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Optimization and Control of Cyber-Physical Vehicle Systems
Justin M Bradley1, Ella M Atkins2
1Computer Science and Engineering Department, University of Nebraska - Lincoln, 256 Avery Hall, Lincoln, NE 68588, USA. justin.bradley@unl.edu.
This paper surveys run-time cooperative optimization for cyber-physical vehicle systems (CPVSs). It examines how integrating cyber and physical resources enhances efficiency and responsiveness in mobile robotic and vehicle applications.
Area of Science:
- Cyber-Physical Systems (CPS)
- Robotics and Autonomous Systems
- Control Theory and Engineering
Background:
- Cyber-physical systems (CPS) integrate computation, communication, and physical elements.
- Cyber-physical vehicle systems (CPVSs) are advancing with real-time computing, control, and AI.
- Optimization techniques are crucial for enhancing CPS efficiency, capability, and safety.
Purpose of the Study:
- To survey research on run-time cooperative optimization (co-optimization) of cyber and physical systems in CPVSs.
- To explore how co-optimization and co-regulation schemes utilize both cyber and physical resources.
- To review applications in mobile robotic and vehicle systems.
Main Methods:
- Surveying existing research on run-time co-optimization and co-regulation in CPVSs.
- Examining schemes that consider both cyber and physical resources simultaneously.
- Analyzing techniques such as time-varying sampling, sensor scheduling, and feedback scheduling.
Main Results:
- Run-time co-optimization and co-regulation enable CPVSs to be responsive to disturbances and uncertainties.
- Integrating cyber and physical resource utilization enhances system performance.
- The surveyed research highlights the importance of considering both domains for effective CPVS operation.
Conclusions:
- Cooperative optimization and regulation of cyber and physical resources are essential for advanced CPVSs.
- Future research should continue to explore integrated approaches for mobile robotic and vehicle systems.
- The surveyed techniques offer a foundation for designing more efficient and robust CPVSs.
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