infrastructure
Audited by Socket on May 13, 2026
26 alerts found:
AnomalySecurityx6Malwarex19No malware runtime behavior is evident in this fragment because it is a human-readable pentest/enumeration template rather than executable dependency code. However, it contains highly actionable reconnaissance and exploitation guidance, including credential-harvesting-oriented SNMP process-dump instructions and explicit Tomcat/Cobbler RCE/webshell deployment steps. If such content is included in a distributed package/toolchain, it poses a meaningful security risk by enabling unauthorized scanning and compromise, even though it is not evidence of self-propagating supply-chain malware.
No malware is evident in the fragment because it is instructional guidance rather than executable package code. Nevertheless, it provides a concrete, misuse-ready workflow for extracting entire DNS zones (including reverse/PTR data) from misconfigured nameservers and parsing sensitive record types, which is a significant security misuse risk if included in or distributed as part of software supply-chain artifacts.
SUSPICIOUS: The skill is internally consistent with its stated purpose, but that purpose is to equip an AI agent with offensive security capabilities, including credential harvesting, MITM, DoS, and ICS/SCADA manipulation. No clear malicious exfiltration endpoint or deceptive installer is shown in the snippet, so this is not confirmed malware, but it is a high-risk offensive-security skill.
This fragment is an operational DNS-rebinding attack guide with a runnable proof-of-concept DNS resolver that flips A records between a public IP and an internal/local/metadata IP across successive queries. While it does not show direct malware features like exfiltration or persistence, it is highly actionable for bypassing browser/SSRF defenses and reaching sensitive internal resources, making it a serious security concern if included in a dependency.
No software malware behavior is directly present because the provided content is instructional documentation rather than executable package code. However, it is highly actionable, adversary-oriented guidance for breaking into embedded devices through UART/JTAG/SWD, interrupting bootloaders, dumping memory/flash for firmware extraction, and optionally bypassing protections. If shipped within a software dependency/package artifact, it meaningfully increases misuse capability and should be treated as high security risk content (dual-use intrusion tooling guidance).
The provided content is an offensive SMB/NetBIOS enumeration playbook (null/guest/empty-password probing and SAMR RID cycling) intended to extract user/group/share/policy information and facilitate follow-on credential attacks. There is no embedded malware/payload or obfuscation in this fragment itself because it is not actual software code, but the described network actions are highly actionable and dangerous when misused. Overall, treat as high misuse risk rather than a supply-chain malware artifact.
The provided content is an offensive recon and exploitation-enablement runbook (nmap/NSE banner grabbing, version-to-CVE workflow, default-credential checks, SNMP secret hunting, and explicit exploitation-path references). It is not executable malicious code in this snippet, but it materially facilitates unauthorized scanning and compromise workflows. Treat as high misuse/abuse-risk content if found in a distributed package or dependency.
This fragment is a malicious intrusion methodology: it provides instructions to coerce Windows/AD systems into authenticating to attacker-controlled listeners, relay captured NTLM authentication to high-value services (including directory and ADCS), and chain results into privilege escalation/persistence. From a supply-chain security perspective, inclusion of such content is a strong red flag for hostile intent.
This fragment is not benign library/source code; it is an offensive SMB/NetBIOS intrusion and credential-theft playbook. It explicitly details anonymous/null-session and guest probing, enumeration, NTLM relay and forced-authentication via crafted Windows file/UNC triggers, and capture of NTLMv2 hashes using an SMB listener. It also includes post-auth secret hunting on readable shares and administrative-share retrieval. Such content is highly likely to be malicious or at minimum directly enable malicious activity if shipped in a dependency or package.
This fragment is overtly malicious, providing actionable instructions to perform ARP poisoning for man-in-the-middle interception, including enabling packet relay, capturing network traffic to disk, and harvesting credentials/sensitive data, with optional DNS spoofing and SSL/HTTPS downgrade. If included in a distributed dependency artifact, it constitutes an extreme misuse and supply-chain security risk.
The provided fragment is a weaponized UPnP/IGD enumeration and exploitation workflow. It performs network discovery and fetches UPnP descriptor XML, then directs the creation of malicious SOAP requests containing command-injection payloads and suggests auth-key reuse/bypass using leaked values. If this content is distributed within a package, it would represent a serious malicious security risk rather than benign software behavior.
This fragment functions as an actionable offensive networking playbook (with a working DTP packet-crafting example) designed to coerce switch trunk negotiation and pivot into multiple VLANs for reconnaissance. While it is not software-supply-chain malware by itself (no package logic, persistence, or exfiltration shown), it represents high misuse risk because it operationalizes an intrusion technique with direct packet injection and subsequent scanning steps. Treat any inclusion of this kind of code/instructions in a dependency/package as unacceptable for production environments unless strictly tied to authorized, defensive testing.
The provided “source code” is explicitly malicious offensive guidance, containing actionable exploitation steps to steal sensitive mTLS private key material from an unbound instance and then use it to remotely control the resolver’s cache and recursion. It directly supports unauthorized DNS cache poisoning and traffic/recursion redirection, creating significant misuse risk if distributed in a software artifact. No obfuscation is present; the danger comes from the clear attacker workflow.
