def ImportGFOFromDB2018(start_date, end_date, WellFlac=['ALL']):
from Model import BPXDatabase as bpxdb
from Model import QueryFile as qf
import pandas as pd
from datetime import datetime
return_df = pd.DataFrame()
Success = True
Messages = []
try:
if isinstance(start_date, datetime):
start_date = '\'' + start_date.strftime('%Y-%m-%d %H:%M:%S') + '\''
if isinstance(end_date, datetime):
end_date = '\'' + end_date.strftime('%Y-%m-%d %H:%M:%S') + '\''
TeamOpsObj = bpxdb.GetDBEnvironment('OnPrem', 'OVERRIDE')
query = qf.GetGFOFromEastDB2018(WellFlac, start_date, end_date)
results = TeamOpsObj.Query(query)
return_df = results[1]
except Exception as ex:
Messages.append(
'Error retrieving the GFO data from the desired table. ' + str(ex))
Success = False
return return_df, Success, Messages
def CreateAreaFromWells(new_route_name, well_list, Update_User):
from Model import ModelLayer as m
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
from datetime import datetime
import pandas as pd
Success = True
Messages = []
try:
WellQuery = qf.EDWKeyQueryFromWellName(well_list)
obj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
wells, wells_df = obj.Query(WellQuery)
for idx, well in wells_df.iterrows():
WellName = well['WellName']
corpID = well['CorpID']
AggregateRowObj = m.AreaAggregationRow(new_route_name, WellName,
corpID, '')
Row_Success, Message = AggregateRowObj.Write(
Update_User, datetime.now())
if not Row_Success:
Messages.append(Message)
except Exception as ex:
Success = False
Messages.append(
'Error during the creation of the area from well list. ' + str(ex))
return Success, Messages
def ImportAriesByScenario(scenarioName,
start_date,
end_date,
Area,
CorpID=['ALL']):
from Model import BPXDatabase as bpxdb
from Model import QueryFile as qf
import pandas as pd
#Create ODS and EDW objects
Success = True
Messages = []
combined_df = pd.DataFrame()
try:
ODSobj = bpxdb.GetDBEnvironment('ProdODS', 'OVERRIDE')
EDWobj = bpxdb.GetDBEnvironment('ProdEDW', 'OVERRIDE')
scenario_query = qf.ScenarioQuery(scenarioName, CorpID, start_date,
end_date)
results = ODSobj.Query(scenario_query)
#Extract APINumbers from the results and concatenate into an 'IN' sql clause
corpid_list = []
for result in results[0]:
if not result['CorpID'] in corpid_list:
corpid_list.append(result['CorpID'])
if None in corpid_list:
corpid_list.remove(None)
key_query = qf.EDWKeyQueryFromCorpID(corpid_list, Area)
key_results = EDWobj.Query(key_query)
#Join the key_results to the Aries results
combined_df = pd.merge(results[1],
key_results[1],
on='CorpID',
how='right')
except Exception as ex:
Messages.append('Error on Import from Aries. ' + str(ex))
Success = False
return combined_df, Success, Messages
def SOHA_WriteGasNettingFactorsFromDB(Update_User, Update_Date, wellnames=[]):
from Model import BPXDatabase as bpx
from Model import QueryFile as qf
from Model import ModelLayer as m
import datetime as datetime
Success = True
Messages = []
try:
config = m.GetConfig()
DBObj = bpx.BPXDatabase(config['server'], config['database'],
config['UID'])
TeamOpsObj = bpx.GetDBEnvironment('OnPrem', 'OVERRIDE')
EDWObj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
#Get Well List of required netting values from data that is already in database.
