Sponsor(s)
National Science Foundation
Contributor(s)
Naira Hovakimyan
Remote Video
Submitted by Anonymous on September 5th, 2021
Submitted by Anonymous on June 18th, 2021
Submitted by Naira Hovakimyan on June 7th, 2021
Submitted by Naira Hovakimyan on January 9th, 2020
Sponsor(s)
National Science Foundation
Contributor(s)
Xiaofeng Wang
Remote Video
Submitted by Xiaofeng Wang on February 18th, 2019
Historically, software assurance technologies and robust fault-tolerant control (RFTC) theory were developed under different assumptions and models. The software assurance technologies are often model-based that require the profile of the physical dynamics and the observation of the system state, which may not be available when physical defects exist. On the other hand, though the existing RFTC techniques can efficiently compensate for the physical damage, it is critical to guarantee that the control software and the sensor data are not compromised.
Submitted by Xiaofeng Wang on January 22nd, 2019
Submitted by Xiaofeng Wang on December 17th, 2018
Sponsor(s)
National Science Foundation
Contributor(s)
Xiaofeng Wang
Naira Hovakimyan
Lui Sha
Petros G. Voulgaris
Remote Video
Submitted by Xiaofeng Wang on January 9th, 2018
Historically, software assurance technologies and robust fault-tolerant control (RFTC) theory were developed under different assumptions and models. The software assurance technologies are often model-based that require the profile of the physical dynamics and the observation of the system state, which may not be available when physical defects exist. On the other hand, though the existing RFTC techniques can efficiently compensate for the physical damage, it is critical to guarantee that the control software and the sensor data are not compromised.
Submitted by Xiaofeng Wang on November 29th, 2017