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firewall-aiops

面向 OPNsense 与 pfSense 的治理式防火墙运维技能:提供 35 个 MCP 工具与 CLI,覆盖系统/规则/NAT/别名/VPN/DHCP/日志读取、网关健康与规则影子及封堵流量 RCA,以及带审计、dry-run 与撤销记录的受控写操作。

zw008
zw008
热度 86.90
最近更新 2026-10-15 15:09:28
分类:安全依赖:MCP 服务 / 第三方 API / 读写文件 / 代码执行应用场景:DevOps / API 集成 / 工作流 / 报告撰写

安装技能

复制下面的话术发给你的 Agent,它会通过 secure-skills 检索并安装该技能。

执行命令安装此 skill: npx secure-skills-cli add firewall-aiops
Metadata
name
firewall-aiops
slug
firewall-aiops
displayName
Firewall AIops
summary
Governed OPNsense + pfSense firewall ops: rules, NAT, VPN, DHCP, RCA. 35 tools.
license
MIT
homepage
https://github.com/AIops-tools/Firewall-AIops
tags
["aiops","mcp","governance","firewall"]
description
Use this skill whenever the user needs to operate an OPNsense or pfSense firewall — a one-shot overview, firmware/health, interfaces and gateways, firewall rules with hit-counts and shadow analysis, NAT (port-forward/outbound/1:1), aliases and their entries, VPN (WireGuard/OpenVPN/IPsec), DHCP leases and static mappings, the firewall log and state table, three flagship RCAs (gateway health, rule hit/shadow, blocked traffic), and governed writes (toggle a rule, add/remove an alias entry, kill states, restart a service, apply/reconfigure to make edits live, reboot). Always use this skill for "OPNsense", "pfSense", "firewall rule", "port forward", "NAT", "alias", "WireGuard", "OpenVPN", "IPsec", "DHCP lease", "firewall log", "blocked traffic", "why is my WAN down", "gateway loss/latency", "unused / shadowed rules", "apply firewall changes", "reboot the firewall" when the context is an OPNsense/pfSense firewall. Do NOT use when the target is something other than an OPNsense/pfSense firewall (a hypervisor, storage appliance, backup product, container-orchestration cluster, multi-vendor router/switch config, or OT/industrial equipment) — route those to the appropriate other AIops-tools skill. Cloud security groups and vendor firewall appliances are out of scope. Governed firewall operations with a built-in governance harness (audit, policy, token budget, undo, risk-tiers). Live-verified against real OPNsense 26.7 and pfSense CE 2.7.2 on top of the mock test suite; see docs/VERIFICATION.md for exactly what each run proved and what is still untested.
installer
{"kind":"uv","package":"firewall-aiops"}
argument-hint
[a rule/alias id, an IP, or describe your firewall task]
allowed-tools
["Bash"]
metadata
{"openclaw":{"requires":{"anyBins":["firewall-aiops","uvx"]},"optional":{"env":["FIREWALL_AIOPS_CONFIG","FIREWALL_AIOPS_MASTER_PASSWORD"]},"homepage":"https://github.com/AIops-tools/Firewall-AIops","emoji":"🛡️","os":["macos","linux"]}}
compatibility
Standalone, self-governed firewall operations across OPNsense (REST API /api/..., API key+secret via HTTP Basic auth) and pfSense (REST API v2 /api/v2/..., API key via X-API-Key header). Each target in the config names its own platform, and a name-keyed platform registry selects the API shape, so the same tools work on both and one config can span a mixed estate. The governance harness (audit, policy, token/runaway budget, undo, risk-tiers) is bundled in the package — no external skill-family dependency. All write operations are audited to a local SQLite DB under ~/.firewall-aiops/ (relocatable via FIREWALL_AIOPS_HOME). Credentials: the OPNsense API secret (paired with the API key) or the pfSense API key is stored ENCRYPTED in ~/.firewall-aiops/secrets.enc (Fernet/AES-128 + scrypt-derived key) — never plaintext on disk. Run 'firewall-aiops init' to onboard (it asks for the platform), or 'firewall-aiops secret set <target>' to add one. The store is unlocked by a master password from FIREWALL_AIOPS_MASTER_PASSWORD (non-interactive/MCP/CI) or an interactive prompt (CLI on a TTY). A legacy plaintext env var FIREWALL_<TARGET_NAME_UPPER>_SECRET is still honoured as a fallback with a deprecation warning (migrate with 'firewall-aiops secret migrate'). The secret is presented as HTTP Basic auth (OPNsense) or an X-API-Key header (pfSense) at request time and held only in memory; secrets are never logged or echoed. State-changing operations pass through the @governed_tool decorator (budget guard + audit + a descriptive risk-tier label, not a gate). The high-risk commits (apply_changes, reconfigure) and reboot are risk=high with dry_run; reboot is irreversible. Reversible writes (toggle_rule, add_alias_entry, remove_alias_entry) capture the real fetched before-state and record an inverse undo descriptor. Three writes additionally refuse to destroy the tool's own management path: restart_service refuses the daemon serving this appliance's API, and apply_changes / reconfigure refuse a staged rule set that would provably cut management access. Webhooks: none — no outbound network calls beyond the configured OPNsense / pfSense REST API. SSL: verify_ssl defaults to false-friendly for self-signed lab certs; enable for production. Transitive dependencies: httpx (HTTP client) and the MCP SDK. No post-install scripts or background services.

