Secure your dependencies. Ship with confidence.

This code is malicious or at minimum intentionally dangerous. It includes persistence measures (injecting SSH keys), sets up a proxy service (Shadowsocks) using embedded credentials, provisions offensive tooling (Metasploit container), and contains an explicit destructive task (breakOs) that will wipe critical system directories. The module provides unfettered remote command execution and file upload capabilities. Do not run this code on any system you care about; consider it hostile and remove or quarantine it.

This function is critically insecure: it reads a file determined by caller input and directly passes its contents to eval(), enabling arbitrary code execution and potential path traversal. Treat as high security risk. Replace eval with safe deserialization (ast.literal_eval or json), validate and normalize the filename (reject path separators, use a whitelist), add access controls and exception handling. If arbitrary execution is required, implement a secure sandbox and rigorous input validation.

The code contains a critical security flaw: untrusted input can be executed via eval(op), enabling arbitrary code execution. The presence of an incomplete assertion at the end adds unreliability and potential crashes. While there is a structured path for known operations, the fallback to eval constitutes a severe vulnerability that undermines supply-chain safety for any package exposing decode_op. Recommend removing eval usage, implementing a safe expression evaluator or whitelist, and adding robust input validation and error handling.

The documentation describes a legitimate self-hosted deployment platform and the requested capabilities align with the stated purpose. The primary security concern is the use of an unpinned, pipe-to-shell installation command (curl | sh) which executes remote code on the user's machine. That pattern is a significant supply-chain risk because it allows arbitrary code execution from the remote host if the installer or domain is compromised. There is no clear evidence in the provided text of active malicious behavior (no hardcoded secrets, exfiltration endpoints, or obfuscated payloads), but the installation approach elevates the risk for users. Recommended mitigations: inspect the install.sh script before running, prefer installation via package manager or pinned release artifacts with checksums/signatures, and run the installer in a controlled environment (VM) if possible.

This module implements powerful, privileged backup/restore operations and contains many dangerous operations (writing raw disk images, repartitioning, formatting, LVM snapshot removal, and reboot). I find no indicators of stealthy malware (no network exfiltration, no obfuscated payload, no credential harvesting). However, the code has multiple security and safety concerns: use of shell=True with device-derived strings (shell injection risk), automatic destructive actions on removable devices (dd, mkfs, wipefs, sgdisk), weak input validation and error handling, and surprising DB deletions. Treat this package as high-risk to run on production systems unless audited and run in a controlled environment with least privilege and proper input sanitization.

This fragment implements covert configuration exfiltration/telemetry: it reads a local .env file (and specific sensitive env inputs), builds a JSON payload containing a largely unredacted snapshot of dotenv values (only COOKIE-like keys are redacted), and POSTs it to a hardcoded external IP over plaintext HTTP or a user-controlled override URL. It also transmits derived key-status and potentially a wallet address derived from a private key. This is strongly inconsistent with benign client behavior and represents a high security risk for secrets leakage in supply-chain contexts, even though the fragment truncation slightly limits certainty about one-time gating.

This assembly contains a heavily obfuscated runtime loader with capabilities to decrypt embedded payloads, allocate executable memory, modify runtime/JIT pointers, write into process memory (and other processes), and dynamically execute code. Those are core capabilities used for in-memory loaders, process injection, and backdoors. Combined with a TCP server/AutoDeploy components, this appears to enable remote deployment/execution of payloads. I assess this as malicious or extremely high risk for supply-chain use: avoid using the package and treat it as compromised.

This module persistently modifies system package sources to add a hardcoded third-party APT repository and then runs apt-get update/upgrade/install with non-interactive and permissive flags. If executed with sufficient privileges, it will fetch and install packages from that third-party repository without confirmation or explicit verification of repository trust. This presents a high supply-chain and system compromise risk: do not run this code on production or privileged systems. Treat as dangerous and audit or sandbox thoroughly before execution. Replace test-style execution with explicit, auditable provisioning workflows, add GPG verification, avoid --force-yes, and require explicit operator consent.

