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source_code/version_2.3_windows/script1.rc 0 → 100644
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// Generated by ResEdit 1.5.9
// Copyright (C) 2006-2011
// http://www.resedit.net
#include <windows.h>
#include <commctrl.h>
#include <richedit.h>
#include "4C_dialogs.h"
//
// Bitmap resources
//
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDB_BITMAP1 BITMAP "4c_logo_klein.bmp"
//
// Dialog resources
//
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_coh_daily DIALOG 100, 0, 540, 213
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_DAILYCOH_BUTTON_OK, 380, 190, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_OUTF, 439, 190, 50, 14
GROUPBOX "", IDC_STATIC_year, 10, 10, 510, 170
AUTOCHECKBOX "", IDC_CHECK_y1, 26, 30, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y2, 26, 45, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y3, 26, 60, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y4, 26, 75, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y5, 25, 90, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y6, 26, 105, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y7, 26, 120, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y8, 26, 135, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y9, 26, 150, 271, 8
AUTOCHECKBOX "", IDC_CHECK_y10, 26, 165, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y11, 295, 30, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y12, 295, 45, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y13, 295, 60, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y14, 295, 75, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y15, 295, 90, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y16, 295, 105, 217, 8
LTEXT " Choose daily cohort output files ", IDC_STATIC_yfile, 25, 10, 107, 8, SS_LEFT
AUTOCHECKBOX "", IDC_CHECK_y17, 295, 120, 217, 8
AUTOCHECKBOX "", IDC_CHECK_y18, 295, 135, 217, 8
PUSHBUTTON "Select all", ID_DAILYCOH_BUTTON_SELECT, 321, 190, 50, 14
PUSHBUTTON "Deselect all", ID_DAILYCOH_BUTTON_DESELECT, 262, 190, 50, 14
AUTOCHECKBOX "", IDC_CHECK_y19, 295, 150, 217, 8
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_coh_yearly DIALOG 0, 0, 718, 318
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_YEARLYCOH_BUTTON_OK, 559, 290, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_OUTF, 625, 290, 50, 14
GROUPBOX "", IDC_STATIC_year, 15, 10, 683, 275
AUTOCHECKBOX "", IDC_CHECK_y1, 21, 30, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y2, 20, 45, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y3, 21, 60, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y4, 21, 75, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y5, 21, 90, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y6, 21, 105, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y7, 21, 120, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y8, 21, 135, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y9, 21, 150, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y10, 21, 165, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y11, 21, 180, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y12, 21, 195, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y13, 21, 210, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y14, 21, 225, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y15, 21, 240, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y16, 21, 255, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y17, 21, 270, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y18, 244, 30, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y19, 244, 45, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y20, 244, 60, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y21, 244, 75, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y22, 244, 90, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y23, 244, 105, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y24, 244, 120, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y25, 244, 135, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y26, 244, 150, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y27, 244, 165, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y28, 244, 180, 222, 8
LTEXT " Choose yearly cohort output files ", IDC_STATIC_yfile, 30, 10, 111, 8, SS_LEFT
AUTOCHECKBOX "", IDC_CHECK_y29, 244, 195, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y30, 244, 210, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y31, 244, 225, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y32, 244, 240, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y33, 244, 255, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y34, 244, 270, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y35, 465, 30, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y36, 465, 45, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y37, 465, 60, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y38, 465, 75, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y39, 465, 90, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y40, 465, 105, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y41, 465, 120, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y42, 465, 135, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y43, 465, 150, 222, 8
PUSHBUTTON "Select all", ID_YEARLYCOH_BUTTON_SELECT, 493, 290, 50, 14
PUSHBUTTON "Deselect all", ID_YEARLYCOH_BUTTON_DESELECT, 427, 290, 50, 14
AUTOCHECKBOX "", IDC_CHECK_y44, 465, 165, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y45, 465, 178, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y46, 465, 193, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y47, 465, 210, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y48, 465, 225, 222, 8
AUTOCHECKBOX "", IDC_CHECK_y49, 465, 240, 222, 13
AUTOCHECKBOX "", IDC_CHECK_y50, 465, 255, 222, 13
AUTOCHECKBOX "", IDC_CHECK_y51, 465, 270, 222, 13
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_ctr DIALOG 100, 0, 280, 349
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_CTR_BUTTON_OK, 147, 319, 50, 14
PUSHBUTTON "Cancel", IDCANCEL, 207, 319, 50, 14
LTEXT "Edit simulation control file", IDC_STATIC_simul, 15, 14, 91, 11, SS_LEFT
GROUPBOX "Run option control", IDC_STATIC_runo, 15, 30, 241, 173
LTEXT "Run option", IDC_STATIC_runv, 23, 47, 36, 8, SS_LEFT
LTEXT "Number of runs", IDC_STATIC_runnr, 23, 68, 49, 8, SS_LEFT
COMBOBOX IDC_COMBO_runv, 69, 47, 175, 98, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
EDITTEXT IDC_EDIT_runnr, 162, 67, 40, 12, ES_AUTOHSCROLL
LTEXT "Number of simulation years", IDC_STATIC_yearn, 23, 89, 85, 8, SS_LEFT
LTEXT "Start year", IDC_STATIC_start, 23, 111, 31, 8, SS_LEFT
EDITTEXT IDC_EDIT_yearn, 162, 89, 40, 14, ES_AUTOHSCROLL
EDITTEXT IDC_EDIT_start, 162, 111, 40, 14, ES_AUTOHSCROLL
LTEXT "Patch size [m]", IDC_STATIC_patch, 23, 134, 47, 8, SS_LEFT
EDITTEXT IDC_EDIT_patch, 162, 134, 40, 14, ES_AUTOHSCROLL
LTEXT "Thickness of foliage layers [cm]", IDC_STATIC_thickf, 23, 158, 100, 8, SS_LEFT
LTEXT "Time step photosynthesis calculations [d]", IDC_STATIC_timeph, 23, 184, 130, 8, SS_LEFT
EDITTEXT IDC_EDIT_thickf, 162, 157, 40, 14, ES_AUTOHSCROLL
EDITTEXT IDC_EDIT_timeph, 162, 180, 40, 14, ES_AUTOHSCROLL
GROUPBOX "Run flags control", IDC_STATIC_runo3, 15, 214, 240, 93
COMBOBOX IDC_COMBO_runv3, 65, 235, 101, 98, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "Run number", IDC_STATIC_runv3, 23, 238, 40, 8, SS_LEFT
DEFPUSHBUTTON "Set Flags", ID_CTR_BUTTON_FLAGS, 177, 281, 65, 14
DEFPUSHBUTTON "Set Files", ID_CTR_BUTTON_FILES, 177, 258, 65, 14
DEFPUSHBUTTON "Apply", ID_CTR_BUTTON_RUNNR, 213, 66, 30, 14
DEFPUSHBUTTON "Change Output Id", ID_CTR_BUTTON_IDS, 178, 235, 64, 14
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_daily DIALOG 0, 0, 568, 221
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_DAILY_BUTTON_OK, 408, 195, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_OUTF, 471, 195, 50, 14
GROUPBOX "", IDC_STATIC_day, 11, 14, 534, 171
AUTOCHECKBOX "", IDC_CHECK_y1, 37, 30, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y2, 37, 45, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y3, 37, 60, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y4, 37, 75, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y5, 37, 90, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y6, 37, 105, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y7, 37, 120, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y8, 37, 135, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y9, 37, 150, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y10, 37, 165, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y11, 284, 30, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y12, 284, 45, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y13, 284, 60, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y14, 284, 75, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y15, 284, 90, 240, 8
LTEXT " Choose daily output files ", IDC_STATIC_yfile, 22, 15, 85, 8, SS_LEFT
AUTOCHECKBOX "", IDC_CHECK_y16, 284, 105, 240, 8
PUSHBUTTON "Select all", ID_DAILY_BUTTON_SELECT, 345, 195, 50, 14
PUSHBUTTON "Deselect all", ID_DAILY_BUTTON_DESELECT, 282, 195, 50, 14
AUTOCHECKBOX "", IDC_CHECK_y17, 284, 120, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y18, 284, 135, 240, 8
AUTOCHECKBOX "", IDC_CHECK_y19, 284, 150, 240, 8
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_default_dir DIALOG 10, 100, 320, 99
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_DEFAULT_DIR_BUTTON_OK, 138, 79, 50, 14
