Volume 6, Issue 1 (partial) January - March 2024 | | Advertisement Registration is still open for March Meeting 2024 - one of the largest and most exciting conferences in physics! Witness groundbreaking physics research, network with potential employers, and prepare for career success at March Meeting 2024. Register today. | | | | | Advertisement The American Physical Society is conducting an international search for a new Lead Editor of Physical Review Applied, our premier journal for Applied Physics Research. The Lead Editor is the lead scientific advisor to the journal and chairs the Editorial Board. They provide community oversight of the journal's content and direction, strategically advising the journal's Chief Editor in a consultative capacity. The role is key in helping to shape the journal's long-term goals, and growing and elevating the journal within the community. Learn more. | | | | | Advertisement Join the Editorial Team at APS! Current openings: Associate Editor, PRX Quantum: Help decide on publishing the most exciting and consequential results in quantum science and technologies. Chief Editor, Physical Review B: Provide strategic and operational leadership for the journal, overseeing both the day-to-day running of activity and setting direction for long term goals. Chief Editor, Physical Review E: The Chief Editor also collaborates with the Publications Leadership and Management to develop the scope, direction and strategy of the journal, ensuring it remains relevant and sustainable. | | | | | Not an APS member? Join today to start connecting with a community of more than 50,000 physicists. | | | | Editors' Suggestion Guilherme R. Fonseca, Filipa R. Prudêncio, Mário G. Silveirinha, and Paloma A. Huidobro Phys. Rev. Research 6, 013017 (2024) – Published 5 January 2024 | A first-principles formalism that enables the topological characterization of Weyl points in three-dimensional dispersive photonic continua is introduced. The chirality of Weyl points is computed through gap Chern numbers and through direct computation of the Berry curvature, in both cases solely using the photonic Green's function. | | | | | | Editors' Suggestion Esmaeel Moghimi, Iurii Chubak, Maria Kaliva, Parvin Kiany, Taihyun Chang, Junyoung Ahn, Nikolaos Patelis, Georgios Sakellariou, Sergei A. Egorov, Dimitris Vlassopoulos, and Christos N. Likos Phys. Rev. Research 6, 013079 (2024) – Published 22 January 2024 | When nonadsorbing ring polymers are added in a fluid suspension of big, spherical colloids, solid gels are formed. Joint experimental, computational, and theoretical work shows that these gels are much stronger than those formed by the addition of linear polymer chains. | | | | | | Editors' Suggestion Letter Alexey V. Scherbakov, Alex D. Carr, Tetiana L. Linnik, Serhii M. Kukhtaruk, Andrew D. Armour, Achim Nadzeyka, Andrew W. Rushforth, Andrey V. Akimov, and Manfred Bayer Phys. Rev. Research 6, L012019 (2024) – Published 23 January 2024 | A femtosecond laser pulse triggers hybrid excitation of magnons in a ferromagnetic nanostructure via an instant broadband kick and also through quasiharmonic driving by phonons. By tuning the external magnetic field and exploiting the dependence of the phase of the broadband excitation on the laser fluence, the phase and amplitude of the coherent magnon response is manipulated. | | | | | | Letter J. Berrocal, A. Hernández, I. Arrazola, F. Domínguez, A. Carrasco-Sanz, F. J. Fernández, M. Block, and D. Rodríguez Phys. Rev. Research 6, L012001 (2024) – Published 3 January 2024 | Optical detection is the basis of a highly sensitive method to determine directly all the eigenfrequencies of a single laser-cooled ion in a Penning trap. This is demonstrated with a cyclotron-frequency comparison between calcium isotopes with kinetic temperatures in the order of a millikelvin | | | | | | Letter Anatoli S. Kheifets Phys. Rev. Research 6, L012002 (2024) – Published 3 January 2024 | Two-photon ionization with co- and counter-rotating circular fields allows the disentangling of the two interfering final states and the extraction of the corresponding ionization amplitudes and phases. This way, a complete photoionization experiment can be performed in two-photon XUV + IR ionization similarly to single XUV photon ionization benchmarked several decades ago. | | | | | | Letter Ammon Fischer, Lennart