Fortinet Discovers Schneider Electric Smart-UPS SRT 5000 Cross-Site Request Forgery Vulnerability
Summary
Fortinet's FortiGuard Labs had discovered a Cross-Site Request Forgery Bypass
(CSRF) vulnerability in NMC2 of
Schneider Electric Smart-UPS SRT 5000.
Schneider Electric Smart-UPS is an intelligent and efficient network power protection from entry level to scaleable runtime.
The vulnerability can be triggered by sending arbitrary request using the hijacked session token specified in the HTTP header. Upon successful exploitation, it allows attacker to trigger arbitrary form action in the context of the vulnerable page.
Solutions
Users should apply the solution provided by Schneider Electric.
Additional Information
A CSRF vulnerability had been discovered in Schneider Electric
Smart-UPS SRT 5000 Network Management Card 2 (NMC2) version 6.9.6 and earlier.
Timeline
Fortinet reported the vulnerability to Schneider Electric on 13th January, 2021.
Schneider Electric confirmed the vulnerability on 20th January, 2021.
Schneider Electric released patch for the vulnerability on 9th November, 2021.
Acknowledgement
This vulnerability was discovered by Nguyen Thanh Nguyen of Fortinet's FortiGuard Labs.
IPS Subscription
Fortinet customers who subscribe to Fortinet's intrusion prevention (IPS) service should be protected against this vulnerability with the appropriate configuration parameters in place. Fortinet's IPS service is one component of FortiGuard Subscription Services, which also offer comprehensive solutions such as antivirus, Web content filtering and antispam capabilities. These services enable protection against threats on both application and network layers. FortiGuard Services are continuously updated by FortiGuard Labs, which enables Fortinet to deliver a combination of multi-layered security intelligence and true zero-day protection from new and emerging threats. These updates are delivered to all FortiGate, FortiMail and FortiClient products. Fortinet strictly follows responsible disclosure guidelines to ensure optimum protection during a threat's lifecycle.