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A membrane placed below the plane of an emitter and a receiver can interact with the radiative modes and modulate heat transfer by as much as a factor of five.
Tellurium thin films evaporated at cryogenic temperatures facilitate the realization of high performance wafer-scale flexible p-type field-effect transistors and various types of logic gates.
The magnetic phase diagram of thin-layered antiferromagnets is revealed experimentally by investigating the tunnelling conductance as a function of magnetic field. A rich magnetic behaviour in CrCl3 is uncovered, from which relevant magnetic information is extracted that is not easily available with other approaches.
Composite electrodes made of nanowires and bovine serum albumin enable electrochemical protein biosensors that can be used in whole blood for a month or more.
The motion of a single electron can now be sampled with picosecond resolution, which helps to characterize and understand non-equilibrium electron dynamics in nanoscale conductors.
The mechanistic electrochemical mass spectrometry study of ethylene production on Cu-based nanocatalysts under CO2/CO co-feeds indicates the existence of separate, reactant-specific surface adsorption sites for CO2 and CO, which guided the design of a multi-component CO2RR electrocatalyst.
Energy-efficient magnetization manipulation is a prerequisite for competitive spintronic devices. The Weyl semimetal WTe2 can act as a spin current source that enables magnetization switching of an adjacent ferromagnet at low power consumption and additionally induces chiral magnetism.
While heating a catalyst causes growth of nanoparticles through Ostwald ripening, repeated on/off high-temperature shockwaves can reverse the process, converting the nanoparticles into stable single-atom catalysts.
Coherent ultrafast spectroscopy of nanofocused plasmonic pulses strengthens the nonlinear response in graphene, highlighting the origin of a new general phenomenon.
A scalable manufacturing process for complex, high-quality superconductor/topological insulator structures could, in future, enable the production of topological quantum computation architectures.
Gate-based reflectometry enables single-shot spin readout in double quantum dots. This can help to reduce the number of gates necessary to operate a spin qubit and the per qubit device footprint, while allowing fast measurement — important characteristics for scalable quantum computing architectures.
The combination of a nanopore and an atomic force microscope allows stochastic sensing of secreted molecules and the activity of ion channels in arbitrary locations both inside and outside of a cell.