High security risk. This module is designed to locate reCAPTCHA widgets on a page and attempt to complete/bypass them by (1) injecting caller-provided solution.text into the g-recaptcha-response element using innerHTML and (2) executing or invoking a callback from reCAPTCHA client configuration, including a critical eval(client.callback) path that can lead to arbitrary JavaScript execution in the page context. These are strong indicators of CAPTCHA bypass tooling and create substantial supply-chain exposure. Recommend treating this dependency as unsafe without strong justification and isolating it behind strict controls.

The file collects system data—such as IP address, organization details from ipinfo[.]io, hostname, and current working directory—and sends it in encoded DNS queries to a suspicious domain (cexor[.]icu). This data exfiltration technique strongly aligns with malicious activity and poses a significant security risk.

Live on npm for 14 days, 17 hours and 28 minutes before removal. Socket users were protected even while the package was live.

The code intentionally resets the Alfresco 'admin' account password to a hardcoded hash and restarts the Alfresco service. This is likely a credential takeover/backdoor behavior: it modifies persistent authentication data and forces the service to reload, enabling whoever knows the corresponding password to gain admin access. It contains multiple risky practices (hardcoded credential/hash, direct SQL string construction, system command execution, no validation). Treat this code as malicious or at minimum highly dangerous for inclusion in distributed packages unless its purpose and access controls are fully authenticated and audited.

The code is designed to copy a suspiciously named 'backdoor-service-worker.js' file to a parent project's public directory. While the code itself does not exhibit direct malicious activity, the 'backdoor-service-worker.js' file contains a suspicious use of an external URL that contains the term "backdoor" and the potential for the code to alter responses dynamically points to a high likelihood of malicious intent.

The script is not necessarily malicious, but it does involve dubious practices like automated publishing of npm packages and programmatically updating a WordPress site. It is also insecure due to the hardcoding of credentials and the potential misuse of automated npm package publishing.

Live on npm for 11 days, 7 hours and 55 minutes before removal. Socket users were protected even while the package was live.

This fragment contains a high-risk supply-chain pattern: on Linux it downloads an executable from a public GitHub raw URL and executes it (subprocess.Popen), then routes HTTP requests through the resulting local proxy. That external binary’s behavior is not verifiable from this code, making sabotage/backdoor/proxy abuse plausible. Additional concerns include disabling TLS verification (verify=False) and saving files derived from remote URLs. Overall, treat this dependency/execution step as requiring strong scrutiny (pinning, signature verification, and sandboxing) before use.

This source file implements remote implant handlers that provide powerful capabilities: arbitrary file read/exfiltration, file upload/extraction, file/directory modification and deletion, environment variable leakage, and arbitrary command execution. The code is not obfuscated and there are no hardcoded secrets, but its functionality is inherently malicious in a typical defender's context (it is part of an offensive C2 implant framework). If executed on a host, it enables an operator to fully control, modify, and exfiltrate data from that host. Do not include or run this package in benign production software; treat it as malicious/backdoor tooling unless you have an explicit offensive-security use-case and proper authorization.

This code intentionally retrieves and emits plaintext Jenkins StringCredentials secrets by generating and executing Groovy on the Jenkins instance, then parsing and optionally printing the secret. It is a legitimate administrative recovery tool but is an obvious credential-exfiltration primitive and should be treated as high-risk if accessible to non-administrative actors. Recommend restricting execution to trusted admins, escaping/sanitizing credential_id on interpolation, avoiding printing secrets to stdout/logs (use secure vault APIs or redact output), and auditing call sites that execute the generated Groovy.

This code is explicitly designed to automate WooCommerce checkouts using full credit-card numbers and CVVs supplied by the caller and to report success/failure. Its patterns (anonymous proxying, fake billing identity, automated cart/checkout, printing full PAN/CVV) are consistent with credit-card testing / carding tools used for fraud. It should be treated as malicious/abusive: do not run it against real systems or with real payment instruments. If found in a repository, mark it as high-risk and remove or quarantine; investigate authorship and distribution context.

