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• High-Dimensional Quantum Systems
  Abstract Chapter 17 deals with the description of high-dimensional quantum systems and entanglement between them. We start with the generalized Bloch decomposition and present several useful options for the choice of operator bases, including the generalized G…
  crossref Reinhold A. Bertlmann, Nicolai Friis 2023-11-23T16:20:53Z 置信度 0.70
• Authentication of continuous-variable quantum messages
  crossref Mehmet Hüseyin Temel, Boris Škorić 2025-11-14T06:55:53Z 置信度 0.70
• Quantum artificial intelligence and cryptographic security from a quantum cryptography perspective
  crossref Muharrem Tuncay Gençoğlu 2026-02-10T14:25:23Z 置信度 0.70
• Preface
  crossref 2012-06-19T16:57:45Z 置信度 0.70
• Quantum Trajectories
  crossref 2007-10-22T08:33:42Z 置信度 0.70
• The Quantum Harmonic Oscillator
  Abstract We consider the time-independent Schrödinger equation for the harmonic oscillator potential and determine its bound states and energy levels in one spatial dimension using two approaches: the algebraic and the analytic method. Using the former, we int…
  crossref Reinhold A. Bertlmann, Nicolai Friis 2023-11-23T16:20:53Z 置信度 0.70
• Quantum Phase
  crossref 2007-10-22T04:33:42Z 置信度 0.70
• Quantum amplifiers, quantum duplicators and quantum cryptography
  crossref Horace P Yuen 2002-08-25T02:58:05Z 置信度 0.70
• Zhang et al. supplementary material
  crossref 2026-07-28T04:45:13Z 置信度 0.70
• Arthur et al. supplementary material
  crossref 2025-08-22T05:31:57Z 置信度 0.70
• Sippel et al. supplementary material
  crossref 2026-07-22T08:13:35Z 置信度 0.70
• Papenberg et al. supplementary material
  crossref 2025-09-24T09:17:32Z 置信度 0.70
• Huang et al. supplementary material
  crossref 2026-04-07T08:28:54Z 置信度 0.70
• Dehn et al. supplementary material
  crossref 2025-10-29T07:18:48Z 置信度 0.70
• Ginot et al. supplementary material
  crossref 2026-03-30T10:31:00Z 置信度 0.70
• Ndetei et al. supplementary material
  crossref 2026-02-20T06:41:19Z 置信度 0.70
• Weidner et al. supplementary material
  crossref 2025-09-01T05:39:17Z 置信度 0.70
• Antonaccio et al. supplementary material
  crossref 2025-06-25T01:19:07Z 置信度 0.70
• Rentschler and Samad supplementary material
  crossref 2026-04-06T08:02:19Z 置信度 0.70
• Warr et al. supplementary material
  crossref 2026-05-14T07:36:11Z 置信度 0.70
• McGrath et al. supplementary material
  crossref 2026-04-28T04:36:57Z 置信度 0.70
• Peworchik et al. supplementary material
  crossref 2026-04-21T04:00:31Z 置信度 0.70
• Murtin et al. supplementary material
  crossref 2026-04-20T06:24:46Z 置信度 0.70
• Kapuria and Fatemi supplementary material
  crossref 2026-05-05T08:17:15Z 置信度 0.70
• Wick et al. supplementary material
  crossref 2026-04-27T07:59:12Z 置信度 0.70
• Kuiper et al. supplementary material
  crossref 2026-07-20T05:49:11Z 置信度 0.70
• Islam et al. supplementary material
  crossref 2026-02-12T08:21:33Z 置信度 0.70
• Ogata et al. supplementary material
  crossref 2026-06-10T08:01:12Z 置信度 0.70
• Truong et al. supplementary material
  crossref 2025-10-30T10:14:51Z 置信度 0.70
• Wang et al. supplementary material
  crossref 2026-01-05T08:49:37Z 置信度 0.70
• Xia et al. supplementary material
  crossref 2026-05-13T08:18:31Z 置信度 0.70
• Hou et al. supplementary material
  crossref 2026-04-30T07:02:20Z 置信度 0.70
• Rappaport et al. supplementary material
  crossref 2026-07-21T08:02:21Z 置信度 0.70
• Chaudhary and Nair supplementary material
  crossref 2026-06-23T07:39:36Z 置信度 0.70
• Wade et al. supplementary material
  crossref 2026-06-24T04:53:01Z 置信度 0.70
• Mroz et al. supplementary material
  crossref 2026-05-27T09:11:36Z 置信度 0.70
• Madonsela et al. supplementary material
  crossref 2026-03-02T07:17:06Z 置信度 0.70
• Zuraw and Hayes supplementary material
  crossref 2017-09-17T09:00:18Z 置信度 0.70
