Thomas Larsen, Jesper de C. Christiansen, John R. Royer, Fraser H.J. Laidlaw, Wilson C.K. Poon, Tom Larsen, and Søren J. Andreasen
Phys. Rev. Applied 22, 034023 (2024) - Published 10 September, 2024
The interest in slurries formed by granular filler dispersed in colloidal gel is largely driven by the relevance to batteries, and the recent discovery of flow-switched bistability. This study extends previous investigations to make progress on elucidating the physics of such slurries. Surprisingly, the electrical and mechanical properties of the slurries can be either coupled or decoupled, depending on the conductive properties of the granular fillers. The different coordination numbers required for network rigidity and electrical percolation provide a key to understanding the decoupling, and important insight for optimizing the mixing and processing of industrial slurries.
Mingze Wu, Junhui Li, Bingjie Xu, Song Yu, and Yichen Zhang
Phys. Rev. Applied 22, 034024 (2024) - Published 11 September, 2024
The system’s source noise affects the practical performance of discrete-modulated continuous-variable quantum key distribution. The good news: This noise exists inside the system and cannot be exploited by eavesdroppers, so it can be trusted. However, a lack of appropriate modeling leaves a security-key-rate gap, omitting this trusted noise. The authors propose a model for trusted source noise in the discrete-modulated protocol, successfully mitigating the negative impact of an imperfect source on system performance while maintaining security of the protocol, and thus promoting practical deployment.
Hengyan Wang, Michael Zugenmaier, Kasper Jensen, Wenqiang Zheng, and Eugene S. Polzik
Phys. Rev. Applied 22, 034030 (2024) - Published 12 September, 2024
Outstanding in the (magnetic) field: The authors demonstrate an alternative, self-stabilized radio-frequency atomic magnetometer (AM) for magnetic induction tomography. In contrast to traditional approaches that require extra devices for bias-field stabilization, this method employs a dual-frequency technique, enabling simultaneous measurement of static and oscillating magnetic fields through nonlinear Zeeman splitting, all with a single atomic sensor. Experimental results reveal marked improvements in sensitivity and stability for AM-based detection of eddy current.
Claudio E. Calosso, Michele Gozzelino, Filippo Levi, and Salvatore Micalizio
Phys. Rev. Applied 22, 034033 (2024) - Published 12 September, 2024
Fluctuations in laser frequency affect atomic clock stability (via the so-called light shift) and stabilization is required, typically entailing additional complicated gear. This study shows how to turn the light shift from a nuisance to an amazing resource for compact atomic frequency standards. Exploiting the dispersive behavior of the light shift, the authors stabilize the laser frequency to the same atoms that are involved in the clock’s operation, without the need for any external reference. This technique results in significant hardware simplification, which is quite advantageous for industrial and space applications, where compact and robust automatic laser-frequency stabilization is especially valuable.
Alec Yen, Yufeng Ye, Kaidong Peng, Jennifer Wang, Gregory Cunningham, Michael Gingras, Bethany M. Niedzielski, Hannah Stickler, Kyle Serniak, Mollie E. Schwartz, and Kevin P. O’Brien
Phys. Rev. Applied 22, 034035 (2024) - Published 13 September, 2024
Robust and scalable multiplexed qubit readout is essential for realizing a fault-tolerant quantum computer. Conventional approaches rely on intentional mismatch of the feedline to provide directionality to the readout signal, at the cost of increased variation in resonator linewidth, which ultimately degrades quantum error correction. The authors address this challenge by demonstrating high-fidelity qubit readout using a readout resonator that emits photons preferentially toward the output, across its full bandwidth. By maintaining directional decay of the readout signal without intentional mismatch, this work presents a path toward the design of reliable, modular quantum processors.
G.Y. Thiancourt, S.M. Ngom, N. Bardou, and T. Devolder
Phys. Rev. Applied 22, 034040 (2024) - Published 16 September, 2024
In some magnetic materials, spin-wave dispersion relations vary monotonically across the Brillouin zone, allowing wave packets with zero momentum to flow unidirectionally, which points to high-frequency spintronic applications. To get there, though, it is crucial to develop methods that can link a spin wave’s properties to experimentally accessible metrics. To this end, the authors use propagating-spin-wave spectroscopy to precisely measure the dispersion of unidirectional spin waves. Their method identifies the wave vector at a particular frequency, which was a limiting factor in previous studies. This metrological approach is sure to impact the study of thin-film magnetism.
