
Phoenix Contact CHARX SEC-3XXX AC Controller Multiple Vulnerabilities Scanner
Detects 'Multiple Vulnerabilities' vulnerability in Phoenix Contact CHARX SEC-3XXX AC Controller affects v. <1.7.3. This scanner identifies critical vulnerabilities, allowing unauthorized access, sensitive data disclosure, and arbitrary code execution.
Short Info
Level
Single Scan
Single Scan
Can be used by
Asset Owner
Estimated Time
10 seconds
Time Interval
25 days 21 hours
Scan only one
URL
Toolbox
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Phoenix Contact CHARX SEC-3XXX AC Controller is widely used in electric vehicle charging infrastructure. It is employed in settings such as parking facilities, residential complexes, and commercial areas to facilitate secure and efficient electric vehicle charging operations. Typically managed by facility operators or service providers, the product ensures reliable power delivery and integration with energy management systems. Given the surge in electric vehicle adoption, the product plays a crucial role in sustainable transportation infrastructure. Users rely on its capabilities for seamless and secure communication between the vehicle and the charging system, contributing to the overall efficiency of electric vehicle networks. These devices are crucial for promoting environmentally friendly transportation solutions and supporting the infrastructure required for widespread electric vehicle adoption.
Multiple vulnerabilities within the Phoenix Contact CHARX SEC-3XXX AC Controller can lead to serious security issues. The vulnerabilities may allow unauthorized users to access sensitive areas of the system, potentially bypassing authentication measures. As a result, attackers could gain access to sensitive information, potentially leading to data breaches. Furthermore, these vulnerabilities may permit the execution of arbitrary code, compromising the integrity of the system. The exploitation of these issues can undermine the secure operation of electric vehicle charging infrastructure. Addressing these vulnerabilities is essential to maintaining the safety and reliability of electric vehicle charging solutions.
Technical details of the vulnerabilities include insecure endpoints and parameters within the product's API. For instance, a vulnerable endpoint such as '/api/v1.0/web/retained-data' may be targeted by attackers to extract information about system configuration and charging controllers. Certain methods involving GET requests may also be exploitable, revealing firmware versions that are susceptible to known vulnerabilities. Attackers may target JSON responses containing critical information, leveraging these details to tailor their attack strategies. Lack of proper input validation on these endpoints further exacerbates the risk of unauthorized access. The presence of vulnerable versions under 1.7.3 heightens the urgency for prompt mitigation measures.
Exploitation of these vulnerabilities could lead to severe consequences including unauthorized access to system functionalities, data breaches, and compromised system integrity. Attackers could manipulate charging processes, disrupt service availability, or even modify system settings to their advantage. The potential to run arbitrary code raises significant concerns about malicious activities being introduced within the affected systems. These actions not only threaten the security of the affected infrastructure but also expose end-users and service providers to the risk of financial loss and reputational damage. Addressing these vulnerabilities is critical to safeguarding the reliability and trustworthiness of the electric vehicle charging infrastructure.
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