2D Transition Metal Dichalcogenide Heterostructures for p- and n-Type Photovoltaic Self-Powered Gas Sensor

TL;DR: Researchers investigate plasma-treated 1D transition metal dichalcogenides as efficient electrocatalysts for hydrogen evolution reaction, leveraging their unique structure and properties to enhance catalytic activity and reduce costs.

TL;DR: An exact stochastic simulation of the Schroedinger equation for charged Bosons and Fermions was used to calculate the correlation energies, to locate the transitions to their respective crystal phases at zero temperature within 10%, and to establish the stability at intermediate densities of a ferromagnetic fluid of electrons.

TL;DR: The results of the election were reported by the National Resource for Computing in Chemistry (NCI) as discussed by the authors, a non-profit organization for information technology in the chemical industry, which is based at the Berkeley Lab.

TL;DR: The tunnelling-assisted interlayer recombination of the majority carriers is responsible for the tunability of the electronic and optoelectronic processes in atomically thin p-n heterojunctions fabricated using van der Waals assembly of transition-metal dichalcogenides.

TL;DR: Although the single-layer MoS(2) device shows a rapid response after exposure to NO, the current was found to be unstable, and these FET devices can be used as gas sensors to detect nitrous oxide.