Viktor Könye, Kyrylo Ochkan, Anastasiia Chyzhykova, Jan Carl Budich, Jeroen van den Brink, Ion Cosma Fulga, and Joseph Dufouleur
Phys. Rev. Applied 22, L031001 (2024) - Published 3 September, 2024
Measuring large electrical resistances is an essential part of common applications such as insulation testing, but it suffers from a fundamental problem: The larger the resistance, the less sensitive a canonical ohmmeter is. Here the authors use the topological properties of non-Hermitian matrices to design a multiple-current-source electrical circuit that functions as a highly precise ohmmeter. Both the sensitivity of the device and its signal-to-noise ratio increase exponentially as more and more current sources are included in the circuit, paving the way toward overcoming the intrinsic limitations of currently available measurement devices.
Geil Emdi, Tomosato Hioki, Takahiko Makiuchi, and Eiji Saitoh
Phys. Rev. Applied 22, L031002 (2024) - Published 9 September, 2024
The tunability of a system’s sigmoidal response is crucial in determining inference quality and learning efficiency for artificial neural networks. However, achieving such a response in a physical system remains technically challenging. In this Letter, the authors demonstrate an S-shaped response using a magnonic version of the classic parametron circuit, which exhibits two stable phase states when magnons are excited at twice their resonant frequency by a microwave pump. The steepness of this S can be tuned by the pump, via increasing dissipation due to magnon-magnon scattering. These results could pave the way for utilizing magnetic materials in neural-network applications.
Xin Tong, Ling Zhou, Ruihuang Zhao, Jiaxin Wang, Jinhu Luo, and Junjie Du
Phys. Rev. Applied 22, L031003 (2024) - Published 10 September, 2024
Exploring asymmetric transmission in graphene is critical for advancing microelectronics, particularly applications such as rectifiers, demodulators, and logic gates. In monolayer graphene, however, the absent band gap and Klein tunneling make this challenging. This research focuses on breaking spatial-inversion symmetry by utilizing a four-layer array of quantum dots that integrates the functions of both electron metasurfaces and band-gap materials. The results seem promising for the development of devices that rely on one-way electron transmission with nearly perfect efficiency and a simple design.
Johann Ostmeyer, Tahereh Nematiaram, Alessandro Troisi, and Pavel Buividovich
Phys. Rev. Applied 22, L031004 (2024) - Published 10 September, 2024
Organic molecular semiconductors are very interesting, especially for optoelectronics such as displays, solar cells, flexible devices, and biosensors, offering lower cost and larger device areas than their silicon-based counterparts. Investigating them from first principles has seemed unfeasible to date, due to extremely high autocorrelation in the most promising Monte Carlo ansatz. The authors use a hybrid Monte Carlo method with exact Fourier acceleration to reduce the autocorrelation by several orders of magnitude, allowing high-precision simulations at low computational cost. This method is also widely applicable, beyond just the study of organic molecular semiconductors.
J.C. Leiner, S.J. Kuhn, S. McKay, J.K. Jochum, F. Li, A.A.M. Irfan, F. Funama, D. Mettus, L. Beddrich, C. Franz, J. Shen, S.R. Parnell, R.M. Dalgliesh, M. Loyd, N. Geerits, G. Ortiz, C. Pfleiderer, and R. Pynn
Phys. Rev. Applied 22, L031005 (2024) - Published 25 September, 2024
Quantum entanglement in a neutron beam? Yup. The spectroscopic technique known as neutron resonant spin echo (NRSE) extracts the dynamical correlation function with comparatively high resolution. Underlying the unique capabilities of NRSE beamlines is how they label the velocity (energy) of neutrons with Larmor spin precession to set up a spin-echo signal. This Letter provides proof of concept that the way such beamlines manipulate the spin and energy of an individual neutron in fact entangles those degrees of freedom, which can be observed with a quantum contextuality witness. This suggests that the technique could serve as a direct probe of entanglement in condensed matter.
