Wilson Yanez, Yongxi Ou, Run Xiao, Supriya Ghosh, Jyotirmay Dwivedi, Emma Steinebronn, Anthony Richardella, K. Andre Mkhoyan, and Nitin Samarth
Phys. Rev. Applied 18, 054004 (2022) - Published 2 November, 2022
Efficient interconversion between charge and spin is expected in topological quantum materials, and theory predicts high spin Hall conductivity for the Weyl semimetal TaAs, making it an attractive material for spintronics. The authors measure charge-spin conversion in thin films of TaAs and find a large spin Hall conductivity, consistent with calculations—even though the films are polycrystalline, whereas the calculations are for single-crystal material. More surprisingly, oxidation of the films results in very large conversion efficiency, hinting at hidden physics that could be exploited to develop topological spintronic devices with large figures of merit.
R.A. Gallardo, P. Alvarado-Seguel, and P. Landeros
Phys. Rev. Applied 18, 054044 (2022) - Published 15 November, 2022
Progress in spintronics continues briskly, with many different approaches and physical phenomena underlying candidate technologies. This study uses modern spin-wave theory to predict the magnonic spectrum of a cylindrical synthetic antiferromagnet consisting of two coaxial nanotubes. The proposed device incorporates two coupled ferromagnetic nanotubes hosting oppositely magnetized vortices. Nonreciprocal features of the proposed architecture are provided by both intra- and interlayer dipolar coupling. Unidirectional spin-wave behavior is found, which may impact the realization of low-power magnonic devices operating at nano- to micrometer scales.
Le Dong and Dong Wang
Phys. Rev. Applied 18, 054050 (2022) - Published 16 November, 2022
Mechanical metamaterials present tremendous potential through synergistic material distribution and structural design, but current approaches mainly focus on structure while neglecting the material distribution. The authors propose an optimized method for designing lattice metamaterials, considering both control aspects. This framework can be used to match multiple targets, such as reproducing the stress-strain and Poisson’s ratio curves of biological tissues simultaneously, and to enable customized lateral profiles. This work expands the design space of lattice metamaterials and is promising for flexible electronics and soft robotics.
Teng Xu, Jiahao Liu, Xichao Zhang, Qihan Zhang, Heng-An Zhou, Yiqing Dong, Pierluigi Gargiani, Manuel Valvidares, Yan Zhou, and Wanjun Jiang
Phys. Rev. Applied 18, 054051 (2022) - Published 16 November, 2022
Controlling the interlayer exchange coupling in synthetic antiferromagnets (SAFs) is crucial for realizing spintronic phenomena and devices. Here researchers investigate such control in Pt/Co/Ru/FeTb by tuning the thicknesses of various layers. Complementary measurements using three techniques show that SAFs with different magnetization-reversal characteristics may be clearly resolved. The results suggest that the interlayer exchange coupling may be tuned effectively in this manner, which could be quite useful for designing SAF-based magnetic memory or sensing devices.
Wei Lyu, Jia-Qi Zhong, Xiao-Wei Zhang, Wu Liu, Lei Zhu, Wei-Hao Xu, Xi Chen, Biao Tang, Jin Wang, and Ming-Sheng Zhan
Phys. Rev. Applied 18, 054091 (2022) - Published 30 November, 2022
Measurement of the absolute-gravity gradient is of great significance in metrology, geophysics, and industries such as autonomous navigation. However, its applications are limited by the dimensions of the gradiometer and the complicated systematic errors. The authors present a high-resolution atom-gravity gradiometer with an ultracompact sensor head, and develop a series of technologies to comprehensively evaluate the systematic errors. This work will have an impact on the calibration of gravimetry instruments, correction of inertial navigation errors, and direct onboard high-precision mapping.