Klebl, Jonas B. Hauck, Alexander Rothstein, Lutz Waldecker, Bernd Beschoten, Tim O. Wehling, and Dante M. Kennes Phys. Rev. Research 6, L012003 (2024) – Published 8 January 2024 | ABCB tetralayer graphene features valley-local flat bands and van Hove singularities due to intrinsic crystal fields. This strengthens a variety of correlated states including ferri- and ferromagnetic and superconducting phases at low densities. | | | | | | Letter Lei Qi, Jae-Min Kwon, T. S. Hahm, M. Leconte, Sumin Yi, Y. W. Cho, and Janghoon Seo Phys. Rev. Research 6, L012004 (2024) – Published 8 January 2024 | The first-principle bounce-average gyrokinetic numerical experiments investigating the isotopic dependence of energy confinement achieve a quantitative agreement with experimental empirical scaling laws in tokamak magnetic confined fusion plasmas. Mitigation of turbulence radial electric field intensity |δEr|2 and associated poloidal δ𝗘 × 𝗕 fluctuating velocity with the turbulence radial correlation length lcr ∝ Mi0.11 strongly deviating from the gyro-Bohm scaling is identified as the principal mechanism, along with zonal flow and trapped electron turbulence stabilization, contributing to the isotope effects in tokamak plasmas. | | | | | | Letter Zheng Liu, Zhenhua Qiao, Yang Gao, and Qian Niu Phys. Rev. Research 6, L012005 (2024) – Published 11 January 2024 | The localized hinge state of the second-order topological insulator can have a non-Abelian Berry curvature component, which can be detected by a circular photogalvanic effect, with light illuminating a specific hinge. The optical sum rule can further reflect the interstate Berry curvature between the hinge state and the ground state. | | | | | | Letter Chuyao Tong, Annika Kurzmann, Rebekka Garreis, Kenji Watanabe, Takashi Taniguchi, Thomas Ihn, and Klaus Ensslin Phys. Rev. Research 6, L012006 (2024) – Published 11 January 2024 | In bilayer graphene, a comprehensive catalog of double quantum dot Pauli blockade for up to four carriers per dot is established, revealing a more complex transition structure than in conventional systems due to the involvement of both spin and valley pseudospin degrees of freedom. This result provides new possibilities for spin and valley qubit manipulation and control in bilayer graphene. | | | | | | Letter Kaoru Mizuta and Keisuke Fujii Phys. Rev. Research 6, L012007 (2024) – Published 12 January 2024 | Recursive construction allows one to obtain parameter sets to execute quantum algorithms by quantum singular-value transformation in a stable way. As an example, it reveals an analytical parameter set for matrix sign functions in eigenstate filtering and quantum linear system problems. | | | | | | Letter C. J. Baker et al. (ALPHA Collaboration) Phys. Rev. Research 6, L012008 (2024) – Published 16 January 2024 | The electric field produced by patch potentials in a Penning-Malmberg trap is measured using trapped electrons. The measurement technique is used to show that an ultraviolet laser worsens patch potentials on cryogenic surfaces. | | | | | | Letter Ibrahim Alsolami and Tomoki Fukai Phys. Rev. Research 6, L012009 (2024) – Published 16 January 2024 | In science and engineering, errors typically decrease with less noise—observing the opposite is rather counterintuitive. A study of the performance of neural communication in a noisy environment finds a special class of errors that, in a regime, increase with less noise. | | | | | | Letter Alexander Leibenzon and Michael Assaf Phys. Rev. Research 6, L012010 (2024) – Published 16 January 2024 | A novel phase transition in the SIR model of epidemics is demonstrated, showing the dependence of the final outbreak size on the network heterogeneity strength (coefficient of variation, COV) and basic reproduction number R0. | | | | | | Letter Therese Frostad, Philipp Pirro, Alexander A. Serga, Burkard Hillebrands, Arne Brataas, and Alireza Qaiumzadeh Phys. Rev. Research 6, L012011 (2024) – Published 17 January 2024 | Magnon Bose-Einstein condensate (BEC) is electrically generated through spin Hall torques, facilitated by a finite out-of-plane magnetic anisotropy in YIG. Injected magnons in the YIG thin film occupy the lowest magnon states after the thermalization process, forming two coherent macroscopic magnon BEC states at ±Q, which their densities oscillate between the two magnon minima. | | | | | | Letter