Quantum Computing with Chip‐Scale Devices

Résumé fourni par la source

Quantum computing promises significant advancements by utilizing quantum mechanical phenomena such as superposition and entanglement. It is possible to realize quantum information processing systems that are small, scalable, and practical through the use of chip-scale quantum devices. The purpose of this work is to offer an introduction to chip-scale quantum devices as well as an outline of quantum computing. It discusses the fundamentals, including the advantages of chip-scale integration, the fundamentals of superposition and entanglement, and qubits. This article covers the architectures for chip-scale quantum computing, including quantum gates, circuits, and the difficulties associated with fabrication and control. The applications that are emphasized include those in the fields of materials science, finance, artificial intelligence, encryption, and logistics. There are still obstacles to overcome to scale up chip-based quantum systems while preserving coherence and retaining precise control. The development of innovative materials, hybrid classical-quantum algorithms, topological quantum computing, distributed systems, and error correction are all areas that present opportunities. Co-designing software and algorithms can potentially increase quantum hardware's capabilities. In conclusion, chip-scale quantum devices make it possible to realize the potential of quantum computing in real-world applications, but to obtain a realistic quantum advantage, further research is required in the areas of materials, manufacturing, architectural design, and software. This book chapter will be helpful for many to explore the advancements of Quantum computing with chip-scale devices.

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