攻击性Z-Wave

SKILL运维和基础设施
运维和基础设施 未标注权限 许可证不明确
安装这个技能

攻击性Z-Wave专用技能,帮助AI Agent高效完成相关任务。

一句话选型结论

按资料字段整理

攻击性Z-Wave是运维和基础设施类的 Agent Skill,安装方式未标注,权限级别未标注,许可证不明确,有可直接复制的安装命令。技能本质是给模型读的说明书,效果取决于模型与客户端;装完先用一个小任务验证,再放进正式流程。

分类运维和基础设施 安装方式未标注 权限级别未标注权限 许可证许可证不明确
累计安装 未标注 本周 未标注
GitHub 星标 未标注 仓库 未标注
下载量 未标注 技能市场下载数
权限级别 未标注权限 安装前请确认风险范围
许可证 许可证不明确 未说明

安装

未标注
在支持 Skills 的客户端里执行,装完问一句「你有哪些技能」验证
skillhub install user_3c6cb52e/offensive-z-wave-pg81
  1. 1
    确认客户端支持

    确认你的客户端支持 Skills(Claude、Codex、Cursor 等),并升级到较新的版本。

  2. 2
    拿到技能文件

    执行上面的命令安装;也可以把仓库里的 SKILL.md 手动放进客户端的 skills 目录。

  3. 3
    刷新技能列表

    重新打开客户端,或刷新技能列表,让新放进来的技能被加载。

  4. 4
    验证是否生效

    问一句「你有哪些技能」,确认列表里出现它,再拿一个小任务试跑。

技能档案

运维和基础设施
字段来自技能仓库与公开索引,中文说明由本站标注
作者 / 维护方user_3c6cb52e仓库 未标注 · 版本 未标注
宿主客户端未标注技能可被这些客户端加载
安装方式未标注安装包 community
权限级别未标注权限安装前请确认风险范围
许可证未说明许可证不明确,商用前请自行确认条款
仓库可用性available技能仓库当前是否可访问
最近核验未标注上游最后核验时间 · 数据更新 1791723799
正文体量5.4 KBSKILL.md 原文大小,越大说明说明书写得越细

典型使用场景

3 类
按分类整理的常见用法,具体以 SKILL.md 为准
查服务与日志

按现象定位服务状态与日志线索。

写部署与巡检脚本

把重复的部署、巡检写成脚本。

故障排查

按步骤排查网络、依赖与配置。

选择建议

装之前先看这几条
按条目字段给出的判断,不替你决定用不用

值得选的地方

  • 有可直接复制的安装命令,不用自己翻文档找入口。

先想清楚的地方

  • 没有标注权限级别,实际能做什么要装好后确认。
  • 许可证不明确,商用或二次分发前先到仓库确认条款。
  • 没有做站内核验,内容以作者仓库为准。
  • 技能只是说明书,实际效果取决于模型与客户端,装完先用小任务试一遍。

更适合

  • 需要在运维和基础设施场景里给模型补一套做法的人。
  • 愿意先读一遍 SKILL.md、确认它会让模型做什么的人。

不太适合

  • 对许可证要求很严、必须明确可商用的人。
  • 只想装完就自动变强、不打算看说明书的人。

同类对比

6 个同类
同分类里挑最接近的几条,字段以各自详情页为准
技能权限级别安装方式累计安装宿主客户端安装命令
攻击性Z-Wave当前 未标注权限 未标注 未标注 未标注 有
Azure 部署 调用外部服务 GitHub 仓库 664.2 万 Codex、Claude、Cursor 有
Azure diagnostics 问题管理 调用外部服务 GitHub 仓库 657.6 万 Codex、Claude、Cursor 有
Azure aigateway 部署 调用外部服务 GitHub 仓库 655.3 万 Codex、Claude、Cursor 有
Azure AI 搜索 调用外部服务 GitHub 仓库 651.4 万 Codex、Claude、Cursor 有
Azure Cloud migrate 部署 调用外部服务 GitHub 仓库 650.7 万 Codex、Claude、Cursor 有

SKILL.md 全文

5.4 KB
模型实际读到的说明书原文,来自技能仓库

Z-Wave Attacks

Z-Wave runs in the 800/900 MHz ISM band (US: 908 MHz, EU: 868 MHz). Older networks used the S0 security scheme with a fixed-derivation network key — long-known to be flawed. S2 (mandatory for Z-Wave Plus v2 since 2017) uses ECDH commissioning and is significantly stronger.

Quick Workflow

  1. Identify region (US 908 MHz / EU 868 MHz) — adapter frequency must match
  2. Sniff inclusion (commissioning) traffic — that's where keys are exchanged
  3. Determine S0 vs S2 from frame format
  4. For S0: derive/replay; for S2: analyze ECDH and look for implementation flaws

Hardware

Adapter Use
Z-Force (legacy, hard to find) Original research tool
EZ-Wave (custom HackRF firmware) Modern, full transceiver
Aeotec Z-Stick Commercial controller, useful as legitimate node
HackRF + open Z-Wave firmware Multi-band SDR approach
RTL-SDR + ZniffMobile (passive only) Cheap sniffer

Sniffing

# EZ-Wave (HackRF firmware-based)
git clone https://github.com/cureHsu/EZ-Wave
ezwave-sniff -f 908.4MHz -o capture.pcap

# Wireshark with the Z-Wave dissector parses captured frames
wireshark capture.pcap

Look for the inclusion phase (controller adding new device) — that's where the network key is exchanged.