Yun-Xuan Zhang, Hao-Wei Hu, Yi-Cheng Zhao, and Lin I Phys. Rev. Research 6, L012012 (2024) – Published 17 January 2024 | A new perspective from fluctuating screw dislocation filaments (SDFs) winded around by helical layering fronts is provided to reveal the transient dynamics of tightly confined liquids after quenching. The uncovered topological origins for the spontaneous formation, interaction, breaking, reconnection, and loop merging and shedding of SDFs can be extended to various systems with unstable layers or wave fronts. | | | | | | Letter E. Joshi, M. H. Thoma, and M. Schwabe Phys. Rev. Research 6, L012013 (2024) – Published 18 January 2024 | The onset of turbulence is studied at the particle-resolved level using three-dimensional molecular dynamics simulations of micrometer-sized "dust" particles embedded in a plasma environment, also known as a complex plasma. Turbulence is triggered by simulating a flow of microparticles past an obstacle while controlling parameters such as the flow speed and particle charge with and without the presence of damping. It is found that turbulence in simulations with damping occurs after the formation of shock fronts and that the transition to turbulence follows the conventional pathway involving the intermittent emergence of turbulent puffs. | | | | | | Letter Jize Sui Phys. Rev. Research 6, L012014 (2024) – Published 18 January 2024 | The nonmonotonic dynamics of the nuclear-to-cellular volume ratio as a eukaryotic cell responds to external osmotic stimuli is reported, which challenges conventional knowledge of a constant nuclear-to-cellular volume ratio. Combining simulations and analytical argument, the observed nontrivial dynamics is validly rationalized and its regulatory mechanism is highlighted as the collaboration of the excluded volume interactions between the polydisperse biomolecules and the spatial constraint from the nuclear envelope upon the macromolecule diffusions. | | | | | | Letter Guanhua Chen and Yao Yao Phys. Rev. Research 6, L012015 (2024) – Published 18 January 2024 | A dipole-facilitated kinetically constrained model with three disconnected Hilbert subspaces is constructed, and the quantum entanglement is formed between two small subspaces, instead of two substances. | | | | | | Letter P. T. Campbell, B. K. Russell, C. Dong, G. Fiksel, P. M. Nilson, A. G. R. Thomas, C. A. Walsh, K. M. Krushelnick, and L. Willingale Phys. Rev. Research 6, L012016 (2024) – Published 18 January 2024 | Experiments performed with the OMEGA EP laser system used proton deflectometry to measure ultrafast field dynamics driven by strongly magnetized relativistic electrons. Three-dimensional particle-in-cell simulations show collisionless shock formation and provide insight into the microphysics that can be relevant to high-energy shocks observed in extreme astrophysical environments. | | | | | | Letter Nils Heinisch, Nikolas Köcher, David Bauch, and Stefan Schumacher Phys. Rev. Research 6, L012017 (2024) – Published 19 January 2024 | Quantum emitter re-excitation is one of the problems in high-quality photon generation when emitters are placed inside a cavity. It is demonstrated theoretically that re-excitation and the resulting reduced photon quality can be overcome using a Swing-UP (SUPER) excitation technique with two red-detuned laser pulses, leading to generation of high-quality single photons and entangled photon pairs. | | | | | | Letter M. Bailly-Grandvaux, R. Florido, C. A. Walsh, G. Pérez-Callejo, F. N. Beg, P. Bradford, M. A. Gigosos, R. C. Mancini, C. McGuffey, F. Suzuki-Vidal, C. Vlachos, and J. J. Santos Phys. Rev. Research 6, L012018 (2024) – Published 19 January 2024 | Magnetization is a key strategy to enhance inertial confinement fusion performance. Results from argon-doped deuterium-filled cylindrical implosions experiments carried out at the OMEGA laser facility with and without an imposed magnetic field are reported. Systematic changes in argon K-shell emission lines reveal a 50% core temperature increase when a 30-T seed magnetic field is applied. Experimental spectra are in line with extended-magnetohydrodynamic simulations, which provide strong evidence for the impact of a 10-kT compressed field during peak compression, thus offering key insights for the validation of magnetized transport models in dense plasmas. | | | | | | Editors' Suggestion