LTEXT "Default input and output directories", IDC_STATIC_4C, 15, 4, 216, 9, SS_LEFT
LTEXT "Input directory", IDC_STATIC_dirin, 16, 31, 51, 8, SS_LEFT
EDITTEXT IDC_EDIT_DIR_IN, 81, 27, 210, 12, ES_AUTOHSCROLL | ES_MULTILINE
LTEXT "Output directory", IDC_STATIC_dirout, 16, 56, 51, 8, SS_LEFT
EDITTEXT IDC_EDIT_DIR_OUT, 81, 52, 210, 12, ES_AUTOHSCROLL | ES_MULTILINE
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_files DIALOG 100, 0, 310, 330
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_FILES_BUTTON_OK, 189, 307, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_FILES, 251, 307, 50, 14
GROUPBOX "Model input files", IDC_STATIC_files, 7, 10, 295, 209
LTEXT "Species parameter file", IDC_STATIC_specpar, 16, 51, 70, 8, SS_LEFT
EDITTEXT IDC_EDIT_specpar, 109, 53, 146, 12, ES_AUTOHSCROLL | ES_MULTILINE
PUSHBUTTON "Browse", IDC_BUTTON_specpar, 259, 54, 35, 12, WS_GROUP
LTEXT "Soil parameter file", IDC_STATIC_sop, 16, 69, 56, 8, SS_LEFT
LTEXT "Soil initialisation file", IDC_STATIC_soi, 16, 87, 60, 8, SS_LEFT
EDITTEXT IDC_EDIT_sop, 109, 70, 146, 12, ES_AUTOHSCROLL
EDITTEXT IDC_EDIT_soi, 109, 87, 146, 12, ES_AUTOHSCROLL
LTEXT "Stand initialisation file", IDC_STATIC_ini, 13, 238, 68, 8, SS_LEFT
EDITTEXT IDC_EDIT_ini, 107, 235, 145, 14, ES_AUTOHSCROLL
GROUPBOX "", IDC_STATIC_ini1, 7, 222, 295, 73
LTEXT "Stand identifier", IDC_STATIC_standid, 15, 256, 48, 8, SS_LEFT
PUSHBUTTON "Browse", IDC_BUTTON_ini, 259, 235, 35, 12, WS_GROUP
LTEXT "Management file", IDC_STATIC_man, 16, 107, 53, 8, SS_LEFT
EDITTEXT IDC_EDIT_man, 109, 104, 146, 12, ES_AUTOHSCROLL
LTEXT "Deposition data file", IDC_STATIC_dep, 16, 123, 61, 8, SS_LEFT
EDITTEXT IDC_EDIT_dep, 109, 121, 146, 12, ES_AUTOHSCROLL
LTEXT " N-reduction ( RedN) file", IDC_STATIC_red, 16, 141, 77, 8, SS_LEFT
LTEXT "Litter intilisation file", IDC_STATIC_lit, 16, 158, 59, 8, SS_LEFT
EDITTEXT IDC_EDIT_red, 109, 139, 146, 12, ES_AUTOHSCROLL
EDITTEXT IDC_EDIT_lit, 109, 155, 146, 12, ES_AUTOHSCROLL
PUSHBUTTON "Browse", IDC_BUTTON_sop, 259, 71, 35, 12, WS_GROUP
PUSHBUTTON "Browse", IDC_BUTTON_soi, 259, 88, 35, 12, WS_GROUP
PUSHBUTTON "Browse", IDC_BUTTON_man, 259, 105, 35, 12, WS_GROUP
PUSHBUTTON "Browse", IDC_BUTTON_dep, 259, 123, 35, 12, WS_GROUP
PUSHBUTTON "Browse", IDC_BUTTON_red, 259, 139, 35, 12, WS_GROUP
PUSHBUTTON "Browse", IDC_BUTTON_lit, 259, 156, 35, 12, WS_GROUP
LTEXT "Climate data file", IDC_STATIC_cli, 17, 32, 70, 8, SS_LEFT
EDITTEXT IDC_EDIT_cli, 110, 34, 146, 12, ES_AUTOHSCROLL | ES_MULTILINE
PUSHBUTTON "Browse", IDC_BUTTON_cli, 260, 35, 35, 12, WS_GROUP
COMBOBOX IDC_COMBO_standid, 106, 254, 85, 77, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "WPM spinup intilisation file", IDC_STATIC_spinup, 15, 177, 84, 8, SS_LEFT
EDITTEXT IDC_EDIT_wpm, 109, 174, 146, 12, ES_AUTOHSCROLL
PUSHBUTTON "Browse", IDC_BUTTON_wpm, 259, 175, 35, 12, WS_GROUP
EDITTEXT IDC_EDIT_standid, 106, 273, 76, 14, ES_AUTOHSCROLL
LTEXT "Measurement file", IDC_STATIC_mes, 16, 194, 54, 8, SS_LEFT
EDITTEXT IDC_EDIT_mes, 110, 191, 146, 12, ES_AUTOHSCROLL
PUSHBUTTON "Browse", IDC_BUTTON_mes, 260, 191, 35, 12, WS_GROUP
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_flags DIALOGEX 100, 0, 580, 297
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
EXSTYLE WS_EX_TOOLWINDOW
CAPTION "4C"
FONT 8, "MS Sans Serif", 0, 0, 1
{
DEFPUSHBUTTON "OK", ID_FLAGS_BUTTON_OK, 443, 263, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_FLAGS, 509, 262, 50, 14
LTEXT "Mortality flag (flag_mort) ", IDC_STATIC_mort, 18, 33, 77, 8, SS_LEFT
LTEXT "Regeneration flag (flag_reg) ", IDC_STATIC_reg, 18, 50, 90, 8, SS_LEFT
LTEXT "Use FORSKA factors (flag_forska)", IDC_STATIC_forska, 18, 67, 113, 13, WS_TABSTOP | NOT WS_GROUP | SS_LEFT
LTEXT "Stand initialization flag (flag_stand)", IDC_STATIC_stand, 18, 84, 109, 8, WS_TABSTOP | NOT WS_GROUP | SS_LEFT
LTEXT "Soil vegetation flag (flag_sveg)", IDC_STATIC_sveg, 18, 101, 98, 8, SS_LEFT
LTEXT "Management flag (flag_mg)", IDC_STATIC_mg, 18, 118, 86, 8, SS_LEFT
LTEXT "Disturbance flag (flag_dis)", IDC_STATIC_dis, 18, 135, 82, 8, SS_LEFT
LTEXT "Ligth algorithm number (flag_light)", IDC_STATIC_light, 18, 152, 106, 8, SS_LEFT
LTEXT "Foliage-height relationship (flag_folhei)", IDC_STATIC_folhei, 18, 169, 120, 8, SS_LEFT
COMBOBOX IDC_COMBO_mort, 143, 33, 133, 42, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_reg, 143, 50, 133, 116, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL
COMBOBOX IDC_COMBO_forska, 143, 67, 133, 25, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "Volume function (flag_volfunc)", IDC_STATIC_volfunc, 18, 186, 96, 8, SS_LEFT
LTEXT "Respiration flag (flag_resp)", IDC_STATIC_resp, 18, 203, 84, 8, SS_LEFT
LTEXT "Limitation flag (flag_limi)", IDC_STATIC_limi, 18, 220, 74, 8, SS_LEFT
COMBOBOX IDC_COMBO_stand, 143, 84, 133, 54, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_sveg, 143, 101, 133, 48, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_mg, 143, 118, 133, 78, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_dis, 143, 135, 133, 32, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_light, 143, 152, 133, 55, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_folhei, 143, 169, 133, 53, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_volfunc, 143, 186, 133, 63, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "Decomposition model (flag_decomp) ", IDC_STATIC_decomp, 308, 33, 117, 8, SS_LEFT
LTEXT "Root activity function flag (flag_sign)", IDC_STATIC_sign, 308, 50, 115, 8, SS_LEFT
LTEXT "Soil water uptake flag (flag_wred)", IDC_STATIC_wred, 308, 67, 106, 8, SS_LEFT
LTEXT "Root distribution flag (flag_wurz)", IDC_STATIC_wurz, 308, 84, 101, 8, SS_LEFT
LTEXT "Heat conductance flag (flag_cond)", IDC_STATIC_cond, 308, 101, 111, 8, SS_LEFT
COMBOBOX IDC_COMBO_resp, 143, 203, 133, 64, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_limi, 143, 220, 133, 65, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_decomp, 431, 33, 133, 54, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_sign, 431, 50, 133, 67, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_wred, 431, 67, 133, 61, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_wurz, 431, 84, 133, 64, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_cond, 431, 101, 133, 78, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_int, 431, 118, 133, 75, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_eva, 431, 135, 133, 78, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "Interception flag (flag_int)", IDC_STATIC_int, 308, 118, 80, 8, SS_LEFT
LTEXT "Evapotranspiration flag (flag_eva)", IDC_STATIC_eva, 308, 135, 106, 8, SS_LEFT
LTEXT "Assortment flag (flag_sort)", IDC_STATIC_sort, 308, 169, 82, 8, SS_LEFT
COMBOBOX IDC_COMBO_CO2, 431, 152, 133, 51, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_sort, 431, 169, 133, 48, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
GROUPBOX "Model specification", IDC_STATIC_model, 0, 15, 564, 239
LTEXT "wpm flag (flag_wpm)", IDC_STATIC_wpm, 307, 186, 65, 8, SS_LEFT
COMBOBOX IDC_COMBO_wpm, 431, 186, 133, 64, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "Statistical analysis flag (flag_stat)", IDC_STATIC_stat, 307, 203, 104, 8, SS_LEFT
COMBOBOX IDC_COMBO_stat, 431, 203, 133, 48, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
LTEXT "CO2 flag (flag_CO2)", IDC_STATIC_CO2, 308, 152, 64, 8, SS_LEFT
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_ids DIALOG 100, 0, 130, 78
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_IDS_BUTTON_OK, 10, 55, 50, 14
GROUPBOX "Output File Identifiers", IDC_STATIC_model, 6, 14, 111, 35
EDITTEXT IDC_EDIT_ID, 14, 29, 95, 14, ES_AUTOHSCROLL
PUSHBUTTON "Cancel", ID_CANCEL_IDS, 67, 55, 50, 14
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_main DIALOGEX 300, 50, 245, 268
STYLE DS_3DLOOK | DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_VISIBLE | WS_POPUP | WS_SYSMENU
EXSTYLE WS_EX_CLIENTEDGE | WS_EX_STATICEDGE
CAPTION "4C"
FONT 8, "MS Sans Serif", 0, 0, 1
{
GROUPBOX "", IDC_STATIC_year, 5, 6, 233, 258, 0, WS_EX_STATICEDGE
CTEXT "Forest Growth Model 4C PIK 2016", IDC_STATIC_4C, 25, 53, 82, 23, SS_CENTER
DEFPUSHBUTTON "Start 4C", ID_START_4C, 103, 233, 56, 14
PUSHBUTTON "Exit 4C", IDSTOP, 174, 233, 50, 14
GROUPBOX "Simulation Control", IDC_STATIC_Control, 20, 126, 207, 68
AUTORADIOBUTTON "Start simulation", IDC_RADIO_start, 35, 148, 121, 10
AUTORADIOBUTTON "Edit control file", IDC_RADIO_edit, 35, 166, 62, 10
CONTROL "", IDC_REBAR1, REBARCLASSNAME, WS_TABSTOP | 0x00000401, 4294967294, 4294967295, 249, 4, WS_EX_DLGMODALFRAME | WS_EX_ACCEPTFILES | WS_EX_STATICEDGE
CONTROL IDB_BITMAP1, IDC_STATIC_pic, WC_STATIC, SS_BITMAP, 123, 14, 100, 104
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_out DIALOG 100, 0, 293, 212
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "Start simulation", ID_START, 89, 182, 56, 14
PUSHBUTTON "Exit 4C", IDCANCEL, 226, 182, 50, 14
LTEXT "Choice of output files", IDC_STATIC, 15, 18, 67, 8, SS_LEFT
PUSHBUTTON "Yearly output", IDC_BUTTON_yearly, 207, 37, 50, 14
PUSHBUTTON "Daily output", IDC_BUTTON_daily, 207, 60, 50, 14
PUSHBUTTON "Cohorts yearly", IDC_BUTTON_coh_yearly, 207, 84, 50, 14
PUSHBUTTON "Cohorts daily", IDC_BUTTON_coh_daily, 207, 108, 50, 14
GROUPBOX "", IDC_STATIC_choice_out, 8, 7, 268, 164
LTEXT "Summation output", IDC_STATIC_SUM, 19, 145, 58, 8, SS_LEFT
COMBOBOX IDC_COMBO_sum, 88, 142, 165, 74, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_SORT
DEFPUSHBUTTON "Back", ID_OUT_BUTTON_BACK, 161, 182, 50, 14
DEFPUSHBUTTON "Save changes", ID_SAVE, 17, 182, 56, 14
