Oskar Baumgartner

TL;DR: In this paper, the authors demonstrate the concept of diagonal transition for quantum cascade detectors (QCDs), where the active transition takes place between two energy levels in adjacent wells, and achieve a peak responsivity of 16.9

TL;DR: The Vienna Schrodinger-Poisson solver (VSP) as mentioned in this paper is a multi-purpose quantum mechanical solver for investigations on nano-scaled device structures, including gate dielectrics.

TL;DR: In this article, the authors demonstrate a bi-functional quantum cascade device that detects at the same wavelength as it coherently emits, and they show how to compensate the intrinsic wavelength mismatch between the laser and the detector based on a bound-to-continuum design.

TL;DR: The Vienna Schrödinger-Poisson (VSP) simulation framework for quantum-electronic engineering applications is presented, an extensive software tool that includes models for band structure calculation, self-consistent carrier concentrations including strain, mobility, and transport in transistors and heterostructure devices.

TL;DR: In this article, an advanced simulation framework is used to analyze a recent sub-10 nm technology demonstration based on stacked nanowire transistors (NW-FETs) and find that the fabrication process introduces parasitic capacitances not present in a comparable FinFET, and the device performance is significantly affected by interface charge-induced Coulomb scattering resulting in up to 50% reduction in drain current compared to an ideal device.