Climate & EnvironmentOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Sr- ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (VI)
In degenerate, compensated and viscous ( ) ( ) - alkali metal (Sr-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Climate & EnvironmentOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Ca- ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (V)
In degenerate, compensated and viscous ( ) - alkali metal (Ca-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical con...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Materials & EnergyOpen access
NEW CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN N(P)- TYPE DEGENERATE HELIUM-FERMI LIQUID, BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (IX)
By basing on the same physical model and treatment method, as used in our recent work[1], we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in n(p)-type degenerate Helium-Fermi Liquid (He-FL), being due to the effects of the siz...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Climate & EnvironmentOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Ca- ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (V)
In degenerate, compensated and viscous ( ) - alkali metal (Ca-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical con...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Physics & SpaceOpen access
PERFORMED CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN N(P)- TYPE DEGENERATE NaCl-METAL LIQUID (OR FERMI LIQUID), BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (VIII)
By basing on the same physical model and treatment method, as used in our recent work.[1] we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in n(p)-type degenerate Sodium Chloride Metal Liquid (NaCl-ML) or Fermi Liquid, being du...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Climate & EnvironmentOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Sr- ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (VI)
In degenerate, compensated and viscous ( ) ( ) - alkali metal (Sr-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Physics & SpaceOpen access
PERFORMED CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN N(P)- TYPE DEGENERATE NaCl-METAL LIQUID (OR FERMI LIQUID), BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (VIII)
By basing on the same physical model and treatment method, as used in our recent work.[1] we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in n(p)-type degenerate Sodium Chloride Metal Liquid (NaCl-ML) or Fermi Liquid, being du...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Materials & EnergyOpen access
NEW CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN N(P)- TYPE DEGENERATE HELIUM-FERMI LIQUID, BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (IX)
By basing on the same physical model and treatment method, as used in our recent work[1], we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in n(p)-type degenerate Helium-Fermi Liquid (He-FL), being due to the effects of the siz...
Zenodo (CERN European Organization for Nuclear Research)2026-10-010 citationsDOI Engineering & TechnologyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Mg-ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (IV)
In degenerate, compensated and viscous - alkali metal (Mg-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical conduct...
Zenodo (CERN European Organization for Nuclear Research)2026-09-050 citationsDOI Engineering & TechnologyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW ELECRICAL THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS Mg-ALKALI METAL, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (IV)
In degenerate, compensated and viscous - alkali metal (Mg-AM), the Global Einstein -and- Van Cong relations, as those given in Equations (25, 32), and electrical thermoelectric laws, enhanced by: our static dielectric constant law given in Equations (5, 6), our electrical conduct...
Zenodo (CERN European Organization for Nuclear Research)2026-09-050 citationsDOI Engineering & TechnologyOpen access
NEW CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN VARIOUS N(P)- TYPE DEGENERATE ALKALI METALS, BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (I)
By basing on the same physical model and treatment method, as used in our recent works (Van Cong, 2023), we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in various n(p)-type degenerate [Li, Na, Mg, Ca, and Sr]- alkali metals,...
Zenodo (CERN European Organization for Nuclear Research)2026-09-030 citationsDOI Engineering & TechnologyOpen access
NEW CRITICAL IMPURITY DENSITY IN METAL-INSULATOR TRANSITION, OBTAINED IN VARIOUS N(P)- TYPE DEGENERATE ALKALI METALS, BEING JUST THAT OF THE CARIERS, LOCALIZED IN EXPONENTIAL BAND TAILS. (I)
By basing on the same physical model and treatment method, as used in our recent works (Van Cong, 2023), we will investigate the critical impurity densities in the metal-insulator transition (MIT), obtained in various n(p)-type degenerate [Li, Na, Mg, Ca, and Sr]- alkali metals,...
Zenodo (CERN European Organization for Nuclear Research)2026-09-030 citationsDOI Materials & EnergyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW OPTICAL-ELECRICAL-THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS CdTe(1-x)Se(x)-CRYSTALLINE ALLOY, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (47)
In degenerate, compensated and viscous - crystalline alloy, , the Global Einstein -and- Van Cong relations, as those given in Equations (24, 31), and various optical-electrical-thermoelectric laws, enhanced by: the optico-electrical phenomenon (O-EP) and the electro-optical pheno...
Zenodo (CERN European Organization for Nuclear Research)2026-08-010 citationsDOI Materials & EnergyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW OPTICAL-ELECRICAL-THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS CdS(1-x)Se(x)-CRYSTALLINE ALLOY, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (49)
In degenerate, compensated and viscous - crystalline alloy, , the Global Einstein -and- Van Cong relations, as those given in Equations (24, 31), and various optical-electrical-thermoelectric laws, enhanced by: the optico-electrical phenomenon (O-EP) and the electro-optical pheno...
Zenodo (CERN European Organization for Nuclear Research)2026-08-010 citationsDOI Materials & EnergyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW OPTICAL-ELECRICAL-THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS CdTe(1-x)Se(x)-CRYSTALLINE ALLOY, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (47)
In degenerate, compensated and viscous - crystalline alloy, , the Global Einstein -and- Van Cong relations, as those given in Equations (24, 31), and various optical-electrical-thermoelectric laws, enhanced by: the optico-electrical phenomenon (O-EP) and the electro-optical pheno...
Zenodo (CERN European Organization for Nuclear Research)2026-08-010 citationsDOI Materials & EnergyOpen access
GLOBAL EINSTEIN -AND- VAN CONG RELATIONS, AND NEW OPTICAL-ELECRICAL-THERMOELECTRIC LAWS IN N(P)-TYPE DEGENERATE, COMPENSATED AND VISCOUS CdS(1-x)Se(x)-CRYSTALLINE ALLOY, ENHANCED BY OUR STATIC DIELECTRIC CONSTANT LAW, CONDUCTIVITY MODEL, AND ESPECIALLY ACCURATE FERMI ENERGY EXPRESSION (49)
In degenerate, compensated and viscous - crystalline alloy, , the Global Einstein -and- Van Cong relations, as those given in Equations (24, 31), and various optical-electrical-thermoelectric laws, enhanced by: the optico-electrical phenomenon (O-EP) and the electro-optical pheno...
Zenodo (CERN European Organization for Nuclear Research)2026-08-010 citationsDOI