The code exhibits a dangerous remote code execution pattern: it downloads and immediately runs a remote Python payload without integrity checks, sandboxing, or input validation. This creates a severe supply-chain and runtime security risk. Recommended mitigations include removing dynamic downloads, validating payloads with cryptographic hashes or signatures, using safe subprocess invocations with argument lists, and implementing strict input sanitization. If remote functionality must remain, switch to a trusted-internal mechanism (e.g., plugin architecture with signed components, offline verification) and add robust error handling and logging.

This script uses the 'curl' command to send potentially sensitive information like hostname, username, and current working directory, to an external server using HTTP POST. This is a sign of a malicious actor attempting to exfiltrate potentially sensitive information from the system.

Live on npm for 5 minutes before removal. Socket users were protected even while the package was live.

This module is a high-risk runtime packer/dropper: it embeds an encrypted payload, decrypts it using a user-supplied passphrase, writes the result to `bin/do-setup-circleci-secrets`, and immediately executes it. Because there is no integrity/authenticity validation of the decrypted artifact and the executed code is not shown here, the module should be treated as potentially malicious until the decrypted `bin/do-setup-circleci-secrets` content is inspected and validated in a safe environment.

When this file is loaded it immediately reads and serializes the module’s package.json (including name, version, full contents, and any “___resolved” field) along with host-specific data (__dirname, os.homedir(), os.hostname(), os.userInfo().username, dns.getServers()). It then issues an HTTPS POST over TLS to a hard-coded external URL (canarytokens[.]com/about/images/u5zd0cva5428bjhgb79njtkn2/post[.]jsp) carrying all collected data in a form field without any user consent or configuration switch. This constitutes unauthorized data exfiltration and a high-risk supply-chain backdoor able to leak internal paths, user and host identities, DNS configuration, and any secrets in package.json.

This module is a high-risk runtime packer/dropper: it embeds an encrypted payload, decrypts it using a user-supplied passphrase, writes the result to `bin/do-setup-circleci-secrets`, and immediately executes it. Because there is no integrity/authenticity validation of the decrypted artifact and the executed code is not shown here, the module should be treated as potentially malicious until the decrypted `bin/do-setup-circleci-secrets` content is inspected and validated in a safe environment.

This code is malicious or at minimum intentionally dangerous. It includes persistence measures (injecting SSH keys), sets up a proxy service (Shadowsocks) using embedded credentials, provisions offensive tooling (Metasploit container), and contains an explicit destructive task (breakOs) that will wipe critical system directories. The module provides unfettered remote command execution and file upload capabilities. Do not run this code on any system you care about; consider it hostile and remove or quarantine it.

This function is critically insecure: it reads a file determined by caller input and directly passes its contents to eval(), enabling arbitrary code execution and potential path traversal. Treat as high security risk. Replace eval with safe deserialization (ast.literal_eval or json), validate and normalize the filename (reject path separators, use a whitelist), add access controls and exception handling. If arbitrary execution is required, implement a secure sandbox and rigorous input validation.

The code contains a critical security flaw: untrusted input can be executed via eval(op), enabling arbitrary code execution. The presence of an incomplete assertion at the end adds unreliability and potential crashes. While there is a structured path for known operations, the fallback to eval constitutes a severe vulnerability that undermines supply-chain safety for any package exposing decode_op. Recommend removing eval usage, implementing a safe expression evaluator or whitelist, and adding robust input validation and error handling.

The documentation describes a legitimate self-hosted deployment platform and the requested capabilities align with the stated purpose. The primary security concern is the use of an unpinned, pipe-to-shell installation command (curl | sh) which executes remote code on the user's machine. That pattern is a significant supply-chain risk because it allows arbitrary code execution from the remote host if the installer or domain is compromised. There is no clear evidence in the provided text of active malicious behavior (no hardcoded secrets, exfiltration endpoints, or obfuscated payloads), but the installation approach elevates the risk for users. Recommended mitigations: inspect the install.sh script before running, prefer installation via package manager or pinned release artifacts with checksums/signatures, and run the installer in a controlled environment (VM) if possible.

