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Daegu Gyeongbuk Institute of Science&Technology

Research

Research Center for Resilient Cyber Physical Systems

Realizing a Safe and Convenient Society with Future Software Technologies Research Center for Resilient Cyber Physical Systems

The Research Center for Resilient Cyber Physical Systems was established in 2014 with a budget of 16 billion won over 8 years from the Ministry of Science and ICT to develop foundational software technologies for real-time autonomous recovery cyber-physical systems (CPS). This technology aims to build a safer future society by enhancing the reliability of social infrastructure through future-oriented software technology.

Most of the future society's infrastructure will be implemented through CPS, and malfunctions or attacks on these systems could have catastrophic consequences for society as a whole. Moreover, future attacks are expected to become more sophisticated and complex, necessitating foundational software technologies capable of autonomous real-time function restoration while minimizing damage to core functions.

The goal of the Research Center for Resilient Cyber Physical Systems is to develop CPS foundational technologies that guarantee reliability even in the event of errors or attacks. CPS, as an integrated system where computers control physical systems using communication, requires reliable CPS foundational technologies as essential software for building a safe future society.

In the future, the Research Center for Resilient Cyber Physical Systems will contribute to the economic development of the region and the country, and further contribute to building a future society where people are happy with the help of technology.

Research Center for Resilient Cyber Physical Systems
Research Objectives
  • Concentrated Research and Development on Real-Time Autonomous Recovery CPS Software Technology
    • Focus on designing real-time autonomous recovery CPS software technology to maintain core functions even in the face of external attacks and errors.
      • Ensure functionality even in the event of external attacks or errors.
      • If full recovery is not possible, maintain only core functions.
    • Early detection and prevention of system entry into risky states.
      • Minimize damage in case of system shutdown.
Major Research Fields
  • Control and Sensing
    • Sensor/Actuator Attack Detection
    • Integration of Multiple Controller Outputs
    • Controller Software Restructuring
  • Network
    • Task-Centric Autonomous Configuration/Restoration
    • Cyber-Physical Fusion Attack Detection
    • Real-Time Function Restoration Design
    • Software Platform
  • Performance/Resilience Correlation Modeling
    • Component-Based Resource Allocation
    • Real-Time Virtualization/Monitoring
    • Autonomous Restoration Manager
  • Real-Time Software Security/Verification
    • Real-Time Validation Technology for Supporting
    • Restoration Function Software's Real-Time/Safety/Security
    • Dynamic Verification of Errors and Anomalies
  • Application and Commercialization
    • Application to Key Products of Participating Companies (Solar Power Generation, Production Processes)
    • Selection and Refinement of Suitable Fields for Intermediate Results
Director

Yongsoon Eun

Tel

+82-53-785-6316

E-mail

yeun@dgist.ac.kr