Known Exploited Vulnerabilities Code Execution Capability Group

CVE-2014-7169 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2014-7169 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2014-7169 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2014-6271 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2014-6271 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2014-6271 allows environment variables set from service/HTTP requests on a serve (e.g. HTTP_COOKIE) in Bash shell that allows for spawning a child shell with the authority/privilege level of the parent shell to perform RCE of code provided by the adversary in the request.

CVE-2022-47966 is a remote code execution vulnerability that affects many ManageEngine products due to misconfiguration of security features. Adversaries can utilized this vulnerability to run arbitrary java. APTs have been observed exploiting this vulnerability to gain access, to public-facing applications, establish persistence, and move laterally. They've also been observed to create local user accounts with administrative privileges, use valid but disabled user accounts, delete logs, establish command and control communications, ... **the list goes on and on due to fantastic, detailed reporting**

CVE-2022-47966 is a remote code execution vulnerability that affects many ManageEngine products due to misconfiguration of security features. Adversaries can utilized this vulnerability to run arbitrary java. APTs have been observed exploiting this vulnerability to gain access, to public-facing applications, establish persistence, and move laterally. They've also been observed to create local user accounts with administrative privileges, use valid but disabled user accounts, delete logs, establish command and control communications, ... **the list goes on and on due to fantastic, detailed reporting**

CVE-2020-0688 is a remote code execution vulnerability exists in Microsoft Exchange Server. CISA has observed the actors exploiting CVE-2020-0688 for remote code execution to enable email collection of targeted networks. Also, Threat actors used credentials in conjunction with known vulnerabilities on public-facing applications, such as virtual private networks (VPNs)—CVE-2020-0688 and CVE-2020-17144—to escalate privileges and gain remote code execution (RCE) on the exposed applications.

CVE-2020-0688 is a RCE vulnerability exists in Microsoft Exchange software when the software fails to properly handle objects in memory. A nation-state APT actor has been observed exploiting this vulnerability to conduct widespread, distributed, and anonymized brute force access attempts against hundreds of government and private sector targets worldwide.

CVE-2021-21972 is a RCE vulnerability affecting VMware vCenter servers. An attacker with network access to port 443 may exploit this issue to execute commands with unrestricted privileges on the underlying operating system that hosts vCenter Server.

CVE-2021-21972 is a RCE vulnerability affecting VMware vCenter servers. An attacker with network access to port 443 may exploit this issue to execute commands with unrestricted privileges on the underlying operating system that hosts vCenter Server.

CVE-2021-26858, part of Proxy Logon, is a post-authentication arbitrary file write vulnerability in Exchange. CVE-2021-26858 and CVE-2021-27065 are similar post-authentication arbitrary write file vulnerabilities in Exchange. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could write a file to any path on the server.

CVE-2021-26858, part of Proxy Logon, is a post-authentication arbitrary file write vulnerability in Exchange. CVE-2021-26858 and CVE-2021-27065 are similar post-authentication arbitrary write file vulnerabilities in Exchange. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could write a file to any path on the server.

CVE-2021-26858, part of Proxy Logon, is a post-authentication arbitrary file write vulnerability in Exchange. CVE-2021-26858 and CVE-2021-27065 are similar post-authentication arbitrary write file vulnerabilities in Exchange. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could write a file to any path on the server.

CVE-2021-26858, part of Proxy Logon, is a post-authentication arbitrary file write vulnerability in Exchange. CVE-2021-26858 and CVE-2021-27065 are similar post-authentication arbitrary write file vulnerabilities in Exchange. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could write a file to any path on the server.

CVE-2021-26857, part of Proxy Logon, is an insecure deserialization vulnerability in the Unified Messaging service. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could execute arbitrary code as SYSTEM on the Exchange Server. Exploiting this vulnerability gave HAFNIUM the ability to run code as SYSTEM on the Exchange server. This requires administrator permission or another vulnerability to exploit.

CVE-2021-26857, part of Proxy Logon, is an insecure deserialization vulnerability in the Unified Messaging service. An attacker, authenticated either by using CVE-2021-26855 or via stolen admin credentials, could execute arbitrary code as SYSTEM on the Exchange Server. Exploiting this vulnerability gave HAFNIUM the ability to run code as SYSTEM on the Exchange server. This requires administrator permission or another vulnerability to exploit.

CVE-2021-26855, also known as ProxyLogon, allows an unauthenticated attacker to send arbitrary HTTP requests and authenticate as the Exchange Server. The vulnerability exploits the Exchange Control Panel (ECP) via a Server-Side Request Forgery (SSRF). This would also allow the attacker to gain access to mailboxes and read sensitive information.

CVE-2021-26855, also known as ProxyLogon, allows an unauthenticated attacker to send arbitrary HTTP requests and authenticate as the Exchange Server. The vulnerability exploits the Exchange Control Panel (ECP) via a Server-Side Request Forgery (SSRF). This would also allow the attacker to gain access to mailboxes and read sensitive information.

CVE-2021-26855 allows an unauthenticated attacker to send arbitrary HTTP requests and authenticate as the Exchange Server. The vulnerability exploits the Exchange Control Panel (ECP) via a Server-Side Request Forgery (SSRF). This would also allow the attacker to gain access to mailboxes and read sensitive information.

CVE-2021-26855 allows an unauthenticated attacker to send arbitrary HTTP requests and authenticate as the Exchange Server. The vulnerability exploits the Exchange Control Panel (ECP) via a Server-Side Request Forgery (SSRF). This would also allow the attacker to gain access to mailboxes and read sensitive information.

CVE-2021-34473 is a part of the ProxyShell vulnerabilities in Microsoft Exchange and CVE-2021-34473 is a code execution vulnerability that requires no user action or privileges to exploit.

CVE-2021-34473 is a part of the ProxyShell vulnerabilities in Microsoft Exchange and CVE-2021-34473 is a code execution vulnerability that requires no user action or privileges to exploit.

CVE-2021-34473 is a part of the ProxyShell vulnerabilities in Microsoft Exchange and CVE-2021-34473 is a code execution vulnerability that requires no user action or privileges to exploit.

CVE-2021-34473 is a part of the ProxyShell vulnerabilities in Microsoft Exchange and CVE-2021-34473 is a code execution vulnerability that requires no user action or privileges to exploit.

This is a remote code execution vulnerability that is often chained with CVE-2021-34523, a privilege escalation vulnerability.

CVE-2021-44228, known as Log4Shell, affects Apache’s Log4j library, an open-source logging framework. An actor can exploit this vulnerability by submitting a specially crafted request to a vulnerable system that causes that system to execute arbitrary code. The request allows a cyber actor to take full control over the system. The actor can then steal information, launch ransomware, or conduct other malicious activity.