The provided fragment is explicitly malicious instructional material for conducting DNS cache poisoning and related LAN DNS/ARP spoofing to redirect victims to attacker-controlled IPs. It contains actionable steps, defense-bypass considerations, and verification methods intended to confirm successful poisoning/interception. As a dependency or packaged content, it would represent a severe supply-chain risk and strong indicators of malicious intent.
The provided content is explicit offensive guidance for an IPv6 SLAAC/DHCPv6 DNS takeover and WPAD poisoning attack that enables NTLM credential capture and relay to enterprise services (AD/LDAP/SMB/MSSQL/ADCS). It describes a complete, high-impact attack chain with operational verification steps. If this were included in any software artifact as code, content, or embedded resources, it would represent a severe security risk and strong malicious intent. No meaningful benign functionality is present to mitigate the threat; the risk is primarily misuse-enabling and credential-theft/relay enabling.
The provided material is a high-confidence offensive credential-harvesting playbook targeting SMB share enumeration, recursive downloading of sensitive files, secret searching via regex, optional trivial deobfuscation by magic-byte patching, and decryption of GPP cpassword values. It is strongly indicative of malicious intent (credential theft/exfiltration enablement) rather than legitimate software behavior.
This document is an operational DoS testing playbook that includes explicit, executable commands enabling high-impact denial-of-service and amplification attacks. It lacks sufficient legal/ethical controls and safeguards, creating a high risk of misuse and collateral harm if published publicly. Treat as high-security-risk content: restrict access, add mandatory authorization/coordination controls, or remove from public distribution. It is enabling malicious activity (high probability of misuse) though it is not executable malware per se.
This artifact is explicit, actionable offensive guidance and packet-crafting code for VLAN hopping via 802.1Q double-tagging to bypass L2 VLAN segmentation using native VLAN misconfiguration. It directly enables unauthorized network manipulation and cross-VLAN traffic injection, with ready-to-run Scapy/Yersinia usage and verification steps. Treat as high-risk/malicious content in any supply-chain context.
This fragment is unequivocally an offensive MITM/SSL-stripping workflow that enables HTTPS downgrade and plaintext harvesting of credentials and session data using IP forwarding, ARP spoofing, traffic redirection, TLS interception with disabled verification, and sensitive-data logging for extraction. If included in any supply-chain artifact, it represents an extreme security risk and strong malicious intent.
This artifact is an explicitly actionable WiFi/WPA-Enterprise credential theft and unauthorized access playbook. It describes coercive client disruption (deauth), rogue AP/EAP MITM tactics (including cert-handling and captive portal phishing), interception of MSCHAPv2-related material, extraction and offline cracking of hashes, and re-authentication with recovered credentials. If distributed within a software supply chain, it would be highly suspicious and unsafe because it directly enables wrongdoing rather than implementing a defensive or legitimate feature.
The provided fragment is an explicit, operational exploitation walkthrough intended to facilitate unauthenticated RCE in CUPS via a malicious IPP-to-PPD injection chain and command execution through the printing pipeline (foomatic-rip), including reverse-shell payload guidance and detailed steps to trigger the execution via CUPS web UI constraints. No benign software functionality is evident; the content is highly malicious and would represent an extreme supply-chain risk if present in a distributable package as code, scripts, or embedded resources. Dependency-level verification is not possible because no actual package/source code fragment is shown beyond the exploit narrative.
The file is an offensive IPv6 attack cheat-sheet containing explicit techniques, tools, and commands to discover and exploit IPv6 hosts and transition mechanisms (RA spoofing, NDP poisoning, tunnel abuse, extension header manipulation). It is actionable and high-risk: executing the listed commands against networks without explicit authorization will produce malicious effects (MitM, traffic redirection, DoS, evasion). Treat as harmful operational guidance and avoid running these commands except in authorized test environments with appropriate controls.
High-risk, explicitly offensive content. The embedded Scapy example demonstrates direct L2 impersonation of an IP phone using CDP TLVs (including a voice VLAN assignment element) and repeated packet injection to manipulate switch port classification into a voice VLAN. The described post-pivot steps target VoIP infrastructure (CUCM/TFTP/voicemail) to retrieve phone configuration artifacts, indicating likely credential/config harvesting and further compromise. Treat as malicious/weaponized network attack tooling content if encountered in a dependency or package.
This is highly suspicious and actionable offensive content. It provides an end-to-end method to harvest credential material from PCAPs across multiple protocols, export reconstructed secrets, and crack/replay them to gain unauthorized access. No defensive controls or benign auditing framing is present; risk comes from explicit operational misuse capability rather than any benign software behavior.
This fragment is high-risk offensive/dual-use guidance. It is specifically designed to enumerate SMB signing misconfiguration, generate an exploitation-ready relay target list, and feed it into an NTLM relay framework for exploitation validation. While it includes remediation advice, the recon-to-exploit coupling and explicit relay-tool integration make the overall content strongly facilitative of unauthorized compromise. As provided, it is not code to be executed by a dependency, but as supply-chain material it would meaningfully elevate attacker capability.
This artifact is explicit malicious exploitation guidance for abusing stolen TSIG keys to perform authenticated BIND9 dynamic DNS updates and hijack subdomains for credential/token interception. No benign application logic is present; if this content appears inside a dependency or package, it should be treated as a critical supply-chain security finding requiring immediate removal, quarantine, and provenance review.