Dynamic fluid properties

$//<![CDATA[ \begin{array}{l}\rho_w^{\LARGE \circ} = \rho_w(P^{\LARGE \circ}, T^{\LARGE \circ})\end{array} //]]>$

density of water phase at standard pressure $//<![CDATA[ \begin{array}{l}P^{\LARGE \circ}\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T^{\LARGE \circ}\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\rho_o^{\LARGE \circ} = \rho_o(P^{\LARGE \circ}, T^{\LARGE \circ})\end{array} //]]>$

density of oil phase at standardpressure $//<![CDATA[ \begin{array}{l}P^{\LARGE \circ}\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T^{\LARGE \circ}\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\rho_g^{\LARGE \circ} = \rho_g(P^{\LARGE \circ}, T^{\LARGE \circ})\end{array} //]]>$

density of gas phase at standard pressure $//<![CDATA[ \begin{array}{l}P^{\LARGE \circ}\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T^{\LARGE \circ}\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\rho_w = \rho_w(P, T)\end{array} //]]>$

density of water phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\rho_o = \rho_o(P, T)\end{array} //]]>$

density of oil phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\rho_g = \rho_g(P, T)\end{array} //]]>$

density of gas phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}B_w = B_w(P,T) = \frac{\rho_w^{\LARGE \circ}}{\rho_w} = \frac{V_w}{V_w^{\LARGE \circ}}\end{array} //]]>$

FVF of water phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}B_o = B_o(P,T) = \frac{\rho_o^{\LARGE \circ}}{\rho_o} = \frac{V_o}{V_o^{\LARGE \circ}}\end{array} //]]>$

FVF of oil phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}B_g = B_g(P,T) = \frac{\rho_g^{\LARGE \circ}}{\rho_g} = \frac{V_g}{V_g^{\LARGE \circ}}\end{array} //]]>$

FVF of gas phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\mu_w = \mu_w(P, T)\end{array} //]]>$

viscosity of water phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\mu_o = \mu_o (P, T)\end{array} //]]>$

viscosity of oil phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}\mu_g = \mu_g(P, T)\end{array} //]]>$

viscosity of gas phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}R_s = R_s (P,T) = \frac{V_g^{\LARGE \circ}}{V_o}\end{array} //]]>$

solution gas in oil phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}R_v = R_v (P,T) = \frac{V_o^{\LARGE \circ}}{V_g}\end{array} //]]>$

oil vapour in gas phase at arbitrary pressure $//<![CDATA[ \begin{array}{l}P\end{array} //]]>$ and temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}P_b = P_b (T)\end{array} //]]>$

boiling pressure at arbitrary temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$

$//<![CDATA[ \begin{array}{l}P_d = P_d (T)\end{array} //]]>$

dew pressure at arbitrary temperature $//<![CDATA[ \begin{array}{l}T\end{array} //]]>$