Wei-Chen Jia (贾伟辰), Yue Xin (辛约), Ke Shen (申可), Zhi-Xin Meng (孟至欣), Xiang-Xiang Lu (路想想), Yi-Cheng Deng (邓意成), Yuan-Xing Liu (刘院省), and Yan-Ying Feng (冯焱颖)
Phys. Rev. Applied 26, 034003 (2026) - Published 1 September, 2026
Atomic interferometers offer extraordinary inertial sensitivity, yet their intrinsically periodic response has long prevented continuous operation over a wide dynamic range. The authors demonstrate a dual-channel closed-loop atomic beam interferometer, enabling simultaneous quantum feedback for rotation and acceleration. By converting periodic matter-wave interference into continuously tracked control parameters, the scheme overcomes the conventional half-fringe limitation while preserving precision. This advance brings practical quantum inertial navigation a significant step closer.
Takeshi Jodoi, Fuminori Hirayama, Tetsuya Tsuruta, Takahiro Kikuchi, and Daiji Fukuda
Phys. Rev. Applied 26, 034005 (2026) - Published 2 September, 2026
What happens when a photon is absorbed by a superconductor? Although vortex-antivortex pairs have long been suspected to play a central role in superconducting photon detection, their dynamics following photon absorption have eluded direct observation. By monitoring quantized voltage signals generated by photon-induced vortices, the authors reveal their generation statistics and demonstrate photon-number resolution. This work provides a rare microscopic view of photon detection in superconductors, and opens a route toward fast superconducting photon-number-resolving detectors.
Kevin K. S. Multani, Zhurun Ji, Wentao Jiang, Siyuan Qiu, Akasha G. Hayden, Gitanjali Multani, Sharon R. Platt, Emilio A. Nanni, Zhi-Xun Shen, and Amir H. Safavi-Naeini
Phys. Rev. Applied 26, L031001 (2026) - Published 1 September, 2026
Millimeter waves sit at the energy scale of many collective excitations in quantum materials, but probing microscopic samples at these frequencies is difficult: Spectroscopic alignment is hard in a cryostat, and superconducting cavities stop working in high magnetic fields. This Letter reports an all-silicon (no metal or superconductor) photonic crystal cavity functioning as a chip-scale conductivity sensor near 100 GHz, reaching a quality factor above at 4.3 K. The all-dielectric platform should work at the strong fields and low temperatures where quantum Hall edge modes, magnetoplasmons, and field-tuned correlated phases exist, and it may be scalable to terahertz frequencies.
Kazuto Yamanoi, Shinya Yamada, Kohei Hamaya, and Yukio Nozaki
Phys. Rev. Applied 26, L031002 (2026) - Published 2 September, 2026
Magnon-phonon hybridization enables coupled control of spin and mechanical excitations, but the limited frequency tunability of conventional surface-acoustic-wave (SAW) devices is restrictive. The authors develop a SAW platform with a fundamental frequency of 193 MHz, enabling quasicontinuous mapping of magnon-phonon resonances up to 5.6 GHz in an epitaxial CoFeSi film. Magnon-induced SAW absorption is enhanced near the transition between monostable and bistable magnetization states; even so, the two regimes exhibit distinct frequency scalings. This approach provides a route toward tunable, potentially energy-efficient magnonic devices and dynamic spin control in hybrid systems.
Yu Wu, Dudu Song, Zhengyi Lu, Shunping Zhang, and Hongxing Xu
Phys. Rev. Applied 26, L031003 (2026) - Published 3 September, 2026
Light emission via inelastic electron tunneling (LEIT) is an ultrabroadband light source with potential impact in visible-light communication, intelligent optical sensing, and on-chip optoelectronics. Its low efficiency is typically addressed using plasmonic tunneling junctions, but their subwavelength size results in omnidirectional radiation with poor collimation. The authors combine a plasmonic tunneling junction with a metasurface to collimate LEIT to a narrow divergence angle across a broad spectral window. The supported hybrid plasmon-photon modes both enhance the local density of states and extend spatial coherence, mitigating the trade-off between response speed and collimation.
R. Ammendola et al. (PTOLEMY Collaboration)
Phys. Rev. Applied 26, L031004 (2026) - Published 9 September, 2026
Transition-edge sensors (TESs) have already been proven to detect electrons with kinetic energy of about 100 eV, with a Gaussian energy resolution of 1 eV, comparable to the photon energy resolution of the same device. This study investigates how changes in the experimental setup influence the energy resolution of TES devices, for electrons produced by a ‘cold’ source of vertically aligned carbon nanotubes. Decreasing the size of both TES and electron source, the energy resolution for electrons significantly improves by a factor of more than 21. These results open up possibilities for the high-resolution spectroscopy of low-energy electrons, for e.g. the measurement of neutrino mass.
