Tenda Vulnerabilities

This vulnerability allows an attacker to remotely take control of the Tenda F453 router by exploiting a flaw in its email filtering function, which can lead to a buffer overflow. The attacker needs to send specially crafted requests to the router, making it possible for them to execute malicious code.

An attacker can remotely exploit a flaw in the Tenda F453 router's firmware to cause a buffer overflow, potentially allowing them to take control of the device. This vulnerability can be triggered by manipulating specific settings in the router's configuration, making it easy for attackers to launch an attack if they know how to exploit it.

An attacker can remotely exploit a vulnerability in Tenda F453 firmware to cause a buffer overflow, potentially allowing them to execute arbitrary code on the device. This requires the attacker to manipulate a specific argument in a web request, making it relatively easy for them to launch an attack.

This vulnerability allows an attacker to remotely execute malicious code on the Tenda F453 router by exploiting a buffer overflow in its firmware. The attacker can do this by manipulating specific input, and since the exploit is publicly available, it poses a significant risk to users who haven't updated their devices.

This vulnerability allows an attacker to access sensitive information, including the router's password and administrative password, in plain text through a flawed configuration download feature. If a user downloads this configuration, it can be stored in their browser's cache, making it accessible to anyone with access to that device.

An attacker can trick an authenticated administrator of the Tenda F3 router into making unwanted changes to the router's settings through its web interface. This vulnerability occurs because the router does not have protections in place to prevent such attacks, meaning the administrator must be logged in for the attack to succeed.

This vulnerability allows an attacker to execute malicious scripts within the administrative interface of the Tenda F3 router, potentially gaining control over the device. It occurs because the router's firmware does not properly handle content types, which can lead to browsers interpreting harmful content as legitimate HTML, but it requires the attacker to trick the router into sending a specially crafted response.

This vulnerability allows an attacker to trick an authenticated administrator into making unwanted changes to the router's settings by embedding the router's admin page in a hidden frame on their own website. It requires the administrator to visit the attacker's site while logged into the router's interface, as the router does not protect its pages from being embedded in this way.

This vulnerability allows an attacker to execute arbitrary code on the Tenda FH1203 router by exploiting a flaw in a specific function that handles client priority settings. To take advantage of this, the attacker must have access to the router's web interface, which typically requires being on the same network.

This vulnerability allows an attacker to remotely execute code on Tenda A18 routers by exploiting a flaw in the file upload function, which can lead to a stack-based buffer overflow. To successfully carry out the attack, the attacker needs to manipulate specific input parameters, and there are already publicly available methods to exploit this weakness.

An attacker can remotely exploit a flaw in the Tenda HG9 router's wireless settings to execute malicious code by sending specially crafted data, potentially taking control of the device. This vulnerability requires no special access or authentication, making it particularly dangerous.

An attacker can remotely exploit a flaw in the Tenda A21 router's firmware to overwrite memory by sending a specially crafted device name, which could lead to unauthorized access or control of the device. This vulnerability is serious because it can be easily triggered without needing physical access to the router.

An attacker can remotely exploit a flaw in the Tenda A18 firmware to execute malicious code by overflowing a buffer when sending specially crafted data to the device's Wi-Fi settings. This vulnerability requires no physical access to the device, making it a serious risk for anyone using this router model.

An attacker can remotely exploit a vulnerability in the Tenda A18 router to execute arbitrary code by sending specially crafted data that causes a buffer overflow. This requires the attacker to have access to the router's settings, specifically through the function that manages MAC address filtering.

An attacker can remotely exploit a flaw in the Tenda A21 router's firmware to gain control of the device by manipulating the Wi-Fi network name (SSID), potentially allowing them to execute harmful code. This vulnerability requires no special access, making it particularly dangerous for users who haven't updated their firmware.

An attacker can remotely exploit a vulnerability in the Tenda A21 router to execute malicious code by manipulating specific settings related to scheduled Wi-Fi access, which can lead to a crash or unauthorized control of the device. This attack requires no special access, making it a significant risk for anyone using this router firmware version.

An attacker can remotely exploit a vulnerability in the Tenda A21 router to execute arbitrary code by manipulating the device name during MAC filtering configuration, potentially taking control of the device. This requires the attacker to send specially crafted data to the router, making it a serious risk for anyone using this firmware version.

This vulnerability allows an attacker to remotely execute malicious code on Tenda A21 routers by exploiting a flaw in the way the device handles certain input, leading to a stack-based buffer overflow. To successfully carry out the attack, the attacker needs to send specially crafted data to the router's configuration interface.

This vulnerability allows an attacker to remotely execute code on Tenda A21 routers by exploiting a flaw in the firmware that leads to a stack-based buffer overflow. The attacker just needs to send specially crafted data to the device, making it a serious risk for anyone using the affected firmware version.