In the past few decades, numerous heat conduction models extending beyond Fourier's
have been developed to account for large gradients, fast phenomena, wave propagation …

This review paper is dedicated to a description of heat transport at micro and nanoscales
from the viewpoint of Extended Irreversible Thermodynamics. After a short survey of the …

Thermoelastic analysis at micro and nano-scale is becoming important along with the
miniaturization of the device and wide application of ultrafast lasers, even the novel laser …

The accuracy of the classical heat conduction model, known as Fourier's law, is highly
questioned, dealing with the micro-and nanosystems and biological tissues. In other words …

We obtain solutions for differential equations, describing a broad range of physical problems
by the operational method with recourse to inverse differential operators, integral transforms …

Double-diffusive convection, in which a fluid is acted upon by two fields (such as
temperature and salinity) that affect the density, has been widely studied in areas as diverse …

The Fourier heat conduction model is valid for most macroscopic problems. However, it fails
when the wave nature of the heat propagation or the time lags become dominant and the …

The study of non-axisymmetric Homann stagnation-point flow of Walter's B nanofluid along
with magnetohydrodynamic (MHD) and non-linear Rosseland thermal radiation over a …

We construct particular solutions for some heat transport differential equations, in particular,
for extended forms of hyperbolic heat equation and of Guyer–Krumhansl (GK) equation. The …

The Fourier law correctly describes heat transport in most practical macroscopic problems.
However, for heat transfer in rapid processes, heat transport on micro-and nanoscales, and …