| CVE |
Vendors |
Products |
Updated |
CVSS v3.1 |
| Aikaan IoT management platform v3.25.0325-5-g2e9c59796 sends a newly generated password to users in plaintext via email and also includes the same password as a query parameter in the account activation URL (e.g., https://domain.com/activate=xyz). This practice can result in password exposure via browser history, proxy logs, referrer headers, and email caching. The vulnerability impacts user credential confidentiality during initial onboarding. |
| Webservice API endpoints for Assisted Service Module within SAP Commerce Cloud has information disclosure vulnerability. When an authorized agent searches for customer to manage their accounts, the request url includes customer data and it is recorded in server logs. If an attacker impersonating as authorized admin visits such server logs, then they get access to the customer data. The amount of leaked confidential data however is extremely limited, and the attacker has no control over what data is leaked. |
| A sensitive information disclosure vulnerability in Palo Alto Networks Checkov by Prisma® Cloud can result in the cleartext exposure of Prisma Cloud access keys in Checkov's output. |
| The web server of the device performs exchanges of sensitive information in clear text through an insecure protocol. |
| Let's Encrypt client and ACME library written in Go (Lego). In versions 4.25.1 and below, the github.com/go-acme/lego/v4/acme/api package (thus the lego library and the lego cli as well) don't enforce HTTPS when talking to CAs as an ACME client. Unlike the http-01 challenge which solves an ACME challenge over unencrypted HTTP, the ACME protocol requires HTTPS when a client communicates with the CA to performs ACME functions. However, the library fails to enforce HTTPS both in the original discover URL (configured by the library user) and in the subsequent addresses returned by the CAs in the directory and order objects. If users input HTTP URLs or CAs misconfigure endpoints, protocol operations occur over HTTP instead of HTTPS. This compromises privacy by exposing request/response details like account and request identifiers to network attackers. This was fixed in version 4.25.2. |
| iDS6 DSSPro Digital Signage System 6.2 contains a sensitive information disclosure vulnerability that allows remote attackers to intercept authentication credentials through cleartext cookie transmission. Attackers can exploit the autoSave feature to capture user passwords during man-in-the-middle attacks on HTTP communications. |
| QiHang Media Web Digital Signage 3.0.9 contains a sensitive information disclosure vulnerability that allows remote attackers to intercept user authentication credentials through cleartext cookie transmission. Attackers can perform man-in-the-middle attacks to capture and potentially misuse stored authentication credentials transmitted in an insecure manner. |
| Secure flag not set and SameSIte was set to Lax in the Foreseer Reporting Software (FRS). Absence of this secure flag could lead into the session cookie being transmitted over unencrypted HTTP connections. This security issue has been resolved in the latest version of FRS v1.5.100. |
| next-forge is a Next.js project boilerplate for modern web application. The BASEHUB_TOKEN commited in apps/web/.env.example. Users should avoid use of this token and should remove any access it may have in their systems. |
| An flaw was found in the OpenStack Platform (RHOSP) director, a toolset for installing and managing a complete RHOSP environment. Plaintext passwords may be stored in log files, which can expose sensitive information to anyone with access to the logs. |
| A vulnerability has been identified in POWER METER SICAM Q100 (7KG9501-0AA01-0AA1) (All versions >= V2.60 < V2.62), POWER METER SICAM Q100 (7KG9501-0AA01-2AA1) (All versions >= V2.60 < V2.62), POWER METER SICAM Q100 (7KG9501-0AA31-0AA1) (All versions >= V2.60 < V2.62), POWER METER SICAM Q100 (7KG9501-0AA31-2AA1) (All versions >= V2.60 < V2.62), POWER METER SICAM Q200 family (All versions >= V2.70 < V2.80). Affected devices store the password for the SMTP account as plain text. This could allow an authenticated local attacker to extract it and use the configured SMTP service for arbitrary purposes. |
| A privilege escalation vulnerability was discovered when Single Sign On (SSO) is enabled that could allow an attacker to intercept a valid, authenticated LXCA user’s XCC session if they can convince the user to click on a specially crafted URL. |
| IPMI credentials may be captured in XCC audit log entries when the account username length is 16 characters. |
| CWE-312: Cleartext Storage of Sensitive Information vulnerability exists that exposes test
credentials in the firmware binary |
| A problem with the ActiveMQ integration for both Cortex XSOAR and Cortex XSIAM can result in the cleartext exposure of the configured ActiveMQ credentials in log bundles. |
| Cleartext Storage of Sensitive Information vulnerability in OpenText™ Vertica allows Retrieve Embedded Sensitive Data.
The vulnerability could read Vertica agent plaintext apikey.This issue affects Vertica versions: 23.X, 24.X, 25.X. |
| A vulnerability in the Palo Alto Networks PAN-OS® software enables unlicensed administrators to view clear-text data captured using the packet capture feature https://docs.paloaltonetworks.com/pan-os/11-0/pan-os-admin/monitoring/take-packet-captures/take-a-custom-packet-capture in decrypted HTTP/2 data streams traversing network interfaces on the firewall. HTTP/1.1 data streams are not impacted.
In normal conditions, decrypted packet captures are available to firewall administrators after they obtain and install a free Decryption Port Mirror license. The license requirement ensures that this feature can only be used after approved personnel purposefully activate the license. For more information, review how to configure decryption port mirroring https://docs.paloaltonetworks.com/network-security/decryption/administration/monitoring-decryption/configure-decryption-port-mirroring .
The administrator must obtain network access to the management interface (web, SSH, console, or telnet) and successfully authenticate to exploit this issue. Risk of this issue can be greatly reduced by restricting access to the management interface to only trusted administrators and from only internal IP addresses according to our recommended critical deployment guidelines https://live.paloaltonetworks.com/t5/community-blogs/tips-amp-tricks-how-to-secure-the-management-access-of-your-palo/ba-p/464431 .
Customer firewall administrators do not have access to the packet capture feature in Cloud NGFW. This feature is available only to authorized Palo Alto Networks personnel permitted to perform troubleshooting.
Prisma® Access is not impacted by this vulnerability. |
| Using the AES-128-CCM algorithm for IPSec on certain Palo Alto Networks PAN-OS® firewalls (PA-7500, PA-5400, PA-5400f, PA-3400, PA-1600, PA-1400, and PA-400 Series) leads to unencrypted data transfer to devices that are connected to the PAN-OS firewall through IPSec.
This issue does not affect Cloud NGFWs, Prisma® Access instances, or PAN-OS VM-Series firewalls.
NOTE: The AES-128-CCM encryption algorithm is not recommended for use. |
| Cleartext storage of sensitive information in the Zoom Jenkins Marketplace plugin before version 1.4 may allow an authenticated user to conduct a disclosure of information via network access. |
| iMonitor EAM 9.6394 transmits communication between the EAM client agent and the EAM server, as well as between the EAM monitor management software and the server, in plaintext without authentication or encryption. An attacker with network access can intercept sensitive information (such as credentials, keylogger data, and personally identifiable information) and tamper with traffic. This allows both unauthorized disclosure and modification of data, including issuing arbitrary commands to client agents. |
