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CVE-2025-0003: CWE-413 Improper Resource Locking in AMD Xilinx Run Time (XRT)

0
High
VulnerabilityCVE-2025-0003cvecve-2025-0003cwe-413
Published: Mon Nov 24 2025 (11/24/2025, 20:36:37 UTC)
Source: CVE Database V5
Vendor/Project: AMD
Product: Xilinx Run Time (XRT)

Description

Inadequate lock protection within Xilinx Run time may allow a local attacker to trigger a Use-After-Free condition potentially resulting in loss of confidentiality or availability

AI-Powered Analysis

AILast updated: 11/24/2025, 20:55:14 UTC

Technical Analysis

CVE-2025-0003 identifies a vulnerability in AMD's Xilinx Run Time (XRT), a software component used to manage and interface with Xilinx FPGA devices. The root cause is improper resource locking, specifically a Use-After-Free (UAF) condition arising from inadequate synchronization mechanisms protecting shared resources. This flaw falls under CWE-413 (Improper Resource Locking). The vulnerability allows a local attacker with limited privileges (PR:L) to trigger the UAF by interacting with the system, requiring user interaction (UI:R). Exploitation can lead to a loss of confidentiality and availability, with confidentiality impact rated high and availability impact rated low to medium. The vulnerability has a CVSS v3.1 score of 7.3, reflecting its high severity. The scope is changed (S:C), indicating that exploitation can affect resources beyond the initially compromised component. No affected versions are explicitly listed, but the vulnerability is published and assigned by AMD. No public exploits are known at this time. The vulnerability is particularly relevant for environments using Xilinx FPGAs for acceleration, embedded systems, or data processing tasks where XRT is deployed. Improper locking can cause memory corruption, potentially allowing attackers to read sensitive data or cause denial of service by crashing the runtime or dependent applications. Since exploitation requires local access and user interaction, remote exploitation is not feasible without prior compromise. However, the impact on confidentiality and availability in sensitive environments can be significant.

Potential Impact

For European organizations, the impact of CVE-2025-0003 can be substantial, especially in sectors relying on FPGA technology for critical operations such as telecommunications, automotive, industrial automation, and research institutions. Loss of confidentiality could expose sensitive intellectual property or personal data processed by FPGA-accelerated applications. Availability impacts could disrupt services dependent on FPGA computations, leading to operational downtime or degraded performance. Since the vulnerability requires local access and user interaction, insider threats or compromised endpoints pose the greatest risk. Organizations with extensive use of Xilinx FPGA platforms in data centers or edge computing environments may face increased exposure. The confidentiality impact is critical, potentially allowing unauthorized data disclosure, while availability impact could lead to denial of service conditions. Integrity impact is lower but still present due to possible memory corruption. The vulnerability could also be leveraged as a stepping stone for privilege escalation or lateral movement within networks if combined with other vulnerabilities.

Mitigation Recommendations

1. Monitor AMD and Xilinx official channels for patches addressing CVE-2025-0003 and apply them promptly once released. 2. Restrict local access to systems running XRT to trusted users only, employing strict access controls and least privilege principles. 3. Implement endpoint detection and response (EDR) solutions to monitor for unusual activity related to XRT processes or memory corruption indicators. 4. Conduct regular audits of user accounts and running processes on systems with XRT installed to detect unauthorized usage. 5. Use application whitelisting to prevent execution of unauthorized code that could exploit the vulnerability. 6. Educate users about the risks of interacting with untrusted applications or files that could trigger the vulnerability. 7. In environments where patching is delayed, consider isolating FPGA-accelerated systems from general user access or network segments to reduce attack surface. 8. Employ runtime protections such as memory corruption mitigations (e.g., ASLR, DEP) if supported by the platform. 9. Review and harden system configurations related to XRT and FPGA management interfaces to minimize exposure. 10. Prepare incident response plans specific to FPGA-related vulnerabilities and ensure readiness to respond to potential exploitation attempts.

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Technical Details

Data Version
5.2
Assigner Short Name
AMD
Date Reserved
2024-10-10T20:27:11.925Z
Cvss Version
3.1
State
PUBLISHED

Threat ID: 6924c2e2e1f3fb2621f8d20e

Added to database: 11/24/2025, 8:41:06 PM

Last enriched: 11/24/2025, 8:55:14 PM

Last updated: 11/24/2025, 11:57:46 PM

Views: 11

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