Letter Alexey V. Scherbakov, Alex D. Carr, Tetiana L. Linnik, Serhii M. Kukhtaruk, Andrew D. Armour, Achim Nadzeyka, Andrew W. Rushforth, Andrey V. Akimov, and Manfred Bayer Phys. Rev. Research 6, L012019 (2024) – Published 23 January 2024 | A femtosecond laser pulse triggers hybrid excitation of magnons in a ferromagnetic nanostructure via an instant broadband kick and also through quasiharmonic driving by phonons. By tuning the external magnetic field and exploiting the dependence of the phase of the broadband excitation on the laser fluence, the phase and amplitude of the coherent magnon response is manipulated. | | | | | | Letter C. R. J. Fitzpatrick, J. P. Kennedy, B. Dromey, and M. Yeung Phys. Rev. Research 6, L012020 (2024) – Published 23 January 2024 | By tailoring the incident waveform of a relativistic laser using off-harmonic multiples of the fundamental frequency, it is shown how subtle control of electron bunches and isolation of a single attosecond pulse can be achieved. | | | | | | Letter Ehsan Arabahmadi, Daniel Schumayer, Benoît Grémaud, Christian Miniatura, and David A. W. Hutchinson Phys. Rev. Research 6, L012021 (2024) – Published 25 January 2024 | For nearly fifty years it's been understood that dimensionality plays a key role in the effects of disorder upon the conductivity of a material. Simple arguments tell us that one-dimensional systems are always insulators, three-dimensional systems display a phase transition from metal to insulator with increasing disorder, and two-dimensional systems asymptotically approach a metallic phase with vanishing disorder. It has been predicted that spin-orbit coupling in spin-1/2 systems can induce a phase transition in two dimensions. This prediction is confirmed and the nature of the transition in these systems is further elucidated. | | | | | | Letter Sebastiano Battisti, Giorgio De Simoni, Luca Chirolli, Alessandro Braggio, and Francesco Giazotto Phys. Rev. Research 6, L012022 (2024) – Published 25 January 2024 | Superconductive tunnel junctions under a strong thermal gradient show a sizable bipolar thermoelectric effect induced by spontaneous particle-hole symmetry breaking. A superconductive structure with a central Coulombic island that can establish a Coulomb blockade regime is proposed. The demonstration of the gate control of the structure's bipolar thermoelectric effect and the crucial role of the Coulomb interactions in this phenomenology are given. | | | | | | Letter Shay I. Heizler, Menahem Krief, and Michael Assaf Phys. Rev. Research 6, L012023 (2024) – Published 31 January 2024 | An exact solution is derived to the spherical-symmetric Boltzmann equation in the general-collision case using an exact scaling law relating the Green function of the pure-scattering case to the general collision case. This allows the corresponding diffusion coefficient to be identified by inspecting the transport solution at long times. | | | | | | He-Guang Xu, V. Montenegro, Gao Xianlong, Jiasen Jin, and G. D. de Moraes Neto Phys. Rev. Research 6, 013001 (2024) – Published 2 January 2024 | | | Claude Amra, Ali Passian, Philippe Tchamitchian, Mauro Ettorre, Ahmed Alwakil, Juan Antonio Zapien, Paul Rouquette, Yannick Abautret, and Myriam Zerrad Phys. Rev. Research 6, 013002 (2024) – Published 2 January 2024 | | | Sina Zeytinoğlu and Sho Sugiura Phys. Rev. Research 6, 013003 (2024) – Published 3 January 2024 | | | Ken Mochizuki and Ryusuke Hamazaki Phys. Rev. Research 6, 013004 (2024) – Published 3 January 2024 | | | Hideaki Hara, Junseok Han, Yasutaka Imai, Noboru Sasao, Akihiro Yoshimi, Koji Yoshimura, Motohiko Yoshimura, and Yuki Miyamoto Phys. Rev. Research 6, 013005 (2024) – Published 3 January 2024 | | | Maiko Kofu, Seiko Ohira-Kawamura, Naoki Murai, Rieko Ishii, Daigorou Hirai, Hiroshi Arima, and Kenichi Funakoshi Phys. Rev. Research 6, 013006 (2024) – Published 3 January 2024 | | | Y. Huang, M. Manzoor, J. Brndiar, M. Milivojevic, and I. Štich Phys. Rev. Research 6, 013007 (2024) – Published 3 January 2024 | | | L. Giannelli, E. Paladino, M. Grajcar, G. S. Paraoanu, and G. Falci Phys. Rev. Research 6, 013008 (2024) – Published 3 January 2024 | | | Takachika Isomae, Akito Sakai, Mingxuan Fu, Takanori Taniguchi, Masashi Takigawa, and Satoru Nakatsuji Phys. Rev. Research 6, 013009 (2024) – Published 3 January 2024 | | | Keerthi Kumaran, Manas Sajjan, Sangchul