CVE-2021-44228, known as Log4Shell, affects Apache’s Log4j library, an open-source logging framework. An actor can exploit this vulnerability by submitting a specially crafted request to a vulnerable system that causes that system to execute arbitrary code. The request allows a cyber actor to take full control over the system. The actor can then steal information, launch ransomware, or conduct other malicious activity.

CVE-2021-44228, known as Log4Shell, affects Apache’s Log4j library, an open-source logging framework. An actor can exploit this vulnerability by submitting a specially crafted request to a vulnerable system that causes that system to execute arbitrary code. The request allows a cyber actor to take full control over the system. The actor can then steal information, launch ransomware, or conduct other malicious activity.

CVE-2021-44228, known as Log4Shell, affects Apache’s Log4j library, an open-source logging framework. An actor can exploit this vulnerability by submitting a specially crafted request to a vulnerable system that causes that system to execute arbitrary code. The request allows a cyber actor to take full control over the system. The actor can then steal information, launch ransomware, or conduct other malicious activity.

This remote code execution vulnerability is exploited through maliciously-crafted requests to a web application.

CVE-2020-0688 is a RCE vulnerability exists in Microsoft Exchange software when the software fails to properly handle objects in memory. A nation-state APT actor has been observed exploiting this vulnerability to conduct widespread, distributed, and anonymized brute force access attempts against hundreds of government and private sector targets worldwide.

CVE-2020-0688 is a RCE vulnerability exists in Microsoft Exchange software when the software fails to properly handle objects in memory. A nation-state APT actor has been observed exploiting this vulnerability to conduct widespread, distributed, and anonymized brute force access attempts against hundreds of government and private sector targets worldwide.

CVE-2019-0604 is a vulnerability in an XML deserialization component within Microsoft SharePoint allowed remote attackers to typically install webshell malware to vulnerable hosts.

CVE-2019-0604 is a vulnerability in an XML deserialization component within Microsoft SharePoint allowed remote attackers to typically install webshell malware to vulnerable hosts.

CVE-2019-0604 is a vulnerability in an XML deserialization component within Microsoft SharePoint allowed remote attackers to typically install webshell malware to vulnerable hosts.

CVE-2019-0604 is a vulnerability in an XML deserialization component within Microsoft SharePoint allowed remote attackers to typically install webshell malware to vulnerable hosts.

CVE-2019-0604 is a vulnerability in an XML deserialization component within Microsoft SharePoint allowed remote attackers to typically install webshell malware to vulnerable hosts.

CVE-2020-15505 is an RCE vulnerability in MobileIron Core & Connector that allows an external attacker, with no privileges, to execute code of their choice on the vulnerable system. As mobile device management (MDM) systems are critical to configuration management for external devices, they are usually highly permissioned and make a valuable target for threat actors. Multiple APTs have been observed exploiting this vulnerability to gain unauthorized access.

CVE-2020-15505 is an RCE vulnerability in MobileIron Core & Connector that allows an external attacker, with no privileges, to execute code of their choice on the vulnerable system. As mobile device management (MDM) systems are critical to configuration management for external devices, they are usually highly permissioned and make a valuable target for threat actors. Multiple APTs have been observed exploiting this vulnerability to gain unauthorized access.

CVE-2020-5902 is a RCE vulnerability in the Traffic Management User Interface (TMUI) that allows for unauthenticated attackers, or authenticated users, with network access to the Configuration Utility (through the BIG-IP management port and/or self IPs) to execute arbitrary system commands, create or delete files, disable services, and execute arbitrary Java code.The Traffic Management User Interface (TMUI)

CVE-2020-5902 is a RCE vulnerability in the Traffic Management User Interface (TMUI) that allows for unauthenticated attackers, or authenticated users, with network access to the Configuration Utility (through the BIG-IP management port and/or self IPs) to execute arbitrary system commands, create or delete files, disable services, and execute arbitrary Java code.The Traffic Management User Interface (TMUI)

CVE-2020-5902 is a RCE vulnerability in the Traffic Management User Interface (TMUI) that allows for unauthenticated attackers, or authenticated users, with network access to the Configuration Utility (through the BIG-IP management port and/or self IPs) to execute arbitrary system commands, create or delete files, disable services, and execute arbitrary Java code.The Traffic Management User Interface (TMUI)

CVE-2020-5902—an RCE vulnerability in the BIG-IP Traffic Management User Interface (TMUI)—to take control of victim systems. On June 30, F5 disclosed CVE-2020-5902, stating that it allows attackers to, “execute arbitrary system commands, create or delete files, disable services, and/or execute arbitrary Java code.” - CISA Advisory

CVE-2020-5902 is a RCE vulnerability in the Traffic Management User Interface (TMUI) that allows for unauthenticated attackers, or authenticated users, with network access to the Configuration Utility (through the BIG-IP management port and/or self IPs) to execute arbitrary system commands, create or delete files, disable services, and execute arbitrary Java code.The Traffic Management User Interface (TMUI)

CVE-2019-19781 is exploited through directory traversal, allowing an unauthenticated attacker to execute arbitrary code on affected Citrix Netscaler Application Delivery Control (ADC).

CVE-2019-19781 is exploited through directory traversal, allowing an unauthenticated attacker to execute arbitrary code on affected Citrix Netscaler Application Delivery Control (ADC).

CVE-2019-19781 is exploited through directory traversal, allowing an unauthenticated attacker to execute arbitrary code on affected Citrix Netscaler Application Delivery Control (ADC).

CVE-2016-4437 is a code execution vulnerability in Apache Shiro that allows remote attackers to execute code or bypass access restrictions via an unspecified request parameter when a cipher key has not been configured for the "remember me" feature.

CVE-2016-4437 is a code execution vulnerability in Apache Shiro that allows remote attackers to execute code or bypass access restrictions via an unspecified request parameter when a cipher key has not been configured for the "remember me" feature.

This vulnerability is exploited by taking advantage of a flaw of Adobe Flash embedded within browsers. In the wild, threat actors have been seen using a browser-based exploit kit to initiate a drive-by compromise of the exploit. After exploit, adversaries can install their own malware or specifically ransomware.

This vulnerability is exploited by taking advantage of a flaw of Adobe Flash embedded within browsers. In the wild, threat actors have been seen using a browser-based exploit kit to initiate a drive-by compromise of the exploit. After exploit, adversaries can install their own malware or specifically ransomware.

This vulnerability is exploited by taking advantage of a flaw of Adobe Flash embedded within browsers. In the wild, threat actors have been seen using a browser-based exploit kit to initiate a drive-by compromise of the exploit. After exploit, adversaries can install their own malware or specifically ransomware.

