| CVE |
Vendors |
Products |
Updated |
CVSS v3.1 |
| An unauthenticated attacker with network access to the captive portal service of an affected device can terminate active captive portal sessions, including forcing logout of specific users or clearing all active sessions. Affected users must re-authenticate to regain access.
Successful exploitation may allow termination of individual or all active captive portal sessions, causing temporary service disruption and requiring users to re-authenticate. |
| A vulnerability exists in the Dynamic DNS (DDNS) functionality of TP-Link Omada Gateways. During communication with a third-party DDNS service, authentication credentials are transmitted over an unencrypted channel. An attacker who can observe or manipulate traffic between an affected device and the DDNS service may obtain sensitive authentication information or interfere with DDNS update operations. Exploitation requires DDNS to be configured, communication with an external DDNS service, and attacker visibility or control of the relevant network path.
Successful exploitation may result in disclosure of DDNS account credentials, unauthorized access to DDNS management functionality, or modification of DNS records associated with the affected deployment. |
| Tapo C100/C101 V5 contains a null pointer dereference vulnerability in the RTSP service. An attacker on the local network can send specially crafted requests that cause the service to dereference an invalid pointer, resulting in a service crash and device reboot. Successful exploitation can disrupt live video streaming functionality and cause a temporary denial-of-service condition. |
| Tapo
C100/C101 V5 contains a heap-based buffer overflow vulnerability in the RTSP
service. An authenticated attacker on the local network can send specially
crafted RTSP frame data containing oversized length values, resulting in
out-of-bounds heap writes.
Successful
exploitation can crash the RTSP service and trigger a device reboot, resulting
in a temporary denial-of-service condition. |
| A heap-based buffer overflow vulnerability was identified in TP-Link Tapo C100/C101 v5, C520WS v2.6 in the HTTP POST body parsing logic due to missing validation of remaining buffer capacity after dynamic allocation, due to insufficient boundary validation when handling externally supplied HTTP input.
An attacker
on the same network segment could trigger heap memory corruption conditions by
sending crafted payloads that cause write operations beyond allocated buffer
boundaries. Successful exploitation
causes a Denial-of-Service (DoS) condition, causing the device’s process to
crash or become unresponsive. |
| The HTTPS service on Tapo C200 v3, v5, C425 v1.2 and C100 v5 exposes a connectAP interface without proper authentication. An unauthenticated attacker on the same local network segment can exploit this to modify the device’s Wi-Fi configuration, resulting in loss of connectivity and denial-of-service (DoS). |
| The web
interface of the affected
device relies on the HTTP referrer header as part of
request validation. Requests containing empty Referer value, or omitting
the Referer header entirely, may be accepted and processed due to insufficient
validation logic.
Successful exploitation may allow an adjacent attacker with access to the web management
interface to obtain device configuration details and other sensitive
information. |
| The affected TP-Link Aginet devices do not properly validate symbolic links created on external USB storage
devices. By placing a crafted symbolic link on supported storage media, an
attacker may cause the system to resolve the link.
Successful
exploitation may allow unauthorized read access to sensitive files within the
device filesystem. |
| Certain web
interface components in affected TP-Link Aginet devices do not validate and sanitize user-supplied input properly before
passing it to system-level command execution functions. An authenticated adjacent attacker may inject
specially crafted input to execute arbitrary operation system commands with
elevated privileges.
Successful
exploitation may allow execution of arbitrary system commands, potentially
leading to full device compromise. |
| A hardcoded credential
vulnerability exists in the firmware of multiple TP-Link routers (TL-WR845N v4, TL-WR850N v3, TL-WR902AC v4, Archer C20 v6 & Archer MR200 v5). Authentication-related credential material is
embedded within a password file in the firmware image and may be recovered
through firmware analysis.
Successful
exploitation could result in unauthorized access to privileged functions on
affected devices. |
| In affected TP-Link Aginet devices, use of
hardcoded cryptographic keys embedded in the firmware to protect sensitive
configuration data may allow an attacker who has access to device storage to
recover the keys and decrypt stored data.
Successful
exploitation may allow access to decrypted sensitive configuration data,
including credentials and service-related information. |
| The affected TP-Link Aginet devices contain a flaw in the web management interface where authentication
checks are not consistently enforced on certain endpoints. An attacker can send
specially crafted requests to bypass authentication and directly invoke
privileged functionality without valid credentials. This issue arises from
improper enforcement of access control mechanisms on sensitive operations.
Successful
exploitation may allow an unauthenticated attacker to execute privileged
operations and gain full control of the device. |
| In affected TP-Link Aginet devices, insufficient
authorization validation allows authenticated low-privileged users to execute higher-privileged
operations.
An attacker
may perform administrative actions such as creating privileged accounts or
modifying critical configuration settings. |
| A denial-of-service
vulnerability exists in httpd service on Archer A6 v4 where the asynchronous systool
instruction handlng path in httpd does not properly synchronize or safely manage
concurrent systool operations.
By sending
crafted systool instructions through the asynchronous request path, successful
exploitation may cause the httpd process or device management service to crash
and may result in temporary loss of access to the web management interface or
device reboot. |
| An input validation
vulnerability exists in the HTTP-WRITEOEM handler due to insufficient validation
of user-supplied data before it is processed by internal flash-write handling
logic.
Successful
exploitation may cause httpd process or device to crash, resulting in loss of access
to the web interface and a denial-of-service condition. |
| A
certification validation weakness exists in communication between affected
Omada devices and cloud controllers. Certificate identity verification does not
adequately validate that a presented certificate corresponds to the expected
cloud controller hostname, which may allow certificate validation protections
to be bypassed under specific conditions.
Successful
exploitation may allow interception or modification of communication between
affected devices and cloud controllers. |
| A cryptographic
weakness exists in the Omada device adoption process. During adoption, authentication credentials associated
with site management are transmitted using a weak hashing algorithm that does
not provide sufficient protection.
An attacker who
successfully intercepts adoption-related authentication traffic may be able to
recover valid credentials and gain unauthorized access to managed devices or
controller-managed environments. |
| A cryptographic
weakness exists in the Omada adoption protocol.
The protocol relies on hard-coded cryptographic keys to establish trust and
protect authentication exchanges between controllers and managed devices during
device adoption.
An attacker may
be able to impersonate trusted controllers or managed devices and gain access
to sensitive adoption-related communications. |
| Affected
Omada devices rely on embedded certificates that are shared across deployments
to establish trust between controllers and managed devices.
An attacker
who obtains the embedded certificates may be able to impersonate trusted
controllers or devices and intercept affected communications. |
| A cryptographic
weakness exists in the Omada adoption protocol where session encryption keys
used to protect communications between controllers and managed devices may be
predictable due to insufficient entropy in session key generation.
An attacker
who successfully intercepts adoption-related communications may be able to recover
session encryption keys and decrypt affected communications. |