Firewall AIops

Disclaimer: Community-maintained open-source project, not affiliated with, endorsed by, or sponsored by the OPNsense project, Deciso, Netgate, or the pfSense project. OPNsense, pfSense and Netgate are trademarks of their respective owners. Source at github.com/AIops-tools/Firewall-AIops under the MIT license.

Governed firewall operations — 35 MCP tools across OPNsense (REST /api/...) and pfSense (REST v2 /api/v2/...), every one wrapped with the bundled @governed_tool harness: a local unified audit log under ~/.firewall-aiops/, policy engine, token/runaway budget guard, undo-token recording, and descriptive risk-tier labelling. A per-target platform field selects the API shape, so the same tools work on both firewalls and one config can span a mixed estate. The OPNsense API secret / pfSense API key is stored encrypted (~/.firewall-aiops/secrets.enc, Fernet + scrypt) — never plaintext on disk.

Standalone: the governance harness is bundled in the package (firewall_aiops.governance) — no external skill-family dependency. Both platform halves have been exercised against real firewalls (OPNsense 26.7, pfSense CE 2.7.2) in addition to the mock suite; docs/VERIFICATION.md records what each live run proved, and what remains untested on each platform.

What This Skill Does

Group Tools Count R/W
System firmware_status, health_status, interface_status, gateway_status 4 read
Rules list_rules, rule_detail, rule_stats, rule_states, pending_changes 5 read
NAT nat_port_forwards, nat_outbound, nat_one_to_one 3 read
Aliases list_aliases, alias_entries 2 read
VPN wireguard_status, openvpn_sessions, ipsec_sas 3 read
DHCP dhcp_leases, dhcp_static_mappings 2 read
Diagnostics firewall_log, states_table, top_talkers 3 read
Flagship analyses gateway_health_rca, rule_hit_and_shadow_analysis, blocked_traffic_rca 3 read
Writes toggle_rule, add_alias_entry, remove_alias_entry, kill_states, restart_service 5 write (med)
Writes apply_changes, reconfigure, reboot 3 write (high)
Undo undo_list, undo_apply 2 read / write

The three flagship analyses are transparent heuristics that report their numbers, never a black-box verdict: gateway_health_rca ranks gateways by loss + latency and maps each down/degraded one to a cause + action; rule_hit_and_shadow_analysis finds never-hit and shadowed/redundant rules; blocked_traffic_rca classifies the noisiest blocked sources as scan / brute-force / probe.