Jose Ordonez-Miranda, Roman Anufriev, Masahiro Nomura, and Sebastian Volz
Phys. Rev. Applied 22, L031006 (2024) - Published 25 September, 2024
Understanding heat flow at the nanoscale is especially interesting for generating passive cooling. This study reports a dimensional crossover in the far-field thermal radiation between metallic membranes. The thermal conductance exhibits a dependence for bulklike thick membranes yet a dependence for ultrathin films, reflecting the dimensional shift in photon density of states. Notably, over a wide range of film thicknesses, a minimum plateau in thermal conductance appears and falls below the black-body limit, demonstrating the potential for tailoring far-field thermal radiation in metallic nanostructures through dimensional confinement and plasmonic effects.
Pegah Azizi and Stefano Gonella
Phys. Rev. Applied 22, 034001 (2024) - Published 3 September, 2024
Takayoshi Fujikawa and Toshihiro Nakanishi
Phys. Rev. Applied 22, 034002 (2024) - Published 3 September, 2024
Hao-Cheng Weng and Chih-Sung Chuu
Phys. Rev. Applied 22, 034003 (2024) - Published 3 September, 2024
Alberto Ghirri, Claudio Bonizzoni, Maksut Maksutoglu, and Marco Affronte
Phys. Rev. Applied 22, 034004 (2024) - Published 3 September, 2024
Mylène Sauty, Cameron W. Johnson, Tanay Tak, Wan Ying Ho, Yi Chao Chow, James S. Speck, Andreas K. Schmid, Claude Weisbuch, and Jacques Peretti
Phys. Rev. Applied 22, 034005 (2024) - Published 3 September, 2024
Aina Wang, Zan Du, Fanying Meng, Azizur Rahman, Wei Liu, Jiyu Fan, Chunlan Ma, Langsheng Ling, Chuanying Xi, Min Ge, Li Pi, Yuheng Zhang, and Lei Zhang
Phys. Rev. Applied 22, 034006 (2024) - Published 4 September, 2024
Ziwen Huang, Taeyoon Kim, Tanay Roy, Yao Lu, Alexander Romanenko, Shaojiang Zhu, and Anna Grassellino
Phys. Rev. Applied 22, 034007 (2024) - Published 4 September, 2024
Leonid Vidro, Liran Shirizly, Naftali Kirsh, Nadav Katz, and Hagai S. Eisenberg
Phys. Rev. Applied 22, 034008 (2024) - Published 4 September, 2024
Yuzan Xiong, Andrew Christy, Zixin Yan, Amin Pishehvar, Muntasir Mahdi, Junming Wu, James F. Cahoon, Binbin Yang, Michael C. Hamilton, Xufeng Zhang, and Wei Zhang
Phys. Rev. Applied 22, 034009 (2024) - Published 4 September, 2024
Dongwei Wang, Binghao Zhao, Yu Wei, Jun Yang, and Gengkai Hu
Phys. Rev. Applied 22, 034010 (2024) - Published 4 September, 2024
G. Lioliou, A. Charman, O. Roche i Morgó, M. Endrizzi, S. Arridge, D. Bate, A. Olivo, and C. Hagen
Phys. Rev. Applied 22, 034011 (2024) - Published 4 September, 2024
Xiangyu Zhu, Chloé Salhani, Guéric Etesse, Naomi Nagai, Marc Bescond, Francesca Carosella, Robson Ferreira, Gérald Bastard, and Kazuhiko Hirakawa
Phys. Rev. Applied 22, 034012 (2024) - Published 5 September, 2024
Qing-Yuan Chen, Fei-Jie Huang, Ju-Qi Ruan, Yi-Fen Zhao, Xiong-Fei Zhang, Kai Xiong, Yao He, and CLEO Collaboration
Phys. Rev. Applied 22, 034013 (2024) - Published 5 September, 2024
Carlo Forestiere, Giovanni Miano, and Andrea Alù
