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reveted some other edits so that we can make the recilinear heterogeneous case working again #52

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Merged
bhargavakula01 merged 1 commit into from
Apr 8, 2026
Merged

reveted some other edits so that we can make the recilinear heterogeneous case working again #52

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2 changes: 1 addition & 1 deletion README.md
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Original file line number Diff line number Diff line change
Expand Up @@ -24,7 +24,7 @@ This research aims to view the effects of surfactant in EOR while accounting for
- Analyze and visualize results to gain insights into SP flooding dynamics

## Requirements
- ```Python 3.13.1``` (with dependencies listed in ```requirements.txt```)
- ```Python 3.14.3``` (with dependencies listed in ```requirements.txt```)

### Installing Dependencies
1. cd to the location of the repository within your computer
Expand Down
22 changes: 11 additions & 11 deletions lib/simulation.py
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Expand Up @@ -1475,17 +1475,17 @@ def run(self):

## STEP 2.7: Updating the cummulative oil captured, Production rate, and the residual oil in place
# arrays for exporting to CSV files
if (t_cal == 0):
self.COC[0,t_cal] = ocut
else:
self.COC[0,t_cal] = self.COC[0,t_cal - 1] + ocut

self.ProdRate[0,t_cal] = ocut/dt
self.CROIP[0,t_cal] = ROIP

t_cal += 1

self._export_results()
# if (t_cal == 0):
# self.COC[0,t_cal] = ocut
# else:
# self.COC[0,t_cal] = self.COC[0,t_cal - 1] + ocut
#
# self.ProdRate[0,t_cal] = ocut/dt
# self.CROIP[0,t_cal] = ROIP
#
# t_cal += 1
#
# self._export_results()

except Exception as e:
print(e)
2 changes: 1 addition & 1 deletion lib/test.py
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Expand Up @@ -50,7 +50,7 @@
user_dict = {
"simulation_id": 1,
"model_type": MODEL["No_Shear_Thinning"],
"reservoir_geometry": GEOMETRY["Rectilinear"],
"reservoir_geometry": GEOMETRY["Quarter Five Spot"],
"permeability": PERMEABILITY["Heterogeneous"],
"polymer_type": POLYMER["Xanthane"],
"polymer_concentration": 0.001,
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6 changes: 3 additions & 3 deletions lib/water.py
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Expand Up @@ -579,7 +579,7 @@ def compute_water_saturation(
(Qmod[cnt][i] / dt_array[cnt][i])
+ g1 * (1 - f[cnt][i])
+ (
(D_g[cnt][i] + D_g[cnt][i + 1]) / (dx**2)
(D_g[cnt][i] + D_g[cnt+1][i + 1]) / (dx**1)
+ (D_g[cnt + 1][i] + D_g[cnt][i]) / (dx**2)
)
* surfactant.concentration_matrix[cnt][i]
Expand All @@ -599,7 +599,7 @@ def compute_water_saturation(
- (D_s[cnt + 1][i] + D_s[cnt][i]) / (dy**2)
)

BB[j][i + 1] = (D_s[cnt][i] + D_s[cnt][i + 1]) / (dx**2)
BB[j][i + 1] = (D_s[cnt][i] + D_s[cnt][i + 1]) * (dx**2)
elif i == m - 1: # last/rightmost column
DD[i] = (
Qmod[cnt][i] / dt_array[cnt][i]
Expand Down Expand Up @@ -1001,7 +1001,7 @@ def compute_water_saturation(

BB[j][i] = 1 / dt_array[cnt][i] - (
(1 / (2 * dx**2))
* (D_s[cnt][i - 1] + 2 * D_s[cnt][i] + D_s[cnt][i + 1])
* (D_s[cnt][i] + 2 * D_s[cnt][i] + D_s[cnt][i + 1])
+ (1 / (2 * dy**2))
* (
D_s[cnt - 1][i]
Expand Down
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