Dongwoo Lee, Yiran Hao, Jeonghoon Park, Yaxi Shen, Jensen Li, and Junsuk Rho
Phys. Rev. Applied 18, 054092 (2022) - Published 30 November, 2022
What if we could manipulate and study a black hole in the laboratory? Here the authors employ the elastic curved framework to mimic the black hole effect and achieve a singularity, which has an infinite refractive index in the classical regime and has proven challenging to navigate so far. In particular, they adopt a conformal mapping-based strategy that leads to wave localization and time lags. This work would have an impact on finding solutions to wave propagation in the presence of singularity, and have potential applications in sensing, imaging, vibration isolation, and energy harvesting.
Po-Han Lin, Yu-Hung Kuan, Yen-Yu Fu, and Wen-Te Liao
Phys. Rev. Applied 18, L051001 (2022) - Published 4 November, 2022
Nuclear resonant scattering of x rays is an important method to probe the dynamics and structure of condensed matter. As the bandwidth of a synchrotron-radiation pulse is much broader than the linewidth of Mössbauer isotopes in a target, the resonant fraction of the incident x-ray photons is extremely tiny. The authors propose using magnetic switching to control the interference between the off-resonant background x rays and the resonant scattered signal, for enhancement of the output intensity via Fano resonance. This scheme points toward a bright, flexible x-ray source for precision spectroscopy utilizing modern synchrotrons.
Jiarui Zhang, Yongbao Cui, Nannan Liu, Qi Qi, Rui Huang, Kai Chen, Laijun Liu, Zhida Han, and Guoliang Yuan
Phys. Rev. Applied 18, L051002 (2022) - Published 8 November, 2022
Multiferroic BiFeO has been surprising researchers with its properties for decades now, and questions related to the origin of its polarization and the various mechanisms behind its ferroelectric properties are still important. This study shows that in BiFeO, quasipolaron surface polarization is the origin of a nested domain structure. As more quasipolarons are pinned at the surface per unit area, the surface density of antiferromagnetically ordered spins increases. The large remanent polarization and superior antiferromagnetic properties show that the surface of bismuth ferrite is important for spintronics.
Sebastian Volz, Masahiro Nomura, and Jose Ordonez-Miranda
Phys. Rev. Applied 18, L051003 (2022) - Published 21 November, 2022
Going with the flow: The authors show that, in contrast to the well-known cross-plane heat transport in a cavity, the in-plane transport increases with gap distance up to 1 cm, where it takes on a maximum value that increases with temperature. This resonance occurs due to the thermal activation of hundreds of electromagnetic cavity modes, which are standing waves in the cross-plane direction, yet propagate within the plane. The energy of these modes leads to thermal emission comparable to the radiation predicted by Planck’s law, and this effect could be useful for generating and evacuating super-Planckian heat currents along macroscale cavities.
Robert D. McMichael and Sean M. Blakley
Phys. Rev. Applied 18, 054001 (2022) - Published 1 November, 2022
N.G. Pugach, M.O. Safonchik, V.I. Belotelov, T. Ziman, and T. Champel
Phys. Rev. Applied 18, 054002 (2022) - Published 1 November, 2022
Xiao-Hong Liu, Kai-Yu Liao, Zuan-Xian Zhang, Hai-Tao Tu, Wu Bian, Zhong-Qi Li, Shun-Yuan Zheng, He-He Li, Wei Huang, Hui Yan, and Shi-Liang Zhu
Phys. Rev. Applied 18, 054003 (2022) - Published 2 November, 2022
Wilson Yanez, Yongxi Ou, Run Xiao, Supriya Ghosh, Jyotirmay Dwivedi, Emma Steinebronn, Anthony Richardella, K. Andre Mkhoyan, and Nitin Samarth
Phys. Rev. Applied 18, 054004 (2022) - Published 2 November, 2022
Efficient interconversion between charge and spin is expected in topological quantum materials, and theory predicts high spin Hall conductivity for the Weyl semimetal TaAs, making it an attractive material for spintronics. The authors measure charge-spin conversion in thin films of TaAs and find a large spin Hall conductivity, consistent with calculations—even though the films are polycrystalline, whereas the calculations are for single-crystal material. More surprisingly, oxidation of the films results in very large conversion efficiency, hinting at hidden physics that could be exploited to develop topological spintronic devices with large figures of merit.