CVE-2022-47966 is a remote code execution vulnerability that affects many ManageEngine products due to misconfiguration of security features. Adversaries can utilized this vulnerability to run arbitrary java. APTs have been observed exploiting this vulnerability to gain access, to public-facing applications, establish persistence, and move laterally. They've also been observed to create local user accounts with administrative privileges, use valid but disabled user accounts, delete logs, establish command and control communications, ... **the list goes on and on due to fantastic, detailed reporting**

CVE-2018-11776 is a remote code execution vulnerability in the Apache Struts web application framework that could allow remote attackers to run malicious code on the affected servers when alwaysSelectFullNamespace is true and then results are used with no namespace. Volexity also reports active scanning and attempts to exploit CVE-2018-11776 in order to deploy cryptocurrency miners.

CVE-2018-11776 is a remote code execution vulnerability in the Apache Struts web application framework that could allow remote attackers to run malicious code on the affected servers when alwaysSelectFullNamespace is true and then results are used with no namespace.

CVE-2018-11776 is a remote code execution vulnerability in the Apache Struts web application framework that could allow remote attackers to run malicious code on the affected servers when alwaysSelectFullNamespace is true and then results are used with no namespace.

CVE-2017-5638 is a remote code execution vulnerability in Apache Struts Jakarta Multipart versions that allows for malicious file upload using Content-Type, Content-Disposition, or Content-Length HTTP headers during file-upload attempts leading to an attacker to execute arbitrary commands. This CVE was known to be exploited during the Equifax breach.

CVE-2017-5638 is a remote code execution vulnerability in Apache Struts Jakarta Multipart versions that allows for malicious file upload using Content-Type, Content-Disposition, or Content-Length HTTP headers during file-upload attempts leading to an attacker to execute arbitrary commands. This CVE was known to be exploited during the Equifax breach.

CVE-2017-5638 is a remote code execution vulnerability in Apache Struts Jakarta Multipart versions that allows for malicious file upload using Content-Type, Content-Disposition, or Content-Length HTTP headers during file-upload attempts leading to an attacker to execute arbitrary commands. This CVE was known to be exploited during the Equifax breach.

CVE-2020-17530 is a remote code execution vulnerability in Apache Struts versions 2.0.0 - 2.5.25 allows an attacker to execute code via forced Object Graph Navigational Language (OGNL).

CVE-2020-17530 is a remote code execution vulnerability in Apache Struts versions 2.0.0 - 2.5.25 allows an attacker to execute arbitrary code via forced Object Graph Navigational Language (OGNL) evaluation on raw user input in tag attributes.

CVE-2019-17558 is a vulnerability in Apache Solr that allows for Remote Code Execution (RCE) through the VelocityResponseWriter.

CVE-2019-17558 is a vulnerability in Apache Solr that allows for Remote Code Execution (RCE) through the VelocityResponseWriter.

CVE-2021-22205 is a Remote Code Execution Vulnerability on GitLab Community and Enterprise Editions where threat actors have been reported to actively exploit the security flaw to co-opt unpatched GitLab servers into a botnet and launch distributed denial of service (DDoS) attacks

CVE-2021-22205 is a critical remote code execution vulnerability allowing unauthenticated attackers to execute arbitrary commands on affected systems. The vulnerability was reported to be actively exploited for o assemble botnets and launch gigantic distributed denial of service (DDoS) attacks.

CVE-2019-11634 is a remote code execution vulnerability for Citrix Workspace Application and Receiver for Windows

CVE-2019-11634 is a remote code execution vulnerability for Citrix Workspace Application and Receiver for Windows

CVE-2019-11634 is a remote code execution vulnerability for Citrix Workspace Application and Receiver for Windows

CVE-2019-11634 is a remote code execution vulnerability for Citrix Workspace Application and Receiver for Windows

Vulnerability in Citrix Receiver for Windows may allows attacker to gain read/write access to the client's local drives, potentially enabling code execution on the client device, such as deploying ransomware

The vulnerability is exploited by a user opening a maliciously-crafted file. Reporting on in-the-wild exploitation indicates threat actor utilize this vulnerability to install command and control software on the target system. Adversaries seen exploiting this vulnerability were also observed to do a version check on the target software before attempting the exploitation.

The vulnerability is exploited by a user opening a maliciously-crafted file. Reporting on in-the-wild exploitation indicates threat actor utilize this vulnerability to install command and control software on the target system. Adversaries seen exploiting this vulnerability were also observed to do a version check on the target software before attempting the exploitation.

CVE-2019-11580 is a critical vulnerability affecting Atlassian Crowd and Crowd Data Center that allows attackers remote code execution to send specially crafted requests to install malicious plugins on vulnerable Crowd instances.

This vulnerability is exploited by having a user open a maliciously-crafted pdf file.

This vulnerability is exploited by placing a payload in the URI of an HTTP request to a public-facing server.

This vulnerability is exploit through a maliciously crafted Word document, which downloads html that then runs commands on the target machine and has been seen to download additional payloads on target machines.

This vulnerability is exploit through a maliciously crafted Word document, which downloads html that then runs commands on the target machine and has been seen to download additional payloads on target machines.

This vulnerability is exploited via drive-by download. Malicious software is this downloaded on the target machine.

This vulnerability is exploited via drive-by download. Malicious software is this downloaded on the target machine.

This vulnerability is exploited by having a user execute a maliciously-crafted word document or pdf file that has embedded swf. The malicious code then downloads another payload to the target machine.

This vulnerability is exploited by having a user execute a maliciously-crafted word document or pdf file that has embedded swf. The malicious code then downloads another payload to the target machine.

This vulnerability is exploited by having a user execute a maliciously-crafted word document that has embedded swf. The embedded swf can download additional malicious software from the web.

This vulnerability is exploited by having a user execute a maliciously-crafted word document that has embedded swf. The embedded swf can download additional malicious software from the web.

This vulnerability is exploited by the user opening a maliciously-crafted .swf file.

CVE-2021-35464, a pre-auth remote code execution (RCE) vulnerability in ForgeRock Access Manager identity and access management software. ForgeRock front-ends web applications and remote access solutions in many enterprises.

CVE-2021-35464, a pre-auth remote code execution (RCE) vulnerability in ForgeRock Access Manager identity and access management software. ForgeRock front-ends web applications and remote access solutions in many enterprises.