Quick Install

uv tool install firewall-aiops
firewall-aiops init       # wizard: pick platform (opnsense/pfsense) + encrypted secret
firewall-aiops doctor

Or as an OpenClaw plugin, which installs this skill and its MCP server together:

openclaw plugins install clawhub:@zw008/firewall-aiops
openclaw skills info firewall-aiops          # expect: Visible to model: yes

Needs uvx on PATH: the MCP server is fetched with uv, pinned to this release.

When to Use This Skill

  • Get a one-shot snapshot (overview / firmware_status / gateway_status)
  • Investigate a down/degraded WAN (gateway_health_rca) → cause + action
  • Audit the ruleset (rule_stats hit counts, rule_hit_and_shadow_analysis for never-hit / shadowed / redundant rules)
  • Triage hostile traffic (firewall_log --action block, blocked_traffic_rca, top_talkers)
  • Inspect NAT, aliases, VPN tunnels (WireGuard/OpenVPN/IPsec), and DHCP leases
  • Safely toggle a rule or edit an alias (toggle_rule / add_alias_entry / remove_alias_entry, reversible + undo-recorded), then make it live with apply_changes (dry-run + audit)

Do NOT use when the target is not an OPNsense/pfSense firewall — route hypervisor, storage, backup, cluster, multi-vendor router/switch config, or OT/industrial work to the appropriate other AIops-tools skill.

Related Skills — Skill Routing

If the user wants… Use
OPNsense / pfSense firewall ops firewall-aiops (this skill)
A non-firewall platform (hypervisor, storage, backup, cluster, network config, OT edge) the appropriate other AIops-tools skill
Cloud security groups / vendor firewall appliances out of scope for this tool

Common Workflows

The CLI surface is init / doctor / overview / log / rules / secret / undo; the flagship RCAs, NAT / alias / VPN / DHCP reads, and the remaining governed writes are MCP tools (start the server with firewall-aiops mcp). Recipes below say which is which.

1. "The internet keeps dropping" — WAN gateway triage

  1. firewall-aiops doctor → confirm the firewall is reachable and the secret unlocks (a red doctor means you are debugging credentials, not the WAN).
  2. firewall-aiops overview → one-shot: firmware/version, gateway + interface health, rule count. Down interfaces sort first.
  3. MCP gateway_health_rca → gateways ranked worst-first, each row citing its measured loss % and RTT, mapped to a cause (last-mile loss / congestion / latency / hard down) and a concrete action. The ranking is computed on an internal score that is not returned, so weigh each row's own numbers rather than trusting the order.
  4. If the RCA points at a stuck daemon rather than the circuit, MCP restart_service(service="dpinger", dry_run=true) to preview, then re-run for real (medium risk, audited, undo-recorded).
  5. Re-run firewall-aiops overview to confirm the gateway came back green.
  6. Failure branch: if the restart does not clear it, the gateway is genuinely down upstream — stop touching the firewall and escalate to the ISP. If the restart made things worse, firewall-aiops undo list → firewall-aiops undo apply <id> reverses the recorded inverse. Do not reach for reboot (high risk, irreversible, no undo) until a read confirms it is the only remaining option.

2. Ruleset spring-clean — retire a rule that never fires

  1. MCP rule_hit_and_shadow_analysis → enabled rules with 0 evaluations (dead or misordered), rules shadowed by an earlier terminating rule, and exact duplicates — each finding names the offending and the covering rule uuid.
  2. firewall-aiops rules list --interface wan → confirm the candidate's position in the evaluation order (a "never hit" rule below a broad allow is misordered, not useless).
  3. firewall-aiops rules show <uuid> → read the full rule before touching it.
  4. firewall-aiops rules toggle <uuid> --disable --dry-run → prints the exact call, changes nothing.
  5. firewall-aiops rules toggle <uuid> --disable → double-confirm; the write fetches the rule's real prior enabled flag and records an inverse undo descriptor with an _undo_id.
  6. MCP pending_changes → read what the commit would actually make live, including whether any staged rule covers the endpoint this tool manages the firewall through. toggle_rule already reported managementImpact in step 5 if so.
  7. MCP apply_changes to commit the staged config — risk=high, so set FIREWALL_AUDIT_APPROVED_BY and FIREWALL_AUDIT_RATIONALE first. It refuses outright if a staged rule would provably cut management access; pass override=True only with console access in hand.
  8. Failure branch: if traffic breaks after the commit, firewall-aiops undo apply <id> restores the rule's prior enabled state, then apply_changes again to make the restoration live. The toggle is staged until applied — before step 6 you can simply toggle it back with no commit at all.