Christian Dangel, Jonas Schmitt, Anthony J. Bennett, Kai Müller, and Jonathan J. Finley
Phys. Rev. Applied 18, 054005 (2022) - Published 2 November, 2022
Vatshal Srivastav, Natalia Herrera Valencia, Saroch Leedumrongwatthanakun, Will McCutcheon, and Mehul Malik
Phys. Rev. Applied 18, 054006 (2022) - Published 2 November, 2022
Jia-Nan Wu, Junhua Dong, Yafang Xu, Bingsuo Zou, and Yongyou Zhang
Phys. Rev. Applied 18, 054007 (2022) - Published 2 November, 2022
M.A. Yavorsky, E.V. Barshak, V.N. Berzhansky, S.D. Lyashko, M.A. Kozhaev, A.Yu. Fedorov, D.V. Vikulin, and V.I. Belotelov
Phys. Rev. Applied 18, 054008 (2022) - Published 2 November, 2022
C. Clivati, M. Pizzocaro, E.K. Bertacco, S. Condio, G.A. Costanzo, S. Donadello, I. Goti, M. Gozzelino, F. Levi, A. Mura, M. Risaro, D. Calonico, M. Tønnes, B. Pointard, M. Mazouth-Laurol, R. Le Targat, M. Abgrall, M. Lours, H. Le Goff, L. Lorini, P.-E. Pottie, E. Cantin, O. Lopez, C. Chardonnet, and A. Amy-Klein
Phys. Rev. Applied 18, 054009 (2022) - Published 3 November, 2022
Dongzheng Chen, Ryan Jacobs, John Petillo, Vasilios Vlahos, Kevin L. Jensen, Dane Morgan, and John Booske
Phys. Rev. Applied 18, 054010 (2022) - Published 3 November, 2022
I. Yahniuk, G. V. Budkin, A. Kazakov, M. Otteneder, J. Ziegler, D. Weiss, N. N. Mikhailov, S. A. Dvoretskii, T. Wojciechowski, V. V. Bel’kov, W. Knap, and S. D. Ganichev
Phys. Rev. Applied 18, 054011 (2022) - Published 3 November, 2022
Hui-Min Lin, Yong-Heng Lu, Yi-Jun Chang, Ying-Yue Yang, and Xian-Min Jin
Phys. Rev. Applied 18, 054012 (2022) - Published 3 November, 2022
Junjun Lei, Feng Cheng, Gaokun Zheng, and Li Lin
Phys. Rev. Applied 18, 054013 (2022) - Published 4 November, 2022
Viola Zeller, Nadine Mundigl, Paulo E. Faria Junior, Jaroslav Fabian, Christian Schüller, and Dominique Bougeard
Phys. Rev. Applied 18, 054014 (2022) - Published 4 November, 2022
Ahmed Naceur, Gabriel Famulari, Charles Bienvenue, Jean-François Carrier, and Alain Hébert
Phys. Rev. Applied 18, 054015 (2022) - Published 4 November, 2022
Dan Yudilevich, Rainer Stöhr, Andrej Denisenko, and Amit Finkler
Phys. Rev. Applied 18, 054016 (2022) - Published 7 November, 2022
Justin Boddison-Chouinard, Alex Bogan, Norman Fong, Pedro Barrios, Jean Lapointe, Kenji Watanabe, Takashi Taniguchi, Adina Luican-Mayer, and Louis Gaudreau
Phys. Rev. Applied 18, 054017 (2022) - Published 7 November, 2022
Xin Zheng, Jingjing Zhang, Yu Luo, Zhengxing Wang, Yi Ren, and Tie Jun Cui
Phys. Rev. Applied 18, 054018 (2022) - Published 7 November, 2022
Alexander A. Wood, Alastair Stacey, and Andy M. Martin
Phys. Rev. Applied 18, 054019 (2022) - Published 7 November, 2022
D.J.P. de Sousa, P.M. Haney, J.P. Wang, and Tony Low
Phys. Rev. Applied 18, 054020 (2022) - Published 8 November, 2022