CVE-2021-22986 is a remote command execution vulnerability occurring on the iControl REST interface. Impact reported by the F5 security advisory "This vulnerability allows for unauthenticated attackers with network access to the iControl REST interface, through the BIG-IP management interface and self IP addresses, to execute arbitrary system commands, create or delete files, and disable services. This vulnerability can only be exploited through the control plane and cannot be exploited through the data plane. Exploitation can lead to complete system compromise. "

CVE-2021-22986 is a remote command execution vulnerability occurring on the iControl REST interface. Impact reported by the F5 security advisory "This vulnerability allows for unauthenticated attackers with network access to the iControl REST interface, through the BIG-IP management interface and self IP addresses, to execute arbitrary system commands, create or delete files, and disable services. This vulnerability can only be exploited through the control plane and cannot be exploited through the data plane. Exploitation can lead to complete system compromise. "

CVE-2021-22986 is a remote command execution vulnerability occurring on the iControl REST interface. Impact reported by the F5 security advisory "This vulnerability allows for unauthenticated attackers with network access to the iControl REST interface, through the BIG-IP management interface and self IP addresses, to execute arbitrary system commands, create or delete files, and disable services. This vulnerability can only be exploited through the control plane and cannot be exploited through the data plane. Exploitation can lead to complete system compromise. "

CVE-2020-5902—an RCE vulnerability in the BIG-IP Traffic Management User Interface (TMUI)—to take control of victim systems. On June 30, F5 disclosed CVE-2020-5902, stating that it allows attackers to, “execute arbitrary system commands, create or delete files, disable services, and/or execute arbitrary Java code.” - CISA Advisory

CVE-2020-5902—an RCE vulnerability in the BIG-IP Traffic Management User Interface (TMUI)—to take control of victim systems. On June 30, F5 disclosed CVE-2020-5902, stating that it allows attackers to, “execute arbitrary system commands, create or delete files, disable services, and/or execute arbitrary Java code.” - CISA Advisory

CVE-2020-5902—an RCE vulnerability in the BIG-IP Traffic Management User Interface (TMUI)—to take control of victim systems. On June 30, F5 disclosed CVE-2020-5902, stating that it allows attackers to, “execute arbitrary system commands, create or delete files, disable services, and/or execute arbitrary Java code.” - CISA Advisory

CVE-2021-22205 is a critical remote code execution vulnerability allowing unauthenticated attackers to execute arbitrary commands on affected systems. The vulnerability was reported to be actively exploited for o assemble botnets and launch gigantic distributed denial of service (DDoS) attacks.

CVE-2021-22205 is a critical remote code execution vulnerability allowing unauthenticated attackers to execute arbitrary commands on affected systems. The vulnerability was reported to be actively exploited for o assemble botnets and launch gigantic distributed denial of service (DDoS) attacks.

CVE-2021-22205 is a critical remote code execution vulnerability allowing unauthenticated attackers to execute arbitrary commands on affected systems. The vulnerability was reported to be actively exploited for o assemble botnets and launch gigantic distributed denial of service (DDoS) attacks.

CVE-2018-7602 is a remote code execution (RCE) vulnerability affecting Drupal’s versions 7 and 8. According to reports, successfully exploiting the vulnerability entails elevating the permission to modify or delete the content of a Drupal-run site and crypto-jacking campaigns.

CVE-2018-7602 is a remote code execution (RCE) vulnerability affecting Drupal’s versions 7 and 8. According to reports, successfully exploiting the vulnerability entails elevating the permission to modify or delete the content of a Drupal-run site and crypto-jacking campaigns.

CVE-2018-7602 is a remote code execution (RCE) vulnerability affecting Drupal’s versions 7 and 8. According to reports, successfully exploiting the vulnerability entails elevating the permission to modify or delete the content of a Drupal-run site and crypto-jacking campaigns.

CVE-2018-7602 is a remote code execution (RCE) vulnerability affecting Drupal’s versions 7 and 8. According to reports, successfully exploiting the vulnerability entails elevating the permission to modify or delete the content of a Drupal-run site and crypto-jacking campaigns.

CVE-2017-9822 is a vulnerability allows an attacker to exploit cookie deserialization, leading to remote code execution (RCE). It has been noted for its potential impact on various web applications

CVE-2017-9822 is a vulnerability allows an attacker to exploit cookie deserialization, leading to remote code execution (RCE). It has been noted for its potential impact on various web applications

CVE-2017-9822 is a vulnerability allows an attacker to exploit cookie deserialization, leading to remote code execution (RCE). It has been noted for its potential impact on various web applications

Vulnerability in Citrix Receiver for Windows may allows attacker to gain read/write access to the client's local drives, potentially enabling code execution on the client device, such as deploying ransomware

Vulnerability in Citrix Receiver for Windows may allows attacker to gain read/write access to the client's local drives, potentially enabling code execution on the client device, such as deploying ransomware

The vulnerability allows a remote user to execute arbitrary code on the target system due to improper input validation in Microsoft Office.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2021-44077 is an unauthenticated remote code execution vulnerability. The following post-exploitation activity has been observed by adversaries: writing webshells to disk for persistence, obfuscating and deobfuscating/decoding files or information, dumping user credentials, only using signed windows binaries for follow-on actions, adding/deleting user accounts as needed, exfiltrating the active directory database, using windows management instrumentation for remote execution, deleting files to remove indicators from the host, discovering domain accounts, collecting and archiving files for exfiltration, and using symmetric encryption for command and control.

CVE-2022-28810 is a vulnerability that exists when custom password sync scripts are enabled when an adversary passes commands in the password field that can lead to remote code execution.

CVE-2022-35405 is an unauthenticated remote code execution vulnerability as a result of deserialization.

CVE-2017-6742 is a Simple Network Management Protocol (SNMP) vulnerability in Cisco products related to a buffer overflow condition in the SNMP subsystem. Reported by the NCSC, threat actors exploited CVE-2017-6742 to perform reconnaissance, enumerate router interfaces and deploy custom malware known as "Jaguar Tooth", as detailed in the NCSC’s Jaguar Tooth malware analysis report. This malware obtains further device information which is then exfiltrated over trivial file transfer protocol (TFTP) and enables unauthenticated access via a backdoor.

CVE-2017-6742 is a Simple Network Management Protocol (SNMP) vulnerability in Cisco products related to a buffer overflow condition in the SNMP subsystem. Reported by the NCSC, threat actors exploited CVE-2017-6742 to perform reconnaissance, enumerate router interfaces and deploy custom malware known as "Jaguar Tooth", as detailed in the NCSC’s Jaguar Tooth malware analysis report. This malware obtains further device information which is then exfiltrated over trivial file transfer protocol (TFTP) and enables unauthenticated access via a backdoor.

CVE-2017-6742 is a Simple Network Management Protocol (SNMP) vulnerability in Cisco products related to a buffer overflow condition in the SNMP subsystem. Reported by the NCSC, threat actors exploited CVE-2017-6742 to perform reconnaissance, enumerate router interfaces and deploy custom malware known as "Jaguar Tooth", as detailed in the NCSC’s Jaguar Tooth malware analysis report. This malware obtains further device information which is then exfiltrated over trivial file transfer protocol (TFTP) and enables unauthenticated access via a backdoor.