Oh, and Sabre Kais Phys. Rev. Research 6, 013010 (2024) – Published 3 January 2024 | | | Amy Searle and Joseph Tindall Phys. Rev. Research 6, 013011 (2024) – Published 3 January 2024 | | | Benjamin Assouline and Amir Capua Phys. Rev. Research 6, 013012 (2024) – Published 3 January 2024 | | | Zhiqin Ma, Chunhua Zeng, and Wu-Ming Liu Phys. Rev. Research 6, 013013 (2024) – Published 4 January 2024 | | | Zheng-Yan Liu, An-Chun Ji, and Qing Sun Phys. Rev. Research 6, 013014 (2024) – Published 4 January 2024 | | | Zhikun Han, Chufan Lyu, Yuxuan Zhou, Jiahao Yuan, Ji Chu, Wuerkaixi Nuerbolati, Hao Jia, Lifu Nie, Weiwei Wei, Zusheng Yang, Libo Zhang, Ziyan Zhang, Chang-Kang Hu, Ling Hu, Jian Li, Dian Tan, Abolfazl Bayat, Song Liu, Fei Yan, and Dapeng Yu Phys. Rev. Research 6, 013015 (2024) – Published 4 January 2024 | | | Elias Starchl and Lukas M. Sieberer Phys. Rev. Research 6, 013016 (2024) – Published 5 January 2024 | | | Editors' Suggestion Guilherme R. Fonseca, Filipa R. Prudêncio, Mário G. Silveirinha, and Paloma A. Huidobro Phys. Rev. Research 6, 013017 (2024) – Published 5 January 2024 | A first-principles formalism that enables the topological characterization of Weyl points in three-dimensional dispersive photonic continua is introduced. The chirality of Weyl points is computed through gap Chern numbers and through direct computation of the Berry curvature, in both cases solely using the photonic Green's function. | | | | | | Ryusuke Hamazaki Phys. Rev. Research 6, 013018 (2024) – Published 8 January 2024 | | | L. Ben Ltaief, K. Sishodia, R. Richter, B. Bastian, J. D. Asmussen, S. Mandal, N. Pal, C. Medina, S. R. Krishnan, K. von Haeften, and M. Mudrich Phys. Rev. Research 6, 013019 (2024) – Published 8 January 2024 | | | H. Pan, Z. H. An, and C.-M. Hu Phys. Rev. Research 6, 013020 (2024) – Published 8 January 2024 | | | Jan Korbel and David H. Wolpert Phys. Rev. Research 6, 013021 (2024) – Published 8 January 2024 | | | Ming-Yang Li, Xiao-Yu Cao, Yuan-Mei Xie, Hua-Lei Yin, and Zeng-Bing Chen Phys. Rev. Research 6, 013022 (2024) – Published 8 January 2024 | | | Yuma Fujimoto and Sosuke Ito Phys. Rev. Research 6, 013023 (2024) – Published 8 January 2024 | | | Mitsuki Katsuda, Kosuke Mitarai, and Keisuke Fujii Phys. Rev. Research 6, 013024 (2024) – Published 8 January 2024 | | | X. Pan, M. Šmíd, L. G. Huang, T. Kluge, V. Bagnoud, E. Brambrink, T. E. Cowan, J. Colgan, T. Ebert, D. Hartnagel, M. Hesse, J. Hornung, A. Kleinschmidt, P. Perez-Martin, A. Neukirch, K. Philipp, S. Sander, G. Schaumann, A. Tebartz, B. Zielbauer, M. Roth, and K. Falk Phys. Rev. Research 6, 013025 (2024) – Published 8 January 2024 | | | Qingyu Li, Yuhan Huang, Xiaokai Hou, Ying Li, Xiaoting Wang, and Abolfazl Bayat Phys. Rev. Research 6, 013027 (2024) – Published 10 January 2024 | | | Shuyi Lin, Meiling Xu, Feilong Wang, Jian Hao, and Yinwei Li Phys. Rev. Research 6, 013028 (2024) – Published 10 January 2024 | | | Ryan Levy, Di Luo, and Bryan K. Clark Phys. Rev. Research 6, 013029 (2024) – Published 10 January 2024 | | | Shaolong Chen, Zhiqiang Zhou, Jiguang Li, Tingxian Zhang, Chengbin Li, Tingyun Shi, Yao Huang, Kelin Gao, and Hua Guan Phys. Rev. Research 6, 013030 (2024) – Published 10 January 2024 | | | Haoye Qin, Zhe Zhang, Qiaolu Chen, and Romain Fleury Phys. Rev. Research 6, 013031 (2024) – Published 10 January 2024 | | | Uliana E. Khodaeva, Dmitry L. Kovrizhin, and Johannes Knolle Phys. Rev. Research 6, 013032 (2024) – Published 10 January 2024 | | | Orazio Scarlatella, Aashish A. Clerk, and Marco Schirò Phys. Rev. Research 6, 013033 (2024) – Published 10 January 2024 | | | Jiaxuan Wang, Ruynet L. de Matos Filho, Girish S. Agarwal, and Luiz Davidovich Phys. Rev. Research 6, 013034 (2024) – Published 10 January 2024 | | | Shaohua Guan, Zhichao Zhang, Zihan Zhang, and Hualin Shi Phys. Rev. Research 6, 013035 (2024) – Published 10 January 2024 | | | Weijie Huang and Yao Yao Phys. Rev. Research 6, 013037 (2024) – Published 11 January 2024 | | | Duc Tuan Hoang, Friederike Metz, Andreas Thomasen, Tran Duong Anh-Tai, Thomas Busch, and Thomás Fogarty Phys. Rev. Research 6, 013038 (2024) – Published 11 January 2024 | | | S. M. Farzaneh, Mehdi Hatefipour, William F. Schiela, Neda Lotfizadeh, Peng Yu, Bassel Heiba Elfeky, William M. Strickland, Alex Matos-Abiague, and Javad Shabani Phys. Rev. Research 6, 013039 (2024) – Published 