Lujun Huang, Bin Jia, Artem S. Pilipchuk, Yankei Chiang, Sibo Huang, Junfei Li, Chen Shen, Evgeny N. Bulgakov, Fu Deng, David A. Powell, Steven A. Cummer, Yong Li, Almas F. Sadreev, and Andrey E. Miroshnichenko
Phys. Rev. Applied 18, 054021 (2022) - Published 8 November, 2022
Pan Zhang, Zhenhua Zhang, Yong Liu, Ziyu Wang, Zhihong Lu, and Rui Xiong
Phys. Rev. Applied 18, 054022 (2022) - Published 8 November, 2022
Erik Piatti, Marco Colangelo, Mattia Bartoli, Owen Medeiros, Renato S. Gonnelli, Karl K. Berggren, and Dario Daghero
Phys. Rev. Applied 18, 054023 (2022) - Published 9 November, 2022
M. Quintana, A. Meléndez, C. Martín Valderrama, L. Fallarino, and A. Berger
Phys. Rev. Applied 18, 054024 (2022) - Published 9 November, 2022
Christopher K. Zeitler, Joseph C. Chapman, Eric Chitambar, and Paul G. Kwiat
Phys. Rev. Applied 18, 054025 (2022) - Published 9 November, 2022
Yao Zhou, Zhen-Qiang Yin, Rui-Qiang Wang, Shuang Wang, Wei Chen, Guang-Can Guo, and Zheng-Fu Han
Phys. Rev. Applied 18, 054026 (2022) - Published 9 November, 2022
Benjamin Maillet, Guido Dittrich, Patrick Huber, and Philippe Coussot
Phys. Rev. Applied 18, 054027 (2022) - Published 9 November, 2022
Nansen Zhou, Andreas Zheng, Kenneth K. Y. Wong, and Renjie Zhou
Phys. Rev. Applied 18, 054028 (2022) - Published 10 November, 2022
Zi-Dong Zhang, Xiao-Meng Zhang, Si-Yuan Yu, Ming-Hui Lu, and Yan-Feng Chen
Phys. Rev. Applied 18, 054029 (2022) - Published 10 November, 2022
Ankur Khurana, Pisu Jiang, and Krishna C. Balram
Phys. Rev. Applied 18, 054030 (2022) - Published 10 November, 2022
Tarun Maity, Mounika Gosika, Tod A. Pascal, and Prabal K. Maiti
Phys. Rev. Applied 18, 054031 (2022) - Published 10 November, 2022
Aneesh Dash, Viphretuo Mere, S.K. Selvaraja, and A.K. Naik
Phys. Rev. Applied 18, 054032 (2022) - Published 10 November, 2022
Eneet Kaur, Karol Horodecki, and Siddhartha Das
Phys. Rev. Applied 18, 054033 (2022) - Published 10 November, 2022
Mario A. Quiroz-Juárez, Kaustubh S. Agarwal, Zachary A. Cochran, José L. Aragón, Yogesh N. Joglekar, and Roberto de J. León-Montiel
Phys. Rev. Applied 18, 054034 (2022) - Published 14 November, 2022
S.Yu. Grebenchuk, R.A. Hovhannisyan, A.G. Shishkin, V.V. Dremov, and V.S. Stolyarov
Phys. Rev. Applied 18, 054035 (2022) - Published 14 November, 2022
Biao Liu, Xiangxiang Feng, Mengqiu Long, Meng-Qiu Cai, and Junliang Yang
Phys. Rev. Applied 18, 054036 (2022) - Published 14 November, 2022
Li-Na Zheng, Xuexi Yi, and Hong-Fu Wang
Phys. Rev. Applied 18, 054037 (2022) - Published 14 November, 2022
A.A. Kolosvetov, M.A. Kozhaev, I.V. Savochkin, V.I. Belotelov, and A.I. Chernov
Phys. Rev. Applied 18, 054038 (2022) - Published 14 November, 2022
Etienne Batori, Christoph Affolderbach, Matthieu Pellaton, Florian Gruet, Maddalena Violetti, Yuanyan Su, Anja K. Skrivervik, and Gaetano Mileti
Phys. Rev. Applied 18, 054039 (2022) - Published 14 November, 2022
