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netclaw
netclaw contient 178 skills collectées depuis automateyournetwork, avec une couverture métier par dépôt et des pages de détail sur le site.
Skills dans ce dépôt
Federate your NetClaw with other NetClaw operators over the BGP mesh — exchange capability inventories and ask your claw what a peer can do. (US1; remote invocation and chat land in later phases.)
Catalyst Center device inventory and site management - list/filter devices by hostname, IP, platform, family, role, reachability; view site hierarchy; get interface details per device; device reachability monitoring; cross-reference with pyATS. Use when listing network devices, checking device reachability, auditing software versions, viewing site hierarchy, or finding a device by serial number.
Catalyst Center troubleshooting workflows - device unreachable investigation, client connectivity issues, interface down analysis, site-wide outage triage, wireless roaming problems, integration with pyATS for CLI-level diagnostics. Use when a device is unreachable, a user reports connectivity problems, an interface is down, a site has an outage, or wireless clients have roaming issues.
Human-in-the-loop escalation via HumanRail — route low-confidence agent decisions, pre-destructive operation approvals, and ambiguous incident tickets to real human engineers. Human answers are verified and returned as structured output. Workers are paid via Lightning Network. Use when the agent is uncertain, when a destructive change needs explicit human sign-off beyond a ServiceNow CR, or when an ambiguous ticket requires human triage before automated handling.
Generate and manage Visio network diagrams on SharePoint via Microsoft Graph API - create topology diagrams from CDP/LLDP discovery, update existing diagrams, export to PDF. Use when creating Visio topology diagrams, uploading network diagrams to SharePoint, or generating physical/logical topology views from discovery data
Reconcile NetBox source of truth against live network state - detect IP drift, missing interfaces, undocumented links, cable mismatches, VLAN mismatches, and ticket discrepancies in ServiceNow. Use when validating NetBox accuracy, checking for config drift, auditing network documentation, or reconciling source of truth after changes
Search the National Vulnerability Database for CVEs - find vulnerabilities by keyword or ID, get CVSS scores, weaknesses, affected configurations, and remediation references. Use when looking up a CVE, scanning for vulnerabilities, running a security audit, or checking if a software version has known exploits.
Cisco ASA firewall operations via pyATS — VPN sessions, failover state, interfaces, routing, service policies, resource usage, AnyConnect monitoring. Use when checking ASA failover status, monitoring VPN sessions, auditing ASA security, or troubleshooting AnyConnect connectivity.
Network change management - pre-change baselines, configuration deployment, post-change verification, rollback procedures, and compliance validation. Use when pushing config to a device, planning a network change, rolling back a configuration, or running compliance checks.
Generate and execute deterministic pyATS aetest validation scripts - interface state, OSPF neighbors, BGP paths, ping matrices, and custom compliance tests. Use when writing a network test, validating post-change state, running pass/fail checks, or building automated regression tests.
F5 BIG-IP LTM/GTM operations via pyATS iControl REST — virtual servers, pools, nodes, monitors, profiles, iRules, persistence, GTM wide IPs, DNS, data groups. Use when checking F5 virtual server status, auditing pool members, reviewing iRules, or inspecting GTM wide IP health.
F5 BIG-IP platform operations via pyATS iControl REST — system, networking, HA/CM, auth, analytics, security, APM, live-update, ADC certs, file management. Use when checking BIG-IP system health, verifying HA sync status, auditing certificates, or inspecting F5 platform resources.
Comprehensive network device health monitoring - CPU, memory, interfaces, hardware, NTP, logging, environment, and uptime analysis. Use when running a device health check, monitoring CPU or memory usage, checking interface errors, or validating NTP sync.
JunOS interface operations via pyATS — physical/logical interfaces, LACP, CoS, LLDP, ARP, BFD, IPv6 neighbors, traffic monitoring, optics diagnostics. Use when checking Juniper interface status, auditing LACP members, inspecting optics power levels, or reviewing ARP and LLDP neighbors.
JunOS routing operations via pyATS — OSPF/OSPFv3, BGP, route table, MPLS/LDP/RSVP, TED, PFE, ping, traceroute across Juniper devices. Use when checking Juniper OSPF neighbors, viewing BGP summary, inspecting MPLS LSPs, tracing routes, or auditing the JunOS route table.
JunOS system operations via pyATS — chassis health, hardware inventory, system info, NTP, SNMP, files/logs, firewall counters, DDoS protection, services accounting. Use when checking Juniper chassis alarms, auditing hardware inventory, reviewing system uptime, or inspecting JunOS firewall counters.
Linux host network operations via pyATS — interface configuration, routing tables, network connections, and multi-table route inspection across fleet hosts. Use when checking Linux interface status, viewing routing tables, auditing host network config, or comparing routes across hosts.
Linux host system operations via pyATS — process monitoring, filesystem inspection, Docker container stats, package/tool verification across fleet hosts. Use when checking running processes, monitoring Docker containers, inspecting log files, or verifying system tools on Linux hosts.
VMware ESXi host operations via pyATS — VM inventory, snapshot management, hypervisor inspection across ESXi hosts in the testbed. Use when listing VMs on ESXi, checking snapshot age, auditing VMware inventory, or verifying pre-change snapshots exist.