11 January 2024 | | | Yuki Takaha, Hideyuki Mizuno, and Atsushi Ikeda Phys. Rev. Research 6, 013040 (2024) – Published 11 January 2024 | | | T. T. Simpson, J. J. Pigeon, M. V. Ambat, K. G. Miller, D. Ramsey, K. Weichman, D. H. Froula, and J. P. Palastro Phys. Rev. Research 6, 013041 (2024) – Published 11 January 2024 | | | Dusan Lorenc and Zhanybek Alpichshev Phys. Rev. Research 6, 013042 (2024) – Published 11 January 2024 | | | So Takei and Yaroslav Tserkovnyak Phys. Rev. Research 6, 013043 (2024) – Published 11 January 2024 | | | Henning Schomerus Phys. Rev. Research 6, 013044 (2024) – Published 11 January 2024 | | | Giuseppe Baio, Matthew T. Wheeler, David S. Hall, Janne Ruostekoski, and Magnus O. Borgh Phys. Rev. Research 6, 013046 (2024) – Published 12 January 2024 | | | Hao-Yue Qi and Wei Zheng Phys. Rev. Research 6, 013047 (2024) – Published 12 January 2024 | | | Arpit Raj, Swati Chaudhary, and Gregory A. Fiete Phys. Rev. Research 6, 013048 (2024) – Published 12 January 2024 | | | Xingyu Pan, Jie Zhou, Yinzuo Zhou, Stefano Boccaletti, and Ivan Bonamassa Phys. Rev. Research 6, 013049 (2024) – Published 12 January 2024 | | | Tobias Kehrer, Tobias Nadolny, and Christoph Bruder Phys. Rev. Research 6, 013050 (2024) – Published 12 January 2024 | | | Saud Čindrak, Brecht Donvil, Kathy Lüdge, and Lina Jaurigue Phys. Rev. Research 6, 013051 (2024) – Published 16 January 2024 | | | Daniel Brady, Jana Bender, Patrick Mischke, Simon Ohler, Thomas Niederprüm, Herwig Ott, and Michael Fleischhauer Phys. Rev. Research 6, 013052 (2024) – Published 16 January 2024 | | | Adrià Canós Valero, Vjaceslavs Bobrovs, Thomas Weiss, Lei Gao, Alexander S. Shalin, and Yuri Kivshar Phys. Rev. Research 6, 013053 (2024) – Published 16 January 2024 | | | Xiang Qu, Yi Hu, Wenjie Cai, Yang Xu, Hu Ke, Guolong Zhu, and Zihan Huang Phys. Rev. Research 6, 013054 (2024) – Published 16 January 2024 | | | Prajit Dhara and Saikat Guha Phys. Rev. Research 6, 013055 (2024) – Published 16 January 2024 | | | A. Seidel, B. Lei, C. Zepter, M. C. Kaluza, A. Sävert, M. Zepf, and D. Seipt Phys. Rev. Research 6, 013056 (2024) – Published 16 January 2024 | | | Logan W. Cooke, Arina Tashchilina, Mason Protter, Joseph Lindon, Tian Ooi, Frank Marsiglio, Joseph Maciejko, and Lindsay J. LeBlanc Phys. Rev. Research 6, 013057 (2024) – Published 16 January 2024 | | | Chang-geun Oh and Haruki Watanabe Phys. Rev. Research 6, 013058 (2024) – Published 16 January 2024 | | | Hajime Koike, Hideki Takayasu, and Misako Takayasu Phys. Rev. Research 6, 013059 (2024) – Published 16 January 2024 | | | Carlos L. Benavides-Riveros Phys. Rev. Research 6, 013060 (2024) – Published 16 January 2024 | | | Holger Götz, Thorsten Pöschel, and Olfa D'Angelo Phys. Rev. Research 6, 013061 (2024) – Published 16 January 2024 | | | Zhixue He, Chen Shen, Lei Shi, and Jun Tanimoto Phys. Rev. Research 6, 013062 (2024) – Published 16 January 2024 | | | Kishore Thapliyal, Jan Peřina, Jr., Ondřej Haderka, Václav Michálek, and Radek Machulka Phys. Rev. Research 6, 013065 (2024) – Published 17 January 2024 | | | R. Kiessling, M. Wolf, and A. Paarmann Phys. Rev. Research 6, 013066 (2024) – Published 17 January 2024 | | | Michael M. Danziger, Omkar R. Gojala, and Sean P. Cornelius Phys. Rev. Research 6, 013067 (2024) – Published 17 January 2024 | | | Christian Berger, Florian Bayer, Laurens W. Molenkamp, and Tobias Kiessling Phys. Rev. Research 6, 013068 (2024) – Published 18 January 2024 | | | Kevin Lively, Shunsuke A. Sato, Guillermo Albareda, Angel Rubio, and Aaron Kelly Phys. Rev. Research 6, 013069 (2024) – Published 19 January 2024 | | | L. Freter, M. S. Mirmoosa, A. Sihvola, C. R. Simovski, and S. A. Tretyakov Phys. Rev. Research 6, 013070 (2024) – Published 19 January 2024 | | | Sebastian Leontica and David Amaro Phys. Rev. Research 6, 013071 (2024) – Published 19 January 2024 | | | Georgios G. Pyrialakos, Fan O. Wu, Pawel S. Jung, Huizhong Ren, Konstantinos G. Makris, Ziad H. Musslimani, Mercedeh Khajavikhan, Tsampikos Kottos, and Demetrios Christodoulides Phys. Rev. Research 6, 013072 (2024) – Published 19 January 2024 | | | Matteo Piccolini, Vittorio Giovannetti, and Rosario Lo Franco Phys. Rev. Research 6, 013073 (2024) – Published 19 January 2024 | | | Hiroyoshi Nakano and Kyosuke Adachi Phys. Rev. Research 6, 013074 (2024) – Published 19 January 2024 | | | Fengyu Sun, Wenpeng Wang, Hao