Brocade SANnav before Brocade SANnav 2.4.0a could log database passwords in clear text in audit logs when the daily data dump collector invokes docker exec commands. These audit logs are the local server VM’s audit logs and are not controlled by SANnav. These logs are only visible to the server admin of the host server and are not visible to the SANnav admin or any SANnav user.

Brocade SANnav before SANnav 2.4.0a logs passwords and pbe keys in the Brocade SANnav server audit logs after installation and under specific conditions. These audit logs are the local server VM’s audit logs and are not controlled by SANnav. These logs are only visible to the server admin of the host server and are not visible to the SANnav admin or any SANnav user.

Brocade SANnav before SANnav 2.4.0a logs plaintext passphrases in the Brocade SANnav host server audit logs while executing OpenSSL command using a passphrase from the command line or while providing the passphrase through a temporary file. These audit logs are the local server VM’s audit logs and are not controlled by SANnav. These logs are only visible to the server admin of the host server and are not visible to the SANnav admin or any SANnav user.

Brocade SANnav OVA before SANnav 2.3.1b enables SHA1 deprecated setting for SSH for port 22.

Brocade SANnav before SANnav 2.3.1b enables weak TLS ciphers on ports 443 and 18082. In case of a successful exploit, an attacker can read Brocade SANnav data stream that includes monitored Brocade Fabric OS switches performance data, port status, zoning information, WWNs, IP Addresses, but no customer data, no personal data and no secrets or passwords, as it travels across the network.

Docker daemon in Brocade SANnav before SANnav 2.3.1b runs without auditing. The vulnerability could allow a remote authenticated attacker to execute various attacks.

Under certain error conditions at time of SANnav installation or upgrade, the encryption key can be written into and obtained from a Brocade SANnav supportsave. An attacker with privileged access to the Brocade SANnav database could use the encryption key to obtain passwords used by Brocade SANnav.

CalInvocationHandler in Brocade SANnav before 2.3.1b logs sensitive information in clear text. The vulnerability could allow an authenticated, local attacker to view Brocade Fabric OS switch sensitive information in clear text. An attacker with administrative privileges could retrieve sensitive information including passwords; SNMP responses that contain AuthSecret and PrivSecret after collecting a “supportsave” or getting access to an already collected “supportsave”. NOTE: this issue exists because of an incomplete fix for CVE-2024-29952

Possible information exposure through log file vulnerability where sensitive fields are recorded in the debug-enabled logs when debugging is turned on in Brocade SANnav before 2.3.0 and 2.2.2a

Brocade SANnav versions before 2.2.2 log Brocade Fabric OS switch passwords when debugging is enabled.

An information exposure through log file vulnerability exists in Brocade SANnav before Brocade SANnav 2.2.2, where Brocade Fabric OS Switch passwords and authorization IDs are printed in the embedded MLS DB file.

Brocade SANnav before Brocade SANnav 2.2.2 supports key exchange algorithms, which are considered weak on ports 24, 6514, 18023, 19094, and 19095.

An information exposure through log file vulnerability exists in Brocade SANnav before Brocade SANnav 2.2.2, where configuration secrets are logged in supportsave. Supportsave file is generated by an admin user troubleshooting the switch. The Logged information may include usernames and passwords, and secret keys.

RADIUS Protocol under RFC 2865 is susceptible to forgery attacks by a local attacker who can modify any valid Response (Access-Accept, Access-Reject, or Access-Challenge) to any other response using a chosen-prefix collision attack against MD5 Response Authenticator signature.

The PostgreSQL implementation in Brocade SANnav versions before 2.3.0a is vulnerable to an incorrect local authentication flaw. An attacker accessing the VM where the Brocade SANnav is installed can gain access to sensitive data inside the PostgreSQL database.

By default, SANnav OVA is shipped with root user login enabled. While protected by a password, access to root could expose SANnav to a remote attacker should they gain access to the root account.

A vulnerability in Brocade SANnav exposes Kafka in the wan interface. The vulnerability could allow an unauthenticated attacker to perform various attacks, including DOS against the Brocade SANnav.

