International Conference on Wave Equations, Optical Engineering and Quantum Mechanics

Abdul Razaque Profile

Abdul Razaque

Abdul Razaque

Biography

Passionate Associate Professor with twenty years of experience administering education and classroom procedures both autonomously and in collaboration with department faculty and leaders. Building foundations for the next generation of academics and workforce pioneers.

Research Interest

Quantum-Inspired Techniques, Optical Signal Processing

Abstract

Quantum-Inspired Techniques in Optical Signal Processing

The convergence of quantum mechanics and optical data processing has produced innovative techniques that improve the efficiency, scalability, and capabilities of optical systems. Quantum-inspired methodologies, utilizing principles like superposition, entanglement, and interference, provide novel answers to enduring issues in signal processing. These technologies possess significant potential for enhancing applications from high-speed communication networks to safe quantum cryptography systems.

This talk will examine the fundamental principles of quantum-inspired signal processing and investigate their practical applications in contemporary optical engineering. Central themes will encompass quantum-inspired algorithms for noise mitigation, the application of quantum principles in adaptive optics, and innovative methodologies for optical signal multiplexing and demultiplexing. Additionally, we will investigate the capabilities of quantum-inspired photonic devices to facilitate ultrafast data transmission and real-time signal analysis.

Quantum-inspired approaches are transforming optical signal processing by connecting classical optical systems with upcoming quantum technology. This speech intends to deliver a thorough examination of the latest improvements, existing problems, and prospective trajectories in this swiftly progressing domain. Participants will acquire knowledge on how these advanced approaches can be utilized to develop next-generation optical systems that are swifter, more efficient, and intrinsically secure.