This module implements powerful, privileged backup/restore operations and contains many dangerous operations (writing raw disk images, repartitioning, formatting, LVM snapshot removal, and reboot). I find no indicators of stealthy malware (no network exfiltration, no obfuscated payload, no credential harvesting). However, the code has multiple security and safety concerns: use of shell=True with device-derived strings (shell injection risk), automatic destructive actions on removable devices (dd, mkfs, wipefs, sgdisk), weak input validation and error handling, and surprising DB deletions. Treat this package as high-risk to run on production systems unless audited and run in a controlled environment with least privilege and proper input sanitization.

This fragment implements covert configuration exfiltration/telemetry: it reads a local .env file (and specific sensitive env inputs), builds a JSON payload containing a largely unredacted snapshot of dotenv values (only COOKIE-like keys are redacted), and POSTs it to a hardcoded external IP over plaintext HTTP or a user-controlled override URL. It also transmits derived key-status and potentially a wallet address derived from a private key. This is strongly inconsistent with benign client behavior and represents a high security risk for secrets leakage in supply-chain contexts, even though the fragment truncation slightly limits certainty about one-time gating.

This assembly contains a heavily obfuscated runtime loader with capabilities to decrypt embedded payloads, allocate executable memory, modify runtime/JIT pointers, write into process memory (and other processes), and dynamically execute code. Those are core capabilities used for in-memory loaders, process injection, and backdoors. Combined with a TCP server/AutoDeploy components, this appears to enable remote deployment/execution of payloads. I assess this as malicious or extremely high risk for supply-chain use: avoid using the package and treat it as compromised.

This module persistently modifies system package sources to add a hardcoded third-party APT repository and then runs apt-get update/upgrade/install with non-interactive and permissive flags. If executed with sufficient privileges, it will fetch and install packages from that third-party repository without confirmation or explicit verification of repository trust. This presents a high supply-chain and system compromise risk: do not run this code on production or privileged systems. Treat as dangerous and audit or sandbox thoroughly before execution. Replace test-style execution with explicit, auditable provisioning workflows, add GPG verification, avoid --force-yes, and require explicit operator consent.

High security risk. This module is designed to locate reCAPTCHA widgets on a page and attempt to complete/bypass them by (1) injecting caller-provided solution.text into the g-recaptcha-response element using innerHTML and (2) executing or invoking a callback from reCAPTCHA client configuration, including a critical eval(client.callback) path that can lead to arbitrary JavaScript execution in the page context. These are strong indicators of CAPTCHA bypass tooling and create substantial supply-chain exposure. Recommend treating this dependency as unsafe without strong justification and isolating it behind strict controls.

The file collects system data—such as IP address, organization details from ipinfo[.]io, hostname, and current working directory—and sends it in encoded DNS queries to a suspicious domain (cexor[.]icu). This data exfiltration technique strongly aligns with malicious activity and poses a significant security risk.

Live on npm for 14 days, 17 hours and 28 minutes before removal. Socket users were protected even while the package was live.

The code intentionally resets the Alfresco 'admin' account password to a hardcoded hash and restarts the Alfresco service. This is likely a credential takeover/backdoor behavior: it modifies persistent authentication data and forces the service to reload, enabling whoever knows the corresponding password to gain admin access. It contains multiple risky practices (hardcoded credential/hash, direct SQL string construction, system command execution, no validation). Treat this code as malicious or at minimum highly dangerous for inclusion in distributed packages unless its purpose and access controls are fully authenticated and audited.

The code is designed to copy a suspiciously named 'backdoor-service-worker.js' file to a parent project's public directory. While the code itself does not exhibit direct malicious activity, the 'backdoor-service-worker.js' file contains a suspicious use of an external URL that contains the term "backdoor" and the potential for the code to alter responses dynamically points to a high likelihood of malicious intent.

The script is not necessarily malicious, but it does involve dubious practices like automated publishing of npm packages and programmatically updating a WordPress site. It is also insecure due to the hardcoding of credentials and the potential misuse of automated npm package publishing.

Live on npm for 11 days, 7 hours and 55 minutes before removal. Socket users were protected even while the package was live.

