Pressure is a fundamental thermodynamic variable that can be used to control the properties
of materials, because it reduces interatomic distances and profoundly modifies electronic …

Pressure has long been recognized as a fundamental thermodynamic variable but its
application was previously limited by the available pressure vessels and probes. The …

Although high-transition-temperature (high-T c) superconductivity in cuprates has been
known for more than three decades, the underlying mechanism remains unknown …

The thermal conductivities of materials are extremely important for many practical
applications, such as in understanding the thermal balance and history of the Earth, energy …

We present the superconducting (SC) property and high-robustness of structural stability of
kagome CsV 3 Sb 5 under in situ high pressures. For the initial SC-I phase, its T c is quickly …

High-entropy alloys (HEAs) are a recently opened research area in materials science and
condensed matter physics. Although 3 d-metal-based HEAs have already been the subject …

The negatively charged nitrogen-vacancy (NV−) center in diamond has realized new
frontiers in quantum technology. Here, the optical and spin resonances of the NV− center …

Direct manipulation of the atomic lattice using intense long-wavelength laser pulses has
become a viable approach to create new states of matter in complex materials …

P-type do** of ultrawide-bandgap semiconductors, which are the key materials for
fabrication of next-generation high-performance optoelectronic and electronic devices, is …

Pressure profoundly alters all states of matter. The symbiotic development of ultrahigh-
pressure diamond anvil cells, to compress samples to sustainable multi-megabar pressures; …