• Lorenz et al. supplementary material
  crossref 2025-11-12T11:18:51Z 置信度 0.70
• Yu et al. supplementary material
  crossref 2026-02-11T04:21:10Z 置信度 0.70
• Maximos et al. supplementary material
  crossref 2026-03-23T04:44:33Z 置信度 0.70
• Gu et al. supplementary material
  crossref 2026-04-22T06:25:42Z 置信度 0.70
• Kampf et al. supplementary material
  crossref 2025-08-29T07:07:37Z 置信度 0.70
• Chang et al. supplementary material
  crossref 2025-09-01T05:37:48Z 置信度 0.70
• Chua et al. supplementary material
  crossref 2025-12-17T09:31:15Z 置信度 0.70
• Hinrichs et al. supplementary material
  crossref 2015-12-20T09:00:45Z 置信度 0.70
• McPherson and Lamont supplementary material
  crossref 2026-02-27T08:57:25Z 置信度 0.70
• Stürmer et al. supplementary material
  crossref 2025-07-02T02:57:32Z 置信度 0.70
• Seker et al. supplementary material
  crossref 2025-09-24T09:13:49Z 置信度 0.70
• Islam et al. supplementary material
  crossref 2026-07-06T08:59:31Z 置信度 0.70
• Zamani et al. supplementary material
  crossref 2026-05-21T09:50:57Z 置信度 0.70
• Santero et al. supplementary material
  crossref 2026-07-15T09:09:03Z 置信度 0.70
• Meshkat et al. supplementary material
  crossref 2026-03-26T08:26:55Z 置信度 0.70
• Dorsey et al. supplementary material
  crossref 2025-08-20T10:44:13Z 置信度 0.70
• Carrel et al. supplementary material
  crossref 2025-09-10T12:13:55Z 置信度 0.70
• Catalán et al. supplementary material
  crossref 2026-04-30T07:50:56Z 置信度 0.70
• Fedden et al. supplementary material
  crossref 2025-06-14T05:15:23Z 置信度 0.70
• Desai et al. supplementary material
  crossref 2026-04-13T08:41:34Z 置信度 0.70
• Waterman et al. supplementary material
  crossref 2026-07-22T08:16:48Z 置信度 0.70
• Wilson et al. supplementary material
  crossref 2026-02-24T08:20:26Z 置信度 0.70
• Juroszek et al. supplementary material
  crossref 2026-02-19T11:19:07Z 置信度 0.70
• Hwang et al. supplementary material
  crossref 2026-04-06T08:45:12Z 置信度 0.70
• Aisyah et al. supplementary material
  crossref 2026-01-12T07:09:38Z 置信度 0.70
• Liu and Liu supplementary material
  crossref 2026-03-02T09:07:42Z 置信度 0.70
• Chang et al. supplementary material
  crossref 2026-07-23T07:47:20Z 置信度 0.70
• Sheikh et al. supplementary material
  crossref 2026-06-29T09:01:56Z 置信度 0.70
• Pardej et al. supplementary material
  crossref 2026-05-06T09:53:01Z 置信度 0.70
• Cavari et al. supplementary material
  crossref 2026-08-10T05:55:57Z 置信度 0.70
• Ma et al. supplementary material
  crossref 2026-08-12T11:00:46Z 置信度 0.70
• Towards wafer-size graphene layers by atmospheric pressure graphitization of silicon carbide
  openalex K. V. Emtsev, Aaron Bostwick, K. Horn, Johannes Jobst 等 2009-02-08 置信度 0.72 GrapheneMaterials scienceSilicon carbideGraphene oxide paperAnnealing (glass)
• Quantum Materials Discovery by Combining Chemical and Physical Design Principles
  Exploratory quantum materials discovery remains crucial to progress in material science. Due to the grand challenges that we are facing in predicting these materials and their properties from scratch, chemical design principles remain a key ingredient for the …
  openalex Sara A. López‐Paz, Fabian O. von Rohr 2022-08-24 置信度 0.72 NanotechnologyLEAPSComputer scienceMaterials scienceEconomics
• High-performance nanostructured thermoelectric materials
  openalex Jing‐Feng Li, Weishu Liu, Li‐Dong Zhao, Min Zhou 2010-10-01 置信度 0.72 Thermoelectric materialsThermoelectric effectMaterials scienceSkutteruditeSeebeck coefficient
• Microscale synthesis of quantum dots
  Microfluidic reactors are emerging as a highly promising technology for quantum dot synthesis due to the unparalleled control they provide over particle properties. In this article, we review recent developments in the microfluidic synthesis of quantum dots, a…
  openalex Adrian M. Nightingale, John C. de Mello 2010-01-01 置信度 0.72 Microscale chemistryMicrofluidicsQuantum dotNanotechnologyFluidics