COMBOBOX IDC_COMBO_yearly, 14, 37, 181, 77, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_daily, 13, 60, 181, 77, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_coh_yearly, 13, 85, 181, 77, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
COMBOBOX IDC_COMBO_coh_daily, 13, 109, 181, 77, WS_TABSTOP | WS_VSCROLL | CBS_DROPDOWN | CBS_AUTOHSCROLL | CBS_SORT
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_4C_yearly DIALOG 100, 0, 606, 352
STYLE DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_POPUP | WS_SYSMENU
CAPTION "4C"
FONT 8, "MS Sans Serif"
{
DEFPUSHBUTTON "OK", ID_YEARLY_BUTTON_OK, 455, 327, 50, 14
PUSHBUTTON "Cancel", ID_CANCEL_OUTF, 519, 327, 50, 14
GROUPBOX "", IDC_STATIC_year, 7, 15, 573, 302
AUTOCHECKBOX "", IDC_CHECK_y1, 21, 30, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y2, 21, 45, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y3, 21, 60, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y4, 21, 75, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y5, 21, 90, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y6, 21, 105, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y7, 21, 120, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y8, 21, 135, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y9, 21, 150, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y10, 21, 165, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y11, 21, 180, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y12, 21, 195, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y13, 21, 210, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y14, 21, 225, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y15, 21, 240, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y16, 21, 255, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y17, 21, 270, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y18, 21, 285, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y19, 21, 300, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y20, 294, 30, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y21, 294, 45, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y22, 294, 60, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y23, 294, 75, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y24, 294, 90, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y25, 294, 105, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y26, 294, 120, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y27, 294, 135, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y28, 294, 150, 270, 8
LTEXT " Choose yearly output files ", IDC_STATIC_yfile, 21, 14, 89, 8, SS_LEFT
AUTOCHECKBOX "", IDC_CHECK_y29, 294, 165, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y30, 294, 180, 270, 8
PUSHBUTTON "Select all", ID_YEARLY_BUTTON_SELECT, 391, 327, 50, 14
PUSHBUTTON "Deselect all", ID_YEARLY_BUTTON_DESELECT, 327, 327, 50, 14
AUTOCHECKBOX "", IDC_CHECK_y31, 294, 195, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y32, 294, 210, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y33, 294, 225, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y34, 294, 240, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y35, 294, 255, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y36, 294, 270, 270, 8
AUTOCHECKBOX "", IDC_CHECK_y37, 294, 285, 270, 8
}
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
IDD_DIALOG1 DIALOG 0, 0, 186, 95
STYLE DS_3DLOOK | DS_CENTER | DS_MODALFRAME | DS_SETFONT | WS_CAPTION | WS_VISIBLE | WS_POPUP | WS_SYSMENU
CAPTION "Dialog"
FONT 8, "Microsoft Sans Serif"
{
DEFPUSHBUTTON "OK", IDOK, 129, 7, 50, 14
PUSHBUTTON "Cancel", IDCANCEL, 129, 24, 50, 14
}
//
// Version Information resources
//
LANGUAGE LANG_GERMAN, SUBLANG_GERMAN
VS_VERSION_INFO VERSIONINFO
FILEVERSION 1,0,0,0
PRODUCTVERSION 0,0,0,0
FILEOS VOS_NT_WINDOWS32
FILETYPE VFT_APP
FILESUBTYPE VFT2_UNKNOWN
FILEFLAGSMASK 0x0000003F
FILEFLAGS 0x00000000
{
BLOCK "StringFileInfo"
{
BLOCK "080904B0"
{
VALUE "Comments", "\0"
VALUE "CompanyName", "Potsdam-Institut fr Klimafolgenforschung\0"
VALUE "FileDescription", "FORESEE - Forest Ecosystems in a changing Environment\0"
VALUE "FileVersion", "0.99e\0"
VALUE "InternalName", "4C\0"
VALUE "LegalCopyright", "Copyright 2004\0"
VALUE "LegalTrademarks", "\0"
VALUE "OriginalFilename", "4C.exe\0"
VALUE "PrivateBuild", "\0"
VALUE "ProductName", "4C - PIK\0"
VALUE "ProductVersion", "0.99e\0"
VALUE "SpecialBuild", "\0"
}
}
BLOCK "VarFileInfo"
{
VALUE "Translation", 0x0809, 0x04B0
}
}
source_code/version_2.3_windows/seed_multi.f 0 → 100644
View file @ 82df1085
!*****************************************************************!
!* *!
!* 4C (FORESEE) Simulation Model *!
!* *!
!* *!
!* SR SEED_multi *!
!* *!
!* including SR/Function *!
!* function rtflsp (regula falsi solving equation) *!
!* function weight *!
!* function weight1 *!
!* *!
!* generation of a variety of seedling cohorts for *!
!* one seed number according to seedmass distribution *!
!* (for given mean value and standard deviation) *!
!* *!
!* Copyright (C) 1996-2018 *!
!* Potsdam Institute for Climate Impact Reserach (PIK) *!
!* Authors and contributors see AUTHOR file *!
!* This file is part of 4C and is licensed under BSD-2-Clause *!
!* See LICENSE file or under: *!
!* http://www.https://opensource.org/licenses/BSD-2-Clause *!
!* Contact: *!
!* https://gitlab.pik-potsdam.de/foresee/4C *!
!* *!
!*****************************************************************!
SUBROUTINE seed_multi(nseed,nsp)
USE data_species
use data_stand
use data_help
use data_par
use data_soil
use data_simul
IMPLICIT NONE
integer :: nseed, nseedha, nsclass , k, j, nr
integer,dimension(:),allocatable :: nsc
real, dimension(:), allocatable :: msc, &
shooth, &
nschelp
integer :: nsp
REAL :: shoot
REAL :: ms, msclass, x1,x2,xacc,shelp, nshelp,ntot,help
REAL :: troot2
real :: standdev
real :: rtflsp, weight
TYPE(cohort) ::tree_ini
external weight
external rtflsp
if(nseed.eq.0) return
standdev = spar(nsp)%seedsd*1000.
hnspec = nsp
ms = spar(nsp)%seedmass *1000. ! g ---> mg
nseedha = nseed
nshelp = nseedha/10000.
! calculation of seed class number
if(flag_reg.eq.3) then
nsclass = int(100.*nshelp**0.6)
else if(flag_reg.eq.30) then
nsclass = int(10.*nshelp**0.6)+1
end if
allocate(nsc(nsclass))
allocate(nschelp(nsclass))
allocate(msc(nsclass))
allocate(shooth(nsclass))
! seed weight and number of seeds per class
msclass = 6.*standdev/nsclass
ntot = 0
help = (1/(sqrt(2*pi)*standdev))
do k=1, nsclass
msc(k) = (ms - 3.*standdev) + msclass*(k-1)
nschelp(k) = help*exp(-((msc(k)-ms)**2)/(2*(standdev)**2))
ntot = ntot + nschelp(k)
end do
do k= 1,nsclass
nsc(k) = nint((nschelp(k)*nseedha/ntot) + 0.5)
end do
! calculation of shoot weight per seed class and initilization
do k = 1,nsclass
mschelp = msc(k)/1000000. ! mg ---> kg
x1 = 0.
x2 = 0.1
xacc=(1.0e-10)*(x1+x2)/2
! solve mass equation; determine root
shelp=rtflsp(weight,x1,x2,xacc)
shooth(k)= shelp
max_coh = max_coh + 1
call coh_initial (tree_ini)
tree_ini%ident = max_coh
tree_ini%species = nsp
tree_ini%ntreea = nsc(k)
tree_ini%nta = nsc(k)
shoot = shooth(k)
tree_ini%x_sap = shoot ! [kg]
shoot = shoot * 1000. ! [g]
tree_ini%x_fol= (spar(nsp)%seeda*(tree_ini%x_sap** spar(nsp)%seedb)) ![kg]
tree_ini%x_frt = tree_ini%x_fol ! [kg]
! Leder
tree_ini%x_hrt = 0.
tree_ini%med_sla = spar(nsp)%psla_min + spar(nsp)%psla_a*0.5
tree_ini%t_leaf = tree_ini%med_sla* tree_ini%x_fol ! [m-2]
tree_ini%ca_ini = tree_ini%t_leaf
tree_ini%crown_area = tree_ini%ca_ini
tree_ini%underst = 1
! tranformation of shoot biomass kg --> mg
if(nsp.ne.2)tree_ini%height = spar(nsp)%pheight1*(shoot*1000.)**spar(nsp)%pheight2 ! [cm] berechnet aus shoot biomass (mg)
! Leder
if(nsp.eq.2) tree_ini%height = 10**(spar(nsp)%pheight1+ spar(nsp)%pheight2*LOG10(shoot*1000.)+ &
spar(nsp)%pheight3*(LOG10(shoot*1000.))**2)
IF(nsc(k).ne.0.) then
IF (.not. associated(pt%first)) THEN
ALLOCATE (pt%first)
pt%first%coh = tree_ini
NULLIFY(pt%first%next)
! root distribution
call root_depth (1, pt%first%coh%species, pt%first%coh%x_age, pt%first%coh%height, pt%first%coh%x_frt, pt%first%coh%x_crt, nr, troot2, pt%first%coh%x_rdpt, pt%first%coh%nroot)
pt%first%coh%nroot = nr
do j=1,nr
pt%first%coh%rooteff = 1. ! assumption for the first use
enddo
do j=nr+1, nlay
pt%first%coh%rooteff = 0. ! layers with no roots
enddo
ELSE
ALLOCATE(zeig)
zeig%coh = tree_ini
zeig%next => pt%first
pt%first => zeig
call root_depth (1, zeig%coh%species, zeig%coh%x_age, zeig%coh%height, zeig%coh%x_frt, zeig%coh%x_crt, nr, troot2, zeig%coh%x_rdpt, zeig%coh%nroot)
zeig%coh%nroot = nr
do j=1,nr
zeig%coh%rooteff = 1. ! assumption for the first use
enddo
do j=nr+1, nlay
zeig%coh%rooteff = 0. ! layers with no roots
enddo
END IF
anz_coh=anz_coh+1
END IF
end do
deallocate(nsc)
deallocate(nschelp)
deallocate(msc)
deallocate(shooth)
END SUBROUTINE seed_multi
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
! weight: seed mass function
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
function weight (x)
use data_help
use data_species
implicit none
real :: x
real :: p1,p2, weight
p1 = spar(hnspec)%seeda
p2 = spar(hnspec)%seedb
weight = p1*2*(x**p2) + x - 0.7*mschelp
end function weight
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
! weight1: coarse root mass function
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
function weight1 (x)
use data_help
use data_species
real :: x
real :: p1,p2
p1 = spar(hnspec)%seeda
p2 = spar(hnspec)%seedb
weight1 = p1*(x**p2) + x - mschelp
end function weight1
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
! rtflsp: regula falsi solving euation
!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!!
