The investigation of the electronic properties of semiconductors from transport
measurements (ie, resistivity, Hall, and Seebeck coefficient measurements) is challenging …

Electronic transport coefficients such as the electrical conductivity, the termo-power, and the
charge carrier concentration are routinely measured in a variety of application areas such as …

Accurate models of carrier transport are essential for describing the electronic properties of
semiconductor materials. To the best of our knowledge, the current models following the …

Engineering semiconductor devices requires an understanding of charge carrier mobility.
Typically, mobilities are estimated using Hall effect and electrical resistivity meausrements …

One of the fundamental properties of semiconductors is their ability to support highly tunable
electric currents in the presence of electric fields or carrier concentration gradients. These …

Charge transport properties like electrical conductivity or the Seebeck coefficient are defined
phenomenologically from near-equilibrium thermodynamics, while the analysis or modeling …

The mobility of carriers, as limited by their scattering with phonons, can now routinely be
obtained from first-principles electron-phonon coupling calculations. However, so far, most …

Intrinsic electron mobilities and intrinsic Hall r factors for n-type wide band gap II–VI
semiconductors CdSe, CdS, ZnO, and ZnS are predicted from 60 to 400 K using the …

Advancing the performance of a wide variety of energy conversion devices from
photovoltaic and photoelectrochemical to thermoelectric and electroluminescent requires …

The past decade has seen the emergence of ab initio computational methods for calculating
phonon-limited carrier mobilities in semiconductors with predictive accuracy. More realistic …