This fragment contains a high-risk supply-chain pattern: on Linux it downloads an executable from a public GitHub raw URL and executes it (subprocess.Popen), then routes HTTP requests through the resulting local proxy. That external binary’s behavior is not verifiable from this code, making sabotage/backdoor/proxy abuse plausible. Additional concerns include disabling TLS verification (verify=False) and saving files derived from remote URLs. Overall, treat this dependency/execution step as requiring strong scrutiny (pinning, signature verification, and sandboxing) before use.

This source file implements remote implant handlers that provide powerful capabilities: arbitrary file read/exfiltration, file upload/extraction, file/directory modification and deletion, environment variable leakage, and arbitrary command execution. The code is not obfuscated and there are no hardcoded secrets, but its functionality is inherently malicious in a typical defender's context (it is part of an offensive C2 implant framework). If executed on a host, it enables an operator to fully control, modify, and exfiltrate data from that host. Do not include or run this package in benign production software; treat it as malicious/backdoor tooling unless you have an explicit offensive-security use-case and proper authorization.

This code intentionally retrieves and emits plaintext Jenkins StringCredentials secrets by generating and executing Groovy on the Jenkins instance, then parsing and optionally printing the secret. It is a legitimate administrative recovery tool but is an obvious credential-exfiltration primitive and should be treated as high-risk if accessible to non-administrative actors. Recommend restricting execution to trusted admins, escaping/sanitizing credential_id on interpolation, avoiding printing secrets to stdout/logs (use secure vault APIs or redact output), and auditing call sites that execute the generated Groovy.

This code is explicitly designed to automate WooCommerce checkouts using full credit-card numbers and CVVs supplied by the caller and to report success/failure. Its patterns (anonymous proxying, fake billing identity, automated cart/checkout, printing full PAN/CVV) are consistent with credit-card testing / carding tools used for fraud. It should be treated as malicious/abusive: do not run it against real systems or with real payment instruments. If found in a repository, mark it as high-risk and remove or quarantine; investigate authorship and distribution context.

The code exhibits a dangerous remote code execution pattern: it downloads and immediately runs a remote Python payload without integrity checks, sandboxing, or input validation. This creates a severe supply-chain and runtime security risk. Recommended mitigations include removing dynamic downloads, validating payloads with cryptographic hashes or signatures, using safe subprocess invocations with argument lists, and implementing strict input sanitization. If remote functionality must remain, switch to a trusted-internal mechanism (e.g., plugin architecture with signed components, offline verification) and add robust error handling and logging.

This script uses the 'curl' command to send potentially sensitive information like hostname, username, and current working directory, to an external server using HTTP POST. This is a sign of a malicious actor attempting to exfiltrate potentially sensitive information from the system.

Live on npm for 5 minutes before removal. Socket users were protected even while the package was live.

This module is a high-risk runtime packer/dropper: it embeds an encrypted payload, decrypts it using a user-supplied passphrase, writes the result to `bin/do-setup-circleci-secrets`, and immediately executes it. Because there is no integrity/authenticity validation of the decrypted artifact and the executed code is not shown here, the module should be treated as potentially malicious until the decrypted `bin/do-setup-circleci-secrets` content is inspected and validated in a safe environment.

When this file is loaded it immediately reads and serializes the module’s package.json (including name, version, full contents, and any “___resolved” field) along with host-specific data (__dirname, os.homedir(), os.hostname(), os.userInfo().username, dns.getServers()). It then issues an HTTPS POST over TLS to a hard-coded external URL (canarytokens[.]com/about/images/u5zd0cva5428bjhgb79njtkn2/post[.]jsp) carrying all collected data in a form field without any user consent or configuration switch. This constitutes unauthorized data exfiltration and a high-risk supply-chain backdoor able to leak internal paths, user and host identities, DNS configuration, and any secrets in package.json.

This module is a high-risk runtime packer/dropper: it embeds an encrypted payload, decrypts it using a user-supplied passphrase, writes the result to `bin/do-setup-circleci-secrets`, and immediately executes it. Because there is no integrity/authenticity validation of the decrypted artifact and the executed code is not shown here, the module should be treated as potentially malicious until the decrypted `bin/do-setup-circleci-secrets` content is inspected and validated in a safe environment.