible app	LLM Proxy — set OPENAI_BASE_URL to proxy
Any HTTP Client	POST http://localhost:8741/analyze with {"text": "..."}

OpenClaw / ClawdBot

Native plugin with ZERO latency — runs inside the agent, no proxy needed. Install from the Integrations tab or curl -X POST http://localhost:8741/api/hooks/install. Enable block mode from the dashboard when you want to actively stop threats via proxy.

Full setup guide

Claude Code

First-class plugin for Anthropic's Claude Code CLI — PreToolUse enforces tool-permission rules (allow / deny / ask, cloud-syncable), PostToolUse writes a tamper-evident audit row + scans prose tool inputs, UserPromptSubmit catches direct prompt-injection. Optional one-line statusline emitter surfaces live findings next to model / cwd / git state. Loopback-only, fail-open.

Install — two options:

# Option A: via the app UI
# Open http://127.0.0.1:8741 → Integrations → Claude Code → Install Plugin

# Option B: via CLI
securevector-app --install-plugin claude-code
# Uninstall: securevector-app --uninstall-plugin claude-code

# Then, in your Claude Code session:
/reload-plugins

Full setup guide

What It Detects

Input Threats (User to LLM)	Output Threats (LLM to User)
Prompt injection	Credential leakage (API keys, tokens)
Jailbreak attempts	System prompt exposure
Data exfiltration requests	PII disclosure (SSN, credit cards)
Social engineering	Jailbreak success indicators
SQL injection patterns	Encoded malicious content
Tool result injection (MCP)	—
Multi-agent authority spoofing	—
Permission scope escalation	—

Full coverage: OWASP LLM Top 10

AI Agent Attack Protection (28 new rules · 72 total)

Built from real attack chains observed against production agent frameworks:

• Tool Result Injection — injected instructions hidden inside MCP tool responses
• Multi-Agent Authority Spoofing — impersonating trusted agents in multi-agent pipelines
• Permission Scope Escalation — agents requesting more permissions than granted
• MCP Tool Call Injection — malicious payloads delivered through MCP tool calls
• Evasion techniques (22 rules) — zero-width characters, encoding tricks, roleplay framing, leetspeak, semantic inversion, emotional manipulation, and more

Optional ML Detection Layer — SecureVector Guardian

Alongside the 72 regex rules, the app ships an optional ML detection layer — SecureVector Guardian, a stdlib-only semantic threat classifier. It runs in parallel with the rule engine and catches obfuscated, paraphrased, buried, or encoded attacks that literal patterns miss, folding its verdict into the same allow / alert / block decision. The model is fully local and runs offline — no cloud round-trip, no prompt text leaves your machine.

Install — comes with the app. Guardian is the securevector-guardian-model package, installed automatically as a dependency: pip install securevector-ai-monitor[app] pulls it in (pure Python, zero ML dependencies). pip install -U securevector-guardian-model + restart updates the model independently of app releases, and the loaded version is shown in Settings → Guardian ML Detection. The model runtime (~1.8 MB) is fetched once on first use and cached locally for offline use thereafter; for air-gapped installs, pre-place it and point SV_GUARDIAN_RUNTIME at the file.

On by default. Toggle it from Settings → Guardian ML Detection (default ON), or force it off globally with the SECUREVECTOR_ML_ENABLED=false environment flag. With Guardian disabled the regex rules keep running unchanged, and the layer is fail-open — any model error silently falls back to rules-only so it never breaks the analyze path.

What to expect when it's on. The model is pure Python (zero dependencies, no GPU, no network), so it runs on any machine. It analyzes in parallel with the regex rules, adding roughly ~0.15 ms per typical analysis (a prompt, tool call, or response — sub-millisecond), a few ms for ~1 KB of text, and up to ~100 ms only for very large documents (bounded, never unbounded). One-time startup is ~200 ms + ~34 MB RAM. Older/slower CPUs scale proportionally, but everyday inputs stay sub-millisecond. Full benchmark: model performance.

Device Identity

Every scan and audit row is stamped with a stable device_id so a customer running SecureVector across several laptops or agents can answer "which agent blocked this, which laptop is tampered, which machine spent what?" — not just "one of my installs did this".