• Finite-temperature transport in one-dimensional quantum lattice models
  One-dimensional models of interacting electrons have long served as a testing ground for theoretical and numerical methods. More recently they have become directly relevant for interpreting experiments on spin chains, and ultracold quantum gases. This review g…
  openalex Bruno Bertini, Fabian Heidrich‐Meisner, Christoph Karrasch, Tomaž Prosen 等 2021-05-05 置信度 0.72 PhysicsLattice (music)Statistical physicsQuantumElectron
• Electronic noise—From advanced materials to quantum technologies
  Funding Information: We thank all the authors who contributed to this Special Issue. Special thanks go to Professor Lesley F. Cohen, Editor-in-Chief, Dr. Jenny Stein, Journal Manager, and Jaimee-Ian Rodriguez, Editorial Assistant of Applied Physics Letters, fo…
  openalex Alexander A. Balandin, Elisabetta Paladino, Pertti Hakonen 2024-01-29 置信度 0.72 Noise (video)Materials scienceElectronic materialsOptoelectronicsNanotechnology
• On the Quantum Spin Hall Gap of Monolayer 1T′‐WTe 2
  Positive quantum spin Hall gap in mono-layer 1T'-WTe2 is consistently supported by density-functional theory calculations, ultrafast pump-probe, and electrical transport measurements. It is argued that monolayer 1T'-WTe2 , which was predicted to be a semimetal…
  openalex Feipeng Zheng, Chao-Yi Cai, Shaofeng Ge, Xuefeng Zhang 等 2016-04-26 置信度 0.72 MonolayerMaterials scienceCondensed matter physicsSpin (aerodynamics)Quantum spin Hall effect
• Recent advances in carbon quantum dot-based sensing of heavy metals in water
  openalex Pooja Devi, Prachi Rajput, Anupma Thakur, Ki‐Hyun Kim 等 2019-03-11 置信度 0.72 Materials scienceCarbon quantum dotsNanotechnologyQuantum dotSurface plasmon resonance
• Graphene quantum dots in biomedical applications: Recent advances and future challenges
  Graphene quantum dots (GQDs)-based nanohybrid materials have gained great attention in multiple research applications, particularly in biomedical fields due to their unique physicochemical properties and outstanding biocompatibility compared to other nanomater…
  openalex Fei Chen, Weiyin Gao, Xiaopei Qiu, Hong Zhang 等 2017-12-01 置信度 0.72 NanotechnologyGrapheneQuantum dotNanomaterialsComputer science
• Variation in Quantum Yield for CO2 Uptake among C3 and C4 Plants
  The quantum yield for CO(2) uptake was measured on a number of C(3) and C(4) monocot and dicot species. Under normal atmospheric conditions (330 microliters per liter CO(2), 21% O(2)) and a leaf temperature of 30 degrees C, the average quantum yields (moles CO…
  openalex James R. Ehleringer, Robert W. Pearcy 1983-11-01 置信度 0.72 Variation (astronomy)Yield (engineering)Quantum yieldQuantumEnvironmental science
• Electrostatic self-assembly synthesis of ZnFe2O4 quantum dots (ZnFe2O4@C) and electromagnetic microwave absorption
  openalex Zhenguo Gao, Binghui Xu, Mingliang Ma, Ailing Feng 等 2019-09-05 置信度 0.72 Materials scienceMicrowaveQuantum dotReflection lossDielectric
• A theory of a.c. conduction in chalcogenide glasses
  An electrical conductivity having a frequency dependence ∼ω s , where s < 1, has been reported for many amorphous semiconductors and chalcogenide glasses. It is the purpose of this paper to point out that the mechanism normally postulated for this behaviour, n…
  openalex Stephen R. Elliott 1977-12-01 置信度 0.72 ChalcogenideQuantum tunnellingCondensed matter physicsChalcogenide glassElectron
• Quantum Dot Weathering Results in Microbial Toxicity
  Quantum dots (QDs) are increasingly being used for electronics, solar energy generation, and medical imaging applications. Most QDs consist of a heavy metal core/shell coated with amphiphilic organics that stabilize the nanoparticles and allow conjugation with…