In Brocade SANnav, before Brocade SANnav v2.3.0, syslog traffic received clear text. This could allow an unauthenticated, remote attacker to capture sensitive information.

Brocade SANnav before v2.3.0a lacks protection mechanisms on port 2377/TCP and 7946/TCP, which could allow an unauthenticated attacker to sniff the SANnav Docker information.

When a Brocade SANnav installation is upgraded from Brocade SANnav v2.2.2 to Brocade SANnav 2.3.0, TLS/SSL weak message authentication code ciphers are added by default for port 18082.

An information disclosure vulnerability exists in Brocade SANnav before v2.3.1 and v2.3.0a when Brocade SANnav instances are configured in disaster recovery mode. SQL Table names, column names, and SQL queries are collected in DR standby Supportsave. This could allow authenticated users to access the database structure and its contents.

In Brocade SANnav before Brocade SANnav v2.31 and v2.3.0a, it was observed that Docker instances inside the appliance have insecure mount points, allowing reading and writing access to sensitive files. The vulnerability could allow a sudo privileged user on the host OS to read and write access to these files.

Brocade SANnav OVA before v2.3.1 and v2.3.0a contain hard-coded credentials in the documentation that appear as the appliance's root password. The vulnerability could allow an unauthenticated attacker full access to the Brocade SANnav appliance.

In Brocade SANnav before v2.3.1, and v2.3.0a, it is possible to back up the appliance from the web interface or the command line interface ("SSH"). The resulting backups are world-readable. A local attacker can recover backup files, restore them to a new malicious appliance, and retrieve the passwords of all the switches.

Brocade SANnav versions before v2.3.0a do not correctly set permissions on files, including docker files. An unprivileged attacker who gains access to the server can read sensitive information from these files.

Brocade SANnav OVA before v2.3.1 and v2.3.0a have an insecure file permission setting that makes files world-readable. This could allow a local user without the required privileges to access sensitive information or a Java binary.

Brocade SANnav OVA before v2.3.1, and v2.3.0a, contain hardcoded TLS keys used by Docker. Note: Brocade SANnav doesn't have access to remote Docker registries.

A vulnerability affects Brocade SANnav before v2.3.1 and v2.3.0a. It allows a Brocade SANnav service to send ping commands in the background at regular intervals to gridgain.com to check if updates are available for the Component. This could make an unauthenticated, remote attacker aware of the behavior and launch a supply-chain attack against a Brocade SANnav appliance.

In Brocade SANnav server before v2.3.1 and v2.3.0a, the SSH keys inside the OVA image are identical in the VM every time SANnav is installed. Any Brocade SAnnav VM based on the official OVA images is vulnerable to MITM over SSH. An attacker can decrypt and compromise the SSH traffic to the SANnav.

A vulnerability in Brocade SANnav before v2.3.1 and v2.3.0a prints Brocade Fabric OS switch encrypted passwords in the Brocade SANnav Standby node's support save.

A vulnerability in Brocade SANnav before v2.3.1 and v2.3.0a prints the encryption key in the console when a privileged user executes the script to replace the Brocade SANnav Management Portal standby node. This could provide attackers an additional, less protected path to acquiring the encryption key.

When Brocade SANnav before v2.3.1 and v2.3.0a servers are configured in Disaster Recovery mode, the encryption key is stored in the DR log files. This could provide attackers with an additional, less-protected path to acquiring the encryption key.

A vulnerability in Brocade SANnav before v2.3.1 and v2.3.0a prints the Brocade SANnav password in clear text in supportsave logs when a user schedules a switch Supportsave from Brocade SANnav.

A vulnerability in Brocade SANnav before v2.3.1 and v2.3.0a could allow a privileged user to print the SANnav encrypted key in PostgreSQL startup logs. This could provide attackers with an additional, less-protected path to acquiring the encryption key.

A vulnerability in Brocade SANnav before v2.3.1 and v2.3.0a could allow an authenticated user to print the Auth, Priv, and SSL key store passwords in unencrypted logs by manipulating command variables.