Phys. Rev. Applied 22, 034014 (2024) - Published 5 September, 2024
Peter J. Hobson, Chris Morley, Alister Davis, Thomas Smith, and Mark Fromhold
Phys. Rev. Applied 22, 034015 (2024) - Published 6 September, 2024
Lina Yang, Yixin Xu, Xianheng Wang, and Yanguang Zhou
Phys. Rev. Applied 22, 034016 (2024) - Published 9 September, 2024
Jiacheng Liu, Yuzan Xiong, Jingming Liang, Xuezhao Wu, Chen Liu, Shun Kong Cheung, Zheyu Ren, Ruizi Liu, Andrew Christy, Zehan Chen, Yifan Liu, Ferris Prima Nugraha, Xi-Xiang Zhang, Dennis Chi Wah Leung, Wei Zhang, and Qiming Shao
Phys. Rev. Applied 22, 034017 (2024) - Published 9 September, 2024
Thomas Vezin, Hamidreza Esmaielpour, Laurent Lombez, Jean-François Guillemoles, and Daniel Suchet
Phys. Rev. Applied 22, 034018 (2024) - Published 9 September, 2024
Anna M. Krol and Zaid Al-Ars
Phys. Rev. Applied 22, 034019 (2024) - Published 9 September, 2024
Sheng-Chen Liu, Lin Cheng, Liang-You Peng, and Qihuang Gong
Phys. Rev. Applied 22, 034020 (2024) - Published 10 September, 2024
Lin Cheng, Sheng-Chen Liu, Liang-You Peng, and Qihuang Gong
Phys. Rev. Applied 22, 034021 (2024) - Published 10 September, 2024
Jie-Jie Lan, Quan-Tang Zhao, Zhang-Hu Hu, Zhao-Hui Ran, Wang-Wen Xu, Hao-Yuan Li, Jia Li, Shu-Chun Cao, Rui Cheng, Yong-Tao Zhao, Zi-Min Zhang, and You-Nian Wang
Phys. Rev. Applied 22, 034022 (2024) - Published 10 September, 2024
Thomas Larsen, Jesper de C. Christiansen, John R. Royer, Fraser H.J. Laidlaw, Wilson C.K. Poon, Tom Larsen, and Søren J. Andreasen
Phys. Rev. Applied 22, 034023 (2024) - Published 10 September, 2024
The interest in slurries formed by granular filler dispersed in colloidal gel is largely driven by the relevance to batteries, and the recent discovery of flow-switched bistability. This study extends previous investigations to make progress on elucidating the physics of such slurries. Surprisingly, the electrical and mechanical properties of the slurries can be either coupled or decoupled, depending on the conductive properties of the granular fillers. The different coordination numbers required for network rigidity and electrical percolation provide a key to understanding the decoupling, and important insight for optimizing the mixing and processing of industrial slurries.
Mingze Wu, Junhui Li, Bingjie Xu, Song Yu, and Yichen Zhang
Phys. Rev. Applied 22, 034024 (2024) - Published 11 September, 2024
The system’s source noise affects the practical performance of discrete-modulated continuous-variable quantum key distribution. The good news: This noise exists inside the system and cannot be exploited by eavesdroppers, so it can be trusted. However, a lack of appropriate modeling leaves a security-key-rate gap, omitting this trusted noise. The authors propose a model for trusted source noise in the discrete-modulated protocol, successfully mitigating the negative impact of an imperfect source on system performance while maintaining security of the protocol, and thus promoting practical deployment.
