...
| LaTeX Math Block |
|---|
|
M_\alpha(s) = \frac{k_\alpha}{\mu_\alpha} = k_{air} \cdot \frac{k_{r \alpha}}{\mu_\alpha} |
...
| LaTeX Math Inline |
|---|
| body | \displaystyle k_\alpha(s) |
|---|
|
| |
|---|
| LaTeX Math Inline |
|---|
| body | \displaystyle \mu_\alpha |
|---|
|
| |
|---|
| LaTeX Math Inline |
|---|
| body | \displaystyle k_{air} |
|---|
|
| absolute permeability to air |
|---|
| LaTeX Math Inline |
|---|
| body | \displaystyle k_{r\alpha}(s) |
|---|
|
| |
|---|
| LaTeX Math Inline |
|---|
| body | \displaystyle M_{r\alpha}(s) = \frac{k_{r \alpha}}{\mu_\alpha} |
|---|
|
| relative phase mobility |
|---|
| reservoir saturation | LaTeX Math Inline |
|---|
| body | \{ s_w, \, s_o, \, s_g \} |
|---|
|
|
|---|
In most practical case of a 3-phase fluid model this will be:
...
