Dependence of Tc on spin-amplified phonons in pressurized hydrides

The realization of room temperature superconductivity in an under-high-pressure carbonaceous sulphur hydride has sparked off interest in pressurized superconductivity. The next and perhaps major hurdle is to achieve room temperature superconductivity (RTS) at ambient pressure. However, the quantum e...

Full description

Bibliographic Details
Main Authors: Abel Mukubwa, Fred Wekesa Masinde
Format: Article
Language:English
Published: Elsevier 2022-07-01
Series:Results in Physics
Subjects:
Online Access:http://www.sciencedirect.com/science/article/pii/S2211379722003564
_version_ 1811250007393697792
author Abel Mukubwa
Fred Wekesa Masinde
author_facet Abel Mukubwa
Fred Wekesa Masinde
author_sort Abel Mukubwa
collection DOAJ
description The realization of room temperature superconductivity in an under-high-pressure carbonaceous sulphur hydride has sparked off interest in pressurized superconductivity. The next and perhaps major hurdle is to achieve room temperature superconductivity (RTS) at ambient pressure. However, the quantum environment surrounding the pressurized RTS may give a glimpse of what is required to attain the phenomenon under normal pressure. This study is devoted to projecting the source of attraction of charges that keeps superconductivity afloat in hydrides under ultra-high pressure. Starting with the quantum equation of a normal-state ideal gas, we determine the dependence of Tc on pressure, spin and phonons. We show that plasmon mediation charges fails at ultra-high pressures. It is also found that bare phonons can sustain the mediation of charge pairing under pressure in the order of 1-100GPa but much less than the experimentally observe pressure, pcexp. However, the cooperation between spin and phonons sustains phonon mediation of charge pairing under much higher pressure pcexp. This is an indicator that the pairing of charges in pressurized superconductivity is mediated by enhanced phonons – spin-amplified phonons.
first_indexed 2024-04-12T15:56:29Z
format Article
id doaj.art-bd138b81b7a84e0a8bb15f3bde62c5c2
institution Directory Open Access Journal
issn 2211-3797
language English
last_indexed 2024-04-12T15:56:29Z
publishDate 2022-07-01
publisher Elsevier
record_format Article
series Results in Physics
spelling doaj.art-bd138b81b7a84e0a8bb15f3bde62c5c22022-12-22T03:26:20ZengElsevierResults in Physics2211-37972022-07-0138105656Dependence of Tc on spin-amplified phonons in pressurized hydridesAbel Mukubwa0Fred Wekesa Masinde1Department of Science Technology and Engineering, Kibabii University, P.O Box 1699 – 50200, Bungoma, Kenya; Corresponding author.Department of Physical Sciences, University of Kabianga, P.O Box 2030 - 2020, Kericho, KenyaThe realization of room temperature superconductivity in an under-high-pressure carbonaceous sulphur hydride has sparked off interest in pressurized superconductivity. The next and perhaps major hurdle is to achieve room temperature superconductivity (RTS) at ambient pressure. However, the quantum environment surrounding the pressurized RTS may give a glimpse of what is required to attain the phenomenon under normal pressure. This study is devoted to projecting the source of attraction of charges that keeps superconductivity afloat in hydrides under ultra-high pressure. Starting with the quantum equation of a normal-state ideal gas, we determine the dependence of Tc on pressure, spin and phonons. We show that plasmon mediation charges fails at ultra-high pressures. It is also found that bare phonons can sustain the mediation of charge pairing under pressure in the order of 1-100GPa but much less than the experimentally observe pressure, pcexp. However, the cooperation between spin and phonons sustains phonon mediation of charge pairing under much higher pressure pcexp. This is an indicator that the pairing of charges in pressurized superconductivity is mediated by enhanced phonons – spin-amplified phonons.http://www.sciencedirect.com/science/article/pii/S2211379722003564HydridesUltra-high pressureQuantum Ideal gas EquationPhononsSpinsCritical temperature
spellingShingle Abel Mukubwa
Fred Wekesa Masinde
Dependence of Tc on spin-amplified phonons in pressurized hydrides
Results in Physics
Hydrides
Ultra-high pressure
Quantum Ideal gas Equation
Phonons
Spins
Critical temperature
title Dependence of Tc on spin-amplified phonons in pressurized hydrides
title_full Dependence of Tc on spin-amplified phonons in pressurized hydrides
title_fullStr Dependence of Tc on spin-amplified phonons in pressurized hydrides
title_full_unstemmed Dependence of Tc on spin-amplified phonons in pressurized hydrides
title_short Dependence of Tc on spin-amplified phonons in pressurized hydrides
title_sort dependence of tc on spin amplified phonons in pressurized hydrides
topic Hydrides
Ultra-high pressure
Quantum Ideal gas Equation
Phonons
Spins
Critical temperature
url http://www.sciencedirect.com/science/article/pii/S2211379722003564
work_keys_str_mv AT abelmukubwa dependenceoftconspinamplifiedphononsinpressurizedhydrides
AT fredwekesamasinde dependenceoftconspinamplifiedphononsinpressurizedhydrides