FUNCTION rtflsp(func,x1,x2,xacc)
INTEGER MAXIT
REAL rtflsp,x1,x2,xacc,func
EXTERNAL func
PARAMETER (MAXIT=30)
INTEGER j
REAL del,dx,f,fh,fl,swap,xh,xl
fl=func(x1)
fh=func(x2)
if(fl.lt.0.)then
xl=x1
xh=x2
else
xl=x2
xh=x1
swap=fl
fl=fh
fh=swap
endif
dx=xh-xl
do j=1,MAXIT
rtflsp=xl+dx*fl/(fl-fh)
f=func(rtflsp)
if(f.lt.0.) then
del=xl-rtflsp
xl=rtflsp
fl=f
else
del=xh-rtflsp
xh=rtflsp
fh=f
endif
dx=xh-xl
if(abs(del).lt.xacc.or.f.eq.0.)return
end do
END function rtflsp
\ No newline at end of file
source_code/version_2.3_windows/sim_ini.f 0 → 100644
View file @ 82df1085
!*****************************************************************!
!* *!
!* 4C (FORESEE) Simulation Model *!
!* *!
!* *!
!* Subroutines for: *!
!* - Simulation initialisation (SIM_INI) *!
!* *!
!* Copyright (C) 1996-2018 *!
!* Potsdam Institute for Climate Impact Reserach (PIK) *!
!* Authors and contributors see AUTHOR file *!
!* This file is part of 4C and is licensed under BSD-2-Clause *!
!* See LICENSE file or under: *!
!* http://www.https://opensource.org/licenses/BSD-2-Clause *!
!* Contact: *!
!* https://gitlab.pik-potsdam.de/foresee/4C *!
!* *!
!*****************************************************************!
SUBROUTINE sim_ini
use data_biodiv
use data_climate
use data_depo
use data_evapo
use data_inter
use data_manag
use data_simul
use data_site
use data_stand
use data_soil
use data_soil_cn
use data_species
use data_par
use data_frost
implicit none
type(Coh_Obj), pointer :: p ! pointer to cohort list
anz_sim = anz_sim + 1
time = 0
time_cur = time_b - 1 ! before Sim.-Start in year_ini time_cur=time_cur+1
iday = 0
act_thin_year = 1
flag_cum = 0
flag_lit = 0
flag_sens = 0
flag_redn = .FALSE.
lai=0.
gp_can = 0.
sumbio = 0.
totfrt = 0.
sumNPP = 0.
nppsum = 0.
gppsum = 0.
cum_sumNPP= 0.
NEE_mon = 0.
NPP_mon = 0.
autresp = 0.
autresp_m = 0.
anrspec = 0
anz_coh = 0
anz_spec = 0
anz_tree = 0
med_diam = 0.
hdom = 0.
mean_drIndAl = 0.
med_air = 0.
med_rad = 0.
med_air_cm = 0.
med_air_wm = 0.
med_air_ms = 0.
med_air_mj = 0.
med_wind = 0.
temp_mon = 0.
prec_mon = 0.
sum_prec = 0.
sum_prec_ms= 0.;
sum_prec_mj= 0.
gdday = 0.
days_summer = 0
days_hot = 0
days_ice = 0
days_dry = 0
days_hrain = 0
days_rain = 0
days_rain_mj= 0
days_snow = 0
days_wof = 0
gdday_all = 0.
med_air_all = 0.
sum_prec_all = 0.
med_rad_all = 0.
int_cum_can = 0.
int_cum_sveg = 0.
interc_m_can = 0.
interc_m_sveg= 0.
perc_cum = 0.
perc_mon = 0.
wupt_cum = 0.
wupt_r_c = 0.
wupt_e_c = 0.
tra_tr_cum = 0.
tra_sv_cum = 0.
dew_m = 0.
aet_cum = 0.
pet_cum = 0.
pet_m = 0.
AET_m = 0.
wupt_r_m = 0.
perc_m = 0.
wat_tot = 0.
gp_can_mean = 0.
gp_can_max = 0.
snow = 0.
snow_day = 0
totFPARcan = 0.
Rnet_cum = 0.
! fire index
fire(1)%mean_m = 0
fire(2)%mean_m = 0
fire(3)%mean_m = 0
fire_indb_m = 0
ind_arid_an = 0.
ind_lang_an = 0.
ind_cout_an = 0.
ind_wiss_an = 0.
ind_mart_an = 0.
ind_mart_vp = 0.
ind_emb = 0.
ind_weck = 0.
ind_reich = 0.
con_gor = 0.
con_cur = 0.
con_con = 0.
cwb_an = 0.
cwb_an_m = 0.
ind_bud = 0.
ind_shc = 0.
ind_arid_an_m = 0.
ind_lang_an_m = 0.
ind_cout_an_m = 0.
ind_wiss_an_m = 0.
ind_mart_an_m = 0.
ind_mart_vp_m = 0.
ind_emb_m = 0.
ind_weck_m = 0.
ind_reich_m = 0.
con_gor_m = 0.
con_cur_m = 0.
con_con_m = 0.
ind_bud_m = 0.
ind_shc_m = 0.
ntindex = 0.
tempmean_mo = 0
aet_dec = 0.
temp_dec = 0.
prec_dec = 0.
rad_dec = 0.
hum_dec = 0.
! frost index
if(flag_climtyp .ge. 3) then
! calculation for airtemp_min > -90.
tminmay=0
lfind=0
dlfabs=0.
tminmay_sp=0
dlfabs_sp=0.
flag_tveg=0
else
tminmay=-99
lfind=-99
dlfabs=-99.
tminmay_sp=-99
dlfabs_sp=-99.
flag_tveg=-99
endif
!! initialisation of root distribution
RedN_mean = 0.
anz_RedN = 0
N_min = 0.
N_min_m = 0.
resps_c = 0.
resps_c_m = 0.
resps_mon = 0.
N_tot = 0.
N_an_tot = 0.
N_hum_tot = 0.
C_tot = 0.
C_hum_tot = 0.
N_lit = 0.
C_lit = 0.
Nupt_c = 0.
Nupt_m = 0.
C_accu = 0.
Nleach_c = 0.
Nleach_m = 0.
N_lit_m = 0.
C_lit_m = 0.
totfol_lit = 0.
totfol_lit_tree = 0.
totfrt_lit = 0.
totfrt_lit_tree = 0.
tottb_lit = 0.
totcrt_lit = 0.
totstem_lit = 0.
C_opm_fol = 0.
C_opm_frt = 0.
C_opm_crt = 0.
C_opm_tb = 0.
C_opm_stem = 0.
N_opm_stem = 0.
N_opm_fol = 0.
N_opm_frt = 0.
N_opm_crt = 0.
N_opm_tb = 0.
Ndep_cum = 0.
Ndep_cum_all= 0.
if (flag_multi .ne. 8) then
if ((flag_multi .ne. 2) .or. (ip .le. 1)) then
NOdep(ip) = 0.
NHdep(ip) = 0.
endif
endif
flag_bc = 0
totsteminc = 0.
cumsteminc = 0.
cumsumvsdead = 0.
cumsumvsab = 0.
sumvsdead = 0.
sumvsab = 0.
p => pt%first
do while (associated(p))
p%coh%N_pool = 0.
p => p%next
enddo ! p (cohorts)
allocate(dayfract(ns_pro))
! fields for frost index
allocate(dnlf(year))
allocate(tminmay_ann(year))
allocate(date_lf(year))
allocate(date_lftot(year))
allocate(dnlf_sp(year))
allocate (anzdlf(year))
allocate (sumtlf(year))
dnlf_sp=0
dnlf = 0
tminmay_ann = 0.
date_lf = 0
date_lftot = 0
anzdlf = 0.
sumtlf = 0.
end subroutine sim_ini
\ No newline at end of file
source_code/version_2.3_windows/simul.f 0 → 100644
View file @ 82df1085
!*****************************************************************!
!* *!
!* 4C (FORESEE) Simulation Model *!
!* *!
!* *!
!* Subroutines for: *!
!* - Simulation control: SIM_CONTROL *!
!* SIMULATION_4C *!
!* *!
!* Copyright (C) 1996-2018 *!
!* Potsdam Institute for Climate Impact Reserach (PIK) *!
!* Authors and contributors see AUTHOR file *!
!* This file is part of 4C and is licensed under BSD-2-Clause *!
!* See LICENSE file or under: *!
!* http://www.https://opensource.org/licenses/BSD-2-Clause *!
!* Contact: *!
!* https://gitlab.pik-potsdam.de/foresee/4C *!
!* *!
!*****************************************************************!
SUBROUTINE sim_control
use data_climate
use data_simul
use data_site
use data_out
implicit none
integer run_nr, ipp, irl, icl, i
character a
character(8) actdate
character(10) acttime, helpsim, text1, text2
real time1, time2, time3
unit_err=getunit()
if(flag_multi.eq.5) dirout = './'
open(unit_err,file=trim(dirout)//trim(site_name(1))//'_error.log',status='replace', position='append')
unit_trace=getunit()
open(unit_trace,file=trim(dirout)//trim(site_name(1))//'_trace.log',status='replace', position='append')
write (unit_trace, *) ' Trace of calls - subroutines of 4C '
write (unit_trace, *)
write (unit_trace, *) 'iday time_cur subroutine '
write (unit_trace, '(I4,I10,A)') iday, time_cur, ' sim_control'
! check daily output
if (year > 5 .and. flag_dayout .ge. 1) then
write(*,*) ' Warning: Your choice of daily output is ON with a simulation time of'
write(*,'(I6,A,I8,A)') year,' years. This option will create ',365*year,' data records per file!'
write(*,'(A)',advance='no') ' Do you really want do use daily output (y/n)? '
read *,a
IF (a .eq. 'n' .or. a .eq. 'N') then
flag_dayout = 0
ENDIF
ENDIF
! open file ycomp (yearly compressed output (multi run))
IF (time_out .ne. -2) call prep_out_comp
!call epsilon
IF(flag_multi.eq.1) THEN
run_nr = site_nr
ELSE IF (flag_multi.eq.5) THEN
run_nr = 1
ELSE
run_nr = repeat_number
ENDIF
call date_and_time(actdate, acttime)
write (unit_err, *)
time3 = 0.
