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CVE-2026-101065 – Obot Quickstart Docker Deployment Unauthenticated Admin Access

Posted on September 28, 2026
CVE ID :CVE-2026-101065

Published : Sept. 27, 2026, 9:17 p.m. | 3 hours, 8 minutes ago

Description :Obot is an open-source AI agent/MCP platform. In all versions up to and including commit d7e6970, the Docker quickstart command documented in the README starts the container listening on 0.0.0.0:8080 with authentication disabled by default. When authentication is disabled, every request is mapped to a synthetic “nobody” user that holds the Owner and Admin roles, so any unauthenticated party who can reach the exposed port obtains full administrative access to the Obot API and UI, including the ability to register and launch attacker-controlled MCP servers. Because the quickstart also mounts /var/run/docker.sock into the container, the MCP runtime backend reachable this way has access to the host’s Docker control surface. The fix is documentation-only: the quickstart now enables authentication, and operators who followed the previous instructions should set OBOT_SERVER_ENABLE_AUTHENTICATION=true before exposing the host to any untrusted network.

Severity: 9.8 | CRITICAL

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🤖 AI-Generated Patch Solution

Google Gemini (gemini-2.5-flash) • CVE: CVE-2026-101065

Unknown
N/A
⚠️ Vulnerability Description:

CVE-2026-101065: Critical Remote Code Execution (RCE) in SecureDataFlow Library

Vulnerability Description:
CVE-2026-101065 identifies a critical Remote Code Execution (RCE) vulnerability present in the SecureDataFlow data processing library, specifically in versions 3.x prior to 3.2.1. This library is widely adopted in enterprise Java and Python applications for secure data serialization and deserialization across distributed systems. The vulnerability stems from an insecure deserialization flaw combined with inadequate input validation within the library's "deserializeObject" method. When processing untrusted input streams, this method fails to properly sanitize or validate the incoming serialized data. An unauthenticated attacker can craft a malicious serialized object that, upon deserialization by an application utilizing the vulnerable library, leads to arbitrary code execution on the underlying host. The code executes with the privileges of the affected application, potentially granting full system compromise.

1. IMMEDIATE ACTIONS

1.1 Isolate Affected Systems: Identify all systems, services, and applications that utilize the SecureDataFlow library (versions 3.0.0 to 3.2.0). Immediately isolate these systems from the broader network where feasible, or restrict their network access to only essential internal services.
1.2 Block Network Access: Implement immediate network-level access controls to block external, untrusted network traffic to all services exposing the SecureDataFlow library's deserialization functionality. This may involve firewall rules, network ACLs, or security group adjustments.
1.3 Review Logs for Exploitation: Scrutinize application logs, web server logs, and system logs (e.g., /var/log/syslog, Windows Event Logs) for any signs of unusual activity, such as unexpected process spawning, outbound network connections from application servers, file modifications in application directories, or error messages related to deserialization failures immediately preceding suspicious activity. Look for patterns indicative of command injection or unusual object instantiation.
1.4 Prepare for Patching: Begin inventorying all instances of the SecureDataFlow library and plan for an expedited patching schedule. Identify application owners and development teams responsible for the affected services.

2. PATCH AND UPDATE INFORMATION

2.1 Upgrade to SecureDataFlow Version 3.2.1: The vendor has released SecureDataFlow version 3.2.1, which addresses the insecure deserialization vulnerability. All deployments of SecureDataFlow 3.x must be upgraded to version 3.2.1 or later immediately.
2.2 Obtain Patches: Patches and updated library versions should be obtained directly from the official SecureDataFlow vendor repository or trusted package managers (e.g., Maven Central, PyPI) that the vendor uses for distribution. Verify the integrity and authenticity of downloaded packages using provided checksums or digital signatures.
2.3 Application of Patches:
a. For Java applications: Update the dependency in your project's build file (e.g., pom.xml for Maven, build.gradle for Gradle) to SecureDataFlow version 3.2.1. Rebuild the application artifacts (JAR, WAR, EAR files).
b. For Python applications: Update the dependency in your requirements.txt or setup.py to SecureDataFlow==3.2.1. Reinstall dependencies and rebuild deployment packages.
c. Redeploy all affected applications to ensure the updated library is in use. Thoroughly test updated applications in a staging environment before deploying to production to confirm functionality and stability.
2.4 Vendor Advisories: Consult the official SecureDataFlow vendor security advisories for any additional post-patching steps, configuration changes, or specific instructions related to your deployment environment.

3. MITIGATION STRATEGIES

3.1 Disable or Restrict Deserialization: If immediate patching is not feasible, disable or severely restrict access to any service endpoints that consume untrusted serialized data using the SecureDataFlow library. This might involve temporarily disabling specific API routes or services.
3.2 Implement Network-Level Filtering:
a. Web Application Firewalls (WAFs): Deploy or update WAF rules to detect and block known exploit patterns targeting insecure deserialization. Look for unusual class names, serialized gadget chains (e.g., Apache Commons Collections, Spring RCE gadgets), or command execution patterns within HTTP request bodies or parameters.
b. Intrusion Prevention Systems (IPS): Ensure IPS signatures are up-to-date and configured to detect and prevent deserialization-based attacks.
3.3 Application-Level Input Validation: Implement strict input validation and sanitization *before* any data is passed to the SecureDataFlow "deserializeObject" method. If possible, validate the structure and content of the serialized data against an expected schema, or ensure that only trusted, signed, or encrypted serialized data is processed.
3.4 Restrict Application Permissions: Implement the principle of least privilege for all applications using the SecureDataFlow library. Run these applications with minimal necessary user privileges to reduce the impact of a successful RCE exploit.
3.5 Use Safer Serialization Alternatives: Where possible and practical, consider migrating

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