Why we need it. A solo developer runs one install. A SOC team runs five to fifty. When an audit chain breaks, or a spike of blocked gmail-send calls shows up, the useful first question is which machine. Without a per-device tag, the answer is "some install" — which is useless in a fleet. device_id pins every row to a specific machine so dashboards, alerts, and compliance reviews can slice by device.

How it's generated (src/securevector/app/utils/device_id.py):

1. Read the OS's existing stable machine identifier:
   • macOS → IOPlatformUUID via ioreg
   • Linux → /etc/machine-id (fallback /var/lib/dbus/machine-id)
   • Windows → HKLM\SOFTWARE\Microsoft\Cryptography\MachineGuid
2. SHA-256 hash it with a namespace prefix (securevector-device-v1:<raw>) and truncate to 24 hex chars → sv-a1b2c3d4e5f6...
3. Cache the result in ~/Library/Application Support/ThreatMonitor/.device_id (0o600) so the OS fetch happens once per install.
4. If the OS refuses (rare: locked-down container, unusual Linux image), fall back to a random UUID cached to the same file.

Stability across reinstalls. The OS identifier outlives the app install — so uninstalling and reinstalling SecureVector on the same machine gives you the same device_id. Wiping the app data dir AND having no readable OS ID is the only combination that generates a new one. A new physical machine always gets a new ID.

Security / privacy posture — what the customer should know:

Concern	Reality
Is the raw OS machine UUID transmitted?	No. It's read locally, SHA-256 hashed with a namespace, and only the hash is stored. The raw value never reaches a log file or outbound event.
Can device_id be reversed to the OS UUID?	SHA-256 is one-way. An attacker who already has the raw OS UUID can compute the device_id — but they already have the machine at that point, so there's no incremental leak.
Does it track users?	No. It tracks machines. Multiple users on one laptop share one device_id. It's not tied to email, username, or any identity field.
Is it sent to SecureVector Cloud?	Only if Cloud Connect is on AND you trigger an action that reaches the cloud (rule sync, cloud-routed /analyze). device_id goes in metadata alongside scan results. You can opt out by keeping Cloud Connect off — local-only operation never transmits it.
Is it in SIEM forwards?	Yes, when the v4.0+ SIEM forwarder is enabled — travels inside each OCSF event's unmapped block so your Splunk/Datadog can group by device.
Can the customer reset it?	Yes — delete .device_id in the app data dir. Next write will regenerate from the OS identifier (so same ID reappears) OR a fresh random UUID if the OS ID is unavailable.
Does it collide across containers cloned from the same image?	Potentially yes (they share /etc/machine-id). Not relevant for desktop use; mention it if you're deploying in Kubernetes.

In one sentence: device_id is a machine-identifier-per-install, derived locally, hashed before storage, never transmitted except with explicit user opt-in (Cloud Connect or SIEM Forwarder).

SIEM Forwarder

Stream every threat detection and tool-call audit into your own SIEM — Splunk HEC, Datadog, Microsoft Sentinel, Google Chronicle, IBM QRadar, an OpenTelemetry collector, a local NDJSON file, or any HTTPS endpoint that accepts JSON. Your data, your pipes.

Why this is safe to ship with zero monetization:

Feature	What leaves your machine
Scan verdict	scan_id, verdict, threat_score, risk_level, detected_types[], counts, durations
Tool-call audit	seq, action, risk, prev_hash, row_hash (the chain witness — lets your SIEM verify integrity)
Never transmitted	Prompt text, LLM output, matched patterns, reviewer reasoning, model reasoning

The allow-list is enforced at enqueue time by _assert_metadata_only(). Even if the forwarder code were tampered with, it can't add the forbidden fields back.

Supported destinations (one code path, OCSF 1.3.0 payload):

Kind	Target	Auth header
splunk_hec	https://<host>/services/collector/event	Authorization: Splunk <HEC-token>
datadog	https://http-intake.logs.<site>/api/v2/logs	DD-API-KEY: <key>
otlp_http	https://<collector>/v1/logs	optional Authorization: Bearer <token>
webhook	anything that accepts JSON POST	optional Authorization: Bearer <token>

Configure in Connect → SIEM Forwarder. Add SIEM destination → pick type → paste URL + token → Test → Save. Tokens are stored 0o600 in the app data dir, never in SQLite.