query = qf.GetNettingFactorsfromDB(wellnames)
res, res_df = TeamOpsObj.Query(query)
count = 1
for idx, item in res_df.iterrows():
wellquery = qf.EDWKeyQueryFromWellName([item['WellName']])
res, well_row = EDWObj.Query(wellquery)
if not well_row.empty:
corpID = well_row['CorpID'].values[0]
NettingObj = m.GasNettingRow(item['WellName'], corpID,
item['NF'],
item['FirstSalesDateInput'],
DBObj)
Success, Message = NettingObj.Write(Update_User, Update_Date)
if not Success:
Messages.append(Message)
callprogressbar(count, res_df.shape[0])
count = count + 1
except Exception as ex:
Success = False
Messages.append('Error during write of netting factors to DB. ' +
str(ex))
return Success, Messages
def ImportActuals(corpID_list, start_date, end_date, LEName=''):
from Model import BPXDatabase as bpxdb
from Model import QueryFile as qf
from Model import ModelLayer as m
from datetime import datetime
import pandas as pd
Success = True
Messages = []
Actuals = []
try:
if isinstance(start_date, datetime):
start_date = '\'' + start_date.strftime('%Y-%m-%d %H:%M:%S') + '\''
if isinstance(end_date, datetime):
end_date = '\'' + end_date.strftime('%Y-%m-%d %H:%M:%S') + '\''
EDWobj = bpxdb.GetDBEnvironment('ProdEDW', 'OVERRIDE')
query = qf.GetActualsFromDB(corpID_list, start_date, end_date)
results = EDWobj.Query(query)
Actuals = results[1]
#ToDo: Add optional parameter of LE Name. Scan the production adjustments table for any overrides of
#potentially incorrect production values from the EDH/EDW tables
if LEName:
ProdAdjObj = m.ProductionAdjustments('', [LEName], [], [])
ProdAdjsRows, Success, Message = ProdAdjObj.ReadTable()
if not Success:
Messages.append(Message)
#Query the production adjustments and see if there is any well entries for the given LE
if len(ProdAdjsRows) > 0:
#Loop through the results of the above query.
for row in ProdAdjsRows:
#Query the Actuals dataframe for the well and the dates and then update the production value (as long as value is not null)
date = row.Date_Key.date()
ActualsRow = Actuals.query(
'CorpID == @row.CorpID and Date_Key == @date')
if not ActualsRow.empty:
idx = ActualsRow.index.values[0]
if row.AdjustedGasProduction:
Actuals.loc[idx, 'Gas'] = row.AdjustedGasProduction
if row.AdjustedOilProduction:
Actuals.loc[idx, 'Oil'] = row.AdjustedOilProduction
if row.AdjustedWaterProduction:
Actuals.loc[idx,
'Water'] = row.AdjustedWaterProduction
except Exception as ex:
Messages.append('Error during query for actuals data. ' + str(ex))
Success = False
return Actuals, Success, Messages
def RouteCBSelected(self):
from PyQt5.QtWidgets import QHBoxLayout, QComboBox
from Model import QueryFile, BPXDatabase
import ScreenUtilities as su
su.ClearCombobox(self.well_cb)
Route = self.route_cb.currentText()
Area = self.area_cb.currentText()
well_query = QueryFile.GetWells(Area, Route)
well_results = self.DBobj.Query(well_query)
self.well_cb.addItems(well_results[1]['WellName'])
def AreaCBSelected(self):
from PyQt5.QtWidgets import QHBoxLayout, QComboBox
from Model import QueryFile, BPXDatabase
import ScreenUtilities as su
su.ClearCombobox(self.route_cb)
su.ClearCombobox(self.well_cb)
Area = self.area_cb.currentText()
route_query = QueryFile.GetRoutes(Area)
route_results = self.DBobj.Query(route_query)
self.route_cb.addItems(route_results[1]['Route'])
def CreateAreaWellsFromRoute(new_route_name, db_route_name, Update_User):
from Model import ModelLayer as m
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
from datetime import datetime
import pandas as pd
Success = True
Messages = []
try:
ODSObj = bpx.GetDBEnvironment('ProdODS', 'OVERRIDE')
EDWObj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
query = qf.RouteQuery([db_route_name])
