Delay HSR service from original implementation

model-files/SetUpModel_PBA50.bat

@@ -85,7 +85,7 @@ c:\windows\system32\Robocopy.exe /E "%INPUT_POPLU%\popsyn"
 c:\windows\system32\Robocopy.exe /E "%INPUT_POPLU%\landuse"                                      INPUT\landuse
 
 :: nonres
-c:\windows\system32\Robocopy.exe /E "%INPUT_DEVELOPMENT_DIR%\nonres\nonres_00"                   INPUT\nonres
+c:\windows\system32\Robocopy.exe /E "%INPUT_DEVELOPMENT_DIR%\nonres\nonres_01"                   INPUT\nonres
 
 :: logsums and metrics
 c:\windows\system32\Robocopy.exe /E "%INPUT_DEVELOPMENT_DIR%\logsums_dummies"                    INPUT\logsums

model-files/scripts/preprocess/HsrTripGeneration.job

@@ -5,11 +5,11 @@
 ; TP+ script to determine trips to and from Bay Area high speed rail stations based on output from the California
 ; High Speed Rail model.
 ;
-; Starting with input trip tables for 2025 (opening year for the Gilroy and San Jose stations), 2029 (opening
-; year for Millbrae and San Francisco stations), and 2040 (future modeled year), the script will assume zero
+; Starting with input trip tables for 2035 (opening year for the Gilroy and San Jose stations), 2039 (opening
+; year for Millbrae and San Francisco stations), and 2050 (future modeled year), the script will assume zero
 ; trips before the opening year for the relevant station and interpolate the number of trips afterwards.
 ;
-; Input:   Trip tables representing trips to/from the four Bay Area HSR stations in 2025, 2029, and 2040, with the
+; Input:   Trip tables representing trips to/from the four Bay Area HSR stations in 2035, 2039, and 2050, with the
 ;          following four tables: (a) da. for drive alone, (b) sr2, for shared ride 2, (c) transit, and (d) walk.
 ;
 ;          Additionally, the model year will be specified in the environment variable, MODEL_YEAR.
@@ -45,13 +45,13 @@ loop tpnum=1,5
   DistributeMultistep processid = 'ctramp', processNum = tpnum, commpath = '%COMMPATH%'
 
   RUN PGM=MATRIX
-    filei mati[1] = 'INPUT\nonres\tripsHsr@time_period@_2025.tpp'
-    filei mati[2] = 'INPUT\nonres\tripsHsr@time_period@_2029.tpp'
-    filei mati[3] = 'INPUT\nonres\tripsHsr@time_period@_2040.tpp'
+    filei mati[1] = 'INPUT\nonres\tripsHsr@time_period@_2035.tpp'
+    filei mati[2] = 'INPUT\nonres\tripsHsr@time_period@_2039.tpp'
+    filei mati[3] = 'INPUT\nonres\tripsHsr@time_period@_2050.tpp'
 
     fileo mato[1] = 'nonres\tripsHsr@time_period@_intermediate.tpp', mo=1-8, name=m_da, m_sr2, m_transit, m_walk, b_da, b_sr2, b_transit, b_walk
 
-    if (@model_year@ < 2025)
+    if (@model_year@ < 2035)
       ; nothing open
       MW[1] = 0
       MW[2] = 0
@@ -62,32 +62,32 @@ loop tpnum=1,5
       MW[6] = 0
       MW[7] = 0
       MW[8] = 0
-    elseif (@model_year@ < 2029)
+    elseif (@model_year@ < 2039)
       ;        change in trips    change in years
-      MW[1] = 100.0*(MI.2.da      - MI.1.da     )/(2029 - 2025)
-      MW[2] = 100.0*(MI.2.sr2     - MI.1.sr2    )/(2029 - 2025)
-      MW[3] = 100.0*(MI.2.transit - MI.1.transit)/(2029 - 2025)
-      MW[4] = 100.0*(MI.2.walk    - MI.1.walk   )/(2029 - 2025)
+      MW[1] = 100.0*(MI.2.da      - MI.1.da     )/(2039 - 2035)
+      MW[2] = 100.0*(MI.2.sr2     - MI.1.sr2    )/(2039 - 2035)
+      MW[3] = 100.0*(MI.2.transit - MI.1.transit)/(2039 - 2035)
+      MW[4] = 100.0*(MI.2.walk    - MI.1.walk   )/(2039 - 2035)
 
       ;              trips       -  m x year
-      MW[5] = 100.0*(MI.1.da      - (MW[1]*0.01*2025))
-      MW[6] = 100.0*(MI.1.sr2     - (MW[2]*0.01*2025))
-      MW[7] = 100.0*(MI.1.transit - (MW[3]*0.01*2025))
-      MW[8] = 100.0*(MI.1.walk    - (MW[4]*0.01*2025))
+      MW[5] = 100.0*(MI.1.da      - (MW[1]*0.01*2035))
+      MW[6] = 100.0*(MI.1.sr2     - (MW[2]*0.01*2035))
+      MW[7] = 100.0*(MI.1.transit - (MW[3]*0.01*2035))
+      MW[8] = 100.0*(MI.1.walk    - (MW[4]*0.01*2035))
 
     else
       ; (times 100 is to keep more precision)
       ; 100 x slope:     change in trips          change in years
-      MW[1] = 100.0*(MI.3.da      - MI.2.da     )/(2040 - 2029)
-      MW[2] = 100.0*(MI.3.sr2     - MI.2.sr2    )/(2040 - 2029)
-      MW[3] = 100.0*(MI.3.transit - MI.2.transit)/(2040 - 2029)
-      MW[4] = 100.0*(MI.3.walk    - MI.2.walk   )/(2040 - 2029)
+      MW[1] = 100.0*(MI.3.da      - MI.2.da     )/(2050 - 2039)
+      MW[2] = 100.0*(MI.3.sr2     - MI.2.sr2    )/(2050 - 2039)
+      MW[3] = 100.0*(MI.3.transit - MI.2.transit)/(2050 - 2039)
+      MW[4] = 100.0*(MI.3.walk    - MI.2.walk   )/(2050 - 2039)
 
       ; 100 x y-intercept:  trips -       slope x year
-      MW[5] = 100.0*(MI.2.da      - (MW[1]*0.01*2029))
-      MW[6] = 100.0*(MI.2.sr2     - (MW[2]*0.01*2029))
-      MW[7] = 100.0*(MI.2.transit - (MW[3]*0.01*2029))
-      MW[8] = 100.0*(MI.2.walk    - (MW[4]*0.01*2029))
+      MW[5] = 100.0*(MI.2.da      - (MW[1]*0.01*2039))
+      MW[6] = 100.0*(MI.2.sr2     - (MW[2]*0.01*2039))
+      MW[7] = 100.0*(MI.2.transit - (MW[3]*0.01*2039))
+      MW[8] = 100.0*(MI.2.walk    - (MW[4]*0.01*2039))
     endif
   ENDRUN