  openalex Shaily Mahendra, Huiguang Zhu, Vicki L. Colvin, Pedro J. J. Alvarez 2008-11-14 置信度 0.72 EcotoxicityBioavailabilityChemistryBiocompatibilityQuantum dot
• Carbon-based H2-production photocatalytic materials
  openalex Shaowen Cao, Jiaguo Yu 2016-04-30 置信度 0.72 PhotocatalysisCarbon fibersMaterials scienceHydrogen productionGraphene
• A DFT study of the effect of stacking on the quantum capacitance of bilayer graphene materials
  openalex Guangyu Cui, Zonglin Yi, Fangyuan Su, Cheng‐Meng Chen 等 2021-12-01 置信度 0.72 GrapheneMaterials scienceStackingBilayer grapheneQuantum capacitance
• Carbazole Dendrimers as Solution‐Processable Thermally Activated Delayed‐Fluorescence Materials
  Recently, thermally activated delayed fluorescence (TADF) materials have received increasing attention as effective emitters for organic light-emitting diodes (OLEDs). However, most of them are usually employed as dopants in a host material. In this report, ca…
  openalex Ken Albrecht, Kenichi Matsuoka, Katsuhiko Fujita, Kimihisa Yamamoto 2015-03-05 置信度 0.72 CarbazoleDendrimerMaterials scienceOLEDFluorescence
• Diverging Entanglement Length in Gapped Quantum Spin Systems
  We prove the existence of gapped quantum Hamiltonians whose ground states exhibit an infinite entanglement length, as opposed to their finite correlation length. Using the concept of entanglement swapping, the localizable entanglement is calculated exactly for…
  openalex Frank Verstraete, M. A. Martín-Delgado, J. I. Cirac 2004-02-23 置信度 0.72 Quantum entanglementPhysicsSpin (aerodynamics)Quantum mechanicsQuantum
• New charge-carrier blocking materials for high efficiency OLEDs
  openalex Vadim Adamovich, Steven R. Cordero, Peter I. Djurovich, Arnold Tamayo 等 2003-09-01 置信度 0.72 IridiumOLEDCathodeAnodeQuantum efficiency
• A Review of High-Performance Quantum Dot Lasers on Silicon
  Laser gain regions using quantum dots have numerous improvements over quantum wells for photonic integration. Their atom-like density of states gives them unique gain properties that can be finely tuned by changing growth conditions. The gain bandwidth can be …
  openalex Justin Norman, Daehwan Jung, Zeyu Zhang, Yating Wan 等 2019-02-26 置信度 0.72 OptoelectronicsQuantum dot laserMaterials scienceQuantum dotLaser
• Engineering crystal structures with light
  openalex Ankit S. Disa, T. F. Nova, A. Cavalleri 2021-10-01 置信度 0.72 van der Waals forcePhysicsNonlinear systemQuantumCrystal (programming language)
• Bandstructures of conical quantum dots with wetting layers
  The influence of wetting-layer states on quantum-dot states and vice versa is analysed numerically for electrons in the conduction band in the general case with arbitrary kinetic energy in the plane of the quantum-well wetting layer. Since the analysed quantum…
  openalex Roderick Melnik, Morten Willatzen 2003-11-10 置信度 0.72 Quantum dotWetting layerWettingMaterials scienceElectron
• High efficiency perovskite quantum dot solar cells with charge separating heterostructure
  Metal halide perovskite semiconductors possess outstanding characteristics for optoelectronic applications including but not limited to photovoltaics. Low-dimensional and nanostructured motifs impart added functionality which can be exploited further. Moreover…
  openalex Qian Zhao, Abhijit Hazarika, Xihan Chen, Steve Harvey 等 2019-06-28 置信度 0.72 HeterojunctionPerovskite (structure)PhotovoltaicsMaterials scienceQuantum dot
• Luminescent Graphene Quantum Dots: As Emerging Fluorescent Materials for Biological Application
  openalex Jilong Wang, Jingjing Qiu 2015-10-01 置信度 0.72 Materials scienceQuantum dotFluorescenceGrapheneNanotechnology
• Moir\'e-Floquet engineering of quantum materials: a review