results = ODSObj.Query(query)
for idx, row in results[1].iterrows():
wellflac_query = qf.EDWKeyQueryFromWellFlac([row['wellflac']])
corpIDres = EDWObj.Query(wellflac_query)
if not corpIDres[1].empty:
corpID = corpIDres[1]['CorpID'].iloc[0]
AggregateRowObj = m.AreaAggregationRow(new_route_name,
row['name'], corpID, '')
Row_Success, Message = AggregateRowObj.Write(
Update_User, datetime.now())
if not Row_Success:
Messages.append(Message)
else:
Messages.append('Missing well entry in key database EDW: ' +
row['name'])
except Exception as ex:
Success = False
Messages.append(
'Error during Area Aggegation interface from Enbase. ' + str(ex))
return Success, Messages
def GetWellandCorpID(WellName, CorpID):
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
#Check CorpID if Wellname is passed
if not CorpID and WellName:
CorpID_query = qf.EDWKeyQueryFromWellName([WellName])
EDWObj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
res, res_df = EDWObj.Query(CorpID_query)
if not res_df.empty:
CorpID = res_df['CorpID'].values[0]
#Check WellName if CorpID not passed
if not WellName and CorpID:
WellName_Query = qf.EDWKeyQueryFromCorpID([CorpID], '')
EDWObj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
res, res_df = EDWObj.Query(WellName_Query)
if not res_df.empty:
WellName = res_df['WellName'].values[0]
return WellName, CorpID
def GetWedgeData(CorpID, SuppressMessages):
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
from datetime import datetime, timedelta
import pandas as pd
Messages = []
#Get Wedge from First Production Date
#If an area is passed in as an aggregate, the first production date will be the oldest first production date of its associated well list.
well_list = GetFullWellList([CorpID])
first_sales_date_query = qf.FirstProductionDateQuery(well_list)
first_results = bpx.GetDBEnvironment(
'ProdEDW', 'OVERRIDE').Query(first_sales_date_query)
msg = 'Skipped input due to lack of first production date.' + CorpID
Wedge = ''
if not first_results[1].empty:
#check current year and determine if the year of the first production is last year, this year, or base (anything prior to last year)
prod_date = first_results[1]['FirstProductionDate'].values[0]
prod_date = pd.to_datetime(prod_date)
if prod_date:
prod_year = prod_date.year
this_year = datetime.now().year
last_year = (datetime.now() - timedelta(days=365)).year
if prod_year == this_year:
Wedge = str(this_year) + ' NWD'
elif prod_year == last_year:
Wedge = str(last_year) + ' NWD'
else:
Wedge = 'Base'
else:
if not SuppressMessages:
print(msg)
Messages.append(msg)
else:
Messages.append(msg)
if not SuppressMessages:
print(msg)
return Wedge, Messages
def GetActuals(WellorArea, Wedge, start_date, end_date, LEName = '', Adjusted = False, Phase = 'Gas'):
from Model import ModelLayer as m
import pandas as pd
from Controller import SummaryModule as s
from Model import ImportUtility as i
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
Success = True
Messages = []
ActualProduction = []
try:
WellList = []
if WellorArea:
WellList = s.GetFullWellList(WellorArea)
if Wedge:
wedge_list, Success, Message = GetWellorAreaByWedge(Wedge)
if not Success:
Messages.append('Error finding wells associated with input Wedge. ')
else:
WellList.extend(wedge_list)
EDWobj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
corpid_query = qf.EDWKeyQueryFromWellName(WellList)
corpid_list = EDWobj.Query(corpid_query)
corpid_list = list(corpid_list[1]['CorpID'])
if LEName and Adjusted == True:
actuals_df, Success, Message = i.ImportActuals(corpid_list, pd.to_datetime(start_date), pd.to_datetime(end_date), LEName)
else:
actuals_df, Success, Message = i.ImportActuals(corpid_list, pd.to_datetime(start_date), pd.to_datetime(end_date), '')