if (.not.flag_mult910) then
nrreal = 1
nrclim = 1
endif
do icl = 1, nrclim ! climate scenarios
iclim = icl
DO ipp = 1, run_nr ! sites
ip = ipp
if (flag_trace) write (unit_trace, '(I4,I10,A,I3)') iday, time_cur, ' sim_control ip=',ip
do irl = 1, nrreal ! realization f climate scenarios
if (flag_mult910) then
climfile(ip) = climszenfile(ip, icl, irl)
site_name (ip) = trim(site_name1)//'_'//trim(sitenum(ip))
write (helpsim,'(I10)') icl
read (helpsim,*) text1
write (helpsim,'(I10)') irl
read (helpsim,*) text2
site_name (ip) = trim(site_name (ip))//'_'//trim(text1)//'_'//trim(text2)
write (unit_err, *)
write (unit_err, '(A,3I5,2X, A50)')'* ip, cli-scenario, real., site: ', ip, icl, irl, site_name(ip)
write (unit_err, '(A,A)') 'Climate file: ', trim(climfile(ip))
else
write (unit_err, *)
write (unit_err, '(A10,I5,2X, A50)') ' ip/site ', ip, trim(site_name(ip))
site_name1 = trim(site_name(ip))
endif
call CPU_time (time1)
if(ip.ne.0) then
CALL sim_ini
CALL prepare_site
if (flag_multi.eq.5) then
! call m4c_simenv_in
unit_comp2 = 6 ! standard output
end if
if(flag_end.gt.0) then
select case (flag_end)
case (1)
print*,ip, ' stop in prepare_stand (see error.log)'
case (2)
print*, ip, 'stop in prepare_stand, stand ', &
'identificator not found in prepare_stand'
case (3)
print*,ip, 'stop in canopy'
case (4)
print*,ip, 'stop in readsim, climate ID not found'
case (5)
print*,ip, ' stop in readsoil, soil ID not found ', adjustl(soilid(ip))
case (6)
write(*,'(A,I5)') ' >>>foresee message: stop in read_cli, no climate data for year ',time_b
call finish_simul
stop
case (7)
print*,ip, ' stop in readsoil, error during reading soil data ', adjustl(soilid(ip))
call finish_simul
stop
case default
print*,ip, 'flag_end = ', flag_end
end select
call finish_simul
flag_end = 0
else
IF(flag_multi==2) CALL fixclimscen
if (.not.flag_mult910) then
write (*,*)
write (*,*) '>>> Start FORESEE-Simulation site ', ipp
write (*,*)
endif
CALL simulation_4c
CALL finish_simul
endif
if (flag_mult910) then
call out_var_stat(1, irl)
else
if ((flag_multi .ne. 8) .and. (nvar .gt. 1)) call out_var_stat(3, 1)
endif
endif ! flag_end
call CPU_time (time2)
if (.not.flag_mult910) then
print *, ' run time for simulation ',ip, time2-time1, ' sec'
endif
write (unit_err, *) ' run time for simulation ',ip, time2-time1, ' sec'
time3 = time3 + (time2-time1)
enddo ! irl
if (flag_mult910) call out_var_stat(2, -99)
write (unit_err, *)
write (unit_err, *)
write (unit_err, *) '* * * * * New ip/site * * * * *'
ENDDO ! ip until site_nr (page number)
write (unit_err, *)
write (unit_err, *) '************ New climate scenario **********'
enddo ! icl
if (nvar .gt. 1) then
select case (flag_multi)
case (5, 9, 10)
continue
case (1)
continue
case default
call out_var_file
end select
endif
! comparison with measurements
if (flag_stat .gt. 0) CALL mess
call CPU_time (time1)
time3 = time3 + (time1-time2)
write (unit_err, *)
write (unit_err, *) ' total run time ', time3, ' sec'
CALL finish_all
PRINT *,'All simulations finished!'
END SUBROUTINE sim_control
!**************************************************************
SUBROUTINE simulation_4C
!*** Declaration part ***!
USE data_simul
USE data_species ! species specific parameters
USE data_site ! site specific data
USE data_climate ! climate data
USE data_soil
USE data_soil_cn
USE data_stand ! state variables of stand, cohort and cohort element
USE data_out
USE data_manag
USE data_plant
USE data_par
IMPLICIT NONE
if (flag_trace) write (unit_trace, '(I4,I10,A)') iday, time_cur, ' simulation_4C'
! allocation of environmental variable fields
if(flag_wpm.ne.4 .and. flag_wpm.ne.5.and.flag_wpm.ne.6) then
! time loop
DO time = 1, year
iday = 1
! Update population variable for new year if population is changed through interventions
if (flag_standup .gt. 0 .or. flag_dis==1 .or. flag_dis==1) then
call stand_balance
call standup
flag_standup = 0
endif
CALL year_ini
! Calculate RedN from soil C/N
! read or create Redn for areal application
IF (time.EQ.1 .and. flag_redn) CALL RedN_ini
IF (flag_dis .eq. 1 .or. flag_dis .eq. 2) then
CALL dis_manag
endif
! simulation of processes with subannual resolution (fluxes and soil)
CALL stand_daily
if(flag_end.ge.1) exit ! exit do loop time
! compressed output of start values
IF (lcomp1) THEN
CALL out_comp(unit_comp1)
lcomp1 = .FALSE.
ENDIF
! cohort litter production
CALL senescence
! calculation of stand variables over all patches
CALL stand_balance
! calculation of soil variables for yearly output
CALL s_year
! calculation of fire variables for yearly output
CALL fire_year
! calculation of indices for yearly output
CALL t_indices(temp_mon)
! summation output
IF(flag_sum.eq.4) THEN
write(unit_sum,'(I5,9F11.3)') time_cur,photsum,npppotsum,nppsum,resosum,lightsum,nee,abslightsum,precsum, tempmean
photsum=0.;npppotsum=0.;nppsum=0.;resosum=0.;lightsum=0.;nee=0.;abslightsum=0.;precsum=0.
ENDIF
totsteminc = 0.
totsteminc_m3 = 0.
! cohort loop for change in crown dimensions, allocation and tree dimension calculations
zeig=>pt%first
DO
IF (.not.ASSOCIATED(zeig)) exit
IF (zeig%coh%height.ge.thr_height .and. zeig%coh%species.le.nspec_tree) then
! determine crown movement
CALL CROWN( zeig )
! allocate NPP to the various tree compartments
CALL PARTITION( zeig )
if(flag_end.ge.1) exit ! do loop
ENDIF
IF (zeig%coh%species.EQ.nspec_tree+1) then ! Ground vegetation
! allocate NPP to the various ground vegetation compartments
CALL PARTITION_SV( zeig )
ENDIF
IF (zeig%coh%species.eq.nspec_tree+2) then ! Mistletoe
CALL PARTITION_MI( zeig )
if(flag_end.ge.1) exit ! do loop
ENDIF
zeig=>zeig%next
END DO
if(flag_end.ge.1) exit ! exit do loop time
! calculation of annual mortality
IF(flag_mort.ge.1) CALL stand_mort
! annual growth of trees below thr_height, which are initialized by planting (not seeded!)
! at the beginning of the simulation or during management (shelter-wood)
if(flag_reg.ne.2.and.flag_sprout.eq.0) CALL growth_seed
CALL mort_seed
if(flag_sprout.eq.1) flag_sprout=0
IF(flag_mg==1) then
if(thin_year(act_thin_year)==time_cur) then
CALL management
act_thin_year = act_thin_year+1
end if
ELSE IF((flag_mg.ge.2 .or. flag_mg.eq.3 .or. flag_mg.eq.33.or. flag_mg.eq.9 .or. flag_mg.eq.10 .or. flag_mg.eq. 333).and.anz_spec.ne.0) THEN
CALL management
if(flag_wpm.ne.0) CALL timsort
ENDIF
! no assortment if wpm is not called
if(flag_mg.eq.0.and.anz_spec.ne.0) then
if(flag_wpm.ne.0) call timsort
end if
CALL litter
! input of dead biomass into soil compartments
CALL cn_inp
! if(flag_multi.eq.5) call m4c_simenv_out
! annual establishment for all species
IF (flag_reg.eq.1.or.flag_reg.eq.2.or.flag_reg.eq.3.or.flag_reg.eq.30) CALL stand_regen
! cumsteminc = cumsteminc + totsteminc
! planting of seedlings/saplings at the beginning of simulation
if(flag_reg.ge.9..and. flag_reg.lt.100. .and. time.eq.1) call planting
if(flag_reg.ge.9..and. flag_reg.lt.100. .and. flag_mg .eq.44) call planting
! Update stand variables if stand changed
if (flag_standup.gt.0 .or. anz_spec.eq.0) then
call stand_balance
! if (flag_standup .gt. 1) call root_distr ! wird generell in year_ini berechnet
endif
cumsteminc = cumsteminc + totsteminc
! yearly output
IF (time_out .gt. 0) THEN
IF (mod(time,time_out) .eq. 0) then
CALL outyear (1)
CALL outyear (2)
endif
ENDIF
! store of output variables (multi run 4, 8, 9)
IF (nvar .gt. 1) CALL outstore
! RedN calculation
if ((flag_limi .eq. 10) .or. (flag_limi .eq. 15)) call RedN_calc
! CALL list_cohort
CALL del_cohort
if (.not.flag_mult910) PRINT *, ' * Year ', time, time_cur,' finished... '
END DO ! time
! calculation of stand variables over all patches at the end!
CALL stand_balance
!***** wpm ******
! check if management
if(flag_mg == 0) then
flag_wpm = 0
endif
if (flag_wpm == 1 .or. flag_wpm == 21 .or. flag_wpm == 11) call wpm
if (flag_wpm == 2) call sea
if (flag_wpm == 3) then
call wpm
call sea
end if
!*** * * * * * * * ****
else
call wpm
end if
if (flag_wpm .gt. 0) call out_wpm(1)
CALL out_comp(unit_comp2)
if(flag_end.eq.1) print*,ip, 'stop in partitio'
if(flag_end.eq.3) print*,ip, 'stop in calc_la in canopy: toplayer = 125 m'
flag_end = 0
if (.not.flag_mult910) PRINT *, ' * Simulation ',ip,' finished.'
END SUBROUTINE simulation_4C
!**************************************************************
source_code/version_2.3_windows/soil.f 0 → 100644
View file @ 82df1085
!*****************************************************************!
!* *!
!* 4C (FORESEE) Simulation Model *!
!* *!
!* *!
!* Subroutines for: *!
!* Soil and Water - Programs *!
!* *!
!* contains: *!
!* SOIL *!
!* SOIL_INI *!
!* SOIL_WAT *!
!* UPT_WAT *!
!* FRED1 - ...11 *!
