activity
20162026
most citedMagnetism in Semiconducting Molybdenum Dichalcogenides

138 citations · 210 across the 11 of their papers we have counts for

collaborators

11 papers

physics.comp-ph2026

diffpy.morph: Python tools for model independent comparisons between sets of 1D functions

Andrew Yang, Christopher L. Farrow, Pavol Juhás +22

diffpymorph addresses a need to gain scientific insights from 1D scientific spectra in model independent ways. A powerful approach for this is to take differences between pairs…

physics.plasm-ph2023★ 1 cited

Direct Implicit and Explicit Energy-Conserving Particle-in-Cell Methods for Modeling of Capacitively-Coupled Plasma Devices

Haomin Sun, Soham Banerjee, Sarveshwar Sharma +5

Achieving large-scale kinetic modelling is a crucial task for the development and optimization of modern plasma devices. With the trend of decreasing pressure in applications such…

physics.atom-ph2021★ 5 cited

Twisted electron impact single ionization coincidence cross-sections for noble gas atoms

Nikita Dhankhar, Soham Banerjee, Rakesh Choubisa

We present the angular profiles of the triple differential cross-section (TDCS) for the (e,2e) process on the noble gas atoms, namely He (1s), Ne (2s and 2p), and Ar (3p) for the p…

cond-mat.mtrl-sci2021

Towards scanning nanostructure x-ray microscopy

Anton Kovyakh, Soham Banerjee, Chia-Hao Liu +5

We demonstrate spatial mapping of the local and nano-scale structure of thin film objects using spatially resolved PDF analysis of synchrotron x-ray diffraction data. This is demon…

cond-mat.mtrl-sci2020★ 5 cited

Pressure induced topological quantum phase transition in Weyl semimetal T_d-MoTe_2

Z. Guguchia, A. M. dos Santos, F. O. von Rohr +11

We report the pressure (p_max = 1.5 GPa) evolution of the crystal structure of the Weyl semimetal T_d-MoTe_2 by means of neutron diffraction experiments. We find that the fundament…

cond-mat.mtrl-sci2020

Complete Strain Mapping of Nanosheets of Tantalum Disulfide

Yue Cao, Tadesse Assefa, Soham Banerjee +13

Quasi-two-dimensional (quasi-2D) materials hold promise for future electronics because of their unique band structures that result in electronic and mechanical properties sensitive…