if not Success:
Messages.append(Message)
else:
dates = actuals_df['Date_Key'].unique()
prod_array = []
date_array = []
if not actuals_df.empty:
if Phase == 'Gas':
for date in dates:
results = actuals_df.query('Date_Key == @date')
prod_array.append(results['Gas'].sum())
date_array.append(date)
ActualProduction = ProductionData(date_array, prod_array, Phase,'scf')
elif Phase == 'Water':
for date in dates:
results = actuals_df.query('Date_Key == @date')
prod_array.append(results['Water'].sum())
date_array.append(date)
ActualProduction = ProductionData(date_array, prod_array, Phase,'bbl')
elif Phase == 'Oil':
for date in dates:
results = actuals_df.query('Date_Key == @date')
prod_array.append(results['Oil'].sum())
date_array.append(date)
ActualProduction = ProductionData(date_array, prod_array, Phase,'bbl')
except Exception as ex:
Success = False
Messages.append('Error during import of Actual production data. ' + str(ex))
return ActualProduction, Success, Messages
def GetForecastProduction(ForecastName, Wedge, WellorArea, Phase = 'Gas'):
from datetime import datetime
from Model import ModelLayer as m
import pandas as pd
from Model import BPXDatabase as bpx
from Model import QueryFile as qf
#Get the production values from the LE table by the input criteria
Success = True
Messages = []
ProductionDataObj = []
try:
#Get all CorpIDs from Well or Area passed
well_list = []
corpid_list = []
if WellorArea:
well_list.append(WellorArea)
EDWobj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
corpid_query = qf.EDWKeyQueryFromWellName(well_list)
corpid_list = EDWobj.Query(corpid_query)
corpid_list = list(corpid_list[1]['CorpID'])
if Wedge:
wedge_list, Success, Message = GetWellorAreaByWedge(Wedge)
if not Success:
Messages.append(Message)
else:
well_list.extend(wedge_list)
ForecastDataRowObj = m.ForecastData('', [ForecastName], corpid_list, [])
ForecastData, Success, Message = ForecastDataRowObj.ReadTable()
if not Success:
Messages.append(Message)
else:
prod_Forecast_rows = pd.DataFrame([vars(s) for s in ForecastData])
dates = prod_Forecast_rows['Date_Key'].unique()
prod_array = []
date_array = []
if not prod_Forecast_rows.empty:
if Phase == 'Gas':
for date in dates:
results = prod_Forecast_rows.query('Date_Key == @date')
prod_array.append(results['Gas_Production'].sum())
date_array.append(date)
ProductionDataObj = ProductionData(date_array, prod_array, Phase,'scf')
elif Phase == 'Water':
for date in dates:
results = prod_Forecast_rows.query('Date_Key == @date')
prod_array.append(results['Water_Production'].sum())
date_array.append(date)
ProductionDataObj = ProductionData(date_array, prod_array, Phase,'bbl')
elif Phase == 'Oil':
for date in dates:
results = prod_Forecast_rows.query('Date_Key == @date')
prod_array.append(results['Oil_Production'].sum())
date_array.append(date)
ProductionDataObj = ProductionData(date_array, prod_array, Phase,'bbl')
except Exception as ex:
Success = False
Messages.append('Error during collection of production data. ' + str(ex))
return ProductionDataObj, Success, Messages
def FracHatMitigation(LEName, EastWestFracHitRadius, NorthSouthFracHitRadius,
Update_User):
from Model import ModelLayer as m
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
import pandas as pd
from datetime import datetime, timedelta
import numpy as np
Success = True
Messages = []
try:
#Find Frac Date of Upcoming Wells
#Get the beginning and end date of the LE being evaluated
LEDataObj = m.LEData('', [LEName], [], [])
LErows, Success, Message = LEDataObj.ReadTable()
if not Success:
Messages.append(Message)
elif len(LErows) < 1:
Messages.append('No LE Data exists for the given LE Name.')