!* TAKE_WAT *!
!* BUCKET *!
!* SNOWPACK *!
!* HUM_ADD *!
!* BC_APPL: application of biochar *!
!* *!
!* Copyright (C) 1996-2018 *!
!* Potsdam Institute for Climate Impact Reserach (PIK) *!
!* Authors and contributors see AUTHOR file *!
!* This file is part of 4C and is licensed under BSD-2-Clause *!
!* See LICENSE file or under: *!
!* http://www.https://opensource.org/licenses/BSD-2-Clause *!
!* Contact: *!
!* https://gitlab.pik-potsdam.de/foresee/4C *!
!* *!
!*****************************************************************!
SUBROUTINE soil
! Soil processes (frame)
use data_climate
use data_depo
use data_out
use data_simul
use data_soil
use data_soil_cn
implicit none
call evapo
call intercep
call soil_wat
call soil_temp
if (flag_wurz .eq. 4 .or. flag_wurz .eq. 6) then
call soil_stress !calculate ground stress factors
call cr_depth !define root depth
endif
call soil_cn
call root_eff
END subroutine soil
!**************************************************************
SUBROUTINE soil_ini
! Initialisation of soil data and parameters
use data_inter
use data_evapo
use data_out
use data_par
use data_simul
use data_soil
use data_soil_cn
use data_species
use data_stand
implicit none
integer i,j,k
real d_0, t_0
! Table of quarz and clay content (mass%) versus wlam
real, dimension(17) :: xwlam = (/1.5, 1.15, 0.9, 0.67, 0.6, 0.5, 0.38, 0.37, 0.3, 0.29, 0.27, 0.26, 0.25, 0.24, 0.23, 0.22, 0.15/), &
yquarz = (/93.0,85.0,80.0, 82.0,76.0, 64.0, 65.0, 51.0,60.0, 30.0, 14.0, 10.0, 12.0, 20.0, 30.0, 43.0, 23.0/), &
yclay = (/3.0, 3.0, 3.0, 12.0, 6.0, 6.0, 10.0, 4.0,21.0, 12.0, 10.0, 37.0, 15.0, 40.0, 30.0, 35.0, 55.0/)
real value
real, dimension(nlay):: humush(nlay)
real, dimension(nlay):: xfcap, xwiltp, xpv ! output of addition for water capacities
! estimation of soil layer values
d_0 = 0.
do j = 1, nlay
t_0 = thick(j)
mid(j) = d_0 + 0.5*t_0
d_0 = d_0 + t_0
depth(j) = d_0
enddo
perc = 0.
wupt_r = 0.
wupt_ev = 0.
thick_1 = thick(1)
select case (flag_soilin)
case (0,2)
do i=1,nlay
if (i .gt. 1) then
call tab_int(xwlam, yquarz, 17, wlam(i), value)
sandv(i) = value / 100. ! Mass% of mineral fraction
call tab_int(xwlam, yclay, 17, wlam(i), value)
clayv(i) = value / 100.
siltv(i) = 1. - clayv(i) - sandv(i)
else
sandv(1) = 0.0
clayv(1) = 0.0
siltv(1) = 0.0
endif
enddo
case (1,3,4)
clayv = clayv / 100.
sandv = sandv / 100.
siltv = 1. - clayv - sandv
if ((sandv(1) .le. zero) .and. (clayv(1) .le. zero)) siltv(1) = 0.
skelv = skelv / 100.
humusv = humusv / 100.
end select
! Settings for subroutine take_wat
skelfact = 1.
pv = skelfact * pv_v * thick * 0.1 ! mm
wilt_p = skelfact * wilt_p_v * thick * 0.1 ! mm
field_cap = skelfact * f_cap_v * thick * 0.1 ! mm
wats = field_cap ! mm
watvol = f_cap_v ! vol%
n_ev_d = nlay
nlgrw = nlay+1
do i=1,nlay
if (w_ev_d .gt. depth(i)) n_ev_d = i
if (grwlev .gt. depth(i)) nlgrw = i+1
vol(i) = thick(i) * 10000.
enddo
! dry mass of first layer
dmass = vol * dens
rmass1 = dmass(1) - (C_hum(1) + C_opm(1)) / cpart ! corection term of first layer
humush = humusv
if (2.*C_hum(1) .lt. humusv(1)*dmass(1)) then
humusv(1) = C_hum(1) / (dmass(1) * cpart)
endif
do i=2, nlay
humusv(i) = C_hum(i) / (dmass(i) * cpart)
enddo
if (flag_bc .gt. 0) y_bc_n = 1 ! actual number of biochar application
! calculation of additions for water capacities
call hum_add(xfcap, xwiltp, xpv)
fcaph = f_cap_v - xfcap
wiltph = wilt_p_v - xwiltp
pvh = pv_v - xpv
! ground water
do i = nlgrw, nlay
wats(i) = pv(i)
enddo
interc_can = 0.
int_st_can = 0.
interc_sveg = 0.
int_st_sveg = 0.
aev_i = 0.
wat_tot = SUM(wats)
END subroutine soil_ini
!**************************************************************
SUBROUTINE soil_wat
use data_out
! soil water balance
use data_climate
use data_evapo
use data_inter
use data_out
use data_par
use data_simul
use data_soil
use data_species
use data_stand
implicit none
real :: eva_dem ! evaporation demand of soil
real :: p_inf = 0. ! infiltrated water
real :: pev ! local: soil evaporation
real :: watot, wetot ! total water content at start and end
real :: wutot ! total water uptake from the soil
real :: wutot_ev ! total water uptake by soil evaporation
real :: wutot_r ! total water uptake by roots
real, allocatable, dimension(:) :: upt ! local array for uptake
real, external :: wat_new
real enr, wa, we, percolnl, snow_sm, buckdepth
integer j
allocate (upt(nlay))
wupt_ev = 0.
aev_s = 0.
prec_stand = MAX(0., prec - interc_can - interc_sveg) ! stand precipitation
if (flag_int .gt. 1000) then
prec_stand = prec_stand * prec_stand_red / 100.
endif
call snowpack(snow_sm, p_inf, pev)
if (anz_coh .le. 0) pev = pet
eva_dem = MAX(0., p_inf) - pev ! evaporation demand of soil
! if all stand precipitation is evaporated and there is still a demand
! there is an uptake from soil layers (up to an certain depth)
if (eva_dem .lt. 0.) then
if (snow .le. 0) call take_wat(eva_dem, cover)
aev_s = aev_s + p_inf + SUM(wupt_ev)
else
aev_s = aev_s + pev
endif ! eva_dem
aet = aev_s + aev_i
p_inf = MAX(eva_dem, 0.)
upt = wupt_ev
watot = SUM(wats) ! total initial water content
do j = 1, nlgrw-1
enr = p_inf - upt(j)
wa = wats(j) - field_cap(j)
we = wat_new(wa, enr, j)
p_inf = enr + wa - we
perc(j) = MAX(p_inf, 0.)
wats(j) = MAX(we+field_cap(j), wilt_p(j))
enddo
do j = nlgrw, nlay
enr = p_inf - upt(j)
wa = wats(j) - field_cap(j)
we = pv(j) - field_cap(j) ! ground water level is constant!
p_inf = enr + wa - we
perc(j) = MAX(p_inf, 0.)
wats(j) = MAX(we+field_cap(j), wilt_p(j))
enddo
if (flag_wred .le. 10) then
call upt_wat
else
call upt_wat1
endif
! root uptake balanced imediate after calculation
upt = upt + wupt_r
wats = wats - wupt_r
watvol = 10.*wats/(thick * skelfact) ! estimation for complete layer in Vol% without skeleton (only soil substrate)
! total water quantities
wetot = SUM(wats) ! total final water content
wutot_ev = SUM(wupt_ev) ! total water uptake by soil evaporation
wutot_r = SUM(wupt_r) ! total water uptake by roots
wutot = wutot_ev + wutot_r ! total water uptake
aet = aet + wutot_r ! daily total aet
percolnl = perc(nlay)
trans_tree = 0.
trans_sveg = 0.
zeig => pt%first
do while (associated(zeig))
if (zeig%coh%species .le. nspec_tree) then
trans_tree = trans_tree + zeig%coh%supply
else
trans_sveg = trans_sveg + zeig%coh%supply
endif
zeig => zeig%next
enddo ! zeig (cohorts)
! cumulative water quantities
perc_cum = perc_cum + perc(nlay)
wupt_r_c = wupt_r_c + wutot_r
wupt_e_c = wupt_e_c + wutot_ev
wupt_cum = wupt_cum + wutot
aet_cum = aet_cum + aet
dew_cum = dew_cum + dew_rime
tra_tr_cum = tra_tr_cum + trans_tree
tra_sv_cum = tra_sv_cum + trans_sveg
call bucket(bucks_100, bucks_root, buckdepth)
! number of drought days per layer
where ((wats-0.2) .le. wilt_p) s_drought = s_drought+1
if (flag_dayout .ge. 2) then
write (unit_wat, '(2I5, 7F7.2, 24F8.2)') time_cur, iday, airtemp, prec, interc_can, int_st_can, &
interc_sveg, int_st_sveg, snow, snow_sm, pet, trans_dem, &
pev, aev_s, aev_i, perc(nlay), watot, wetot, wutot, wutot_ev, wutot_r,&
trans_tree,trans_sveg, eva_dem, gp_can, aet, ceppot_can, ceppot_sveg
endif
deallocate (upt)
END subroutine soil_wat
!**************************************************************
SUBROUTINE upt_wat
! Water uptake by roots
use data_simul
use data_evapo
use data_soil
use data_stand
use data_par
use data_species
use data_climate
implicit none
real, dimension(1:anz_coh) :: tr_dem ! auxiliary arrays for cohorts
real wat_ava, hdem, frtrel, frtrel_1, hupt, hupt_c, totfrt_2, hv, demand_mistletoe_canopy
real wat_at ! total available water per layer
real wat_ar ! total available water per layer with uptake resistance
real hred ! resistance coefficient
real, external :: fred1, fred2, fred3, fred4, fred5, fred6, fred7, fred11
integer i, ianz, j, nroot3
! Calculation of Water Demand
ianz = anz_coh
tr_dem = 0
hdem = 0
hv = pet-aev_i-pev_s
if (hv .lt. 0.) hv = 0.
select case (flag_eva)
case (0,1,3)
if((pet .gt. 0.) .and. (hv .gt. 0.)) then
trans_dem = hv * alfm * (1. - exp(-gp_tot/gpmax)) ! pet (potential evapotranspiration) is reduced by intereption evaporation and potential ground evaporation
else
trans_dem = 0.0
endif
if (gp_tot .gt. zero) then
hdem = trans_dem / gp_tot
else
hdem= 0.