Andraž Omahen, Simon Storz, Igor Kladarić, and Yiwen Chu
Phys. Rev. Applied 26, L031005 (2026) - Published 16 September, 2026
Superconducting qubits must be initialized in their ground state with very high fidelity, for quantum computing and sensing. Conventional reset schemes are limited, as they operate the qubit within the same noisy electromagnetic environment used for its everyday control. This study couples a transmon qubit to a high-overtone bulk acoustic resonator, a physically distinct bath that is intrinsically colder than its electromagnetic surroundings. The authors use its multimode structure to repeatedly extract entropy from the qubit. This simple, feedback-free protocol yields residual excited-state populations one to two orders of magnitude lower than for typical schemes.
Hui-Hang Chen and Chiao-Hsuan Wang
Phys. Rev. Applied 26, 034001 (2026) - Published 1 September, 2026
Emilio Rui, Joachim Cohen, and Alexandru Petrescu
Phys. Rev. Applied 26, 034002 (2026) - Published 1 September, 2026
Wei-Chen Jia (贾伟辰), Yue Xin (辛约), Ke Shen (申可), Zhi-Xin Meng (孟至欣), Xiang-Xiang Lu (路想想), Yi-Cheng Deng (邓意成), Yuan-Xing Liu (刘院省), and Yan-Ying Feng (冯焱颖)
Phys. Rev. Applied 26, 034003 (2026) - Published 1 September, 2026
Atomic interferometers offer extraordinary inertial sensitivity, yet their intrinsically periodic response has long prevented continuous operation over a wide dynamic range. The authors demonstrate a dual-channel closed-loop atomic beam interferometer, enabling simultaneous quantum feedback for rotation and acceleration. By converting periodic matter-wave interference into continuously tracked control parameters, the scheme overcomes the conventional half-fringe limitation while preserving precision. This advance brings practical quantum inertial navigation a significant step closer.
Xi Zhao, Maowen Xie, Dan Yuan, Li Xie, Shigang Li, Zhaofu Ren, Meng Qin, Hao Xu, Dong Zheng, QiaoMing Zhang, Jing Chen, Jingjing Wang, Xiaoqing Wu, and Zuhong Xiong
Phys. Rev. Applied 26, 034004 (2026) - Published 1 September, 2026
Takeshi Jodoi, Fuminori Hirayama, Tetsuya Tsuruta, Takahiro Kikuchi, and Daiji Fukuda
Phys. Rev. Applied 26, 034005 (2026) - Published 2 September, 2026
What happens when a photon is absorbed by a superconductor? Although vortex-antivortex pairs have long been suspected to play a central role in superconducting photon detection, their dynamics following photon absorption have eluded direct observation. By monitoring quantized voltage signals generated by photon-induced vortices, the authors reveal their generation statistics and demonstrate photon-number resolution. This work provides a rare microscopic view of photon detection in superconductors, and opens a route toward fast superconducting photon-number-resolving detectors.
Jeremy B. Kline, Alec Yen, Stanley Chen, and Kevin P. O’Brien
Phys. Rev. Applied 26, 034006 (2026) - Published 2 September, 2026
Linqiang Xu, Shiqi Liu, Qiuhui Li, Ying Li, Shibo Fang, Ying Guo, Yee Sin Ang, Chen Yang, and Jing Lu
Phys. Rev. Applied 26, 034007 (2026) - Published 2 September, 2026
Yukun Ji, Yatao Ren, and Hong Qi
Phys. Rev. Applied 26, 034008 (2026) - Published 3 September, 2026
Michèle Jakob, Katharina Laubscher, Patrick Del Vecchio, Anasua Chatterjee, Valla Fatemi, and Stefano Bosco
Phys. Rev. Applied 26, 034009 (2026) - Published 3 September, 2026
Hossein Shirvani and Yen-Chieh Huang
Phys. Rev. Applied 26, 034010 (2026) - Published 3 September, 2026
Xiaozheng Fan, Mehrdad Shiri, Jiajun Li, Tengda Fan, Junshuai Wang, Shuaikang Zhang, Kun Wang, Chunlan Ma, Shijing Gong, Chuanxi Zhao, and Yipeng An
Phys. Rev. Applied 26, 034011 (2026) - Published 4 September, 2026
Dongchao Zou, Kai-Da Xu, Ke Zhang, Junlong Li, Jintao Lai, Yuanmei Xu, and Xue-Shi Li
Phys. Rev. Applied 26, 034012 (2026) - Published 4 September, 2026
Mickael Branco, K. V. Adwaith, Gabriel Boccara, Duc-Anh Trinh, Sacha Welinski, Perrine Berger, Fabienne Goldfarb, and Fabien Bretenaker