📊 Starter dashboards included:

Platform	Template
Microsoft Sentinel	docs/siem/sentinel/securevector-workbook.json
Splunk	docs/siem/splunk/securevector-dashboard.xml
Datadog	docs/siem/datadog/securevector-dashboard.json
Grafana (Loki)	docs/siem/grafana/securevector-dashboard.json

Each carries severity counters, events-over-time by severity, actor and MITRE-ish breakdowns, and a recent-high-severity log feed. MIT-licensed, AS-IS. Full install steps + field reference in docs/siem/README.md; trademark + upstream licenses in docs/siem/NOTICE.

Starter templates — import-test in your own stack and adjust queries / facets / sourcetypes before relying on them for production detections.

Reliability:

• Per-destination outbox with at-least-once delivery.
• A failing Datadog destination never blocks a healthy Splunk one.
• Per-destination circuit breaker backs off broken endpoints (1 min → 1 hour cap).
• Rows that fail 10 times are dropped (the health view shows the consecutive-failure count).

SIEM-side integrity verification. Every forwarded tool-call audit row carries its prev_hash and row_hash. Run a nightly search in your SIEM that rebuilds the chain — if a historic row has been tampered with on the local host, the forwarded evidence still tells the true story. That's the actual tamper evidence; the local chain alone is only the low bar.

Skill Scanner

Scan AI agent skills and tool packages before you install them. SecureVector performs static analysis across 10 detection categories, assigns a risk score, and optionally runs an AI review to filter false positives.

┌──────────────────────────────────────────────────────────────────────┐
│                        Skill Scanner Flow                           │
│                                                                     │
│   ┌─────────────┐     ┌──────────────────┐     ┌────────────────┐  │
│   │  Skill Dir   │────>│  Static Analysis  │────>│  Risk Scoring  │  │
│   │  or URL      │     │  (10 categories)  │     │  LOW/MED/HIGH  │  │
│   └─────────────┘     └──────────────────┘     └───────┬────────┘  │
│                                                         │           │
│                              ┌───────────────────────── │           │
│                              v                          v           │
│                     ┌─────────────────┐     ┌────────────────────┐  │
│                     │  AI Review      │     │  Policy Engine     │  │
│                     │  (optional LLM) │     │  allow/block rules │  │
│                     │  FP filtering   │     │  trusted publishers│  │
│                     └────────┬────────┘     └─────────┬──────────┘  │
│                              │                        │             │
│                              v                        v             │
│                     ┌──────────────────────────────────────┐        │
│                     │  Verdict: PASS / WARN / BLOCK        │        │
│                     │  + detailed findings per category     │        │
│                     └──────────────────────────────────────┘        │
└──────────────────────────────────────────────────────────────────────┘

Detection Categories

Category	What It Finds
shell_exec	Subprocess calls, system commands
network_domain	HTTP requests, socket connections, DNS lookups
env_var_read	Access to environment variables (API keys, secrets)
code_exec	eval, dynamic code generation
dynamic_import	Runtime module loading
file_write	Writing to disk outside expected paths
base64_literal	Obfuscated payloads in base64 strings
compiled_code	.pyc, .so, .dll binaries embedded in the skill
symlink_escape	Symlinks pointing outside the skill directory
missing_manifest	No permissions.yml declaring required capabilities

AI-Powered Review

Enable AI analysis (OpenAI, Anthropic, Ollama, Azure, or Bedrock) to automatically review findings and filter false positives. The AI examines each finding in context and adjusts the risk level — reducing noise without hiding real threats.

Open Source

SecureVector is fully open source. No cloud required. No accounts. No tracking. Run it, fork it, contribute to it.

Built for solo developers and small teams who ship AI agents without a security team or a FinOps budget. If you are building with LangChain, CrewAI, OpenClaw, or any agent framework — and you do not have someone watching your agent traffic and API spend — SecureVector is for you.

Install

Option 1: pip

Requires: Python 3.9+ (MCP requires 3.10+)

pip install securevector-ai-monitor[app]
securevector-app --web

Option 2: Binary installers

No Python required. Download and run.

