CVE-2025-54807
CVE-2025-54807
Weakness (CWE)
CVSS Vector
v4.0- Attack Vector
- Network
- Attack Complexity
- Low
- Attack Requirements
- None
- Privileges Required
- None
- User Interaction
- None
- Confidentiality (Vulnerable)
- High
- Integrity (Vulnerable)
- High
- Availability (Vulnerable)
- High
- Confidentiality (Subsequent)
- None
- Integrity (Subsequent)
- None
- Availability (Subsequent)
- None
Description
The secret used for validating authentication tokens is hardcoded in device firmware for affected versions. An attacker who obtains the signing key can bypass authentication, gaining complete access to the system.
Comprehensive Technical Analysis of CVE-2025-54807
1. Vulnerability Assessment and Severity Evaluation
CVE ID: CVE-2025-54807 CVSS Score: 9.8
The vulnerability described in CVE-2025-54807 involves a hardcoded secret used for validating authentication tokens in the device firmware. This hardcoding of a critical security element is a significant flaw, as it allows an attacker who obtains the signing key to bypass authentication mechanisms, thereby gaining complete access to the system.
Severity Evaluation:
- CVSS Score: 9.8 (Critical)
- Impact: Complete system access, potential for full control over the device.
- Exploitability: High, as the hardcoded secret can be extracted from the firmware.
2. Potential Attack Vectors and Exploitation Methods
Attack Vectors:
- Firmware Extraction: An attacker could extract the firmware from the device and analyze it to discover the hardcoded secret.
- Reverse Engineering: Using reverse engineering techniques, an attacker could identify the hardcoded secret within the firmware.
- Supply Chain Attacks: Compromising the supply chain to obtain the firmware or the device itself.
Exploitation Methods:
- Authentication Bypass: Once the hardcoded secret is obtained, an attacker can generate valid authentication tokens, bypassing the authentication process.
- Privilege Escalation: With valid tokens, the attacker can escalate privileges and gain full control over the system.
- Data Exfiltration: The attacker can exfiltrate sensitive data, manipulate system settings, or perform other malicious activities.
3. Affected Systems and Software Versions
Affected Systems:
- Devices using the firmware with the hardcoded secret for authentication token validation.
- Specifically mentioned in the references: ProGauge MagLink LX-4 Console by Dover Fueling Solutions.
Software Versions:
- The exact versions are not specified in the provided information, but it is implied that all versions of the firmware containing the hardcoded secret are affected.
4. Recommended Mitigation Strategies
Immediate Actions:
- Firmware Update: Apply the latest firmware update provided by the vendor that addresses this vulnerability.
- Network Segmentation: Isolate affected devices from critical networks to limit potential damage.
- Monitoring: Implement enhanced monitoring for unusual activities or unauthorized access attempts.
Long-Term Strategies:
- Regular Audits: Conduct regular security audits and firmware reviews to identify and mitigate similar vulnerabilities.
- Secure Coding Practices: Ensure that future firmware updates adhere to secure coding practices, avoiding hardcoded secrets.
- Incident Response Plan: Develop and maintain an incident response plan to quickly address any security breaches.
5. Impact on Cybersecurity Landscape
Broader Implications:
- Industrial Control Systems (ICS): This vulnerability highlights the critical need for robust security measures in ICS environments, where compromises can have severe real-world consequences.
- Supply Chain Security: Emphasizes the importance of securing the supply chain to prevent the introduction of vulnerabilities during the manufacturing process.
- Firmware Security: Reinforces the necessity for secure firmware development practices, including the avoidance of hardcoded secrets.
Industry-Wide Awareness:
- Awareness Campaigns: Increase awareness among manufacturers and users about the risks associated with hardcoded secrets.
- Regulatory Compliance: Encourage adherence to regulatory standards and best practices for firmware security.
6. Technical Details for Security Professionals
Firmware Analysis:
- Static Analysis: Use static analysis tools to inspect the firmware for hardcoded secrets and other vulnerabilities.
- Dynamic Analysis: Perform dynamic analysis to observe the behavior of the firmware during runtime, identifying how the hardcoded secret is used.
Reverse Engineering:
- Disassembly: Disassemble the firmware to locate the hardcoded secret.
- Debugging: Use debugging tools to trace the execution flow and understand the authentication process.
Mitigation Techniques:
- Secure Storage: Implement secure storage mechanisms for secrets, such as hardware security modules (HSMs) or trusted platform modules (TPMs).
- Cryptographic Agility: Ensure that the system can easily update cryptographic algorithms and keys to respond to new threats.
Incident Response:
- Forensic Analysis: Conduct forensic analysis to determine the extent of the compromise and identify the attack vector.
- Patch Management: Ensure that all affected devices are promptly patched and that the patch management process is robust.
Conclusion: CVE-2025-54807 represents a critical vulnerability that underscores the importance of secure firmware development and the need for continuous monitoring and updating of ICS environments. By adopting best practices and implementing robust security measures, organizations can mitigate the risks associated with such vulnerabilities and enhance their overall cybersecurity posture.