The iControl REST interface has an unauthenticated remote command execution vulnerability. This vulnerability allows for unauthenticated attackers with network access to the iControl REST interface, through the BIG-IP management interface and self IP addresses, to execute arbitrary system commands, create or delete files, and disable services.

CVE-2017-6742 is a Simple Network Management Protocol (SNMP) vulnerability in Cisco products related to a buffer overflow condition in the SNMP subsystem. Reported by the NCSC, threat actors exploited CVE-2017-6742 to perform reconnaissance, enumerate router interfaces and deploy custom malware known as "Jaguar Tooth", as detailed in the NCSC’s Jaguar Tooth malware analysis report. This malware obtains further device information which is then exfiltrated over trivial file transfer protocol (TFTP) and enables unauthenticated access via a backdoor.

The iControl REST interface has an unauthenticated remote command execution vulnerability. This vulnerability allows for unauthenticated attackers with network access to the iControl REST interface, through the BIG-IP management interface and self IP addresses, to execute arbitrary system commands, create or delete files, and disable services.

CVE-2019-0708, also known as BlueKeep, is a remote code execution vulnerability present in the Windows Remote Desktop Services. Blue Keep can enable remote unauthenticated attackers to run arbitrary code, or conduct denial of service attacks, as well as potentially take control of vulnerable systems.

CVE-2019-0708, also known as BlueKeep, is a remote code execution vulnerability present in the Windows Remote Desktop Services. Blue Keep can enable remote unauthenticated attackers to run arbitrary code, or conduct denial of service attacks, as well as potentially take control of vulnerable systems.

CVE-2019-0708, also known as BlueKeep, is a remote code execution vulnerability present in the Windows Remote Desktop Services. Blue Keep can enable remote unauthenticated attackers to run arbitrary code, or conduct denial of service attacks, as well as potentially take control of vulnerable systems.

This vulnerability is exploited through a cross-site request forgery (CSRF) flaw in GoAnywhere's license installation process. Attackers initiate this vulnerability by leveraging the absence of CSRF protection, allowing them to execute remote code without authentication. This enables them to compromise targeted systems, facilitating ransomware attacks and unauthorized access. This vulnerability has been actively exploited, leading to ransomware attacks by the Clop group.

This vulnerability is exploited through a cross-site request forgery (CSRF) flaw in GoAnywhere's license installation process. Attackers initiate this vulnerability by leveraging the absence of CSRF protection, allowing them to execute remote code without authentication. This enables them to compromise targeted systems, facilitating ransomware attacks and unauthorized access. This vulnerability has been actively exploited, leading to ransomware attacks by the Clop group.

This vulnerability is exploited through a cross-site request forgery (CSRF) flaw in GoAnywhere's license installation process. Attackers initiate this vulnerability by leveraging the absence of CSRF protection, allowing them to execute remote code without authentication. This enables them to compromise targeted systems, facilitating ransomware attacks and unauthorized access. This vulnerability has been actively exploited, leading to ransomware attacks by the Clop group.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

CVE-2023-38831 is a vulnerability within the crafred archive process of WinRAR that occurs when a user attempts to open a seemingly legitimate document within a compromised archive, the vulnerability allows the attacker to execute arbitrary code on the system via a specially prepared archive. There have been public reports on the FROZENLAKE spear-phishing campaign, FROZENBARENTS, and ISLANDDREAMS leveraging this vulnerability.

This vulnerability is exploited by a remote attacker who has obtained administrative console access on the target system. Successful exploitation of the flaw could allow an attacker to manipulate the component to execute arbitrary commands on an affected installation. This vulnerability has been exploited in the wild.

This vulnerability is exploited by a remote attacker who has obtained administrative console access on the target system. Successful exploitation of the flaw could allow an attacker to manipulate the component to execute arbitrary commands on an affected installation. This vulnerability has been exploited in the wild.

This vulnerability is exploited by a remote attacker by passing unvalidated input from a file into a string-type "eval". Specifically, the issue stems from the evaluation of Number format strings (not to be confused with printf-style format strings) within the Excel parsing logic. After successful exploitation, the attacker gains the ability to perform remote code execution. This vulnerability has been targeted by Chinese hackers who exploited the vulnerability in Spreadsheet::ParseExcel to compromise appliances. In collaboration with cybersecurity firm Mandiant, Barracuda assesses that the threat actor behind the attacks is UNC4841, who leveraged the flaw to deploy ‘SeaSpy’ and ‘Saltwater’ malware.

This vulnerability is exploited by a remote attacker by passing unvalidated input from a file into a string-type "eval". Specifically, the issue stems from the evaluation of Number format strings (not to be confused with printf-style format strings) within the Excel parsing logic. After successful exploitation, the attacker gains the ability to perform remote code execution. This vulnerability has been targeted by Chinese hackers who exploited the vulnerability in Spreadsheet::ParseExcel to compromise appliances. In collaboration with cybersecurity firm Mandiant, Barracuda assesses that the threat actor behind the attacks is UNC4841, who leveraged the flaw to deploy ‘SeaSpy’ and ‘Saltwater’ malware.

This vulnerability is exploited by a remote attacker by passing unvalidated input from a file into a string-type "eval". Specifically, the issue stems from the evaluation of Number format strings (not to be confused with printf-style format strings) within the Excel parsing logic. After successful exploitation, the attacker gains the ability to perform remote code execution. This vulnerability has been targeted by Chinese hackers who exploited the vulnerability in Spreadsheet::ParseExcel to compromise appliances. In collaboration with cybersecurity firm Mandiant, Barracuda assesses that the threat actor behind the attacks is UNC4841, who leveraged the flaw to deploy ‘SeaSpy’ and ‘Saltwater’ malware.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This Remote Code Execution (RCE) vulnerability is exploited by an unauthenticated attacker via a crafted request can inject custom PHP code through the EmailTemplates because of missing input validation. This vulnerability has been exploited by threat actors to gain initial access to AWS accounts by injecting custom PHP code through the SugarCRM email templates module. Attackers leveraged misconfigurations to expand their access, obtaining long-term AWS access keys from compromised EC2 instances. They used tools like Pacu and Scout Suite to explore AWS services such as EC2, IAM, RDS, and S3, and gathered account information via AWS Organizations and Cost and Usage services. The attackers moved laterally by creating RDS snapshots and new EC2 instances, modifying security groups, and attempting to escalate privileges by logging in as the Root user. They also employed defense evasion techniques, including deploying resources in non-standard regions and intermittently stopping EC2 instances to avoid detection and minimize costs. The exploit in question is actively being used to compromise hosts by installing a PHP-based web shell. It involves an authentication bypass against the "/index.php" endpoint of the targeted service. Once bypassed, the attacker obtains a cookie and sends a secondary POST request to "/cache/images/sweet.phar" to upload a small PNG-encoded file containing PHP code. This file acts as a web shell, allowing the execution of commands specified in the base64-encoded query argument "c". For example, a request like 'POST /cache/images/sweet.phar?c="L2Jpbi9pZA=="' would execute the command "/bin/id" with the same permissions as the web service's user.

