CVE-2025-47360 in Snapdragon Auto
Summary
by MITRE • 11/04/2025
Memory corruption while processing client message during device management.
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Analysis
by VulDB Data Team • 11/04/2025
This vulnerability represents a critical memory corruption flaw that occurs during the processing of client messages within device management operations. The issue manifests when the system handles incoming client communications, suggesting a potential buffer overflow or memory handling error in the device management component. Such vulnerabilities typically arise from insufficient input validation or improper memory allocation during message processing. The attack surface is particularly concerning as it involves device management functionality, which often serves as a critical interface for system administration and remote device control. The memory corruption can potentially lead to arbitrary code execution, system instability, or unauthorized access to managed devices.
The technical implementation of this vulnerability likely involves improper bounds checking during client message parsing or handling of malformed input data. When processing client communications, the system may allocate insufficient memory buffers or fail to validate message lengths before processing. This type of flaw commonly maps to CWE-121, which describes stack-based buffer overflow conditions, or CWE-787, which covers out-of-bounds write operations. The vulnerability could also align with CWE-122, indicating heap-based buffer overflow scenarios, depending on the specific memory management patterns employed by the device management system. The operational impact extends beyond simple memory corruption, as device management systems often require elevated privileges and may control critical infrastructure components.
From an operational perspective, this vulnerability presents significant risk to device management systems that process external client communications. Attackers could exploit this flaw by crafting malicious client messages that trigger the memory corruption during processing, potentially leading to complete system compromise. The attack vector typically follows the pattern described in ATT&CK technique T1210, where adversaries leverage remote access capabilities to gain system control through memory corruption vulnerabilities. Organizations using affected device management solutions face potential exposure to unauthorized device access, data exfiltration, or disruption of critical device operations. The vulnerability may also enable privilege escalation scenarios if the device management system operates with elevated privileges during message processing.
Mitigation strategies should focus on implementing robust input validation and memory management practices within the device management component. Organizations should deploy immediate patches or updates from vendors addressing this specific memory corruption issue. Additional defensive measures include implementing network segmentation to limit access to device management interfaces, employing strict message validation protocols, and monitoring for anomalous client communication patterns. The implementation of address space layout randomization ASLR and data execution prevention DEP mechanisms can help reduce exploitability. Security teams should also consider deploying intrusion detection systems to monitor for exploitation attempts targeting this vulnerability, while conducting thorough vulnerability assessments to identify similar memory corruption issues in related components. Regular security testing and code reviews focused on memory handling practices will help prevent similar vulnerabilities from emerging in future system versions.