Peizheng Cao, Wenzhan Ou, Yingnan Su, Yuhang Yin, Erqian Dong, Zhongchang Song, Jiafang Li, and Yu Zhang
Phys. Rev. Applied 18, 054040 (2022) - Published 15 November, 2022
Anna Statsenko, Yoshua Albert Darmawan, Takao Fuji, and Tetsuhiro Kudo
Phys. Rev. Applied 18, 054041 (2022) - Published 15 November, 2022
Federico Paolucci, Paolo Solinas, and Francesco Giazotto
Phys. Rev. Applied 18, 054042 (2022) - Published 15 November, 2022
Andrew J. Gilbert, Benjamin S. McDonald, and Mark R. Deinert
Phys. Rev. Applied 18, 054043 (2022) - Published 15 November, 2022
R.A. Gallardo, P. Alvarado-Seguel, and P. Landeros
Phys. Rev. Applied 18, 054044 (2022) - Published 15 November, 2022
Progress in spintronics continues briskly, with many different approaches and physical phenomena underlying candidate technologies. This study uses modern spin-wave theory to predict the magnonic spectrum of a cylindrical synthetic antiferromagnet consisting of two coaxial nanotubes. The proposed device incorporates two coupled ferromagnetic nanotubes hosting oppositely magnetized vortices. Nonreciprocal features of the proposed architecture are provided by both intra- and interlayer dipolar coupling. Unidirectional spin-wave behavior is found, which may impact the realization of low-power magnonic devices operating at nano- to micrometer scales.
Martin J.A. Schuetz, J. Kyle Brubaker, Henry Montagu, Yannick van Dijk, Johannes Klepsch, Philipp Ross, Andre Luckow, Mauricio G.C. Resende, and Helmut G. Katzgraber
Phys. Rev. Applied 18, 054045 (2022) - Published 15 November, 2022
Hongyu Chen, Zexin Feng, Peixin Qin, Xiaorong Zhou, Han Yan, Xiaoning Wang, Ziang Meng, Li Liu, and Zhiqi Liu
Phys. Rev. Applied 18, 054046 (2022) - Published 16 November, 2022
Rabisankar Samanta, Romain Pierrat, Rémi Carminati, and Sushil Mujumdar
Phys. Rev. Applied 18, 054047 (2022) - Published 16 November, 2022
Yiwei Chen, Gongxin Yao, Yong Liu, Hongye Su, Xiaomin Hu, and Yu Pan
Phys. Rev. Applied 18, 054048 (2022) - Published 16 November, 2022
Austin Eichelberg, Audrey A. Watkins, and Osama R. Bilal
Phys. Rev. Applied 18, 054049 (2022) - Published 16 November, 2022
Le Dong and Dong Wang
Phys. Rev. Applied 18, 054050 (2022) - Published 16 November, 2022
Mechanical metamaterials present tremendous potential through synergistic material distribution and structural design, but current approaches mainly focus on structure while neglecting the material distribution. The authors propose an optimized method for designing lattice metamaterials, considering both control aspects. This framework can be used to match multiple targets, such as reproducing the stress-strain and Poisson’s ratio curves of biological tissues simultaneously, and to enable customized lateral profiles. This work expands the design space of lattice metamaterials and is promising for flexible electronics and soft robotics.