endif
case (8)
! potential transpiration demand of each cohort
if ((gp_tot .gt. zero) .and. (hv .gt. 0.)) then
hdem = (pet-aev_i-aev_s) / gp_tot
else
hdem= 0.
endif
case (2,4)
trans_dem = 0.
case (6,16,36)
! Eucalyptus
hv = pet
if((pet .gt. 0.) .and. (hv .gt. 0.)) then
trans_dem = hv * alfm * (1. - exp(-gp_tot/gpmax))
else
trans_dem = 0.
endif
! preparation: potential transpiration demand of each cohort
if (gp_tot .gt. zero) then
hdem = trans_dem / gp_tot
else
hdem= 0.
endif
case (7,17,37)
trans_dem = hv
! potential transpiration demand of each cohort
if (gp_tot .gt. zero) then
hdem = trans_dem / gp_tot
else
hdem= 0.
endif
end select
hdem = max(0., hdem)
! Distribution of total Demand into Demands of Cohorts
!extraction of demand of mistletoe cohort (for case flag eva = 1,3,6,7...)
zeig => pt%first
do while (associated(zeig))
if (zeig%coh%species.eq.nspec_tree+2) then
demand_mistletoe_canopy=zeig%coh%gp * zeig%coh%ntreea * hdem
end if
zeig => zeig%next
enddo
zeig => pt%first
i = 1
do while (associated(zeig))
select case (flag_eva)
case (0, 1, 3, 6, 7, 16, 17, 36, 37)
!uppermost tree cohort (with flag mistletoe) gets additinal demand of mistletoe
if (zeig%coh%mistletoe.eq.1) then
zeig%coh%demand = zeig%coh%gp * zeig%coh%ntreea * hdem + demand_mistletoe_canopy
elseif (zeig%coh%species.eq.nspec_tree+2) then ! set demand of mistletoe to zero as it will be fullfilled by the tree
zeig%coh%demand=0. ! set to zero because demand has been added to the infested tree cohort
else
zeig%coh%demand = zeig%coh%gp * zeig%coh%ntreea * hdem ! all other cohorts get their demand
end if
case (2,4)
!uppermost tree cohort (with flag mistletoe) gets additinal demand, that of mistletoe
if (zeig%coh%mistletoe.eq.1) then
zeig%coh%demand = (max(0., zeig%coh%demand - zeig%coh%aev_i) + demand_mistletoe_cohort)
endif
if (zeig%coh%species.eq.nspec_tree+2) then ! set demand of mistletoe to zero as it will be fullfilled by the tree
zeig%coh%demand=0.
endif
if (zeig%coh%mistletoe.ne.1 .AND. zeig%coh%species.ne.nspec_tree+2) then
zeig%coh%demand = max(0., zeig%coh%demand - zeig%coh%aev_i)
end if
trans_dem = trans_dem + zeig%coh%demand
end select
tr_dem(i) = zeig%coh%demand ! demand of transpiration per cohort
i = i + 1
zeig => zeig%next
enddo ! zeig (cohorts)
! Calculation of Water Supply
frtrel_1 = 1.
select case (flag_wurz)
case (0)
if (nroot_max .gt. 5) then
nroot3 = 5
else
nroot3 = nroot_max
endif
case default
nroot3=nroot_max
end select
! layers with seedlings
do j = 1,nroot3
! determination of resisctance coefficient
select case (flag_wred)
case(1)
hred = fred1(j)
case(2)
hred = fred2(j)
case(3)
hred = fred3(j)
case(4)
hred = fred4(j)
case(5)
hred = 1.
case(6)
hred = 0.5
case(7)
hred = 0.25
case(8)
hred = fred6(j)
case(10)
hred = fred7(j)
case(11)
hred = fred11(j)
end select
wat_res(j) = hred
if (temps(j) .gt. -0.3) then
wat_at = max(wats(j) - wilt_p(j), 0.) ! total available water per layer
wat_ar = hred * wat_at ! total available water per layer with uptake resistance
hupt = 0.
else
wat_ar = 0. ! frost
wat_at = 0.
hupt = 0.
endif
! Distribution of Water Supply into the Cohorts
! Distribution of Fine Roots
zeig => pt%first
i = 1 ! cohort index
do while (associated(zeig))
if (zeig%coh%species .ne. nspec_tree+2) then ! not for mistletoe
frtrel = zeig%coh%frtrelc(j)
wat_ava = frtrel * wat_ar ! available water per tree cohort and layer
if (wat_ava .ge. tr_dem(i)) then
hupt_c = tr_dem(i)
tr_dem(i) = 0.
else
hupt_c = wat_ava
tr_dem(i) = tr_dem(i) - wat_ava
endif
select case (flag_dis) !xylem clogger disturbance
case (1,2)
hupt_c = hupt_c * xylem_dis
end select
xwatupt(i,j) = hupt_c ! water uptake per cohorte and layer
zeig%coh%supply = zeig%coh%supply + hupt_c
if (zeig%coh%supply .lt.0.) then
continue
endif
hupt = hupt + hupt_c
i = i + 1
end if ! exclusion of mistletoe
zeig => zeig%next
enddo ! zeig (cohorts)
wupt_r(j) = hupt
enddo ! j
! layers without seedlings
if (totfrt_p.gt.(seedlfrt+zero)) then
totfrt_2 = 1./(totfrt_p-seedlfrt)
do j = nroot3+1, nroot_max
! determination of resisctance coefficient
select case (flag_wred)
case(1)
hred = fred1(j)
case(2)
hred = fred2(j)
case(3)
hred = fred3(j)
case(4)
hred = fred4(j)
case(5)
hred = 1.
case(6)
hred = 0.5
case(7)
hred = 0.25
end select
wat_res(j) = hred
if (temps(j) .gt. -0.3) then
wat_at = max(wats(j) - wilt_p(j), 0.) ! total available water per layer
wat_ar = hred * wat_at ! total available water per layer with uptake resistance
hupt = 0.
else
wat_ar = 0.
endif
zeig => pt%first
i = 1 ! cohort index
do while (associated(zeig))
frtrel = zeig%coh%frtrelc(j)
wat_ava = frtrel * wat_ar ! available water per tree cohort and layer
if (wat_ava .ge. tr_dem(i)) then
hupt_c = tr_dem(i)
tr_dem(i) = 0.
else
hupt_c = wat_ava
tr_dem(i) = tr_dem(i) - wat_ava
endif
select case (flag_dis) !xylem clogger disturbance
case (1,2)
hupt_c = hupt_c * xylem_dis
end select
xwatupt(i,j) = hupt_c
zeig%coh%supply = zeig%coh%supply + hupt_c
hupt = hupt + hupt_c
i = i + 1
zeig => zeig%next
enddo ! zeig (cohorts)
wupt_r(j) = hupt
enddo ! j
endif
END subroutine upt_wat
!**************************************************************
SUBROUTINE upt_wat1
! Water uptake by roots
! 2. Version
use data_simul
use data_evapo
use data_soil
use data_stand
use data_par
implicit none
real, dimension(1:anz_coh) :: tr_dem,frt_rel ! help arrays for cohorts
real wat_ava, hdem, frtrel, frtrel_1, hupt, hupt_c, totfrt_2
real wat_at ! total available water per layer
real wat_ar ! total available water per layer with uptake resistance
real hred ! resistance coefficient
real, external :: fred1, fred2, fred3, fred4, fred5, fred6, fred7, fred11
integer i, ianz, j, nroot3
ianz = anz_coh
tr_dem=0
trans_dem = (pet-aev_i) * alfm * (1. - exp(-gp_can/gpmax)) ! pet NOT reduced by ground evaporation
if (trans_dem .lt. 0.) trans_dem = 0.
! potential transpiration demand of each cohort
if (gp_can .gt. zero) then
hdem = trans_dem / gp_can
else
hdem= 0.
endif
! Estimation of transpiration demand of tree cohorts and total fine root mass
! in layers with and without seedlings
zeig => pt%first
i = 1
do while (associated(zeig))
select case (flag_eva)
case (0, 1, 3)
zeig%coh%demand = zeig%coh%gp * zeig%coh%ntreea * hdem
case (2)
zeig%coh%demand = zeig%coh%demand - zeig%coh%aev_i
end select
tr_dem(i) = zeig%coh%demand
i = i + 1
zeig => zeig%next
enddo ! zeig (cohorts)
! uptake controlled by share of roots
frtrel_1 = 1.
! layers with seedlings
do j = 1,nroot_max
! determination of resisctance coefficient
select case (flag_wred)
case(1)
hred = fred1(j)
case(2)
hred = fred2(j)
case(3)
hred = fred3(j)
case(4)
hred = fred4(j)
case(5)
hred = 1.
case(6)
hred = 0.5
case(7)
hred = 0.25
case(8) ! BKL, ArcEGMO
hred = fred6(j)
case(10)
hred = fred7(j)
end select
wat_at = max(wats(j) - wilt_p(j), 0.) ! total available water per layer
wat_ar = hred * wat_at ! total available water per layer with uptake resistance
hupt = 0.
zeig => pt%first
i = 1 ! cohort index
do while (associated(zeig))
frtrel = zeig%coh%frtrel(j) * zeig%coh%x_frt * zeig%coh%ntreea * totfrt_1
wat_ava = frtrel * wat_ar ! available water per tree cohort and layer
if (wat_ava .ge. tr_dem(i)) then
hupt_c = tr_dem(i)
tr_dem(i) = 0.
else
hupt_c = wat_ava
tr_dem(i) = tr_dem(i) - wat_ava
endif
select case (flag_dis) !xylem clogger disturbance
case (1,2)
hupt_c = hupt_c * xylem_dis
end select
xwatupt(i,j) = hupt_c
zeig%coh%supply = zeig%coh%supply + hupt_c
hupt = hupt + hupt_c
i = i + 1
zeig => zeig%next
enddo ! zeig (cohorts)
wupt_r(j) = hupt
enddo ! j
END subroutine upt_wat1
!**************************************************************
real FUNCTION fred1(j)
! Function for calculating uptake resistance
! from CHEN (1993)
! empirical relation between soil water content and resistance
! fred1=1 if (field_cap - 10%*field_cap) <= wats <= (field_cap + 10%*field_cap)
use data_par
use data_soil
implicit none
real hf, f09, f11, wc, diff
integer j
f09 = 0.9 * field_cap(j)
f11 = 1.1 * field_cap(j)
wc = wats(j)
if (wc .lt. wilt_p(j)) then
hf = 0.
