Stability Implications of Process Control Strategies Using Quantum Computations for Next-Generation Manufacturing
ORAL
Abstract
With this motivation, we investigate the concept of quantum computing from a process control perspective by controlling a simple linear process using a proportional controller. We send process measurements to a quantum Fourier-based addition algorithm to determine an appropriate control input using IBM's quantum experience SDK, Qiskit. We will then compare the algorithm to an implementation of the same control strategy in the presence of quantum noise. Multiple algorithms will subsequently be used to determine the impact of noise on different algorithm structures, along with a variety of factors that influence the impact of quantum noise on process stability guaranteed by the proportional control strategy.
*We gratefully acknowledge the financial support from the Air Force Office of Scientific Research (award number FA9550-19-1-0059), National Science Foundation CNS-1932026 and CBET-1839675, CBET-2143469, Wayne State University Grants Boost funding, and Wayne State University.
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Publication: [1] Rangan, K.K., Abou Halloun, J., Oyama, H., Cherney, S., Assoumani, I.A., Jairazbhoy, N., Durand, H. and Ng, S.K., 2022. Quantum computing and resilient design perspectives for cybersecurity of feedback systems. IFAC-PapersOnLine, 55(7), pp.703-708.
[2] Rangan, K.K., Oyama, H., Assoumani, I.A., Durand, H. and Simon Ng, K.Y., 2023. Cyberphysical Systems and Energy: A Discussion with Reference to an Enhanced Geothermal Process. In Energy Systems and Processes: Recent Advances in Design and Control (pp. 8-1). Melville, New York: AIP Publishing LLC.
[3] Nieman, K., Rangan, K.K., and Durand, H., 2022. Control implemented on quantum computers: Effects of noise, nondeterminism, and entanglement. Industrial & Engineering Chemistry Research, 61(28), pp.10133-10155.
Presenters
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Keshav Kasturi Rangan
- Wayne State University