CVE-2025-10888 is an out-of-bounds write vulnerability classified under CWE-787, affecting Autodesk Shared Components version 2026.0. This vulnerability arises when a specially crafted MODEL file is parsed by Autodesk software, leading to memory corruption through writing outside the intended buffer boundaries. The out-of-bounds write can cause a range of adverse effects including application crashes, data corruption, or arbitrary code execution within the context of the current user process. The vulnerability requires the victim to open or process a malicious MODEL file, implying user interaction is necessary. No privileges are required to exploit this flaw, but the attacker must have local access or be able to convince a user to open the malicious file. The CVSS 3.1 base score is 7.8, indicating high severity due to the potential for full compromise of confidentiality, integrity, and availability. Although no public exploits are known at this time, the vulnerability poses a significant risk given the widespread use of Autodesk products in design, engineering, and manufacturing workflows. The lack of an available patch at the time of publication increases the urgency for defensive measures. The vulnerability is particularly concerning because arbitrary code execution can lead to further lateral movement or persistent compromise within an organization’s network.

For European organizations, the impact of CVE-2025-10888 can be substantial, especially those in sectors heavily reliant on Autodesk software such as automotive, aerospace, architecture, and industrial design. Successful exploitation could lead to unauthorized code execution, enabling attackers to steal intellectual property, disrupt design workflows, or implant malware for extended access. Data corruption could result in loss of critical design data, causing project delays and financial losses. The availability impact includes potential denial of service through application crashes, affecting productivity. Given the high confidentiality and integrity impact, organizations may face regulatory and compliance repercussions if sensitive design data is compromised. The requirement for user interaction somewhat limits remote exploitation but does not eliminate risk, as phishing or social engineering could be used to deliver malicious MODEL files. The lack of known exploits currently provides a window for proactive defense, but the threat landscape could evolve rapidly once exploit code becomes available.

1. Monitor Autodesk’s official channels closely and apply security patches immediately upon release to remediate the vulnerability. 2. Until patches are available, restrict the import and opening of MODEL files from untrusted or unknown sources to reduce exposure. 3. Implement application whitelisting to prevent unauthorized execution of potentially malicious files. 4. Employ endpoint detection and response (EDR) solutions capable of detecting anomalous behavior related to memory corruption or unexpected process activity within Autodesk applications. 5. Educate users on the risks of opening unsolicited MODEL files and enforce strict policies on file sharing and email attachments. 6. Utilize operating system-level memory protection features such as Data Execution Prevention (DEP) and Address Space Layout Randomization (ASLR) to mitigate exploitation attempts. 7. Conduct regular backups of critical design data to enable recovery in case of data corruption or ransomware attacks. 8. Consider network segmentation to isolate systems running Autodesk software from less secure network zones to limit lateral movement in case of compromise.