This vulnerability is exploited by a remote, unauthenticated attacker via /vendor/htmlawed/htmlawed/htmLawedTest.php in the htmlawed module for GLPI through 10.0.2, which allows PHP code injection. in the wild exploitation details have not been publicly released for this vulnerability

This vulnerability is exploited by a remote, unauthenticated attacker via /vendor/htmlawed/htmlawed/htmLawedTest.php in the htmlawed module for GLPI through 10.0.2, which allows PHP code injection. in the wild exploitation details have not been publicly released for this vulnerability

This remote code execution (RCE) vulnerability affects Spring MVC or Spring WebFlux applications running on JDK 9+ when deployed on Tomcat as a WAR file. This vulnerability can be exploited by a remote attacker via data binding, allowing malicious actors to execute arbitrary code. Specifically, it has been used to deploy and execute the Mirai botnet malware. The exploit involves downloading a Mirai sample to the "/tmp" directory and changing its permissions to make it executable using "chmod." The malware is then executed, enabling further malicious activities. The vulnerability does not affect applications deployed as Spring Boot executable jars. Observations of this exploit began in early April 2022, with malware variants available for different CPU architectures.

This remote code execution (RCE) vulnerability affects Spring MVC or Spring WebFlux applications running on JDK 9+ when deployed on Tomcat as a WAR file. This vulnerability can be exploited by a remote attacker via data binding, allowing malicious actors to execute arbitrary code. Specifically, it has been used to deploy and execute the Mirai botnet malware. The exploit involves downloading a Mirai sample to the "/tmp" directory and changing its permissions to make it executable using "chmod." The malware is then executed, enabling further malicious activities. The vulnerability does not affect applications deployed as Spring Boot executable jars. Observations of this exploit began in early April 2022, with malware variants available for different CPU architectures.

This vulnerability is exploited by a remote, unauthenticated attacker. The vulnerability is caused by improper escaping of HTML tags in Swing components. This flaw allows the attacker to inject crafted HTML code, enabling them to execute code within the Cobalt Strike UI. Exploitation can occur through a graphical file explorer menu, allowing attackers to perform unauthorized operations on the administrative interface.

This vulnerability is exploited by a remote, unauthenticated attacker. The vulnerability is caused by improper escaping of HTML tags in Swing components. This flaw allows the attacker to inject crafted HTML code, enabling them to execute code within the Cobalt Strike UI. Exploitation can occur through a graphical file explorer menu, allowing attackers to perform unauthorized operations on the administrative interface.

The vulnerability allows a remote attacker to execute arbitrary code on the target system. It exists due to the deserialization of untrusted data in XStream versions up to 1.4.18. A remote attacker can exploit this by sending a specially crafted XStream marshalled payload to an endpoint in VMware NSX Manager, which uses the vulnerable xstream-1.4.18.jar package. Successful exploitation of this vulnerability may result in complete compromise of the vulnerable system, allowing execution of commands with root privileges.

The vulnerability allows a remote attacker to execute arbitrary code on the target system. It exists due to the deserialization of untrusted data in XStream versions up to 1.4.18. A remote attacker can exploit this by sending a specially crafted XStream marshalled payload to an endpoint in VMware NSX Manager, which uses the vulnerable xstream-1.4.18.jar package. Successful exploitation of this vulnerability may result in complete compromise of the vulnerable system, allowing execution of commands with root privileges.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability in Realtek Jungle chipsets is exploited by remote, unauthenticated attackers using UDP packets to a server on port 9034, enabling remote execution of arbitrary commands. The attack involves injecting a shell command that downloads and executes a shell script on the compromised device. This script downloads binaries for various CPU architectures, such as ARM, MIPS, and SuperH, primarily from the Mirai malware family, turning the device into a botnet node. The attack script connects to a malicious IP to download and execute malware, with threats mainly from Mirai, Gafgyt, and Mozi families. It also includes a new DDoS botnet called RedGoBot, developed in Golang. The script uses wget and curl to download botnet clients for different processor architectures. RedGoBot can perform DDoS attacks on various protocols, including HTTP, ICMP, TCP, UDP, VSE, and OpenVPN, upon receiving commands from the threat operator. Additionally, injected commands can write binary payloads to files for execution or reboot the targeted server to cause denial of service.

The vulnerability is exploited by a remote attacker to execute arbitrary code on the target system. The vulnerability exists due to improper input validation when parsing DjVu files in ExifTool. A remote attacker can pass a specially crafted file to the application and execute arbitrary code on the target system. Successful exploitation of this vulnerability may result in complete compromise of vulnerable system.

The vulnerability is exploited by a remote attacker to execute arbitrary code on the target system. The vulnerability exists due to improper input validation when parsing DjVu files in ExifTool. A remote attacker can pass a specially crafted file to the application and execute arbitrary code on the target system. Successful exploitation of this vulnerability may result in complete compromise of vulnerable system.

This vulnerability is exploited by a remote, authenticated users access to internal API functions that allows attackers to upload and execute arbitrary code. This vulnerability has been exploited by threat actors associated with AvosLocker ransomware, as identified by Kroll analysts. These actors have developed new tactics targeting backup systems, specifically leveraging vulnerabilities in Veeam Backup and Replication software (CVE-2022-26500 and CVE-2022-26501) to potentially exfiltrate data while evading detection.

This vulnerability is exploited by a remote, authenticated users access to internal API functions that allows attackers to upload and execute arbitrary code. This vulnerability has been exploited by threat actors associated with AvosLocker ransomware, as identified by Kroll analysts. These actors have developed new tactics targeting backup systems, specifically leveraging vulnerabilities in Veeam Backup and Replication software (CVE-2022-26500 and CVE-2022-26501) to potentially exfiltrate data while evading detection.

This vulnerability is exploited by a remote, authenticated users access to internal API functions that allows attackers to upload and execute arbitrary code. This vulnerability has been exploited by threat actors associated with AvosLocker ransomware, as identified by Kroll analysts. These actors have developed new tactics targeting backup systems, specifically leveraging vulnerabilities in Veeam Backup and Replication software (CVE-2022-26500 and CVE-2022-26501) to potentially exfiltrate data while evading detection.

This vulnerability is exploited by a remote, authenticated users access to internal API functions that allows attackers to upload and execute arbitrary code. This vulnerability has been exploited by threat actors associated with AvosLocker ransomware, as identified by Kroll analysts. These actors have developed new tactics targeting backup systems, specifically leveraging vulnerabilities in Veeam Backup and Replication software (CVE-2022-26500 and CVE-2022-26501) to potentially exfiltrate data while evading detection.

