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104 lines (104 loc) · 6.77 KB
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\begin{itemize}
\setlength{\itemindent}{-12pt}
\item \massfrac[i]: mass fraction of species $i$, \nounit;
\item \mass[i]: mass density of species $i$, homogeneous to \unit{g\,m^{-3}};
\item \Mass[i]: mass species $i$, homogeneous to \unit{g};
\item \molarfrac[i]: molar fraction of species $i$, \nounit;
\item \molar[i]/\conc[I]: molar density of species $i$ of name \ce{I}, homogeneous to \unit{mol\,m^{-3}};
\item \Mm[i]: molar mass of species $i$, homogeneous to \unit{g\,mol^{-1}};
\item \fwdratecons[r]: forward rate constant of reaction $r$, homogeneous to \unit{(m^3\,mol^{-1})^{\text{order} - 1}\,s^{-1}};\\
\unit{m^3\,mol^{-1}\,s^{-1}} or \unit{s^{-1}} here, only first/zeroth order reaction;
\item \bkwdratecons[r]: backward rate constant of reaction $r$, homogeneous to \unit{(m^3\,mol^{-1})^{\text{order} - 1}\,s^{-1}};\\
\unit{m^3\,mol^{-1}\,s^{-1}} or \unit{s^{-1}} here, only first/zeroth order reaction;
\item \fwdrate[r]: forward rate of reaction $r$, homogeneous to \unit{m^3\,mol^{-1}\,s^{-1}};
\item \bkwdrate[r]: backward rate of reaction $r$, homogeneous to \unit{m^3\,mol^{-1}\,s^{-1}};
\item \Eqconst[r]: equilibrium constant of reaction $r$, \nounit;
\item \gibbs[i]: Gibbs free energy of species $i$, homogeneous to \unit{J\,mol^{-1}};
\item \DGibbs[r]: Gibbs free energy of reaction $r$, homogeneous to \unit{J\,mol^{-1}};
\item \enth[i]: enthalpy of species $i$, homogeneous to \unit{J\,mol^{-1}};
\item \Denth[r]: enthalpy of reaction $r$, homogeneous to \unit{J\,mol^{-1}};
\item \entr[i]: entropy of species $i$, homogeneous to \unit{J\,mol^{-1}};
\item \Dentr[r]: entropy of reaction $r$, homogeneous to \unit{J\,mol^{-1}};
\item \chempot[i]: chemical potential of species $i$, homogeneous to \unit{J};
\item \scoef[i,r]: stoichiometric coefficient of species $i$ in reaction $r$, \nounit;
\item \scoefabs[i,r]: absolute value of stoichiometric coefficient of species $i$ in reaction $r$, \nounit, this is the number
you see in chemical equation;
\item \sumscoef[r]: sum of the stoichiometric coefficients for reaction $r$, \nounit;
\item \Temp[i]: temperature of thermodynamic phase $i$ homogeneous to \unit{K};
\item \Press[i]: pressure of thermodynamic phase $i$ homogeneous to \unit{Pa};
\item \Vol[i]: volume of thermodynamic phase $i$ homogeneous to \unit{m^3};
\item \Mol[i]: number of mole of components of thermodynamic phase $i$ homogeneous to \unit{mol};
\item \Mass[i]: mass of thermodynamic phase $i$ homogeneous to \unit{g};
\item \Gibbs[i]: Gibbs free energy of thermodynamic phase $i$, homogeneous to \unit{J\,mol^{-1}};
\item \Enth[i]: enthalpy of thermodynamic phase $i$, homogeneous to \unit{J\,mol^{-1}};
\item \Entr[i]: entropy of thermodynamic phase $i$, homogeneous to \unit{J\,mol^{-1}\,K^{-1}}.
\item \specificHeat[i]: specific heat of species $i$, homogeneous to \unit{J\,mol^{-1}\,K^{-1}} or
\unit{J\,kg^{-1}\,K^{-1}} depending if it is the mass or molar
specific heat.
\item \vis[i]: viscosity of species $i$, homogeneous to \unit{Pa\,s}.
\item \dipole[i]: dipole moment of species $i$, homogeneous to \unit{C\,m}.
\item \diff[i]: bimolecular diffusion of species $i$, homogeneous to \unit{m^2\,s^{-1}}.
\item \thermcond[i]: thermal conduction of species $i$, homogeneous to \unit{J\,m^2\,s^{-1}}.
\item \LJdepth[i]: Lennard-Jones potential well's depth, sometimes in reduced form, that
is divided by Boltzmann's constant (\BoltzmannEquation)
homegeneous to \unit{J} and to \unit{K} when reduced.
\item \LJdia[i]: Lennard-Jones potential diameter, homogeneous to \unit{m}.
\end{itemize}
%
\begin{tabular}{lcccc}\toprule
Quantity & species-wise & phase-wise & reaction-wise & unit \\\midrule
Enthalphy & \enth & \Enth & \Denth/\DenthZ & \unit{J\,mol^{-1}}\\
Entropy & \entr & \Entr & \Dentr/\DentrZ & \unit{J\,mol^{-1}\,K^{-1}}\\
Gibbs free energy
& \gibbs & \Gibbs & \DGibbs/\DGibbsZ & \unit{J\,mol^{-1}}\\
Chemical potential
& \chempot & \chempot & & \unit{J\,mol^{-1}}\\\cmidrule(lr){2-2}
Absolute stoichiometric coefficient
& \scoefabs & & & \nounit\\
Stoichiometric coefficient
& \scoef & & \sumscoef\ (sum) & \nounit\\\cmidrule(lr){2-2}
Number of mole
& & \Mol & & \unit{mol}\\
Mass & \Mass & \Mass & & \unit{g}\\
Density of mass
& \mass & \mass & & \unit{g\,m^{-3}}\\
Concentration
& \conc/\conc[.]
& \conc/\conc[M]
& & \unit{mol\,m^{-3}}\\
Mass fraction
& \massfrac & 1 & & \nounit\\
Molar fraction
& \molarfrac & 1 & & \nounit\\\cmidrule(lr){2-2}
Viscosity & \vis & \vis & & \unit{Pa\,s}\\
Dipole moment
& \dipole & \dipole & & \unit{C\,m}\\
Diffusion & \diff & \diff & & \unit{m^2\,s^{-1}}\\
Thermal conduction
& \thermcond & \thermcond
& & \unit{J\,m^2\,s^{-1}}\\
\multirow{2}{*}{Specific heat}
& \multirow{2}{*}{\specificHeat}
& \multirow{2}{*}{\specificHeat}
& & \unit{J\,mol^{-1}\,K^{-1}}\\
& & & & \unit{J\,kg^{-1}\,K^{-1}}\\\cmidrule(lr){2-2}
Lennard-Jones diameter
& \LJdepth & & & \unit{m}\\
Lennard-Jones depth well
& \LJdia & & & \unit{J}\\\cmidrule(lr){2-2}
Kinetic model
& & & \kinMod & depends\\
Chemical process
& & & \chemProc & depends\\
Forward rate constant
& & & \fwdratecons & depends\\
Backward rate constant
& & & \bkwdratecons & depends\\
Forward rate
& & & \fwdrate & \unit{mol\,m^{-3}\,s^{-1}}\\
Backward rate
& & & \bkwdrate & \unit{mol\,m^{-3}\,s^{-1}}\\
Equilibrium constant
& & & \Eqconst & \nounit\\
\bottomrule
\end{tabular}