Quantum Information Theory and Quantum Information Processing Fundamentals

Ivan B. Djordjević

Ivan B. Djordjević

Frederick W. Strauch

This Resource Letter surveys the history and modern developments in the field of quantum information. It is written to guide advanced undergraduates, beginning graduate students, and other new researchers to the theoretical and experimental aspects of this field. The topics covered include quantum states and processes, quantum coding and cryptography, quantum computation, the experimental implementation of quantum information processing, and the role of quantum information in the fundamental properties and foundations of physical theories.

Ivan B. Djordjević

Jincheng Zhang

Quantum information theory explores the fundamental principles governing the manipulation and utilization of quantum states. A crucial aspect of this field is the concept of non-linear collapse, a process that fundamentally alters the quantum state upon measurement. This paper investigates the impact of non-linear collapse on quantum state evolution and measurement results, specifically focusing on its implications for quantum algorithm design. We propose a novel quantum algorithm leveraging the principles of non-linear collapse to achieve enhanced quantum information processing efficiency. This work will detail the development of a quantum state evolution model incorporating non-linear collapse, highlighting its potential to accelerate quantum computation and offer a new approach to quantum information handling. This research represents a significant step towards refining quantum algorithms and pushing the boundaries of quantum information processing.

Ivan B. Djordjević