Dong, Jianzhi He, Zhiyong Shi, Zhengxing Lv, Qiwen Zhan, Yuxin Leng, Songlin Zhuang, and Ruxin Li Phys. Rev. Research 6, 013075 (2024) – Published 22 January 2024 | | | Lukas Broers and Ludwig Mathey Phys. Rev. Research 6, 013076 (2024) – Published 22 January 2024 | | | David C. Stuhrmann and Francesco Coghi Phys. Rev. Research 6, 013077 (2024) – Published 22 January 2024 | | | G. J. Bean, N. D. Drummond, and J. Ruostekoski Phys. Rev. Research 6, 013078 (2024) – Published 22 January 2024 | | | Editors' Suggestion Esmaeel Moghimi, Iurii Chubak, Maria Kaliva, Parvin Kiany, Taihyun Chang, Junyoung Ahn, Nikolaos Patelis, Georgios Sakellariou, Sergei A. Egorov, Dimitris Vlassopoulos, and Christos N. Likos Phys. Rev. Research 6, 013079 (2024) – Published 22 January 2024 | When nonadsorbing ring polymers are added in a fluid suspension of big, spherical colloids, solid gels are formed. Joint experimental, computational, and theoretical work shows that these gels are much stronger than those formed by the addition of linear polymer chains. | | | | | | Samuel Poincloux, Pedro M. Reis, and Tom W. J. de Geus Phys. Rev. Research 6, 013080 (2024) – Published 22 January 2024 | | | Luis A. Martinez, Gang Qiu, Peng Deng, Peng Zhang, Keith G. Ray, Lixuan Tai, Ming-Tso Wei, Haoran He, Kang L. Wang, Jonathan L. DuBois, and Dong-Xia Qu Phys. Rev. Research 6, 013081 (2024) – Published 23 January 2024 | | | Artemy Kolchinsky, Naruo Ohga, and Sosuke Ito Phys. Rev. Research 6, 013082 (2024) – Published 23 January 2024 | | | Alessandro Altoè and Christopher A. Shera Phys. Rev. Research 6, 013084 (2024) – Published 23 January 2024 | | | Tathagata Karmakar, Étienne Jussiau, Sreenath K. Manikandan, and Andrew N. Jordan Phys. Rev. Research 6, 013085 (2024) – Published 23 January 2024 | | | H. T. Sullivan and J. H. Cole Phys. Rev. Research 6, 013086 (2024) – Published 23 January 2024 | | | Yong Yang Phys. Rev. Research 6, 013087 (2024) – Published 23 January 2024 | | | W. R. B. Luckin, Y. Li, J. Jiang, S. M. Gunasekera, C. Wen, Y. Zhang, D. Prabhakaran, F. Flicker, Y. Chen, and M. Mucha-Kruczyński Phys. Rev. Research 6, 013088 (2024) – Published 24 January 2024 | | | Tushar Mondal and Gianluca Gregori Phys. Rev. Research 6, 013089 (2024) – Published 24 January 2024 | | | Tomohiro Tanogami and Ryo Araki Phys. Rev. Research 6, 013090 (2024) – Published 24 January 2024 | | | Sergiy Stryzhenko, Alexander Bruns, and Thorsten Peters Phys. Rev. Research 6, 013091 (2024) – Published 24 January 2024 | | | Yugo Takada, Yusaku Takeuchi, and Keisuke Fujii Phys. Rev. Research 6, 013092 (2024) – Published 24 January 2024 | | | Cillian Cockrell, Jacob D. O'Sullivan, J. Christopher D. Terry, Emmanuel C. Nwankwo, Kostya Trachenko, and Axel G. Rossberg Phys. Rev. Research 6, 013093 (2024) – Published 25 January 2024 | | | Iliya Esin, Clemens Kuhlenkamp, Gil Refael, Erez Berg, Mark S. Rudner, and Netanel H. Lindner Phys. Rev. Research 6, 013094 (2024) – Published 25 January 2024 | | | Mahmoud Zeer, Dongwook Go, Peter Schmitz, Tom G. Saunderson, Hao Wang, Jamal Ghabboun, Stefan Blügel, Wulf Wulfhekel, and Yuriy Mokrousov Phys. Rev. Research 6, 013095 (2024) – Published 25 January 2024 | | | Wataru Inoue, Koki Aoyama, Yusuke Teranishi, Keita Kanno, Yuya O. Nakagawa, and Kosuke Mitarai Phys. Rev. Research 6, 013096 (2024) – Published 25 January 2024 | | | Daniel Schick, Markus Weißenhofer, Levente Rózsa, Jan Rothörl, Peter Virnau, and Ulrich Nowak Phys. Rev. Research 6, 013097 (2024) – Published 25 January 2024 | | | Thomas Iadecola, Srimoyee Sen, and Lars Sivertsen Phys. Rev. Research 6, 013098 (2024) – Published 26 January 2024 | | | Pengcheng Hou, Xiansheng Cai, Tao Wang, Youjin Deng, Nikolay V. Prokof'ev, Boris V. Svistunov, and Kun Chen Phys. Rev. Research 6, 013099 (2024) – Published 26 January 2024 | | | Stéphanie Deboeuf, Suzie Protière, and Eytan Katzav Phys. Rev. Research 6, 013100 (2024) – Published 26 January 2024 | | | Pragati Gupta, Arjen Vaartjes, Xi Yu, Andrea Morello, and Barry C. Sanders Phys. Rev. Research 6, 013101 (2024) – Published 26 January 2024 | | | Fabian R. Lux, Sumit Ghosh, Pascal Prass, Emil Prodan, and Yuriy Mokrousov Phys. Rev. Research 6, 013102 (2024) – Published 26 January 2024 | | | Yu He, Christian Ott, Thomas Pfeifer, and Mette B. Gaarde Phys. Rev. Research 6, 013103 (2024) – Published 26 January 2024 | | | Nalinikanta