Teng Xu, Jiahao Liu, Xichao Zhang, Qihan Zhang, Heng-An Zhou, Yiqing Dong, Pierluigi Gargiani, Manuel Valvidares, Yan Zhou, and Wanjun Jiang
Phys. Rev. Applied 18, 054051 (2022) - Published 16 November, 2022
Controlling the interlayer exchange coupling in synthetic antiferromagnets (SAFs) is crucial for realizing spintronic phenomena and devices. Here researchers investigate such control in Pt/Co/Ru/FeTb by tuning the thicknesses of various layers. Complementary measurements using three techniques show that SAFs with different magnetization-reversal characteristics may be clearly resolved. The results suggest that the interlayer exchange coupling may be tuned effectively in this manner, which could be quite useful for designing SAF-based magnetic memory or sensing devices.
Zhipeng Jin, Chenchao Fang, Xiangying Shen, and Lei Xu
Phys. Rev. Applied 18, 054052 (2022) - Published 17 November, 2022
Xiao-Xiao Chen, Qing-Yuan Wu, Zhe Meng, Mairikena Aili, Jian Li, Jia-Zhi Yang, and An-Ning Zhang
Phys. Rev. Applied 18, 054053 (2022) - Published 17 November, 2022
Charles A. McLemore, Naijun Jin, Megan L. Kelleher, James P. Hendrie, David Mason, Yizhi Luo, Dahyeon Lee, Peter Rakich, Scott A. Diddams, and Franklyn Quinlan
Phys. Rev. Applied 18, 054054 (2022) - Published 17 November, 2022
Qi Zhang, Xi Chen, and David Guéry-Odelin
Phys. Rev. Applied 18, 054055 (2022) - Published 17 November, 2022
Zoe Gonzalez Izquierdo, Shon Grabbe, Husni Idris, Zhihui Wang, Jeffrey Marshall, and Eleanor Rieffel
Phys. Rev. Applied 18, 054056 (2022) - Published 17 November, 2022
Xiaojing Li, Wuan Zheng, Wenhao Zhang, and Tong Hao
Phys. Rev. Applied 18, 054057 (2022) - Published 17 November, 2022
Sai Aditya Raman Kuchibhatla and Michael J. Leamy
Phys. Rev. Applied 18, 054058 (2022) - Published 18 November, 2022
Alireza Nikzamir and Filippo Capolino
Phys. Rev. Applied 18, 054059 (2022) - Published 18 November, 2022
Fei Lin, Ling Hong, Haoxu Guo, Xiaodong Qiu, and Lixiang Chen
Phys. Rev. Applied 18, 054060 (2022) - Published 18 November, 2022
Changchun Zhong, Xu Han, and Liang Jiang
Phys. Rev. Applied 18, 054061 (2022) - Published 18 November, 2022
Sanjay Gopalan, Maarten L. Van de Put, Gautam Gaddemane, and Massimo V. Fischetti
Phys. Rev. Applied 18, 054062 (2022) - Published 18 November, 2022
Anna Mikhailovskaya, Konstantin Grotov, Dmytro Vovchuk, Andrey Machnev, Dmitry Dobrykh, Roman E. Noskov, Konstantin Ladutenko, Pavel Belov, and Pavel Ginzburg
Phys. Rev. Applied 18, 054063 (2022) - Published 18 November, 2022
Swati, Uttam Singh, and Oscar C.O. Dahlsten
Phys. Rev. Applied 18, 054064 (2022) - Published 21 November, 2022
V. Asadchy, A.G. Lamprianidis, G. Ptitcyn, M. Albooyeh, Rituraj, T. Karamanos, R. Alaee, S.A. Tretyakov, C. Rockstuhl, and S. Fan
Phys. Rev. Applied 18, 054065 (2022) - Published 21 November, 2022
Richard Ganser, Simon Bongarz, Alexander von Mach, Luis Azevedo Antunes, and Alfred Kersch
Phys. Rev. Applied 18, 054066 (2022) - Published 21 November, 2022