else:
LErows_df = pd.DataFrame([vars(s) for s in LErows])
start_date = LErows_df['Date_Key'].min()
end_date = LErows_df['Date_Key'].max()
s_start_date = datetime.strftime(start_date, '%m/%d/%Y')
s_end_date = datetime.strftime(end_date, '%m/%d/%Y')
#Query the Drill Schedule (and potentially other data sources) for upcoming drills
new_drill_query = qf.GetActenumDrillScheduleData(
s_start_date, s_end_date)
DBObj = bpx.GetDBEnvironment('ProdEDH', 'OVERRIDE')
dso_results = DBObj.Query(new_drill_query)
if not Success:
Messages.append(Message)
else:
dso_df = dso_results[1]
for nd_idx, nd_row in dso_df.iterrows():
#Get Lateral and Longitude values
surface_lat = nd_row['SurfaceLatitude']
surface_long = nd_row['SurfaceLongitude']
if surface_long > 0:
surface_long = 0 - surface_long
bh_lat = nd_row['BottomHoleLatitude']
bh_long = nd_row['BottomHoleLongitude']
if bh_long > 0:
bh_long = 0 - bh_long
stages = nd_row['ExpectedStages']
name = nd_row['WellName']
frac_start = nd_row['StartFracDate']
frac_end = nd_row['EndFracDate']
#Get wells within certain distance
FracHitRadius = max(EastWestFracHitRadius,
NorthSouthFracHitRadius)
from_surface_query = qf.GetWellsWithinBearing(
surface_lat, surface_long, FracHitRadius)
from_bottom_query = qf.GetWellsWithinBearing(
bh_lat, bh_long, FracHitRadius)
surface_res = DBObj.Query(from_surface_query)
bh_res = DBObj.Query(from_bottom_query)
if not surface_res[1].empty:
all_res = surface_res[1]
if not bh_res[1].empty:
all_res = pd.merge(surface_res[1], bh_res[1])
elif not bh_res[1].empty:
all_res = bh_res[1]
else:
all_res = pd.DataFrame()
stages = int(stages)
#Get interpolated bearings
interpolated_bearings = InterpolateBearing(
[bh_lat, bh_long], [surface_lat, surface_long], stages
) #reversed since frac will begin at bottom hole location
interpolated_dates = InterpolateDates(
frac_start, frac_end, stages)
interp = np.column_stack(
[interpolated_bearings, interpolated_dates])
if all_res.empty:
Messages.append(
'No wells within given frac hit radius from ' +
name + ' to apply multipliers.')
#Loop through all the well results
for ex_idx, ex_row in all_res.iterrows():
corpid = ex_row['UWI']
wellname = ex_row['WELL_NAME']
dates = []
ex_surface_lat = float(ex_row['SurfaceLatitude'])
ex_surface_long = float(ex_row['SurfaceLongitude'])
if ex_surface_long > 0:
ex_surface_long = 0 - ex_surface_long
ex_bh_lat = float(ex_row['BottomHoleLatitude'])
ex_bh_long = float(ex_row['BottomHoleLongitude'])
if ex_bh_long > 0:
ex_bh_long = 0 - ex_bh_long
ex_interp_bearings = InterpolateBearing(
[ex_surface_lat, ex_surface_long],
[ex_bh_lat, ex_bh_long], stages)
# cycle through each item in the interpolated array and calculate distance to points in existing well
for point in interp:
for bearing in ex_interp_bearings:
distance = CalculateDistanceFromBearings(
[point[0], point[1]], bearing)
azimuth = CalculateAzimuthFromBearings(
[point[0], point[1]], bearing)
if (azimuth >= 25 and azimuth <= 155) or (
azimuth >= 205 and azimuth <= 335):
#Evaluate against EastWestFrac radius
if distance < EastWestFracHitRadius:
dates.append(point[2])
else:
if distance < NorthSouthFracHitRadius:
dates.append(point[2])
dates = list(dict.fromkeys(dates))
#Go through the dates and add the ramp up, ramp up schedule dates and multipliers
if len(dates) > 0:
ramp_up = [1, 1, 0.5]
ramp_down = [0.5, 0.75, 1]
min_date = min(dates)
max_date = max(dates)
ramp_down_dates = [(min_date - timedelta(days=3)),