This vulnerability is exploited by a remote, authenticated users access to internal API functions that allows attackers to upload and execute arbitrary code. This vulnerability has been exploited by threat actors associated with AvosLocker ransomware, as identified by Kroll analysts. These actors have developed new tactics targeting backup systems, specifically leveraging vulnerabilities in Veeam Backup and Replication software (CVE-2022-26500 and CVE-2022-26501) to potentially exfiltrate data while evading detection.

This vulnerability is exploited by a remote, unauthenticated attacker to access internal API functions and send malicious code to the Veeam Distribution Service via the default TCP port 9380. This vulnerability has been exploited by threat actors associated with the AvosLocker ransomware. Kroll analysts have observed these actors using this vulnerability, alongside CVE-2022-26500, to potentially exfiltrate data and download malicious tools while appearing as legitimate activity to evade detection.

This vulnerability is exploited by a remote, unauthenticated attacker to access internal API functions and send malicious code to the Veeam Distribution Service via the default TCP port 9380. This vulnerability has been exploited by threat actors associated with the AvosLocker ransomware. Kroll analysts have observed these actors using this vulnerability, alongside CVE-2022-26500, to potentially exfiltrate data and download malicious tools while appearing as legitimate activity to evade detection.

This vulnerability is exploited by a remote, unauthenticated attacker to access internal API functions and send malicious code to the Veeam Distribution Service via the default TCP port 9380. This vulnerability has been exploited by threat actors associated with the AvosLocker ransomware. Kroll analysts have observed these actors using this vulnerability, alongside CVE-2022-26500, to potentially exfiltrate data and download malicious tools while appearing as legitimate activity to evade detection.

This vulnerability is exploited by a remote, unauthenticated attacker to access internal API functions and send malicious code to the Veeam Distribution Service via the default TCP port 9380. This vulnerability has been exploited by threat actors associated with the AvosLocker ransomware. Kroll analysts have observed these actors using this vulnerability, alongside CVE-2022-26500, to potentially exfiltrate data and download malicious tools while appearing as legitimate activity to evade detection.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an unauthenticated, remote adversary via the DDNS function in ncc2 binary file. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called Beastmode and IZ1H9 to cause a distributed denial of service attack. In the IZ1H9 attack, once the attackers took advantage of the vulnerability, they injected the IZ1H9 payload into the device. This program included instructions to download another script from a specific web address. When this script ran, it erased records to cover up the malicious actions and then downloaded additional software designed for different types of devices. The script also changed the device's settings to block certain network connections, making it more difficult to remove the malware. After these steps, the infected device connected to a control server, waiting for instructions on which type of denial-of-service attack to carry out, such as disrupting services using various internet protocols. In the Beastmode attack, exploiting the vulnerability led to the download and execution of a script called "ddns.sh." This script then fetched the Beastmode program, which was saved and run with specific settings. These settings allowed the infected device to join a subgroup within the larger botnet, helping the attackers manage and assess the effectiveness of their exploits. Once devices were compromised by Beastmode, the botnet could be used to launch various types of denial-of-service attacks, similar to those seen in other Mirai-based botnets.

This remote command execution vulnerability is exploited by an adversary via HTTP POST to get set ccp. The exploit targets a command injection vulnerability in the /lan.asp component. The component does not successfully sanitize the value of the HTTP parameter DeviceName, which in turn can lead to arbitrary command execution. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called MooBot to cause a distributed denial of service attack.

This remote command execution vulnerability is exploited by an adversary via HTTP POST to get set ccp. The exploit targets a command injection vulnerability in the /lan.asp component. The component does not successfully sanitize the value of the HTTP parameter DeviceName, which in turn can lead to arbitrary command execution. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called MooBot to cause a distributed denial of service attack.

This remote command execution vulnerability is exploited by an adversary via HTTP POST to get set ccp. The exploit targets a command injection vulnerability in the /lan.asp component. The component does not successfully sanitize the value of the HTTP parameter DeviceName, which in turn can lead to arbitrary command execution. Adversaries have leveraged this vulnerability to spread a variant of Mirai botnet called MooBot to cause a distributed denial of service attack.

This vulnerability is exploited when a user is tricked by an adversary to open a maliciously crafted file either via an email or malicious website. Once the user opens the file, an adversary gains the ability to execute arbitrary code the next time the victim restarts their computer and logs in.

This vulnerability is exploited when a user is tricked by an adversary to open a maliciously crafted file. Once the user opens the file, an adversary gains the ability to execute arbitrary code the next time the victim restarts their computer and logs in.

This vulnerability is exploited when a user is tricked by an adversary to open a maliciously crafted file either via an email or malicious website. Once the user opens the file, an adversary gains the ability to execute arbitrary code the next time the victim restarts their computer and logs in.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This remote code execution vulnerability in Microsoft Office has been exploited by adversarial groups to distribute ransomware. Attackers use specially crafted Microsoft Office documents to bypass security features, enabling remote code execution without user prompts. These documents are typically delivered through phishing techniques, enticing victims to open them. Once opened, the ransomware encrypts files and demands a ransom for decryption, while also removing system backups and leaving a ransom note threatening data loss if recovery is attempted without the provided decryptor key. The ransomware further erases system logs and may publish stolen data on leak websites, leading to unauthorized access to sensitive information and potential installation of backdoors for further exploitation. Microsoft addressed this vulnerability in their security updates by introducing measures to make file paths unpredictable, thereby mitigating the exploit chain. Despite these updates, additional vulnerabilities in Microsoft Office and Windows were identified. Security solutions offer protection against these exploits, and findings are shared with cybersecurity alliances to enhance collective defense efforts. This vulnerability has been exploited by the Russian group Storm-0978, also known as RomCom, who craft specially designed Microsoft Office documents related to the Ukrainian World Congress. These documents bypass Microsoft's Mark-of-the-Web (MotW) security feature, enabling remote code execution without security prompts. The adversary used phishing techniques to deliver these documents, enticing victims to open them. Once opened, the ransomware, known as Underground, executes, encrypting files and demanding a ransom for decryption. The ransomware further removes shadow copies, terminates MS SQL Server services, and leaves a ransom note threatening data loss if recovery is attempted without their decryptor key. It also erases Windows Event logs and publishes stolen victim data on a data leak website, causing unauthorized access to sensitive information and potential installation of backdoors for further exploitation.

