FLIR-AX8 Remote Code Execution Scanner
Detects 'Remote Code Execution (RCE)' vulnerability in FLIR-AX8.
Short Info
Level
Critical
Single Scan
Single Scan
Can be used by
Asset Owner
Estimated Time
10 seconds
Time Interval
26 days 18 hours
Scan only one
Domain, IPv4, Subdomain
Toolbox
-
The FLIR-AX8 is a compact thermal imaging sensor typically used in critical tasks like monitoring machines and electrical panels for predictive maintenance and avoiding potential failures. It is widely deployed in various industries, ranging from manufacturing plants to electrical substations, providing real-time temperature analysis. The device not only helps in ensuring the operational efficiency of industrial components but is also integral in maintaining safety standards. Deployed by technicians and engineers, FLIR-AX8 aids in detecting overheating issues before they lead to equipment damage. Its imaging capabilities also support surveillance and security applications across several sectors. Overall, it aids organizations in maintaining operational continuity and reducing downtime.
The Remote Code Execution (RCE) vulnerability in this context involves the unauthorized execution of commands on a target machine, which can be exploited through the vulnerable 'res.php' file in FLIR-AX8. RCE vulnerabilities are highly critical as they allow attackers to execute arbitrary commands, leading to complete compromise of the affected system. Exploiting RCE could result in gaining unauthorized control over the systems, altering their operations, and potentially leading to data breaches or further network infiltration. The vulnerability underlines the importance of robust authentication and system configuration to deter such exploits. Organizations using the affected product must prioritize its assessment to avert potential threats.
The technical details of this vulnerability focus on an authenticated method where the attacker uses default passwords to access the 'res.php' endpoint. This endpoint is prone to execution of commands due to inadequate validation of inputs, which is manipulated to execute shell commands like 'id'. Once access is gained using weak default credentials, the attacker can manipulate various parameters to gain shell access. The deficiency in the authentication mechanism allows the attacker to issue system commands, which are executed remotely, providing significant control over the system. This vulnerability's effectiveness is contingent on the exploitability of the weak authentication credentials.
Exploitation of this vulnerability could have severe consequences, allowing attackers to install backdoors, extract confidential data, and manipulate system processes. It poses risks of data theft, unauthorized data alteration, and potential shutdown of operational processes due to malicious interventions. Such access could also be leveraged for lateral movement within the network, compromising other connected devices and systems. Moreover, it may allow attackers to deploy payloads for further attacks, potentially disrupting business operations and risking compliance with industry regulations. Immediate attention and remediation are essential to mitigate these significant risks.
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