Platform	Download
Windows	SecureVector-v4.8.0-Windows-Setup.exe
macOS	SecureVector-4.8.0-macOS.dmg
Linux (AppImage)	SecureVector-4.8.0-x86_64.AppImage
Linux (DEB)	securevector_4.8.0_amd64.deb
Linux (RPM)	securevector-4.8.0-1.x86_64.rpm

All Releases · SHA256 Checksums

Security: Only download installers from this official GitHub repository. Always verify SHA256 checksums before installation. SecureVector is not responsible for binaries obtained from third-party sources.

macOS binary note: Only download from this official GitHub repository and verify the SHA256 checksum before installing. (Prefer pip? pip install securevector-ai-monitor[app] always works too.)

Other install options

Install	Use Case	Size
pip install securevector-ai-monitor	SDK only — lightweight, for programmatic integration	~18MB
pip install securevector-ai-monitor[app]	Full app — web UI, LLM proxy, cost tracking, tool permissions	453 KB wheel · ~16 MB total on disk (incl. dependencies)
pip install securevector-ai-monitor[mcp]	MCP server — Claude Desktop, Cursor	~38MB

Deploy to your own cloud (self-host)

Want it as shared infrastructure instead of one laptop? Run the engine in your own cloud tenant — one terraform apply stands it up with a live HTTPS dashboard, so a whole team's agents point at a single instance. Open-source modules (Apache 2.0), one per provider:

Cloud	Terraform module
AWS	terraform-aws-securevector
Azure	terraform-azurerm-securevector
Google Cloud	terraform-google-securevector
Oracle Cloud	terraform-oci-securevector

Your data stays in your tenant. Pick a framework SDK or plugin and the module wires your agents to the deployed instance.

Configuration

SecureVector writes svconfig.yml to your app data directory on first run with sensible defaults.

The config path is printed at startup — ~/.local/share/securevector/threat-monitor/svconfig.yml (Linux), ~/Library/Application Support/SecureVector/ThreatMonitor/svconfig.yml (macOS), %LOCALAPPDATA%/SecureVector/ThreatMonitor/svconfig.yml (Windows). Key settings (all editable from the dashboard, which writes back to this file):

server:   { host: 127.0.0.1, port: 8741 }        # change port if 8741 is taken
security: { block_mode: false, output_scan: true } # log/warn by default; flip block_mode to hard-stop
budget:   { daily_limit: 5.00, warn: true, block: true }  # USD/day; daily_limit null to disable
tools:    { enforcement: true }                   # apply allow/block tool rules
proxy:    { integration: openclaw, mode: multi-provider, host: 127.0.0.1, port: 8742 }
          # integration: openclaw | langchain | langgraph | crewai | ollama; port defaults to server.port + 1

MCP Policies — Cloud Sync (optional)

If your org distributes signed MCP tool-policy bundles from SecureVector Cloud, enroll the device once and let the local app long-poll for updates.

1. Admin mints a token in the cloud admin UI (app.securevector.io → Onboarding → Invite users) and shares the install command.

2. User enrolls locally:

securevector-app enroll svet_<token>

The local app POSTs /api/v1/devices/enroll, persists org_id + signing key + auth credentials to ~/Library/Application Support/.credentials (macOS — equivalent path on Linux/Windows), and starts the cloud sync loop on next launch.

3. Set SECUREVECTOR_API_KEY for stable sync auth (recommended).

The local app accepts two auth methods on /policy/sync. The API key path is canonical — it eliminates the short-lived-JWT refresh fragility that can leave a device unable to sync if the refresh token goes stale.

export SECUREVECTOR_API_KEY=sk-<long-lived-key>

Auth method	Header sent	Source	Lifetime	Sync stability
API key ✅ recommended	X-Api-Key: sk-...	SECUREVECTOR_API_KEY env, then creds.api_key	Long-lived	Robust — no refresh path needed
JWT (fallback)	Authorization: Bearer ...	Stored from enrollment	~1h, auto-refresh on 401/403	Breaks if the refresh token expires; requires re-enrollment to recover

When both are present, the API key wins. device_id rides as X-SecureVector-Device-Id on every request regardless of auth method; org_id is resolved server-side from the auth principal.