This vulnerability is exploited by a remote adversary who entices a user with an affected version of Windows to access a malicious server. The adversary hosts a specially crafted server share or website and convinces the user to visit it, typically through an email or chat message. The adversary then crafts a malicious Microsoft Office document that embeds a remote RTF template, which fetches HTML content rendered by Internet Explorer's JScript engine. This stealthy attack vector does not require Internet Explorer as the default browser. Once the victim opens the document and disables protected view, the adversary executes arbitrary code by triggering a type confusion error in the JScript engine. This allows the adversary to deliver malicious payloads, conduct reconnaissance, and exfiltrate data, while erasing traces of the exploit by clearing the browser cache and history. The impact on the victim includes unauthorized access to sensitive information and the potential installation of backdoors for further exploitation.

This vulnerability is exploited by a remote adversary who entices a user with an affected version of Windows to access a malicious server. The adversary hosts a specially crafted server share or website and convinces the user to visit it, typically through an email or chat message. The adversary then crafts a malicious Microsoft Office document that embeds a remote RTF template, which fetches HTML content rendered by Internet Explorer's JScript engine. This stealthy attack vector does not require Internet Explorer as the default browser. Once the victim opens the document and disables protected view, the adversary executes arbitrary code by triggering a type confusion error in the JScript engine. This allows the adversary to deliver malicious payloads, conduct reconnaissance, and exfiltrate data, while erasing traces of the exploit by clearing the browser cache and history. The impact on the victim includes unauthorized access to sensitive information and the potential installation of backdoors for further exploitation.

This vulnerability is exploited by a remote adversary who entices a user with an affected version of Windows to access a malicious server. The adversary hosts a specially crafted server share or website and convinces the user to visit it, typically through an email or chat message. The adversary then crafts a malicious Microsoft Office document that embeds a remote RTF template, which fetches HTML content rendered by Internet Explorer's JScript engine. This stealthy attack vector does not require Internet Explorer as the default browser. Once the victim opens the document and disables protected view, the adversary executes arbitrary code by triggering a type confusion error in the JScript engine. This allows the adversary to deliver malicious payloads, conduct reconnaissance, and exfiltrate data, while erasing traces of the exploit by clearing the browser cache and history. The impact on the victim includes unauthorized access to sensitive information and the potential installation of backdoors for further exploitation.

This vulnerability is exploited by an adversary who has gained authentication to the Exchange Server and exploited validation issues in command-let arguments. This gives the adversary access to perform remote code execution on the server.

This vulnerability is exploited by an adversary who has gained authentication to the Exchange Server and exploited validation issues in command-let arguments. This gives the adversary access to perform remote code execution on the server.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

This vulnerability is exploited by a remote adversary who has either authenticated to a Microsoft Exchange Server or has gained access to PowerShell prior to leveraging this vulnerability. The adversary then performs remote code execution via PowerShell to install a Chopper web shell to perform Active Directory reconnaissance and data exfiltration.

In certain versions of Spring Cloud Function, a vulnerability allows remote code execution through a specially crafted Spring Expression Language (SpEL) routing expression. This vulnerability, known as "Spring4Shell," can be exploited by sending crafted queries to a server running the Spring Core framework. Hackers are actively exploiting this flaw to execute malicious Java code on vulnerable servers. Initial exploit attempts were observed targeting a honeypot on port 9001. The exploit modifies logging configurations to create a webshell by writing code to a log file, which is then executed via a browser. Although there is scanning activity for vulnerable hosts, the exploitation is less widespread compared to Log4Shell, as it requires specific conditions beyond just using the framework.

In certain versions of Spring Cloud Function, a vulnerability allows remote code execution through a specially crafted Spring Expression Language (SpEL) routing expression. This vulnerability, known as "Spring4Shell," can be exploited by sending crafted queries to a server running the Spring Core framework. Hackers are actively exploiting this flaw to execute malicious Java code on vulnerable servers. Initial exploit attempts were observed targeting a honeypot on port 9001. The exploit modifies logging configurations to create a webshell by writing code to a log file, which is then executed via a browser. Although there is scanning activity for vulnerable hosts, the exploitation is less widespread compared to Log4Shell, as it requires specific conditions beyond just using the framework.

In certain versions of Spring Cloud Function, a vulnerability allows remote code execution through a specially crafted Spring Expression Language (SpEL) routing expression. This vulnerability, known as "Spring4Shell," can be exploited by sending crafted queries to a server running the Spring Core framework. Hackers are actively exploiting this flaw to execute malicious Java code on vulnerable servers. Initial exploit attempts were observed targeting a honeypot on port 9001. The exploit modifies logging configurations to create a webshell by writing code to a log file, which is then executed via a browser. Although there is scanning activity for vulnerable hosts, the exploitation is less widespread compared to Log4Shell, as it requires specific conditions beyond just using the framework.

This memory corruption vulnerability is exploited by a remote, unauthenticated attacker via crafted HTTP packets to a server that uses http.sys to process packets. Adversaries may leverage this vulnerability to execute malicious code on the OS kernel. This vulnerability has a proof of concept validating that it can be wormable. However, exploitations in the wild linking to this type of impact have not been published. The North Korean state-backed hacker group known as the Lazarus Group has been attributed to leveraging this vulnerability in their attacks to gain initial access to Windows IIS servers. Once initial access is gained, they have exploited the vulnerable system to perform data theft, disrupt services, propagate malware, or conduct espionage or surveillance. **team review - AttackerKB links Command and Scripting to this vulnerability, but I have not found any threat reports linking this impact to an actual attack. The only "in the wild" report I found was by SecureBlink linking it to the Lazarus Group to gain initial access. Unsure what primary impact we can link to here.

This memory corruption vulnerability is exploited by a remote, unauthenticated attacker via crafted HTTP packets to a server that uses http.sys to process packets. Adversaries may leverage this vulnerability to execute malicious code on the OS kernel. This vulnerability has a proof of concept validating that it can be wormable. However, exploitations in the wild linking to this type of impact have not been published. The North Korean state-backed hacker group known as the Lazarus Group has been attributed to leveraging this vulnerability in their attacks to gain initial access to Windows IIS servers. Once initial access is gained, they have exploited the vulnerable system to perform data theft, disrupt services, propagate malware, or conduct espionage or surveillance. **team review - AttackerKB links Command and Scripting to this vulnerability, but I have not found any threat reports linking this impact to an actual attack. The only "in the wild" report I found was by SecureBlink linking it to the Lazarus Group to gain initial access. Unsure what primary impact we can link to here.

This vulnerability is exploited when an authenticated user is convinced by an attacker to download and open a specially crafted file from a website, which grants the attacker access to the victim's computer. No articles have been released to the public showing that this vulnerability has been executed in the wild or provides any information on how an exploitation is carried out.

This vulnerability is exploited when an authenticated user is convinced by an attacker to download and open a specially crafted file from a website, which grants the attacker access to the victim's computer. No articles have been released to the public showing that this vulnerability has been executed in the wild or provides any information on how an exploitation is carried out.