CVE-2014-1710 in Chrome OS
Summary
by MITRE
The AsyncPixelTransfersCompletedQuery::End function in gpu/command_buffer/service/query_manager.cc in Google Chrome, as used in Google Chrome OS before 33.0.1750.152, does not check whether a certain position is within the bounds of a shared-memory segment, which allows remote attackers to cause a denial of service (GPU command-buffer memory corruption) or possibly have unspecified other impact via unknown vectors.
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Analysis
by VulDB Data Team • 05/08/2026
The vulnerability identified as CVE-2014-1710 represents a critical memory corruption issue within Google Chrome's GPU command buffer processing system. This flaw exists in the AsyncPixelTransfersCompletedQuery::End function located in gpu/command_buffer/service/query_manager.cc, specifically affecting Chrome OS versions prior to 33.0.1750.152. The vulnerability stems from inadequate bounds checking mechanisms that fail to validate memory access boundaries within shared-memory segments, creating a pathway for malicious exploitation. The issue falls under the category of memory safety vulnerabilities and can be classified as a buffer overflow condition according to CWE-121, which specifically addresses stack-based buffer overflow conditions.
The technical implementation of this vulnerability occurs when the GPU command buffer processing engine handles asynchronous pixel transfer queries without proper validation of memory segment boundaries. When a malicious actor crafts specially crafted web content or exploits a compromised website, the system fails to verify that memory access operations remain within the allocated shared-memory segment boundaries. This oversight allows attackers to manipulate memory pointers and potentially corrupt GPU command buffer structures, leading to system instability and potential code execution. The vulnerability operates at the intersection of graphics processing and memory management, making it particularly dangerous as it can affect the core GPU subsystem that handles graphics rendering operations.
The operational impact of CVE-2014-1710 extends beyond simple denial of service conditions to potentially enable more sophisticated attacks. While the primary effect manifests as GPU command-buffer memory corruption and system instability, the underlying memory safety issue could theoretically be exploited to achieve arbitrary code execution within the GPU processing context. This represents a significant concern for Chrome OS users since the vulnerability affects the operating system's core graphics processing capabilities. The attack surface is particularly concerning as it requires no user interaction beyond visiting a malicious website, making it a prime candidate for drive-by exploitation. The vulnerability's classification aligns with ATT&CK technique T1059, which covers command and scripting interpreter usage, as attackers could potentially leverage the corrupted GPU memory to execute malicious code.
Mitigation strategies for this vulnerability primarily focus on immediate system updates and patch management. Organizations should prioritize updating Chrome OS to version 33.0.1750.152 or later, which contains the necessary bounds checking fixes. Additionally, implementing network-level protections such as content filtering and web application firewalls can help reduce exposure to malicious websites that might exploit this vulnerability. Browser hardening measures including disabling unnecessary GPU features and implementing strict memory access controls can provide additional defense layers. The fix implemented by Google addresses the core bounds checking issue by ensuring that all memory access operations within the query manager validate against the actual shared-memory segment boundaries, preventing out-of-bounds memory access that could lead to corruption. This remediation aligns with security best practices outlined in the CWE guidelines for preventing buffer overflow vulnerabilities and demonstrates the importance of proper memory validation in graphics processing subsystems.