CVE-2025-54951
CVE-2025-54951
Weakness (CWE)
CVSS Vector
v3.1- Attack Vector
- Network
- Attack Complexity
- Low
- Privileges Required
- None
- User Interaction
- None
- Scope
- Unchanged
- Confidentiality
- High
- Integrity
- High
- Availability
- High
Description
A group of related buffer overflow vulnerabilities in the loading of ExecuTorch models can cause the runtime to crash and potentially result in code execution or other undesirable effects. This issue affects ExecuTorch prior to commit cea9b23aa8ff78aff92829a466da97461cc7930c.
Comprehensive Technical Analysis of CVE-2025-54951
1. Vulnerability Assessment and Severity Evaluation
CVE ID: CVE-2025-54951
Description: The vulnerability involves a group of related buffer overflow issues in the loading of ExecuTorch models. These vulnerabilities can cause the runtime to crash and potentially result in code execution or other undesirable effects.
CVSS Score: 9.8
Severity Evaluation:
- Critical: A CVSS score of 9.8 indicates a critical vulnerability. The high score is likely due to the potential for remote code execution, which can lead to complete system compromise.
- Impact: The vulnerability can result in denial of service (DoS) conditions, unauthorized code execution, and potential data breaches.
2. Potential Attack Vectors and Exploitation Methods
Attack Vectors:
- Malicious Model Files: An attacker could craft a specially designed ExecuTorch model file that, when loaded, triggers the buffer overflow.
- Supply Chain Attacks: Compromising the integrity of model files distributed through legitimate channels.
- Network-Based Attacks: If the model loading process can be initiated over a network, an attacker could exploit this vulnerability remotely.
Exploitation Methods:
- Buffer Overflow: By sending a maliciously crafted model file, an attacker can overflow the buffer, leading to arbitrary code execution.
- Memory Corruption: Exploiting the buffer overflow to corrupt memory, which can be used to execute malicious code or alter the control flow of the application.
3. Affected Systems and Software Versions
Affected Software:
- ExecuTorch: Versions prior to the commit
cea9b23aa8ff78aff92829a466da97461cc7930c.
Systems:
- Any system running the affected versions of ExecuTorch, including but not limited to:
- Development and production environments using ExecuTorch for model deployment.
- Cloud-based services and applications that rely on ExecuTorch for machine learning tasks.
4. Recommended Mitigation Strategies
Immediate Actions:
- Update Software: Ensure that all instances of ExecuTorch are updated to versions that include the commit
cea9b23aa8ff78aff92829a466da97461cc7930cor later. - Input Validation: Implement strict validation and sanitization of model files before loading them into ExecuTorch.
- Access Controls: Restrict access to model loading functionalities to trusted users and systems.
Long-Term Strategies:
- Regular Patching: Establish a regular patching and update schedule for all software components.
- Security Audits: Conduct regular security audits and code reviews to identify and mitigate similar vulnerabilities.
- Incident Response Plan: Develop and maintain an incident response plan to quickly address any potential exploitation of this vulnerability.
5. Impact on Cybersecurity Landscape
Broader Implications:
- Supply Chain Security: Highlights the importance of securing the supply chain for machine learning models and other critical components.
- AI/ML Security: Emphasizes the need for robust security practices in AI and ML frameworks, which are increasingly becoming targets for cyber attacks.
- Industry Awareness: Raises awareness within the cybersecurity community about the potential risks associated with machine learning model deployment.
Industry Response:
- Vendor Responsibility: Encourages vendors to prioritize security in their software development lifecycle.
- Community Collaboration: Promotes collaboration between security researchers, vendors, and users to identify and mitigate vulnerabilities promptly.
6. Technical Details for Security Professionals
Vulnerability Details:
- Buffer Overflow: The vulnerability is caused by improper handling of buffer sizes during the loading of ExecuTorch models, leading to memory corruption.
- Exploitation: An attacker can exploit this by crafting a model file that exceeds the allocated buffer size, resulting in arbitrary code execution.
Detection and Monitoring:
- Log Analysis: Monitor logs for unusual crashes or errors related to model loading.
- Intrusion Detection Systems (IDS): Deploy IDS to detect anomalous network traffic that may indicate an attempt to exploit this vulnerability.
- File Integrity Monitoring: Use file integrity monitoring tools to detect unauthorized changes to model files.
Remediation:
- Patch Deployment: Ensure that the patch or update containing the commit
cea9b23aa8ff78aff92829a466da97461cc7930cis deployed across all affected systems. - Code Review: Conduct a thorough code review to identify and fix similar buffer overflow issues in other parts of the codebase.
Conclusion: CVE-2025-54951 represents a critical vulnerability that underscores the importance of robust security practices in AI and ML frameworks. Immediate mitigation through software updates and long-term strategies such as regular security audits and incident response planning are essential to protect against potential exploitation. The cybersecurity community must collaborate to address such vulnerabilities and enhance the overall security posture of AI/ML systems.