-
crossref
2024-07-12T00:29:50Z
置信度 0.70
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crossref
2018-01-12T01:10:11Z
置信度 0.70
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crossref
Chao-Yang Lu, Jian-Wei Pan
2019-03-29T14:06:58Z
置信度 0.70
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crossref
Flora Graham
2021-02-20T07:09:14Z
置信度 0.70
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crossref
Philip Ball
2017-11-16T12:13:24Z
置信度 0.70
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crossref
Philip Ball
2017-11-03T09:28:43Z
置信度 0.70
-
Quantum computing operates in a fundamentally different way from classical computing by harnessing the principles of quantum mechanics to process information. Quantum supremacy is achieved when a quantum computer can solve problems that are beyond the capabili…
crossref
Han Zhang
2024-11-04T02:31:13Z
置信度 0.70
-
This review paper provides an in-depth exploration of quantum computing and the algorithms that drive its potential. It begins by introducing quantum computers and explores various types of quantum computers, focusing on the most prominent architectures. This …
crossref
Mathew Joseph, M. S. Dheeraj Murthy
2025-04-11T04:15:21Z
置信度 0.70
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crossref
V. Woollaston
2025-10-23T14:16:16Z
置信度 0.70
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crossref
Tim Reid
2008-11-12T09:26:35Z
置信度 0.70
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crossref
Flora Graham
2021-02-20T07:09:14Z
置信度 0.70
-
The Deutsch-Jozsa problem is for a database of size N , where, according to their claim, the deterministic solution of the problem on a classical Turing computer requires O( N ) computational complexity. They produced the famous Deutsch-Jozsa quantum algorithm…
crossref
Laszlo Kish
2022-10-17T19:30:19Z
置信度 0.70
-
crossref
Adrian Cho
2019-09-24T01:10:43Z
置信度 0.70
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crossref
Aldrich Khaalis Wooden, Sr
2025-12-29T12:06:55Z
置信度 0.70
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crossref
Jacob Aron
2016-09-04T08:16:08Z
置信度 0.70
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crossref
Subhasree Patro, Alvaro Piedrafita
2020-09-29T13:22:27Z
置信度 0.70
-
When we aim to demonstrate that a programmable quantum device can solve complex problems which cannot be addressed by classic computers, this fundamental goal is known as quantum supremacy. This concept has changed every fundamental rule of computation. In thi…
crossref
Kamaljit I. Lakhtaria, Vrunda Gadesha
2021-02-09T15:50:42Z
置信度 0.70
-
crossref
Mark Kim
2017-10-28T00:45:24Z
置信度 0.70
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crossref
Richard Gillespie
2025-10-29T18:42:32Z
置信度 0.70
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crossref
Umran Nayani
2026-01-12T18:54:57Z
置信度 0.70
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crossref
Leah Crane
2020-12-12T23:31:44Z
置信度 0.70
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crossref
Karmela Padavic-Callaghan
2025-09-27T03:01:15Z
置信度 0.70
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crossref
Lefliti Mohamed
2025-06-20T12:41:48Z
置信度 0.70
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crossref
Chris Palmer
2021-08-04T03:28:01Z
置信度 0.70
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crossref
Toby Cubitt
2025-08-25T22:19:32Z
置信度 0.70
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crossref
Neil Savage
2024-05-10T15:10:24Z
置信度 0.70
-
Virtual Conference Presentation Video: http://www.youtube.com/watch?v=cKEWHOPOhy0 : Despite exponential improvements in Data, Models, and, Algorithms and advancements in Artificial Intelligence (AI) and Quantum Computing technologies, the bar on national and o…
europepmc
2021
置信度 0.80
-
In this chapter, the authors will discuss some of the many models and training methods that have been developed in the field of machine learning to address this learning challenge. Models like neural networks and stochastic gradient descent have their own “go-…
crossref
Arvindhan Muthusamy
2023-09-12T11:52:55Z
置信度 0.70
-
Quantum PID controller design based on quantum fuzzy inference from two K-gains ( and ) of classical PID (with constant K-gains) controllers investigated. Computational intelligence toolkit as soft computing technology in learning situations applied. Quantum a…
crossref
L V Litvintseva, S V Ulyanov, Sergey Victorovich Ulyanov
2021-06-07T06:55:14Z
置信度 0.70
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crossref
Michael Brooks, Nature magazine
2024-05-10T15:16:57Z
置信度 0.70
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We consider the problem of learning stabilizer states with noise in the Probably Approximately Correct (PAC) framework of Aaronson (2007) for learning quantum states. In the noiseless setting, an algorithm for this problem was recently given by Rocchetto (2018…
crossref
Aravind Gollakota, Daniel Liang
2022-02-02T15:00:56Z
置信度 0.70
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crossref
Satyanarayana Varma Gadiraju
2025-12-18T19:14:01Z
置信度 0.70
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Abstract We disclose the universal nature of computational #P-hardness and quantum supremacy of quantum many-body systems. We do so by means of the new powerful technique (the hafnian master theorem) that allows one to address the #P-hard problems systematical…
crossref
Vitaly Kocharovsky
2024-11-29T14:33:01Z
置信度 0.70
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Abstract Since the dawn of quantum computation science, a range of quantum algorithms have been proposed, yet few have experimentally demonstrated a definitive quantum advantage. Shor’s algorithm, while renowned, has not been realized at a scale to outperform …
