where [C.sub.p,v] is the specific heat
of steam (J/kgK), [DELTA][H.sub.wv] is the specific heat
of vaporization (J/kg), and [N.sub.scf] is the electric energy of the feed screw (kWh/t).
Like polymer density, the correlation of the specific heat
capacity at a constant pressure of the polymer melt changing with the polymer temperature  is as following:
where Q is the battery heat generation in J, m is cell mass in g, [C.sub.p] is the cell specific heat
capacity in J/(g K), AT is cell temperature rise in K, q is battery instantaneous heat generation power in W, and dT/dt is temperature rise rate in K/s.
where T is the temperature ([degrees]C), [tau] is the curing age (d), [rho] is the density of concrete (kg/[m.sup.3]), [lambda]([alpha]) is the thermal conductivity at the different hydration degree (kJ/(m-d-[degrees]C)), c([alpha]) is the specific heat
at the different hydration degree (kJ/(kg-[degrees]C)), and Q([alpha]) is the released heat associated with an internal source and is provided by the hydration reaction itself (kJ/([m.sup.3] x d)).
The behaviors of the rescaled specific heat
[mathematical expression not reproducible] for the cases P < [P.sub.c], P = [P.sub.c], and P > [P.sub.c] are shown in Figure 1.
where Mw is mass of water in sauce pan, Cw is specific heat
capacity of water, [DELTA] is local boiling temperature-initial temperature of water (K), Fcm is fuel consumed (moist) (g), LHV is net calorific value (J/g), Mwv is mass of water vaporised (g), and h is specific enthalpy of vaporisation (J/g).
where [C.sub.p] is specific heat
and [alpha] is thermal diffusivity.
where [Q.sub.total] is the total heat transfer needed from the ambient charge to vaporize a liquid fuel droplet, [T.sub.d,init], [T.sub.d,end] are the initial and final droplet temperatures, [C.sub.p,liq] is liquid specific heat
, [m.sub.d] is the droplet mass, and [h.sub.vap] is heat of vaporization.
3 shows variation of ration of thermophysical properties (thermal conductivity, specific heat
, density and Prandtl number) of nanofluids as function of nanoparticle volume fraction.
Reference  is the only work present till date to account for the influence of magnetic field upon the direct values of specific heat
Amorphous (a-)Ce-Mn and a-Ce-Ru alloys in Ce high concentration region exhibit a large electronic specific heat
coefficient [gamma] (>200 mJ/mol[K.sup.2]) and [T.sup.2] law with a large coefficient A (>0.02 [micro][ohm]cm/K) in the low-temperature resistivity [6-10].
The specific heat
of concrete and graphite/PCM concrete is calculated from results of differential scanning calorimeter (DSC) analysis .