Electronics Systems for Quantum Computation

François Chapeau‐Blondeau

Cumali Yaşar, İhsan Yılmaz

The purpose of the study is based on the principles of quantum computing and definitions of components of eklectronic document management systems as quantum XML in the line quantum computing. As the electronic signature, each element constituting the building blocks of the document is tried to be re-designed with the principles of quantum mechanics. In this study, the adaptation of XML (eXtensible Markup Language) technologies to Quantum Computing Technologies is investigated. Redesign of the metadata standards of electronic document management systems [1] according to the quantum computer structure has been proposed. In addition, the portability and usability of the document has been shown between classical computers and Quantum Computers.

Mário Motta, Julia E. Rice

Abstract Digital quantum computers provide a computational framework for solving the Schrödinger equation for a variety of many‐particle systems. Quantum computing algorithms for the quantum simulation of these systems have recently witnessed remarkable growth, notwithstanding the limitations of existing quantum hardware, especially as a tool for electronic structure computations in molecules. In this review, we provide a self‐contained introduction to emerging algorithms for the simulation of Hamiltonian dynamics and eigenstates, with emphasis on their applications to the electronic structure in molecular systems. Theoretical foundations and implementation details of the method are discussed, and their strengths, limitations, and recent advances are presented. This article is categorized under: Quantum Computing > Algorithms Electronic Structure Theory > Ab Initio Electronic Structure Methods Quantum Computing > Theory Development

Gunajit Kalita

B. Ruggiero, Per Delsing, C. Granata +2 more

Ronak Italia

Quantum computing is revolutionizing the field of electronics by offering innovative solutions to complex computational problems, optimizing system designs and driving advancements in semiconductor technology.By leveraging fundamental quantum principles like superposition, entanglement and interference, this technology enhances circuit optimization, material simulations and manufacturing processes.Integration with classical electronics enables hybrid systems, combining quantum efficiency with existing infrastructure, to address scalability, energy efficiency and fault tolerance challenges.As a cornerstone of next-generation electronic systems, quantum computing is shaping sustainable and high-performance innovations for the future.