  The cold curves for energy and pressure of Copper, Iron, and Tantalum were
obtained using methods of the density functional theory. We consider
hydrostatic and uniaxial deformations in the range from double compression of
the initial volume per atom to double stretching. The presence of allotropic
transformation from $\alpha$ - phase of Iron to the hexaferrum with the growth
of pressure is observed. In the case of hydrostatic deformations we also have
obtained analogous cold curves, but with non-zero electronic temperatures in
the range up to 5 eV. The similar volume and electronic temperature ranges have
been considered recently. The behavior of electronic internal energy, pressure,
and density of states was investigated in the volume and temperature ranges
called above. The maximum hydrostatic strains and the types of lattice
instabilities were theoretically predicted for the considered metals. The
influence of high electronic temperature on the electronic heat conductivity
and electric resistivity has been provided for d-band metals by the approach
based on the solution of Boltzmann kinetic equation in $\tau$-approximation.
This data is compared with the results of quantum molecular dynamics for Gold.