(min_date - timedelta(days=2)),
(min_date - timedelta(days=1))]
ramp_up_dates = [(max_date + timedelta(days=3)),
(max_date + timedelta(days=2)),
(max_date + timedelta(days=1))]
shut_ins = [0] * len(dates)
all_multipliers = []
all_multipliers.extend(ramp_up)
all_multipliers.extend(shut_ins)
all_multipliers.extend(ramp_down)
all_dates = []
all_dates.extend(ramp_up_dates)
all_dates.extend(dates)
all_dates.extend(ramp_down_dates)
combined_date_multiplier = np.column_stack(
[all_dates, all_multipliers])
for date_multiplier in combined_date_multiplier:
#Search DB for frac hit multiplier row
date = datetime.strftime(
date_multiplier[0], '%m/%d/%Y')
fhm_obj = m.FracHitMultipliers(
'', [LEName], [corpid], [date])
fhm_rows, Success, Message = fhm_obj.ReadTable(
)
if Success and len(fhm_rows) > 0:
#if the row exists, then update
row = fhm_rows[0]
row.Multiplier = date_multiplier[1]
Success, Message = row.Update(
Update_User, datetime.now())
if not Success:
Messages.extend(Message)
elif Success and len(fhm_rows) == 0:
Messages.append('No entry exists for ' +
wellname + ' on ' + date +
' for LE ' + LEName + '. ')
else:
Messages.extend(Message)
except Exception as ex:
Success = False
Messages.append(
'Error during the automatic application of frac hit mitigation multipliers. '
+ str(ex))
return Success, Messages
def WriteLEFromTemplate(all_data_df,
InterpolationMethod,
LEName,
LE_Date,
Update_User,
IDCol='WellName'):
from datetime import datetime, date
import pandas as pd
from Model import QueryFile as qf
from Model import BPXDatabase as bpx
from Model import ImportUtility as i
Success = True
Messages = []
results = []
try:
#Data Frame must be the same structure as the output from the 'Read From Excel Function
#'CorpID', 'WellName', 'Wedge', 'Date', 'Gas', 'Oil', 'Water', 'OilNF', 'GasNF'
wellname = ''
if not Success:
Messages.append(Message)
if IDCol == 'CorpID':
corpid_list = list(all_data_df['CorpID'].unique())
corpid_query = qf.EDWKeyQueryFromCorpID(corpid_list)
corpid_results, corpid_df = bpx.GetDBEnvironment(
'ProdEDW', 'OVERRIDE').Query(corpid_query)
well_list = list(corpid_df['WellName'].unique())
well_query = 'CorpID == @corpid'
else:
well_list = list(all_data_df['WellName'].unique())
well_query = 'WellName == @wellname'
well_list = [i for i in well_list if i]
for wellname in well_list:
wellname, corpid = i.GetWellandCorpID(wellname, '')
if not corpid:
corpid = wellname
data_df = all_data_df.query(well_query)
row_count = 1
if not data_df.empty:
df_previous_row = (0, data_df.iloc[1])
for idx, df_row in data_df.iterrows():
if InterpolationMethod == 'MonthlyRates':
if row_count == 1:
df_next_row = data_df.iloc[row_count]
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row,
NextMonthVal=df_next_row,
GasProduction='Gas',
OilProduction='Oil')
elif row_count != data_df.shape[0] and row_count != 1:
df_next_row = data_df.iloc[row_count]
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row,
NextMonthVal=df_next_row,
PreviousMonthVal=df_previous_row,
GasProduction='Gas',
OilProduction='Oil')
elif row_count == data_df.shape[0]:
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row,
PreviousMonthVal=df_previous_row,
GasProduction='Gas',
OilProduction='Oil')
elif InterpolationMethod == 'MonthlyVolume':
if row_count == 1:
df_next_row = data_df.iloc[row_count]
results = InterpolateDailyRatesFromMonthlyVolumes(
CurrentMonthVal=df_row[1],