Romain Tirole, Emanuele Galiffi, Jakub Dranczewski, Taran Attavar, Benjamin Tilmann, Yao-Ting Wang, Paloma A. Huidobro, Andrea Alú, John B. Pendry, Stefan A. Maier, Stefano Vezzoli, and Riccardo Sapienza
Phys. Rev. Applied 18, 054067 (2022) - Published 21 November, 2022
Francisco Sánchez-Ochoa
Phys. Rev. Applied 18, 054068 (2022) - Published 21 November, 2022
R. Matsumoto, S. Yuasa, and H. Imamura
Phys. Rev. Applied 18, 054069 (2022) - Published 22 November, 2022
Prashant Agrawal, Sushrut Bhanushali, Prasanna S. Gandhi, and Adrian Neild
Phys. Rev. Applied 18, 054070 (2022) - Published 22 November, 2022
Shuowei An, Tuo Liu, Yafeng Chen, Li Cheng, and Jie Zhu
Phys. Rev. Applied 18, 054071 (2022) - Published 22 November, 2022
Johannes W. van der Jagt, Vincent Jeudy, André Thiaville, Mamour Sall, Nicolas Vernier, Liza Herrera Diez, Mohamed Belmeguenai, Yves Roussigné, Salim M. Chérif, Mouad Fattouhi, Luis Lopez-Diaz, Alessio Lamperti, Roméo Juge, and Dafiné Ravelosona
Phys. Rev. Applied 18, 054072 (2022) - Published 22 November, 2022
Shunda Yin, Liping Ye, Hailong He, Manzhu Ke, and Zhengyou Liu
Phys. Rev. Applied 18, 054073 (2022) - Published 22 November, 2022
M. Bischi, A. Amato, M. Bazzan, G. Cagnoli, M. Canepa, G. Favaro, D. Forest, P. Gobbi, M. Granata, G.M. Guidi, G. Maggioni, F. Martelli, M. Menotta, M. Montani, F. Piergiovanni, and L. Valentini
Phys. Rev. Applied 18, 054074 (2022) - Published 22 November, 2022
Xiaodong Yang, Yunrui Ge, Bo Zhang, and Jun Li
Phys. Rev. Applied 18, 054075 (2022) - Published 23 November, 2022
Akshata Magar, Somesh K, Vikram Singh, J.J. Abraham, Y. Senyk, A. Alfonsov, B. Büchner, V. Kataev, A.A. Tsirlin, and R. Nath
Phys. Rev. Applied 18, 054076 (2022) - Published 23 November, 2022
Kexin Liang, Geng Chai, Zhengwen Cao, Yang Yuan, Xinlei Chen, Yuan Lu, and Jinye Peng
Phys. Rev. Applied 18, 054077 (2022) - Published 23 November, 2022
Linbo Shao, Sophie W. Ding, Yunwei Ma, Yuhao Zhang, Neil Sinclair, and Marko Lončar
Phys. Rev. Applied 18, 054078 (2022) - Published 23 November, 2022
Qianbiao Liu, Jingwei Li, Lujun Zhu, Xin Lin, Xinyue Xie, and Lijun Zhu
Phys. Rev. Applied 18, 054079 (2022) - Published 23 November, 2022
Lei Zhu, Wen Juan Zhou, Liang Dong, Qun Wu, Shah Nawaz Burokur, and Xumin Ding
Phys. Rev. Applied 18, 054080 (2022) - Published 23 November, 2022
D. Raskhodchikov, J. Bensmann, K.O. Nikolaev, E. Lomonte, L. Jin, P. Steeger, J.A. Preuß, R. Schmidt, R. Schneider, J. Kern, S. Michaelis de Vasconcellos, R. Bratschitsch, S.O. Demokritov, W.H.P. Pernice, and V.E. Demidov
Phys. Rev. Applied 18, 054081 (2022) - Published 28 November, 2022
Monirul Hasan, Atul Shukla, Masashi Mamada, Chihaya Adachi, Shih-Chun Lo, and Ebinazar B. Namdas
Phys. Rev. Applied 18, 054082 (2022) - Published 28 November, 2022
Pengxiang Hou, Yiren Liu, Zhiyu Liu, Chuanhui Zhu, Yao Li, Zhongnan Xi, Yajie Han, Jiayi Li, Man-Rong Li, Jian Zhou, Lan Chen, Yu Deng, Yurong Yang, Jun-Ming Liu, and Di Wu
