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The authors demonstrate the tunability of moiré potential and emergent moiré exciton Rydberg states in a monolayer transition metal dichalcogenide governed by an adjacent twisted bilayer graphene near the magic angle with gate-tunable local charge density.
The authors imprint a moiré potential on a remote monolayer semiconductor through the moiré potential created in a remote MoSe2/WS2 moiré bilayer. The imprinted moiré potential enables gate-controlled generation of flat bands and correlated insulating states in the targeted monolayer.
Employing a remote Coulomb superlattice formed by twisted bilayer WS2, the authors demonstrate the engineering and on/off switching of a Coulomb superlattice of correlated states in bilayer graphene with period and strength determined by the remote superlattice.
Autonomous assembly, reconfiguration and disassembly are observed in living aggregates, but are difficult to replicate in synthetic soft matter. Here mechanically interlocked responsive ribbons form transient viscoelastic solids for the on-demand assembly of functional materials.
M. I. Eremets, V. S. Minkov, A. P. Drozdov and P. P. Kong discuss the substantial progress made in discovering and developing near-room-temperature superconductivity in hydrogen-rich materials. They focus on achieving reproducibility under the challenging experimental conditions of megabar pressures.
Peng Wu, Tianyi Zhang, Jiadi Zhu, Tomás Palacios and Jing Kong discuss the reproducibility issues in the synthesis and device fabrication of two-dimensional transition metal dichalcogenides that need to be addressed to enable the lab-to-fab transition.
Marc Legros, Frédéric Mompiou and Daniel Caillard discuss the different aspects that influence the reproducibility and reliability of characterizations performed using in situ mechanical tests in transmission electron microscopes.
Kinetic trapping in supramolecular gels leads to varied morphologies and macroscopic properties. Emily R. Draper and Dave J. Adams discuss subtle experimental effects that can lead to reproducibility issues in these systems.
The materials modelling community is emerging as a champion for reproducible and reusable science. Aron Walsh discusses how FAIR databases, collaborative codes and transparent workflows are advancing this movement.
Tae Hoon Lee and Zachary P. Smith argue that some of the most exciting materials that could be used for gas separations are metastable or crystalline, with properties that are altered by sample preparation and testing, but there are no widely accepted standards.
Frustrated by reproducibility in electrical measurements on ferroelectric films, Lane Martin, Jon-Paul Maria and Darrell Schlom discuss tactics to reliably synthesize ‘good’ ferroelectric samples, especially in the search for superior materials and device heterostructures.
Joseph Heremans and Joshua Martin discuss the reproducibility of thermoelectric measurements and conclude that the uncertainty on the figure of merit zT is of the order of 15–20%.
Rhenium chalcohalide cluster compounds are promising photoluminescent materials. Here the authors report a new material in this family, Rb6Re6S8I8, which shows broad photoluminescence (PL) range, high PL quantum yield and long PL lifetime.
Employing nonlinear, time-resolved terahertz spectroscopy to study condensate dynamics on Ta2NiSe5—a narrow-bandgap semiconductor and putative excitonic insulator—the authors reveal enhanced terahertz reflectivity upon photoexcitation and condensation-like temperature dependence below the structural transition critical temperature.
The authors combine laser excitation and scanning tunnelling spectroscopy to visualize the electron and hole distributions in photoexcited moiré excitons in twisted bilayer WS2. This photocurrent tunnelling microscopy approach enables the study of photoexcited non-equilibrium moiré phenomena at atomic scales.
Plastic deformation requires the propagation of a kinked profile along dislocations. It is shown that each kink acts as a set of travelling thermal spikes, favouring the nucleation of supplementary kinks and long dislocation jumps that are observed experimentally.
