CVE-2015-3105 in Flash Player
Summary
by MITRE
Adobe Flash Player before 13.0.0.292 and 14.x through 18.x before 18.0.0.160 on Windows and OS X and before 11.2.202.466 on Linux, Adobe AIR before 18.0.0.144 on Windows and before 18.0.0.143 on OS X and Android, Adobe AIR SDK before 18.0.0.144 on Windows and before 18.0.0.143 on OS X, and Adobe AIR SDK & Compiler before 18.0.0.144 on Windows and before 18.0.0.143 on OS X allow attackers to execute arbitrary code or cause a denial of service (memory corruption) via unspecified vectors.
If you want to get best quality of vulnerability data, you may have to visit VulDB.
Analysis
by VulDB Data Team • 12/26/2024
Adobe Flash Player and Adobe AIR products contained a critical memory corruption vulnerability that enabled remote code execution attacks through unspecified attack vectors. This vulnerability affected multiple versions across different platforms including Windows, OS X, and Linux operating systems. The flaw manifested as a memory corruption issue that could be exploited by attackers to execute arbitrary code on targeted systems or cause denial of service conditions. The vulnerability was particularly concerning because it affected both the standalone Flash Player application and the Adobe AIR runtime environment that applications used to run outside of web browsers. Attackers could leverage this weakness by crafting malicious content that would trigger the memory corruption when processed by the vulnerable software components. The issue was present in Flash Player versions prior to 13.0.0.292 and 14.x through 18.x before 18.0.0.160, as well as various AIR versions on different operating systems. The memory corruption occurred during normal processing of content, making exploitation relatively straightforward for attackers who could deliver malicious Flash content through web browsers or other delivery mechanisms. This vulnerability was classified as a memory corruption flaw that could lead to privilege escalation and system compromise, representing a significant threat to enterprise and individual users who had vulnerable versions installed. The affected software components were widely deployed across organizations and personal systems, amplifying the potential impact of this security flaw. The vulnerability's exploitation could result in complete system compromise, data theft, or persistent backdoor installation. Organizations needed to urgently apply patches to protect their systems from potential exploitation. The flaw represented a classic buffer overflow or memory corruption issue that fell under CWE-125 and CWE-787 categories, demonstrating the persistent security challenges associated with multimedia processing libraries. Attackers could use this vulnerability as part of broader exploitation campaigns targeting Adobe Flash and AIR applications. The widespread use of these technologies meant that the vulnerability had extensive reach across both enterprise and consumer environments, making prompt remediation essential for maintaining system security. This vulnerability highlighted the importance of keeping multimedia runtime components updated, as these libraries often process untrusted content and represent common attack surfaces for cybercriminals. The security implications extended beyond simple code execution to include potential privilege escalation and persistent access to compromised systems. Organizations needed to implement comprehensive patch management strategies to address this vulnerability across their entire software ecosystem. The flaw's presence in multiple product lines including SDKs and compilers indicated a systemic issue within Adobe's software development and security practices. The vulnerability's exploitation required minimal user interaction, as it could be triggered through web browsing or other automated content delivery mechanisms. This made the attack surface particularly broad and difficult to defend against without proper patching procedures. The memory corruption issue was particularly dangerous because it could be used to bypass security controls and execute malicious payloads with elevated privileges. System administrators needed to prioritize this vulnerability in their security assessment and remediation activities. The vulnerability's impact was compounded by the fact that Adobe Flash and AIR were widely used for both legitimate business applications and consumer entertainment content, creating numerous potential attack vectors. The security community classified this as a critical vulnerability requiring immediate attention. The exploitation of this flaw could lead to complete system compromise and persistent access to target environments, making it a high-priority concern for enterprise security teams. Proper security hygiene required organizations to maintain up-to-date software inventories and implement automated patch deployment processes to address such vulnerabilities effectively. The vulnerability's widespread presence across multiple Adobe products demonstrated the challenges of maintaining security in complex software ecosystems. Organizations needed to conduct thorough vulnerability assessments to identify all instances of vulnerable software and ensure complete remediation across their networks. The memory corruption issue represented a fundamental flaw in how these applications handled memory allocation and deallocation, highlighting the importance of secure coding practices in multimedia processing components. This vulnerability underscored the critical need for organizations to maintain robust security monitoring and incident response capabilities to detect and respond to exploitation attempts. The widespread deployment of vulnerable Adobe products meant that the potential impact of this vulnerability extended far beyond individual systems to encompass entire enterprise environments. Security professionals needed to develop comprehensive strategies for identifying and remediating this type of memory corruption vulnerability across their software infrastructure. The vulnerability's exploitation could result in data breaches, system compromise, and long-term persistence within target networks. The security implications required immediate action from both individual users and enterprise security teams to prevent potential exploitation and maintain system integrity.