Quantum-Enhanced Mechatronics and Quantum Robotics: Emerging Frameworks, Technological Foundations, and Future Applications in Next-Generation Cyber-Physical Systems

Abstract

Quantum technologies are rapidly transforming computational, sensing, and communication paradigms across scientific and engineering domains. The intersection of quantum science with mechatronics and robotics—termed Quantum Mechatronics and Quantum Robotics—represents an emerging frontier that integrates quantum principles with classical control systems, intelligent automation, precision engineering, and cyber-physical systems. This paper explores the theoretical foundations, technological frameworks, and prospective applications of quantum-enabled mechatronic and robotic systems. It highlights the unique capabilities offered by quantum computing, quantum sensing, and quantum communication while discussing associated challenges such as hardware constraints, environmental decoherence, algorithmic complexity, and integration barriers. The paper concludes by outlining the scope and future research directions necessary to push quantum mechatronics and robotics into mainstream industrial, scientific, and defense applications.

KEYWORDS: Quantum Mechatronics, Quantum Robotics, Quantum Computing, Quantum Sensors, Quantum Control Systems, Quantum Actuation, Quantum Communication, Cyber-Physical Systems, Autonomous Quantum Machines