Brocade SANnav before v2.3.1 and v2.3.0a uses the SHA-1 hash in internal SSH ports that are not open to remote connection.

The class FileTransfer implemented in Brocade SANnav before v2.3.1, v2.3.0a, uses the ssh-rsa signature scheme, which has a SHA-1 hash. The vulnerability could allow a remote, unauthenticated attacker to perform a man-in-the-middle attack.

Brocade SANnav Web interface before Brocade SANnav v2.3.0 and v2.2.2a allows remote unauthenticated users to bypass web authentication and authorization.

Possible information exposure through log file vulnerability where sensitive fields are recorded in the configuration log without masking on Brocade SANnav before v2.3.0 and 2.2.2a. Notes: To access the logs, the local attacker must have access to an already collected Brocade SANnav "supportsave" outputs.

Brocade SANnav before v2.3.0 and v2.2.2a stores SNMPv3 Authentication passwords in plaintext. A privileged user could retrieve these credentials with knowledge and access to these log files. SNMP credentials could be seen in SANnav SupportSave if the capture is performed after an SNMP configuration failure causes an SNMP communication log dump.

Brocade SANnav before v2.2.1 logs usernames and encoded passwords in debug-enabled logs. The vulnerability could allow an attacker with admin privilege to read sensitive information.

By design, the JDBCAppender in Log4j 1.2.x accepts an SQL statement as a configuration parameter where the values to be inserted are converters from PatternLayout. The message converter, %m, is likely to always be included. This allows attackers to manipulate the SQL by entering crafted strings into input fields or headers of an application that are logged allowing unintended SQL queries to be executed. Note this issue only affects Log4j 1.x when specifically configured to use the JDBCAppender, which is not the default. Beginning in version 2.0-beta8, the JDBCAppender was re-introduced with proper support for parameterized SQL queries and further customization over the columns written to in logs. Apache Log4j 1.2 reached end of life in August 2015. Users should upgrade to Log4j 2 as it addresses numerous other issues from the previous versions.

JMSSink in all versions of Log4j 1.x is vulnerable to deserialization of untrusted data when the attacker has write access to the Log4j configuration or if the configuration references an LDAP service the attacker has access to. The attacker can provide a TopicConnectionFactoryBindingName configuration causing JMSSink to perform JNDI requests that result in remote code execution in a similar fashion to CVE-2021-4104. Note this issue only affects Log4j 1.x when specifically configured to use JMSSink, which is not the default. Apache Log4j 1.2 reached end of life in August 2015. Users should upgrade to Log4j 2 as it addresses numerous other issues from the previous versions.

The host SSH servers of Brocade Fabric OS before Brocade Fabric OS v7.4.2h, v8.2.1c, v8.2.2, v9.0.0, and Brocade SANnav before v2.1.1 utilize keys of less than 2048 bits, which may be vulnerable to man-in-the-middle attacks and/or insecure SSH communications.

Brocade SANnav before v.2.1.0a could allow remote attackers cause a denial-of-service condition due to a lack of proper validation, of the length of user-supplied data as name for custom field name.

Brocade SANnav before version 2.1.1 uses a hard-coded administrator account with the weak password ‘passw0rd’ if a password is not provided for PostgreSQL at install-time.

Brocade SANnav versions before v2.1.0, contain a Plaintext Password Storage vulnerability.

A vulnerability in Brocade SANnav versions before v2.1.0 could allow a remote authenticated attacker to conduct an LDAP injection. The vulnerability could allow a remote attacker to bypass the authentication process.

A vulnerability, in The ReportsTrustManager class of Brocade SANnav versions before v2.0, could allow an attacker to perform a man-in-the-middle attack against Secure Sockets Layer(SSL)connections.

The authentication mechanism, in Brocade SANnav versions before v2.0, logs plaintext account credentials at the ‘trace’ and the 'debug' logging level; which could allow a local authenticated attacker to access sensitive information.