The electrostatic interaction between the DNA segments is described by the Debye-Hückel approximation.

Additionally, Si doping can also improve the Debye temperature and melting point of the MoAlB crystal.

In particular, we determine the amount of trapped mobile charges inside the microgel and the Debye screening length.

All these approximations use the Debye model of phonons and give a non-satisfactory description the temperature dependence of the relaxation rate.

Microstructural and theoretical studies of the wave-absorbing mechanism reveal a unique Debye dipolar relaxation with an Eddy current effect in the absorbing bandwidth.

The low-temperature specific heat was analyzed in terms of the Debye-Einstein model to estimate the librational energies of the fullerenes and Debye temperatures.

Such strong concentration polarization can be induced even at moderate buffer concentrations because of local ion depletion (therefore thicker local Debye layer) near the nanochannel.