👋 Hi

I'm a researcher at «Wide-Bandgap Materials and Devices Lab» at NUST MISIS. My work is an exploration in the field of Wide-Bandgap semiconductors (Ga₂O₃, GaN, etc), so we publish some stuff. At the present day I'm a third-year PhD student in Semiconductor Physics, and that's where I keep some of the repositories I use in my work.

🔬 Check this out:

nocliper/ilt – The main drawback of the classic DLTS technique is its low resolution of overlapped signals from traps. In classic DLTS a trap is seen as a wide peak and if there is an overlap of two or three of them it is hard to deconvolute and extract data accurately. Instead of using the DLTS time-window concept regularization is imposed. This approach makes Laplace DLTS much more sensitive to noise in comparison with box-car DLTS but gives a huge advantage in peak resolution and traps parameters extraction.

Anton Vasilev's Projects

aestimo

Aestimo 1D Schrödinger-Poisson Solver

dbr

:microscope: Code for calculating the reflectance spectrum of the anti-reflective coatings

dlts

:microscope: Deep-Level Transient Spectroscopy – powerful tool to study electrically active defects (known as charge carrier traps) in semiconductors

ebic

:microscope: Analysis of Electron Beam Collection Current (EBIC) data. Calculating non-equilibrium charge carriers diffusion length

ilt

:microscope: Numerical routines to inverse the Laplace Transform for semiconductor Deep Level Transient Spectroscopy. To cite: Vasilev, A. (2024). Numerical Inverse Laplace Transform for Deep-Level Transient Spectroscopy. https://doi.org/10.5281/zenodo.10462383