Nomenclature

(Difference between revisions)

Revision as of 10:46, 12 September 2005

Acronym	Description	Unit
$C_p$	Specific heat at constant pressure	$J/kgK$
$C_v$	Specific heat at constant volume	$J/kgK$
$e$	Internal energy	$J/kg$
$e_0$	Total energy	$J/kg$
$h$	Enthalpy	$J/kg$
$k$	Turbulent kinetic energy	$J/kg$
$p$	Static pressure	$Pa$
$Pr$	Prandtl number
$R$	Specific gas constant	$J/kgK$
$S_{ij}^*$	Trace-less viscous strain-rate tensor	$s^{-1}$
$t$	Time	$s$
$T$	Static temperature	$K$
$u^*$	Friction velocity	$m/s$
$u_i$	Velocity	$m/s$
$\gamma$	Specific heat ratio = $C_p/C_v$
$\delta_{ij}$	Kronecker's delta function
$\mu$	Dynamic viscosity	$Ns/m^2$
$\nu$	Kinematic viscosity	$m^2/s$
$\rho$	Density	$kg/m^3$
$\tau_{ij}$	Shear stress tensor	$N/m^2$
$\omega$	Specific dissipation	$s^{-1}$

$t$	Turbulent property
$0$	Stagnation / total property

$conv$	Convective part
$diff$	Diffusive part
$lam$	Laminar part
$tot$	Laminar + turbulent part
$turb$	Turbulent part
$'$	Reynolds fluctuating part
$''$	Favre fluctuating part
$\widetilde{\cdot}$	Density weighted (Favre) average
$\overline{\cdot}$	Normal average (time or space)

@@ Line 77: / Line 77: @@
 <tr>
    <td><math>\gamma</math></td>
-   <td>Specific heat ratio = <math>C_p/C_v</math></td>
+   <td>[[Ratio of specific heats | Specific heat ratio]] = <math>C_p/C_v</math></td>
    <td></td>
 </tr>