Network device automation via pyATS - run show commands, ping, apply config, learn config/logging, list devices, run Linux commands, execute dynamic tests on Cisco IOS-XE/NX-OS devices. Use when running CLI commands on routers or switches, checking interface status, applying configuration changes, or collecting device data via pyATS.
Fleet-wide parallel device operations - concurrent health checks, config audits, routing snapshots, severity-sorted reporting, and failure-isolated multi-device automation. Use when checking all devices at once, running bulk health checks, collecting configs from the entire fleet, or comparing state across multiple routers and switches.
CCIE-level routing protocol analysis - OSPF, BGP, EIGRP, IS-IS, static routes, RIB/FIB verification, redistribution audit, and convergence validation. Use when analyzing routing tables, debugging OSPF neighbors, checking BGP peering, verifying route redistribution, or validating convergence after changes.
Network security audit - ACLs, AAA, control plane policing, management plane hardening, encryption, port security, and CIS benchmark checks. Use when auditing device security posture, checking compliance, hardening a router or switch, reviewing access lists, or investigating unauthorized access.
Network topology discovery via CDP/LLDP neighbors, ARP tables, routing peers, and interface mapping to build complete network maps. Use when mapping the network, building a diagram, discovering what is connected to what, or documenting device neighbors and links.
Systematic network troubleshooting - connectivity, routing, interface, protocol, and performance issues using structured OSI-layer and divide-and-conquer methodology. Use when something is broken, a device is unreachable, a link is flapping, users report slow performance, or an OSPF/BGP adjacency is down.
Full ITSM-gated change lifecycle - CR creation, pre-change incident validation, approval gate, execution via pyats-config-mgmt, post-change verification, and closure with GAIT audit trail. Use when creating a change request, making a network change that needs approval, tracking change management, or following ITIL change process.
Manage network incident response workflows in Slack - incident channels, status updates, escalation, resolution tracking, and post-incident review coordination. Use when declaring a network incident, coordinating outage response in Slack, tracking incident status, or running a post-incident review.
IPv4 and IPv6 subnet calculator - CIDR breakdown, usable hosts, previous/next subnets, address classification, VLSM planning, and dual-stack analysis. Use when calculating subnets, figuring out how many hosts fit in a prefix, planning IP addressing, getting wildcard masks for ACLs, or checking if two IPs are in the same subnet.
3D network topology visualization and interactive digital twin in Unreal Engine 5.8 via the built-in UE5 MCP server.
Full-desktop automation for targets that have no browser and no API at all — a legacy Java-based NMS client, a vendor's Windows-only configuration utility, a terminal emulator with no scriptable interface. Drives OpenClaw's ClawHub computer-use skill (Xvfb+XFCE virtual desktop, xdotool input automation) to read, confirm, or search state in a desktop-only application. Includes a VNC/noVNC Watch Mode so an operator can watch or take over live, the direct desktop analogue of the Chrome DevTools Watch Mode. Never used to submit, apply, or commit a configuration change — that remains the job of the relevant API-based skill.
Controller-agnostic browser automation and inspection — navigate, read, click, fill, and capture network traffic on any web GUI using a persistent, manually-authenticated Chrome profile. Use to (1) pull a GUI-only report a vendor's REST API doesn't expose, (2) discover the undocumented API behind a dashboard feature, (3) automate a one-off interaction with a web tool that has no NetClaw API integration, or (4) run any of the above in Watch Mode — a real, visible Chrome window an operator can watch work live. Never used to submit, apply, or commit a configuration change — that remains the job of the relevant API-based skill.
Verifies that a NetClaw-generated visualization HTML file (three.js, canvas, drawio, UML, markmap) actually renders correctly — screenshot, console-error check, and an optional Lighthouse audit. Use immediately after generating any browser-based visualization output, to close the QA gap that otherwise requires a human to manually open the file. Never touches an external site or the authenticated browser profile.
OpsMill Infrahub — infrastructure source of truth with schema-driven nodes, GraphQL queries, and branch-isolated changes. Use when querying Infrahub for device/IPAM inventory, browsing infrastructure schemas, running GraphQL queries, or making infrastructure changes safely via an auto-created session branch and a Proposed Change for human review.
Forward snapshot assurance, path search, app-aware path search, NQE, checks, vulnerabilities, diffs, configuration, lifecycle, collection, and topology workflows through the upstream forward-mcp server.
Discover and classify OT / IoT / IoMT assets via Claroty xDome. List devices by site, Purdue level, and device purpose; assign Purdue layers and custom attributes; cross-reference with Nautobot / NetBox SoT to surface drift.
Render Claroty xDome OT / IoT communication maps and zone segmentation as inline Canvas/A2UI topology, draw.io diagrams, and timeline summaries.
Triage Claroty xDome alerts and vulnerabilities, compute blast radius, correlate with NVD CVE data, and drive ITSM-gated workflow actions (acknowledge, label, assign, set relevance).
Build or rewire EVE-NG lab topology. Use when creating or deleting virtual networks, connecting node interfaces to networks, inspecting topology links, checking interface mappings, or listing available node templates before wiring a lab.
Design EVE-NG lab topology and coordinate the design workflow. Use when the user asks for lab design, architecture advice, topology planning, design review, or a build plan, especially when requirements, trade-offs, or validation need to be structured first.
Gather missing requirements for EVE-NG topology design. Use when the request is vague or incomplete, when you need discovery questions, defaults, trade-off framing, image recommendations, or domain guidance before proposing a topology.