You can mint API keys in the cloud admin UI under Access Management. Set the env var in your shell profile or systemd service unit so it survives restarts.

4. Cloud Sync starts automatically — no further configuration needed. The local app already defaults to the production cloud endpoints (auth.securevector.io and engine.securevector.io). Override env vars exist for self-hosted / on-prem deployments only.

Synced rules are read-only on the device — authoring lives in the cloud admin. The MCP Policies page (sidebar → Configure → MCP Policies) shows verification status, applied policies + rules, and a Sync Now button for manual refresh.

Pointing Your Agent at the Proxy

For LangChain, CrewAI, Ollama, and other non-OpenClaw frameworks, point your application to SecureVector's proxy instead of the provider's API. OpenClaw/ClawdBot users only need this when block mode is enabled.

🪟 Windows

🐧 Linux / macOS

Command Prompt (current session) set OPENAI_BASE_URL=http://localhost:8742/openai/v1 set ANTHROPIC_BASE_URL=http://localhost:8742/anthropic PowerShell (current session) $env:OPENAI_BASE_URL="http://localhost:8742/openai/v1" $env:ANTHROPIC_BASE_URL="http://localhost:8742/anthropic" PowerShell (persistent, per user) [Environment]::SetEnvironmentVariable( "OPENAI_BASE_URL", "http://localhost:8742/openai/v1", "User" )

Terminal (current session) export OPENAI_BASE_URL=http://localhost:8742/openai/v1 export ANTHROPIC_BASE_URL=http://localhost:8742/anthropic Persistent (add to ~/.bashrc or ~/.zshrc) echo 'export OPENAI_BASE_URL=http://localhost:8742/openai/v1' >> ~/.bashrc echo 'export ANTHROPIC_BASE_URL=http://localhost:8742/anthropic' >> ~/.bashrc source ~/.bashrc

Every request is scanned for prompt injection. Every response is scanned for data leaks. Every dollar is tracked — whether via native plugin (OpenClaw) or proxy (all other frameworks).

Supported providers (13): openai anthropic gemini ollama groq deepseek mistral xai together cohere cerebras moonshot minimax

Update

Method	Command
PyPI	pip install --upgrade securevector-ai-monitor[app]
Source	git pull && pip install -e ".[app]"
Windows	Download latest .exe installer and run it (overwrites previous version)
macOS	Download latest .dmg, drag to Applications
Linux AppImage	Download latest .AppImage and replace the old file
Linux DEB	sudo dpkg -i securevector_<version>_amd64.deb
Linux RPM	sudo rpm -U securevector-<version>.x86_64.rpm

After updating, restart SecureVector.

Documentation

• Installation Guide — Binary installers, pip, service setup
• Use Cases & Examples — LangChain, LangGraph, CrewAI, n8n, FastAPI
• MCP Server Guide — Claude Desktop, Cursor integration
• API Reference — REST API endpoints
• Security Policy — Vulnerability disclosure

Contributing

git clone https://github.com/Secure-Vector/securevector-ai-threat-monitor.git
cd securevector-ai-threat-monitor
pip install -e ".[dev]"
pytest tests/ -v

Contributing Guidelines · Code of Conduct

Cloud (optional, opt-in)

A separate cloud product handles MCP tool-permission policy sync across enrolled devices, per-org audit attribution, and per-device fleet slicing. It also adds AI Agent Governance — your agents' governance posture rolled into a single score across the fleet (app.securevector.io/governance) — plus EU AI Act orientation that maps your action-layer logging and tamper-evident tool-call audit to the relevant obligations (governance/eu-ai-act); orientation only, not legal advice. Sign in for the fleet-wide view — the local install already gives you the single-device snapshot. Strictly additive — the local install above works standalone without it. Details: securevector.io.

License

Apache License 2.0 — see LICENSE.

The starter SIEM dashboard templates under docs/siem/ (Splunk XML, Sentinel workbook, Datadog + Grafana JSON) are MIT-licensed — see docs/siem/LICENSE and docs/siem/NOTICE for trademark disclaimers.

SecureVector is a trademark of SecureVector. See NOTICE.

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