Shi-Feng Li, Jie-Yu Lu, Cui-Yu-Yang Zhou, Xin-Ye Zou, and Jian-Chun Cheng
Phys. Rev. Applied 22, 034025 (2024) - Published 11 September, 2024
Yabin Jin, Wenjun Li, Bahram Djafari-Rouhani, Daniel Torrent, Yanxun Xiang, and Fu-Zhen Xuan
Phys. Rev. Applied 22, 034026 (2024) - Published 11 September, 2024
M.P. Rosseto, S. Hurley, E.K. Lenzi, D.-K. Yang, and R.S. Zola
Phys. Rev. Applied 22, 034027 (2024) - Published 11 September, 2024
Sahitya V. Vegesna, Venkata Rao Rayapati, and Heidemarie Schmidt
Phys. Rev. Applied 22, 034028 (2024) - Published 12 September, 2024
Jonas Homrighausen, Frederik Hoffmann, Jens Pogorzelski, Peter Glösekötter, and Markus Gregor
Phys. Rev. Applied 22, 034029 (2024) - Published 12 September, 2024
Hengyan Wang, Michael Zugenmaier, Kasper Jensen, Wenqiang Zheng, and Eugene S. Polzik
Phys. Rev. Applied 22, 034030 (2024) - Published 12 September, 2024
Outstanding in the (magnetic) field: The authors demonstrate an alternative, self-stabilized radio-frequency atomic magnetometer (AM) for magnetic induction tomography. In contrast to traditional approaches that require extra devices for bias-field stabilization, this method employs a dual-frequency technique, enabling simultaneous measurement of static and oscillating magnetic fields through nonlinear Zeeman splitting, all with a single atomic sensor. Experimental results reveal marked improvements in sensitivity and stability for AM-based detection of eddy current.
Yi-Ming Ding, Yan-Cheng Wang, Shi-Xin Zhang, and Zheng Yan
Phys. Rev. Applied 22, 034031 (2024) - Published 12 September, 2024
Ivan S. Sushchev, Daniil S. Bulavkin, Kirill E. Bugai, Anna S. Sidelnikova, and Dmitriy A. Dvoretskiy
Phys. Rev. Applied 22, 034032 (2024) - Published 12 September, 2024
Claudio E. Calosso, Michele Gozzelino, Filippo Levi, and Salvatore Micalizio
Phys. Rev. Applied 22, 034033 (2024) - Published 12 September, 2024
Fluctuations in laser frequency affect atomic clock stability (via the so-called light shift) and stabilization is required, typically entailing additional complicated gear. This study shows how to turn the light shift from a nuisance to an amazing resource for compact atomic frequency standards. Exploiting the dispersive behavior of the light shift, the authors stabilize the laser frequency to the same atoms that are involved in the clock’s operation, without the need for any external reference. This technique results in significant hardware simplification, which is quite advantageous for industrial and space applications, where compact and robust automatic laser-frequency stabilization is especially valuable.
Bhawna Sahni and Aftab Alam
Phys. Rev. Applied 22, 034034 (2024) - Published 12 September, 2024
Alec Yen, Yufeng Ye, Kaidong Peng, Jennifer Wang, Gregory Cunningham, Michael Gingras, Bethany M. Niedzielski, Hannah Stickler, Kyle Serniak, Mollie E. Schwartz, and Kevin P. O’Brien
Phys. Rev. Applied 22, 034035 (2024) - Published 13 September, 2024
Robust and scalable multiplexed qubit readout is essential for realizing a fault-tolerant quantum computer. Conventional approaches rely on intentional mismatch of the feedline to provide directionality to the readout signal, at the cost of increased variation in resonator linewidth, which ultimately degrades quantum error correction. The authors address this challenge by demonstrating high-fidelity qubit readout using a readout resonator that emits photons preferentially toward the output, across its full bandwidth. By maintaining directional decay of the readout signal without intentional mismatch, this work presents a path toward the design of reliable, modular quantum processors.