NextMonthVal=df_next_row)
else:
results = InterpolateDailyRatesFromMonthlyVolumes(
CurrentMonthVal=df_row[1],
PreviousMonthVal=df_previous_row[1])
elif InterpolationMethod == 'None':
results = ConvertNonInterpolatedResults(df_row)
Wedge, Message = i.GetWedgeData(corpid, True)
Success, Message = WriteInterpolatedLEToDB(
LEName, wellname, corpid, '', Wedge, LE_Date,
Update_User, results)
if not Success:
Messages.append(Message)
df_previous_row = df_row
row_count = row_count + 1
except Exception as ex:
Success = False
Messages.append('Error during the writing of the LE from template. ' +
str(ex))
return Success, Messages
def SOHA_WriteInternalForecasttoDB(df,
ForecastName,
ForecastYear,
Production_Column_Name,
User,
GFO=True):
#Part of to be deprecated methods to convert SoHa internal GFO data to standard
from Model import BPXDatabase as bpx
from Model import ModelLayer as m
import datetime as dt
from Model import QueryFile as qf
Success = True
Messages = []
try:
config = m.GetConfig()
DBObj = bpx.BPXDatabase(config['server'], config['database'],
config['UID'])
EDWObj = bpx.GetDBEnvironment('ProdEDW', 'OVERRIDE')
wellname_list = df['WellName'].unique()
wellname_list = list(wellname_list)
if '' in wellname_list:
wellname_list.remove('')
count = 1
for name in wellname_list:
monthly_df = df.query('WellName == @name')
monthly_df = monthly_df.sort_values(by=['Date'], ascending=True)
df_previous_row = (0, monthly_df.iloc[1])
nettingFactor = monthly_df['NettingFactor'].values[0]
well_count = 1
header_corpid = ''
for df_row in monthly_df.iterrows():
if well_count == 1:
df_next_row = monthly_df.iloc[well_count]
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row[1],
NextMonthVal=df_next_row,
GasRateField=Production_Column_Name)
elif well_count != monthly_df.shape[0] and well_count != 1:
df_next_row = monthly_df.iloc[well_count]
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row[1],
NextMonthVal=df_next_row,
PreviousMonthVal=df_previous_row[1],
GasRateField=Production_Column_Name)
elif well_count == monthly_df.shape[0]:
results = InterpolateDailyRatesFromMonthlyRates(
CurrentMonthVal=df_row[1],
PreviousMonthVal=df_previous_row[1],
GasRateField=Production_Column_Name)
for row in results.iterrows():
corpid_query = qf.EDWKeyQueryFromWellName([name])
corpid_results = EDWObj.Query(corpid_query)
if not corpid_results[1].empty:
CorpID = corpid_results[1].at[0, 'CorpID']
else:
CorpID = name
WellName = name
Update_Date = dt.datetime.now().strftime(
"%Y-%m-%d %H:%M:%S")
Update_User = User
if header_corpid != CorpID:
#Create Header entry
header_corpid = CorpID
ForecastHeaderObj = m.ForecastHeaderRow(
WellName, CorpID, ForecastName, ForecastYear, '',
[], GFO, DBObj)
Success, Message = ForecastHeaderObj.Write(
Update_User, Update_Date)
if not Success:
Messages.append(Message)
Date_Key = row[1]['Date'].strftime('%m/%d/%Y')
Gas_Production = row[1]['GasProduction']
GasNF = row[1]['GasNF']
if Gas_Production >= 0 and Date_Key:
ForecastDataObj = m.ForecastDataRow(
ForecastName, CorpID, Date_Key, Gas_Production, 0,
0, GasNF, 0, 0, DBObj)
Success, Message = ForecastDataObj.Write(
Update_User, Update_Date)
if not Success:
Messages.append(Message)
df_previous_row = df_row
well_count = well_count + 1
callprogressbar(count, len(wellname_list))
count = count + 1
except Exception as ex:
Success = False
Messages.append('Error writing Forecast to Database. ' + str(ex))
return Success, Messages