S0 Security Flaw

S0 derives the network key from a fixed all-zero PSK during the inclusion of the first device. That fixed material is well-known — any S0 network you sniff during inclusion can be decrypted offline.

S0 commissioning:
  1. New node joins → controller sends key with zero-PSK encryption
  2. Attacker sniffs commissioning frame → derives session key
  3. All future S0 traffic on that network is decryptable

If you can:
- Trigger inclusion (factory-reset a node, or wait for legitimate inclusion)
- Sniff during the ~2-second key-exchange window

You own the network key for that mesh.

S2 (Z-Wave Plus / S2 Authenticated)

S2 fixes S0 by using ECDH for commissioning:
- Each device has a Curve25519 keypair
- Inclusion uses DSK (Device Specific Key) verified out-of-band (sticker/QR)
- Network key never traverses the air in plaintext

S2 attack surface is mostly implementation:
- Inclusion-mode-always-open (controller misconfig)
- Firmware bugs in S2 verification
- Side-channel on ECDH on resource-constrained chips
- DSK printed on a sticker → physical access yields it

Replay / Injection on Unauthenticated Nodes

Many low-end Z-Wave devices (older sensors, basic switches) don't enforce S0 or S2 — they accept commands in cleartext.

# scapy-zwave (community fork) for crafted frames
from scapy.contrib.zwave import *
frame = ZWave(home_id=0x12345678)/ZWaveBasic(set_value=0xff)
sendp(frame, iface='ezwave0')

This unlocks doors / switches lights / unarms sensors when the target lacks authentication.

Key Brute-Force

For old test deployments using default home IDs / network keys:

# Try default home IDs
for hid in 0x00000000 0x12345678 ...; do
  ezwave-test --home-id $hid --target-node 1
done

Hit rate on production is low; useful only for default-config IoT lab gear.

Hub Pivots

Z-Wave devices are typically controlled by a hub (SmartThings, Hubitat, Vera, Home Assistant, Z-Wave JS UI). The hub is a Linux device with the Z-Wave PSK in plaintext storage:

  • SmartThings Hub: previously cloud-only credentials; modern v3 stores network key locally
  • Home Assistant: ~/.homeassistant/zwave_js.json typically contains keys
  • Hubitat: web UI with default password on older versions

Compromise the hub → walk away with the Z-Wave PSK + every paired device's command authority. See offensive-iot for hub firmware extraction.

Engagement Cheatsheet

# 1. Identify region + frequency
# US: 908.4 MHz; EU: 868.4 MHz; CN: 868.4 MHz

# 2. Sniff
ezwave-sniff -f 908.4MHz -o cap.pcap
wireshark cap.pcap   # filter zwave

# 3. Identify S0 vs S2 from frame format

# 4. For S0: capture inclusion → derive key → decrypt history + control devices

# 5. For S2: focus on hub compromise / DSK theft / implementation bugs

# 6. Test unauthenticated cleartext devices with crafted frames

Detection

  • Most Z-Wave deployments have no IDS comparable to Wi-Fi/Zigbee monitoring
  • Hub may log unexpected commands but UI rarely surfaces these to users
  • Inclusion-mode-open is visible in hub UI but ignored by inattentive admins

Reporting

  • Identify chipset / firmware revision per device (ZW0500 series, ZW7000 series)
  • Map S0 vs S2 per node — note any S0 left on a network with S2-capable nodes
  • Document hub compromise paths separately

Key References

  • EZ-Wave: github.com/cureHsu/EZ-Wave (HackRF-based)
  • "Z-Force and the Z-Wave Sniffer" — original research
  • Silicon Labs Z-Wave 700-series spec
  • Source: https://github.com/SnailSploit/offensive-checklist/blob/main/wireless.md

常见问题

5 问
答案由本站依据条目字段整理
攻击性Z-Wave怎么安装?

在支持 Skills 的客户端里执行:skillhub install user_3c6cb52e/offensive-z-wave-pg81。安装方式为未标注。装完刷新技能列表或重开客户端。

攻击性Z-Wave支持哪些客户端?

资料没有标注宿主客户端,但只要客户端支持 Skills(Claude、Codex、Cursor 等),一般都能加载。

攻击性Z-Wave权限高吗,安全吗?

权限级别为未标注权限。安装前先看它会读取或写入哪些内容。

攻击性Z-Wave收费吗?

本站不代收费用,也没有标注具体价格。是否收费取决于技能本身和所用的模型或客户端,正式使用前按作者说明确认。

攻击性Z-Wave用什么许可证?

许可证标注为 未说明(许可证不明确)。商用或二次分发前请到仓库确认条款原文。

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技能内容以作者仓库为准;分类、权限级别与许可证状态的中文说明为中文整理,最近核验 未标注。