Philipp Bredol, Felix David, Nagesh S. Jagtap, Yannick S. Klaß, Georgy V. Astakhov, Artur Erbe, and Eva M. Weig
Phys. Rev. Applied 22, 034036 (2024) - Published 13 September, 2024
Ryunosuke Hayashi, Shoki Nezu, and Koji Sekiguchi
Phys. Rev. Applied 22, 034037 (2024) - Published 13 September, 2024
Lautaro Labarca, Othmane Benhayoune-Khadraoui, Alexandre Blais, and Adrian Parra-Rodriguez
Phys. Rev. Applied 22, 034038 (2024) - Published 16 September, 2024
Michal Mrnka, Thomas Whittaker, David B. Phillips, Euan Hendry, and Will Whittow
Phys. Rev. Applied 22, 034039 (2024) - Published 16 September, 2024
G.Y. Thiancourt, S.M. Ngom, N. Bardou, and T. Devolder
Phys. Rev. Applied 22, 034040 (2024) - Published 16 September, 2024
In some magnetic materials, spin-wave dispersion relations vary monotonically across the Brillouin zone, allowing wave packets with zero momentum to flow unidirectionally, which points to high-frequency spintronic applications. To get there, though, it is crucial to develop methods that can link a spin wave’s properties to experimentally accessible metrics. To this end, the authors use propagating-spin-wave spectroscopy to precisely measure the dispersion of unidirectional spin waves. Their method identifies the wave vector at a particular frequency, which was a limiting factor in previous studies. This metrological approach is sure to impact the study of thin-film magnetism.
Pierre Azam and Robin Kaiser
Phys. Rev. Applied 22, 034041 (2024) - Published 17 September, 2024
Chengyuan Cai, Zubiao Zhang, Ji Zou, Gerrit E. W. Bauer, and Tao Yu
Phys. Rev. Applied 22, 034042 (2024) - Published 17 September, 2024
Ryo Oishi, Yuto Hongu, Tokuro Hata, Chaojing Lin, Takafumi Akiho, Koji Muraki, and Toshimasa Fujisawa
Phys. Rev. Applied 22, 034043 (2024) - Published 18 September, 2024
M.A. Wolfe, Brighton X. Coe, Justin S. Edwards, Tyler J. Kovach, Thomas McJunkin, Benjamin Harpt, D.E. Savage, M.G. Lagally, R. McDermott, Mark Friesen, Shimon Kolkowitz, and M.A. Eriksson
Phys. Rev. Applied 22, 034044 (2024) - Published 18 September, 2024
Jia Zhang, Xiaolei Guan, Xun Gao, Zhiyang Wang, Xiaomin Qin, Zijie Liu, Hangbo Shi, Jianxiang Miao, Tiantian Shi, and Jingbiao Chen
Phys. Rev. Applied 22, 034045 (2024) - Published 18 September, 2024
Lidiia Ushii, Andrei Slavin, and Roman Verba
Phys. Rev. Applied 22, 034046 (2024) - Published 19 September, 2024
Hao-Bin Fu, Zu-Yang Wan, Yu-huai Li, Bo Li, Zhen Rong, Gao-Qiang Wang, Juan Yin, Ji-Gang Ren, Wei-Yue Liu, Sheng-Kai Liao, Yuan Cao, and Cheng-Zhi Peng
Phys. Rev. Applied 22, 034047 (2024) - Published 19 September, 2024
Radek Machulka, Jan Peřina, Jr., Václav Michálek, Roberto de J. León-Montiel, and Ondřej Haderka
Phys. Rev. Applied 22, 034048 (2024) - Published 20 September, 2024
Peipei Liu, Yinchang Zhao, Jun Ni, and Zhenhong Dai
Phys. Rev. Applied 22, 034049 (2024) - Published 23 September, 2024
Jae Hyung Cho and Emilie Dressaire
Phys. Rev. Applied 22, 034050 (2024) - Published 23 September, 2024
Yu-Chen Liu, Yuan-Bin Cheng, Xing-Bo Pan, Ze-Zhou Sun, Dong Pan, and Gui-Lu Long
Phys. Rev. Applied 22, 034051 (2024) - Published 23 September, 2024
Marco Hoffmann, Viola Krizakova, Vaishnavi Kateel, Kaiming Cai, Sebastien Couet, and Pietro Gambardella