Phys. Rev. Applied 18, 054083 (2022) - Published 28 November, 2022
W. Yan, L.C. Phillips, and N.D. Mathur
Phys. Rev. Applied 18, 054084 (2022) - Published 28 November, 2022
Keito Kobayashi, Keisuke Hayakawa, Junta Igarashi, William A. Borders, Shun Kanai, Hideo Ohno, and Shunsuke Fukami
Phys. Rev. Applied 18, 054085 (2022) - Published 29 November, 2022
Yuwei Huang, Xuefei Wu, Jacob Schalch, Guangwu Duan, Chunxu Chen, Xiaoguang Zhao, Kelson Kaj, Hai-Tian Zhang, Roman Engel-Herbert, Richard D. Averitt, and Xin Zhang
Phys. Rev. Applied 18, 054086 (2022) - Published 29 November, 2022
Alberto Anadón, Elodie Martin, Suvidyakumar Homkar, Benjamin Meunier, Maxime Vergés, Heloise Damas, Junior Alegre, Christophe Lefevre, Francois Roulland, Carsten Dubs, Morris Lindner, Ludovic Pasquier, Olivier Copie, Karine Dumesnil, Rafael Ramos, Daniele Preziosi, Sébastien Petit-Watelot, Nathalie Viart, and Juan-Carlos Rojas-Sánchez
Phys. Rev. Applied 18, 054087 (2022) - Published 29 November, 2022
Sagnik Banerjee, Koustav Jana, Anirban Basak, Michael S. Fuhrer, Dimitrie Culcer, and Bhaskaran Muralidharan
Phys. Rev. Applied 18, 054088 (2022) - Published 29 November, 2022
Shiqi Liu, Qiuhui Li, Chen Yang, Jie Yang, Lin Xu, Linqiang Xu, Jiachen Ma, Ying Li, Shibo Fang, Baochun Wu, Jichao Dong, Jinbo Yang, and Jing Lu
Phys. Rev. Applied 18, 054089 (2022) - Published 30 November, 2022
D. Fernández-Fernández, Yue Ban, and G. Platero
Phys. Rev. Applied 18, 054090 (2022) - Published 30 November, 2022
Wei Lyu, Jia-Qi Zhong, Xiao-Wei Zhang, Wu Liu, Lei Zhu, Wei-Hao Xu, Xi Chen, Biao Tang, Jin Wang, and Ming-Sheng Zhan
Phys. Rev. Applied 18, 054091 (2022) - Published 30 November, 2022
Measurement of the absolute-gravity gradient is of great significance in metrology, geophysics, and industries such as autonomous navigation. However, its applications are limited by the dimensions of the gradiometer and the complicated systematic errors. The authors present a high-resolution atom-gravity gradiometer with an ultracompact sensor head, and develop a series of technologies to comprehensively evaluate the systematic errors. This work will have an impact on the calibration of gravimetry instruments, correction of inertial navigation errors, and direct onboard high-precision mapping.
Dongwoo Lee, Yiran Hao, Jeonghoon Park, Yaxi Shen, Jensen Li, and Junsuk Rho
Phys. Rev. Applied 18, 054092 (2022) - Published 30 November, 2022
What if we could manipulate and study a black hole in the laboratory? Here the authors employ the elastic curved framework to mimic the black hole effect and achieve a singularity, which has an infinite refractive index in the classical regime and has proven challenging to navigate so far. In particular, they adopt a conformal mapping-based strategy that leads to wave localization and time lags. This work would have an impact on finding solutions to wave propagation in the presence of singularity, and have potential applications in sensing, imaging, vibration isolation, and energy harvesting.