  We review recent work on quantum materials driven by light, emphasizing van der Waals systems hosting Moire superlattices. These non-equilibrium systems combine the twist-angle sensitivity of the band structures with the flexibility of light drives. The freque…
  openalex Martin Rodriguez-Vega, Michael Vogl, Gregory A. Fiete 2020-11-22 置信度 0.72 Floquet theoryvan der Waals forceCondensed matter physicsPhysicsQuantum
• Laser emission with low quantum defect in Yb:CaGdAlO_4
  It is demonstrated that 2% Yb: CaGdAlO4 (called CAlGO) presents favorable thermomechanical properties with a high measured thermal conductivity (Kc = 6.3 and Kc = 6.9 W m(-1) K(-1). A laser oscillation in this material at 1016 nm is demonstrated for the first …
  openalex Johan Petit, Philippe Goldner, Bruno Viana 2005-06-01 置信度 0.72 LaserMaterials scienceQuantum defectFigure of meritOptics
• Excellent Color Quality of White-Light-Emitting Diodes by Embedding Quantum Dots in Polymers Material
  This study employs the polyfluorene composite (called Green B) with several colors of quantum dots to generate the high-color-rendering index (CRI) white LEDs. The Green B polymer is a good candidate to manufacture the hybrid w-LED because of its good quantum …
  openalex Huang-Yu Lin, Shengwen Wang, Chien‐Chung Lin, Kuo-Ju Chen 等 2015-07-21 置信度 0.72 Quantum dotColor rendering indexLight-emitting diodeMaterials scienceOptoelectronics
• Quantum Electrodynamic Control of Matter: Cavity-Enhanced Ferroelectric Phase Transition
  The light-matter interaction can be utilized to qualitatively alter physical properties of materials. Recent theoretical and experimental studies have explored this possibility of controlling matter by light based on driving many-body systems via strong classi…
  openalex Yuto Ashida, Ataç İmamoğlu, Jérôme Faist, Dieter Jaksch 等 2020-11-06 置信度 0.72 PhysicsPhotonQuantumPhononQuantum phases
• Toward Full-Color Electroluminescent Quantum Dot Displays
  Colloidal quantum dots (QDs) exhibit unique characteristics such as facile color tunability, pure color emission with extremely narrow bandwidths, high luminescence efficiency, and high photostability. In addition, quantum dot light-emitting diodes (QLEDs) fea…
  openalex Jiwoong Yang, Moon Kee Choi, U Jeong Yang, Seoyoung C. Kim 等 2020-12-01 置信度 0.72 Quantum dotElectroluminescenceRGB color modelOptoelectronicsLight-emitting diode
• Recent Developments of Quantum Dot Materials for High Speed and Ultrafast Lasers
  Owing to their high integration and functionality, nanometer-scale optoelectronic devices based on III-V semiconductor materials are emerging as an enabling technology for fiber-optic communication applications. Semiconductor quantum dots (QDs) with the three-…
  openalex Zhonghui Yao, Cheng Jiang, Xu Wang, Hongmei Chen 等 2022-03-24 置信度 0.72 OptoelectronicsLaserMaterials scienceQuantum dot laserSemiconductor laser theory
• Determination of the interdiffusion of Al and Ga in undoped (Al,Ga)As/GaAs quantum wells
  We have employed photoluminescence spectroscopy to determine the temperature dependence of the interdiffusion coefficient of Al and Ga in GaAs/Al0.3Ga0.7As quantum wells. The position of the photoluminescence peaks, due to the n=1 electron to heavy-hole transi…
  openalex T. E. Schlesinger, T. F. Kuech 1986-09-01 置信度 0.72 PhotoluminescenceAnnealing (glass)Quantum wellActivation energyMaterials science
• High-Performance Electrocatalysis Using Metallic Cobalt Pyrite (CoS2) Micro- and Nanostructures
  The development of efficient and robust earth-abundant electrocatalysts for the hydrogen evolution reaction (HER) is an ongoing challenge. We report metallic cobalt pyrite (cobalt disulfide, CoS2) as one such high-activity candidate material and demonstrate th…
  openalex Matthew S. Faber, Rafal M. Dziedzic, Mark A. Lukowski, Nicholas S. Kaiser 等 2014-06-05 置信度 0.72 ChemistryElectrocatalystCobaltPyriteNanostructure