Exploring Room-Temperature Superconductivity in Narrow Energy Gap Semiconductors through Thermally Excited Electrons

TL;DR

This paper investigates how thermally excited electrons in narrow energy gap semiconductors could enable room-temperature superconductivity without doping, by analyzing the interplay of energy gap and temperature on carrier concentrations.

Contribution

It introduces a novel mechanism where thermal excitations influence superconductivity in narrow gap semiconductors, potentially achieving room-temperature superconductivity.

Findings

Thermal excitations significantly increase carrier concentrations.

Energy gap and temperature interplay affects superconducting behavior.

Potential pathway to room-temperature superconductivity without doping.

Abstract

The impact of thermally activated electrons on superconductivity within the realm of narrow energy gap semiconductors is investigated, unveiling the potential emergence of room-temperature superconductivity without the necessity for extensive doping. This novel mechanism suggests that thermal excitations can influence carrier concentrations significantly, thus influencing condensation and affecting superconductivity properties. In this paper, we explore how the energy gap width and temperature interact to shape carrier concentrations and subsequently impact the manifestation of superconducting behavior.