3. Brute-force against the WAN — block the source with an alias

  1. firewall-aiops log --action block --limit 100 → the raw recent blocks, so you are reading real log lines and not just a summary.
  2. MCP blocked_traffic_rca → noisiest blocked sources ranked and classified (port scan, service brute-force on 22/3389/…, or generic probe), each with a recommended action.
  3. MCP top_talkers and states_table → cross-check whether the source also has established states, i.e. whether anything already got through.
  4. MCP list_aliases → find your blocklist alias, then alias_entries(<alias>) to see what is already in it.
  5. MCP add_alias_entry(alias=<blocklist>, entry=<src-ip>) → medium risk, reversible, undo descriptor recorded from the fetched before-state.
  6. MCP apply_changes (high risk, audited) to make the alias live, then kill_states(source=<src-ip>) to tear down any states the attacker already holds.
  7. Failure branch: if you blocked too wide a range and locked out legitimate traffic, MCP remove_alias_entry (or firewall-aiops undo apply <id>) and apply_changes again. If you locked yourself out of the web UI, the CLI still works over the API as long as the management rule was untouched — recover there before rebooting.

4. Verify and roll back a change window

  1. Before the window: firewall-aiops overview and firewall-aiops rules list → capture the baseline you intend to return to.
  2. Make the staged changes (rules toggle, MCP alias edits), each one dry-run first.
  3. MCP apply_changes with FIREWALL_AUDIT_APPROVED_BY set → commit.
  4. Validate: firewall-aiops overview, MCP gateway_health_rca, and firewall-aiops log --action block --limit 50 → make sure the change did not start silently dropping wanted traffic.
  5. firewall-aiops undo list → every reversible write in the window, newest first, with its _undo_id.
  6. Failure branch: roll the window back in reverse order with firewall-aiops undo apply <id> per entry, then one final apply_changes to commit the rollback. Writes that declare no undo (reboot, and apply_changes itself) cannot be reversed this way — they are audit-only, which is why every reversible edit goes in before the commit.

Authorization is not this skill's job: there is no read-only switch, policy file, or approval gate. Whether a write runs is the agent's judgement or the connecting account's permissions — point the tool at an API user without write scope and writes fail at the server. Every call is still audited. FIREWALL_AUDIT_APPROVED_BY / FIREWALL_AUDIT_RATIONALE are optional audit annotations, recorded when set but never required.

Governance & Safety

  • Every tool is audited to ~/.firewall-aiops/audit.db (relocatable via FIREWALL_AIOPS_HOME).
  • High-risk ops (apply_changes, reconfigure, reboot) are labelled risk=high and audited; FIREWALL_AUDIT_APPROVED_BY / FIREWALL_AUDIT_RATIONALE are optional audit annotations, recorded when set but never required.
  • Writes support --dry-run and double confirmation at the CLI. reboot is irreversible (audit only).
  • Reversible writes capture the real fetched before-state and record an inverse descriptor (toggle→toggle-back, add-alias↔remove-alias).

References

  • references/capabilities.md — full tool + platform + API-path reference
  • references/cli-reference.md — CLI command reference
  • references/setup-guide.md — onboarding, credentials, and connectivity
  • docs/VERIFICATION.md — live-verification checklist (what the mock suite covers, and what a real-firewall run must prove)