Pradhan, Pardeep Kumar, Rina Kanamoto, Tarak Nath Dey, M. Bhattacharya, and Pankaj Kumar Mishra Phys. Rev. Research 6, 013104 (2024) – Published 26 January 2024 | | | Cristian Voinea, Songyang Pu, Ammar Kirmani, Pouyan Ghaemi, Armin Rahmani, and Zlatko Papić Phys. Rev. Research 6, 013105 (2024) – Published 26 January 2024 | | | Alessandro Summer, Cecilia Chiaracane, Mark T. Mitchison, and John Goold Phys. Rev. Research 6, 013106 (2024) – Published 26 January 2024 | | | Henrike Probst, Christina Möller, Maren Schumacher, Thomas Brede, John Kay Dewhurst, Marcel Reutzel, Daniel Steil, Sangeeta Sharma, G. S. Matthijs Jansen, and Stefan Mathias Phys. Rev. Research 6, 013107 (2024) – Published 26 January 2024 | | | Md Abul Kalam Azad Siddiki, Jibak Mukherjee, Kamal Kumar, Károly Tőkési, Deepankar Misra, and Hicham Agueny Phys. Rev. Research 6, 013108 (2024) – Published 26 January 2024 | | | Jia-Xin Zhang, Chuan Chen, Jian-Hao Zhang, and Zheng-Yu Weng Phys. Rev. Research 6, 013109 (2024) – Published 29 January 2024 | | | Soumyadeep Paul, Yusuke Ito, Wei-Lun Hsu, and Hirofumi Daiguji Phys. Rev. Research 6, 013110 (2024) – Published 29 January 2024 | | | Siavash Golkar, Jules Berman, David Lipshutz, Robert Mihai Haret, Tim Gollisch, and Dmitri B. Chklovskii Phys. Rev. Research 6, 013111 (2024) – Published 29 January 2024 | Detecting exponential growth in a time series is essential for accurate prediction and control. Hypothesizing that neurons detect such growth in their inputs predicts adaptation of the temporal kernel with the SNR of the input observed experimentally. | | | | | | Giacomo Morpurgo, Louk Rademaker, Christophe Berthod, and Thierry Giamarchi Phys. Rev. Research 6, 013112 (2024) – Published 29 January 2024 | | | Yuta Mizuno and Tamiki Komatsuzaki Phys. Rev. Research 6, 013115 (2024) – Published 29 January 2024 | | | Georg Engelhardt, Sayan Choudhury, and W. Vincent Liu Phys. Rev. Research 6, 013116 (2024) – Published 29 January 2024 | | | Yoshiki Hiruta and Kenta Ishimoto Phys. Rev. Research 6, 013117 (2024) – Published 29 January 2024 | | | Rajendra Singh Negi, Roland G. Winkler, and Gerhard Gompper Phys. Rev. Research 6, 013118 (2024) – Published 29 January 2024 | | | S. Jaiswal, Connor Belt, Anton Kananovich, and E. M. Aguirre Phys. Rev. Research 6, 013119 (2024) – Published 30 January 2024 | | | Raigo Nagashima, Sida Tian, Rafael Haenel, Naoto Tsuji, and Dirk Manske Phys. Rev. Research 6, 013120 (2024) – Published 30 January 2024 | | | Chi Ho Wong and Rolf Lortz Phys. Rev. Research 6, 013121 (2024) – Published 30 January 2024 | | | Maurus Hans, Elinor Kath, Marius Sparn, Nikolas Liebster, Helmut Strobel, Markus K. Oberthaler, Felix Draxler, and Christoph Schnörr Phys. Rev. Research 6, 013122 (2024) – Published 31 January 2024 | | | Fuxiang He, Daqiang Chen, Xinguo Ren, Sheng Meng, and Lixin He Phys. Rev. Research 6, 013123 (2024) – Published 30 January 2024 | | | Sunil Ghimire, Kamal R. Joshi, Marcin Kończykowski, Romain Grasset, Amlan Datta, Makariy A. Tanatar, Damien Bérubé, Su-Yang Xu, Yuqiang Fang, Fuqiang Huang, Peter P. Orth, Mathias S. Scheurer, and Ruslan Prozorov Phys. Rev. Research 6, 013124 (2024) – Published 31 January 2024 | | | Yuna Nakajima, Yuichi Akahama, and Yo Machida Phys. Rev. Research 6, 013125 (2024) – Published 31 January 2024 | | | Zhaohui Wu, Xiaoming Zeng, Zhaoli Li, Zhimeng Zhang, Xiaodong Wang, Xiao Wang, Jie Mu, Yanlei Zuo, Jingqin Su, Hao Peng, Huabao Cao, Yuxi Fu, C. Riconda, and S. Weber Phys. Rev. Research 6, 013126 (2024) – Published 31 January 2024 | | | Shan Huang, Hua-Lei Yin, Zeng-Bing Chen, and Shengjun Wu Phys. Rev. Research 6, 013127 (2024) – Published 31 January 2024 | | | S. M. Udrescu, D. A. Torres, and R. F. Garcia Ruiz Phys. Rev. Research 6, 013128 (2024) – Published 31 January 2024 | | | J. M. H. Gosling, A. Pontin, J. H. Iacoponi, P. F. Barker, and T. S. Monteiro Phys. Rev. Research 6, 013129 (2024) – Published 31 January 2024 | | | Dongni Chen, Zhenyang Peng, Jiahui Li, Stefano Chesi, and Yingdan Wang Phys. Rev. Research 6, 013130 (2024) – Published 31 January 2024 | | | Lei Su, Aashish Clerk, and Ivar Martin Phys. Rev. Research 6, 013131 (2024) – Published 31 January 2024 | | | K. Nakagawa, S. Tsuchiya, H. Taniguchi, and Y. Toda Phys. Rev. Research 6, 019001 (2024) – Published 11 January 2024 | | | | |
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