Phys. Rev. Applied 26, 034013 (2026) - Published 8 September, 2026
Vivek Gualani, Sofía Sisteré, Josep Salvans-Tort, Maria Riera, Wenle Weng, Josep Sanjuan, and Miquel Nofrarias
Phys. Rev. Applied 26, 034014 (2026) - Published 8 September, 2026
Sebastian W. Atalla, Andrew K. Maresca, Aaron J. Ferreira, Nikolas M. Jauch, and Rosa T. Branca
Phys. Rev. Applied 26, 034015 (2026) - Published 8 September, 2026
Andrew O. Neely, Cedric C. Wilson, Ryan Everly, Yu Yao, Raffaella F. Zanetti, and Charles D. Brown
Phys. Rev. Applied 26, 034016 (2026) - Published 8 September, 2026
Ilhwan Kim, Yong-Su Kim, Kwang Jo Lee, Hyukjoon Kwon, Yosep Kim, and Hyang-Tag Lim
Phys. Rev. Applied 26, 034017 (2026) - Published 9 September, 2026
Santiago Oviedo-Casado, Daniel Cohen, Allan Josué González-Villalobos, and Javier Cerrillo
Phys. Rev. Applied 26, 034018 (2026) - Published 9 September, 2026
Mulin Yu, Yakun Wang, Yizhou Liu, Lingfei Xu, Yahong Chen, Jiayi Yu, and Fei Wang
Phys. Rev. Applied 26, 034019 (2026) - Published 9 September, 2026
Seigo Kikura, Kazufumi Tanji, Akihisa Goban, and Shinichi Sunami
Phys. Rev. Applied 26, 034021 (2026) - Published 10 September, 2026
Alexandr M. Mumlyakov, Nikita Yu. Dmitriev, Maksim V. Shibalov, Ivan A. Filippov, Igor V. Trofimov, Alexandr S. Rykov, Nikolay V. Porokhov, Sergey A. Sokolov, Maksim S. Bitkov, Galina V. Molodtsova, Egor V. Kungurtsev, Igor A. Bilenko, and Michael A. Tarkhov
Phys. Rev. Applied 26, 034022 (2026) - Published 10 September, 2026
Yanyan Yang, Xinyu Chen, Qian Xia, Qionghua Zhou, Qian Chen, and Jinlan Wang
Phys. Rev. Applied 26, 034023 (2026) - Published 10 September, 2026
Li Huang, Yuxuan Tang, and Yangyang Chen
Phys. Rev. Applied 26, 034024 (2026) - Published 11 September, 2026
Yaoguo Wang, Di Zhan, Jixi Lu, Ping Xu, Zhuo Wang, Yanan Gao, Bowen Sun, Danyue Ma, Xiujie Fang, and Jiancheng Fang
Phys. Rev. Applied 26, 034025 (2026) - Published 11 September, 2026
Samuel D. Escribano, Yael Kriheli, Samuel Goldstein, Daniel Dahan, and Nadav Katz
Phys. Rev. Applied 26, 034026 (2026) - Published 11 September, 2026
Raman Hissariya, Gajjala Venkata Sreekar Reddy, Ashwin Tulapurkar, and Debanjan Bhowmik
Phys. Rev. Applied 26, 034027 (2026) - Published 11 September, 2026
Stefano Lagomarsino and Mario Agio
Phys. Rev. Applied 26, 034028 (2026) - Published 14 September, 2026
Stefano Lagomarsino and Mario Agio
Phys. Rev. Applied 26, 034029 (2026) - Published 14 September, 2026
Jun-Jae Choi, Seung-Jae Hwang, Seoyoung Paik, Juhwan Kim, Jawad Ul-Hassan, Nguyen Tien Son, Hiroshi Abe, Takeshi Ohshima, Jaekwon Suk, Hyeon-Ho Jeong, Dong-Hee Kim, and Sang-Yun Lee
Phys. Rev. Applied 26, 034030 (2026) - Published 15 September, 2026
Maciej J. Szary, Jakub Jagiełło, Wiktoria Reddig, Artur Dobrowolski, Tymoteusz Ciuk, Rafał Prokopowicz, Maciej Ziemba, Marek Wzorek, and Semir El-Ahmar
Phys. Rev. Applied 26, 034031 (2026) - Published 15 September, 2026
Mayur Jhamnani, Venkata SubbaRao Redrouthu, José P. Carvalho, Ethan Feldman, Anders B. Nielsen, Phani Kumar, Niels Chr. Nielsen, P. K. Madhu, and Asif Equbal
Phys. Rev. Applied 26, 034032 (2026) - Published 15 September, 2026
Amit Kumar Singh, Alvaro Gomez-Iglesias, and Stefan Schulz
Phys. Rev. Applied 26, 034033 (2026) - Published 16 September, 2026
M. Bissolo, R. Li, M. Ogura, Z. Sofer, S. Polesya, D. Han, A. W. Holleitner, C. Kastl, G. Koblmüller, H. Ebert, E. Zallo, and J. J. Finley
Phys. Rev. Applied 26, 034034 (2026) - Published 16 September, 2026
A. A. Melkozerov, S. S. Straupe, and M. Yu. Saygin
Phys. Rev. Applied 26, 034035 (2026) - Published 16 September, 2026
Matthew L. Stevens, Noah I. Wasserbeck, Zachary Goisman, Arefur Rahman, John Michael Record, Taman Truong, Ariq Haqq, Muneer Alshowkan, Brian T. Kirby, Nils T. Otterstrom, and Joseph M. Lukens
Phys. Rev. Applied 26, 039901 (2026) - Published 14 September, 2026