Catálogo de publicaciones - revistas
Quantum Science and Technology
Resumen/Descripción – provisto por la editorial en inglés
A multidisciplinary, high impact journal devoted to publishing research of the highest quality and significance covering the science and application of all quantum-enabled technologies.Palabras clave – provistas por la editorial
No disponibles.
Disponibilidad
| Institución detectada | Período | Navegá | Descargá | Solicitá |
|---|---|---|---|---|
| No detectada | desde ago. 2016 / hasta dic. 2023 | IOPScience |
Información
Tipo de recurso:
revistas
ISSN electrónico
2058-9565
Editor responsable
IOP Publishing (IOP)
País de edición
Estados Unidos
Fecha de publicación
2016-
Cobertura temática
Tabla de contenidos
Asymmetric cryptography with physical unclonable keys
Ravitej Uppu
; Tom A W Wolterink; Sebastianus A Goorden; Bin Chen; Boris Škorić; Allard P Mosk; Pepijn W H Pinkse
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 045011
Designing quantum experiments with a genetic algorithm
Rosanna Nichols; Lana Mineh; Jesús Rubio; Jonathan C F Matthews; Paul A Knott
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 045012
Parameterized quantum circuits as machine learning models
Marcello Benedetti; Erika Lloyd; Stefan Sack; Mattia Fiorentini
<jats:title>Abstract</jats:title> <jats:p>Hybrid quantum–classical systems make it possible to utilize existing quantum computers to their fullest extent. Within this framework, parameterized quantum circuits can be regarded as machine learning models with remarkable expressive power. This Review presents the components of these models and discusses their application to a variety of data-driven tasks, such as supervised learning and generative modeling. With an increasing number of experimental demonstrations carried out on actual quantum hardware and with software being actively developed, this rapidly growing field is poised to have a broad spectrum of real-world applications.</jats:p>
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 043001
Quantum information research in China
Qiang Zhang; Feihu Xu; Li Li; Nai-Le Liu; Jian-Wei Pan
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 040503
Classically simulating near-term partially-distinguishable and lossy boson sampling
Alexandra E Moylett; Raúl García-Patrón; Jelmer J Renema; Peter S Turner
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 015001
Erratum: Parameterized quantum circuits as machine learning models (2019 Quant. Sci. Tech. 4 043001)
Marcello Benedetti; Erika Lloyd; Stefan Sack; Mattia Fiorentini
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 019601
Focus on quantum science and technology initiatives around the world
Rob Thew; Thomas Jennewein; Masahide Sasaki
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 010201
Spectral signatures of non-thermal baths in quantum thermalization
Ricardo Román-Ancheyta; Barış Çakmak; Özgür E Müstecaplıoğlu
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 015003
Experimental realization of state transfer by quantum walks with two coins
Yun Shang; Meng Li
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 015005
Methods for classically simulating noisy networked quantum architectures
Iskren Vankov; Daniel Mills; Petros Wallden; Elham Kashefi
<jats:title>Abstract</jats:title> <jats:p>As research on building scalable quantum computers advances, it is important to be able to certify their correctness. Due to the exponential hardness of classically simulating quantum computation, straight-forward verification through classical simulation fails. However, we <jats:italic>can</jats:italic> classically simulate small scale quantum computations and hence we <jats:italic>are</jats:italic> able to test that devices behave as expected in this domain. This constitutes the first step towards obtaining confidence in the anticipated quantum-advantage when we extend to scales that can no longer be simulated. Realistic devices have restrictions due to their architecture and limitations due to physical imperfections and noise. Here we extend the usual ideal simulations by considering those effects. We provide a general methodology for constructing realistic simulations emulating the physical system which will both provide a benchmark for realistic devices, and guide experimental research in the quest for quantum-advantage. We exemplify our methodology by simulating a networked architecture and corresponding noise-model; in particular that of the device developed in the Networked Quantum Information Technologies Hub (NQIT) (Networked Quantum Information Technologies Hub 2018 <jats:ext-link xmlns:xlink="http://www.w3.org/1999/xlink" ext-link-type="uri" xlink:href="https://nqit.ox.ac.uk/" xlink:type="simple">https://nqit.ox.ac.uk/</jats:ext-link>; 2016 private communication. The error model was based on communication with Chris Balance and Tom Harty, mediated through Niel de Beaudrap, early on the NQIT project. Continued collaboration and communication with experimentalists could lead in refinement of the error model, which could be subject for future work.). For our simulations we use, with suitable modification, the classical simulator of Bravyi and Gosset 2016 (<jats:italic>Phys. Rev. Lett.</jats:italic> <jats:bold>116</jats:bold> 250501). The specific problems considered belong to the class of instantaneous quantum polynomial-time (<jats:sans-serif>IQP</jats:sans-serif>) problems (Shepherd and Bremner 2009 <jats:italic>Proc. R. Soc. </jats:italic>A <jats:bold>465</jats:bold> 141339), a class believed to be hard for classical computing devices, and to be a promising candidate for the first demonstration of quantum-advantage. We first consider a subclass of <jats:sans-serif>IQP</jats:sans-serif>, defined in Bermejo-Vega <jats:italic>et al</jats:italic> 2018 (<jats:italic>Phys. Rev. </jats:italic>X <jats:bold>8</jats:bold> 021010), involving two-dimensional dynamical quantum simulators, before moving to more general instances of <jats:sans-serif>IQP</jats:sans-serif>, but which are still restricted to the architecture of NQIT.</jats:p>
Palabras clave: Electrical and Electronic Engineering; Physics and Astronomy (miscellaneous); Materials Science (miscellaneous); Atomic and Molecular Physics, and Optics.
Pp. 014001