Phys. Rev. Applied 22, 034052 (2024) - Published 23 September, 2024
A. Marquet, S. Dupouy, U. Réglade, A. Essig, J. Cohen, E. Albertinale, A. Bienfait, T. Peronnin, S. Jezouin, R. Lescanne, and B. Huard
Phys. Rev. Applied 22, 034053 (2024) - Published 23 September, 2024
Qing-Ling Hou, Han Wang, and Jing Qian
Phys. Rev. Applied 22, 034054 (2024) - Published 24 September, 2024
Jianhua Ren, Linjie Liu, Fei Sun, Qian He, Mengjun Wu, Weijin Chen, and Yue Zheng
Phys. Rev. Applied 22, 034055 (2024) - Published 24 September, 2024
Oscar Bulancea-Lindvall, Joel Davidsson, Ivan G. Ivanov, Adam Gali, Viktor Ivády, Rickard Armiento, and Igor A. Abrikosov
Phys. Rev. Applied 22, 034056 (2024) - Published 24 September, 2024
Songwei Liu, Yingyi Wen, Jingfang Pei, Xiaoyue Fan, Yongheng Zhou, Yang Liu, Ling-Kiu Ng, Yue Lin, Teng Ma, Panpan Zhang, Xiaolong Chen, Gang Wang, and Guohua Hu
Phys. Rev. Applied 22, 034057 (2024) - Published 24 September, 2024
Bruno Ronchi, Analia Zwick, and Gonzalo A. Álvarez
Phys. Rev. Applied 22, 034058 (2024) - Published 25 September, 2024
Anna N. Morozovska, Sergei V. Kalinin, Eugene A. Eliseev, Svitlana Kopyl, Yulian M. Vysochanskii, and Dean R. Evans
Phys. Rev. Applied 22, 034059 (2024) - Published 25 September, 2024
Rui Wang, Lei Han, Man-Na Zhang, Li-Feng Wang, and Qing-An Huang
Phys. Rev. Applied 22, 034060 (2024) - Published 25 September, 2024
Deepanshu Trivedi, Arjuna Madanayake, and Alex Krasnok
Phys. Rev. Applied 22, 034061 (2024) - Published 26 September, 2024
Agisilaos Matalliotakis, Rick Waasdorp, Martin D. Verweij, and David Maresca
Phys. Rev. Applied 22, 034062 (2024) - Published 26 September, 2024
Sourav Mukherjee, Soirik Dan, and Amlan J. Pal
Phys. Rev. Applied 22, 034063 (2024) - Published 26 September, 2024
Zhusen Zhang, Dawei Deng, Qing-Xia Ge, Zhen-Kun Tang, Nicola Seriani, Wen-Jin Yin, and Ralph Gebauer
Phys. Rev. Applied 22, 034064 (2024) - Published 26 September, 2024
Ziyu Chen, Hanbang Zou, Yanming Liu, Junyang Gai, Felipe Basquiroto de Souzae, Kwesi Sagoe-Crentsil, Adrian Neild, and Wenhui Duan
Phys. Rev. Applied 22, 034065 (2024) - Published 26 September, 2024
Yujin Cho, Kristin M. Beck, Alessandro R. Castelli, Kyle A. Wendt, Bram Evert, Matthew J. Reagor, and Jonathan L DuBois
Phys. Rev. Applied 22, 034066 (2024) - Published 27 September, 2024
Sebastian Borówka, Wiktor Krokosz, Mateusz Mazelanik, Wojciech Wasilewski, and Michał Parniak
Phys. Rev. Applied 22, 034067 (2024) - Published 27 September, 2024
Trond Hjerpekjøn Haug, Anton Frisk Kockum, and Raphaël Van Laer
Phys. Rev. Applied 22, 034068 (2024) - Published 27 September, 2024
Sharon Elad and Ariel Epstein
Phys. Rev. Applied 22, 034069 (2024) - Published 27 September, 2024
Sun-Yong Hwang, Björn Sothmann, and Rosa López
Phys. Rev. Applied 22, 034070 (2024) - Published 30 September, 2024
Justin Maddox and Alban Sauret
Phys. Rev. Applied 22, 034071 (2024) - Published 30 September, 2024
B. Zhang, Yingming Yan, X. Dong, M.I. Dykman, and H.B. Chan
Phys. Rev. Applied 22, 034072 (2024) - Published 30 September, 2024
Pedro M. Resende, Florian Le Goupil, Guillaume Fleury, and Georges Hadziioannou
Phys. Rev. Applied 22, 039901 (2024) - Published 25 September, 2024