crossref
Chon-Fai Kam, En-Jui Kuo
2026-04-17T16:38:25Z
置信度 0.70
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europepmc
2020
置信度 0.80
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crossref
V.V. Korenkov, A.G. Reshetnikov, S.V. Ulyanov
2020-11-18T21:53:41Z
置信度 0.70
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Principles and methodologies of quantum algorithmic gate-based design on small quantum computer described. The possibilities of quantum algorithmic gates simulation on classical computers discussed. A new approach to a circuit implementation design of quantum …
crossref
Olga Ivancova, Vladimir Korenkov, Olga Tyatyushkina, Sergey Ulyanov 等
2021-02-21T16:21:59Z
置信度 0.70
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crossref
Ayekpam Malemnganbi Chanu, Vinod Kumar
2021-10-05T08:27:55Z
置信度 0.70
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crossref
2022-05-21T16:52:12Z
置信度 0.70
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crossref
John Hatchard, Peter Slinn
2014-03-14T09:07:45Z
置信度 0.70
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crossref
Ryutaroh Matsumoto
2019-03-11T19:49:11Z
置信度 0.70
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crossref
Carmen Palacios-Berraquero, Leonie Mueck, Divya M. Persaud
2019-12-10T09:03:11Z
置信度 0.70
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crossref
2021-03-06T07:32:35Z
置信度 0.70
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crossref
2021-03-06T07:32:35Z
置信度 0.70
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This chapter examines the nature and extent of royal supremacy during the reign of Henry VIII. If Henry's supremacy was innate and divinely ordained, the question that arises is why it required an act of Parliament. The King's own view was that Parliament mere…
crossref
Peter Marshall
2018-01-23T09:10:55Z
置信度 0.70
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The main purpose of this paper is to examine some (potential) applications of quantum computation in AI and to review the interplay between quantum theory and AI. For the readers who are not familiar with quantum computation, a brief introduction to it is prov…
crossref
Rahul Kumar, Shivraj Patil
2020-10-04T17:41:49Z
置信度 0.70
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crossref
Dwight Turner
2023-06-15T10:53:05Z
置信度 0.70
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crossref
Prachi Patel
2022-09-16T15:21:47Z
置信度 0.70
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crossref
Umran Nayani
2026-01-08T18:45:52Z
置信度 0.70
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A quantum computing primer offers insights into the technology’s most promising potential applications
crossref
Dov Greenbaum, Mark Gerstein
2023-05-11T17:58:26Z
置信度 0.70
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crossref
Poornima Vijaya
2024-03-29T11:51:49Z
置信度 0.70
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
Quantum computing (QC) represents a revolutionary paradigm in information processing, leveraging quantum mechanical phenomena (superposition, entanglement, quantum interference, and quantum tunneling) to perform calculations in fundamentally different ways tha…
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2025
置信度 0.80
-
europepmc
2025
置信度 0.80
-
Validity of the quantum circuit learning (QCL) method for the prediction of physical properties of complex materials has been explored by comparing the prediction results of Vickers hardness of the high entropy alloys with those predicted by the conventional l…
europepmc
2026
置信度 0.80
-
europepmc
2024
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2024
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
Precise prediction and control of chemical reactions and material propertiesthe central goal of precision chemistrytruly rely on accurate and efficient theoretical modeling of chemical systems. In recent years, significant progress has been made in theoretic…
europepmc
2026
置信度 0.80
-
europepmc
2025
置信度 0.80
-
pubmed
Suter V, Pöhlmann G, Ma C, Meckel M
2026
置信度 0.82
-
europepmc
2025
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
The field of quantum computing (QC) is expanding, with efforts being made to apply it to areas previously covered by classical algorithms and methods. Bioinformatics is one such domain that is developing in terms of QC. This article offers a broad mapping revi…
europepmc
Katarzyna Nałęcz-Charkiewicz, Kamil Charkiewicz, Robert Nowak
2024
置信度 0.80
Computer scienceBioinformaticsComputational biologyData scienceBiology
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europepmc
2025
置信度 0.80
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europepmc
2026
置信度 0.80
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europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
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europepmc
2025
置信度 0.80
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europepmc
2026
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2024
置信度 0.80
-
europepmc
2025
置信度 0.80
-
europepmc
2023
置信度 0.80
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europepmc
2025
置信度 0.80
-
europepmc
2026
置信度 0.80
-
europepmc
2024
置信度 0.80
-
Quantum computing (QC) represents a paradigm shift in computational power, offering unique capabilities for addressing complex problems that are infeasible for classical computers. This review paper provides a detailed account of the current state of QC, with …
europepmc
James C. L. Chow
2024
置信度 0.80
Transformative learningQuantum computerQubitComputer scienceQuantum technology
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europepmc
2026
置信度 0.80
-
europepmc
2024
置信度 0.80
-
europepmc
2025
置信度 0.80