else if (wc .lt. f09) then
diff = f09-wilt_p(j)
if (diff .lt. zero) diff = 0.001
hf = 1. - (f09-wc) / diff
else if (wc .gt. f11) then
diff = pv(j)-f11
if (diff .lt. zero) diff = 0.001
hf = 0.3 + 0.7 * (pv(j)-wc) / diff
if (hf .lt. zero) hf = 0.001
else
hf = 1.
endif
fred1 = hf
END function fred1
!**************************************************************
real FUNCTION fred2(j)
! Function for calculating uptake resistance
! from Aber and Federer (f=0.04 fuer Wasser in cm)
! only 40% of total available water are plant available per day
implicit none
integer j
fred2 = 0.05
END function fred2
!**************************************************************
real FUNCTION fred3(j)
! Function for calculating uptake resistance
! from CHEN (1993)
! modified to a profile defined in fred
! fred3 may be described by a function (old version):
! fred3 = 0.0004*j*j - 0.0107*j + 0.0735
! this case: set from a root profile, defined by input of root_fr
use data_par
use data_soil
implicit none
real hf, f09, f11, wc, diff
! hf is a reduction factor in dependence on water content
real fred(15)
integer j
! uptake reduction depending on water content
f09 = 0.9 * field_cap(j)
f11 = 1.1 * field_cap(j)
wc = wats(j)
if (wc .lt. wilt_p(j)) then
hf = 0.
else if (wc .lt. f09) then
diff = f09-wilt_p(j)
if (diff .lt. zero) diff = 0.001
hf = 1. - (f09-wc) / diff
else if (wc .gt. f11) then
diff = pv(j)-f11
if (diff .lt. zero) diff = 0.001
hf = 0.3 + 0.7 * (pv(j)-wc) / diff
if (hf .lt. zero) hf = 0.001
else
hf = 1.
endif
fred3 = root_fr(j) * hf
END function fred3
!**************************************************************
real FUNCTION fred4(j)
! Function for calculating uptake resistance
! modified to a profile defined in fred
! profile at Beerenbusch
use data_soil
implicit none
real fred(15)
integer j
fred = (/ 0.0, 0.03, 0.03, 0.02, 0.02, 0.02, 0.02, 0.01, 0.01, 0.01, &
0.01, 0.01, 0.01, 0.01, 0.01 /) ! fred fuer Beerenbusch
fred4 = fred(j)
END function fred4
!**************************************************************
real FUNCTION fred6(j)
! Function for calculating uptake resistance
! from Kloecking (2006) simular to fred1
! empirical relation between soil water content and resistance
! fred6=1 if field_cap <= wats <= (field_cap + 10%*field_cap)
use data_soil
implicit none
real hf, f09, f11, wc
integer j
f09 = field_cap(j)
f11 = 1.1 * field_cap(j)
wc = wats(j)
if (wc .le. wilt_p(j)) then
hf = 0.
else if (wc .lt. f09) then
hf = 0.1 + (0.9 *(wc-wilt_p(j)) / (f09-wilt_p(j)))
else if (wc .gt. f11) then
hf = 0.3 + 0.7 * (pv(j)-wc) / (pv(j)-f11)
if (hf .lt. 0.) hf = 0.001
else
hf = 1.
endif
fred6 = hf
END function fred6
!**************************************************************
real FUNCTION fred7(j)
! Function for calculating uptake resistance
! from CHEN (1993)
! empirical relation between soil water content and resistance
! fred1=1 if (field_cap - 10%*field_cap) <= wats <= (field_cap + 10%*field_cap)
use data_par
use data_soil
implicit none
real hf, f09, f11, wc, diff
integer j
f09 = 0.9 * field_cap(j)
f11 = 1.1 * field_cap(j)
wc = wats(j)
if (wc .lt. wilt_p(j)) then
hf = 0.
else if (wc .lt. f09) then
diff = f09-wilt_p(j)
if (diff .lt. zero) diff = 0.001
hf = exp(-5.*(f09-wc) / diff)
else if (wc .gt. f11) then
diff = pv(j)-f11
if (diff .lt. zero) diff = 0.001
hf = 0.3 + 0.7 * (pv(j)-wc) / diff
if (hf .lt. zero) hf = 0.001
else
hf = 1.
endif
fred7 = hf
END function fred7
!**************************************************************
real FUNCTION fred11(j)
! Function for calculating uptake resistance, especially adapted for Mistletoe disturbance
! function after van Wijk, 2000
use data_par
use data_soil
implicit none
real hf, S, f11, wc, diff
integer j
f11 = 1.1 * field_cap(j)
wc = wats(j)
if (wc .lt. wilt_p(j)) then
hf = 0.
else if (wc .lt. field_cap(j)) then
S=(field_cap(j)-wc)/(field_cap(j)-wilt_p(j))
hf = exp(-30*S) !30 = strong reduction in water avail.
else if (wc .gt. f11) then
diff = pv(j)-f11
if (diff .lt. zero) diff = 0.001
hf = 0.3 + 0.7 * (pv(j)-wc) / diff
if (hf .lt. zero) hf = 0.001
else
hf = 1.
endif
fred11 = hf
END function fred11
!**************************************************************
SUBROUTINE take_wat(eva_dem, psi)
! Estimation of water taking out for uncovered soil
use data_soil
use data_simul
implicit none
!input:
real :: eva_dem ! evaporation demand
real :: psi ! covering
integer i, ii, j, ntag ! max. layer of taking out
real, allocatable, dimension(:) :: gj
real, external :: b_r, funcov
real diff, gj_j, depth_j, depth_n, rij, rmax, rr, rs, sr
allocate (gj(nlay))
do i=1,nlay
wupt_ev(i)=0.0
gj(i)=0.0
enddo
ntag = 0
rmax = 0.0
depth_n = depth(n_ev_d)
do i=1,n_ev_d
rij = 0.0
rr = depth_n/depth(i)
sr = 0.0
rs = 0.0
do j=1,i
! depth for uncovered take out
depth_j = depth(j)
gj(j) = FUNCOV(w_ev_d, rs*rr, rr*depth_j)
rs = depth_j
sr = sr + gj(j)
enddo ! i
if (sr.gt.1.E-7) then
sr = 1.0/sr
do j=1,i
! water take out
! (psi = 1.-psi) no soil evaporation in case of total covering
! and maximal evaporation for uncovered soil
gj_j = -B_R(wats(j), field_cap(j), wilt_p(j)) &
* eva_dem * (1.-psi) * gj(j) * sr
gj_j = max(gj_j,0.0)
gj(j)= gj_j
rij = rij + gj_j
enddo ! i
if (rij .gt. rmax) then
rmax = rij
ntag = i
do ii=1,ntag
wupt_ev(ii) = gj(ii)
enddo
endif ! rij
endif ! sr
enddo ! n_ev_d
! balance
do i=1,nlay
diff = wats(i) - wilt_p(i)
if (wupt_ev(i) .gt. diff) then
wupt_ev(i) = diff
endif
enddo ! nlay
deallocate (gj)
END subroutine take_wat
!*******************************************************************************
real FUNCTION B_R(water, f_cap, wilting)
! Reduction function for water taking out (uncovered soil)
implicit none
!input:
real :: water ! water storage
real :: f_cap ! field capacity
real :: wilting ! wilting point
b_r = 1.0
if (water .lt. f_cap) B_R = max((water-wilting)/(f_cap-wilting), 0.0)
END function B_R
!******************************************************************************
real FUNCTION funcov(wt_d, a, bb)
! take out density function for uncovered soil
implicit none
!input:
real :: wt_d ! depth of water taking out by evaporation (cm)
real :: a, bb ! relative upper and lower depth of actual layer
real fk, wt_5, b
fk = .455218234
wt_5 = 0.05 * wt_d
b = min(bb,wt_d)
funcov = (- b + a + 1.05*wt_d*log((b+wt_5)/(a+wt_5)))*fk/wt_d
END function funcov
!******************************************************************************
real FUNCTION wat_new(wat_us, wat_in, ilayer)
! FUNCTION WIEN(WIA,NIST,ALAM,DTI,TT,DICK)
! Estimation of additional water after infiltration and percolation
use data_par
use data_soil
implicit none
! input:
real :: wat_us ! water content in relation to field capacity
real :: wat_in ! water infiltration into actual layer
integer :: ilayer ! number of actual layer
real dti !time step
real awi, b1, b2, la, hsqr, exphelp
dti = 1.
fakt = 0.4
if (fakt .ge. 0.0) then ! percolation?
la = 100.0 * fakt * dti * wlam(ilayer)/thick(ilayer)**2
if (wat_us .le. zero) then ! water near zero?
if (wat_in .le. zero) then ! infiltrated water near zero?
wat_new = wat_us + wat_in
else
if (wat_us+wat_in .gt. zero) then
exphelp = sqrt(la*wat_in) * (1 + wat_us/wat_in)*1
if (exphelp .le.10.) then ! avoid underflow
b1 = -exp(-2. * exphelp)
else
b1 = 0.
endif
wat_new = sqrt(wat_in/la) * (1+b1)/(1-b1)
else
wat_new = wat_us + wat_in
endif
endif ! wat_in
else
if (wat_in .lt. 0.) then
awi = abs(wat_in)
b1 = atan(wat_us/sqrt(awi/la)) / sqrt(la * awi)
if (b1 .gt. 1) then
b2 = sqrt (awi * la)
b1 = sin(b2) / cos(b2)
b2 = sqrt(awi / la)
wat_new = b2 * (wat_us - b2*b1) / (b2 + wat_us*b1)
else
wat_new = wat_in * (1-b1)
endif ! b1
else
if (wat_in .gt. 0.) then
b1 = sqrt(wat_in / la)
hsqr = sqrt(la*wat_in)
if (hsqr .lt. 10.) then
b2 = (wat_us - b1) * exp(-2.* hsqr) / (wat_us + b1)
if (b2 .ge. 1.0) then
b2 = 0.99999
endif
else
b2 = 0.
endif
wat_new = b1 * (1.+b2) / (1.-b2)
else
wat_new = wat_us / (1. + la*wat_us)
endif
endif ! wat_in
endif ! wat_us
else
wat_new = wat_us
endif ! fakt
END function wat_new
!******************************************************************************
SUBROUTINE bucket(bucksize1, bucksize2, buckdepth)
! calculation of bucket size (1m; without humus layer)
use data_soil
implicit none
real bucksize1, & ! bucket size of 1 m depth (nFK)
bucksize2, & ! bucket size of rooting zone
buckdepth, diff
integer j
bucksize1 = 0.
bucksize2 = 0.
buckdepth = 0.
do j=2,nlay
if ((depth(j)-depth(1)) .lt. 100.) then
bucksize1 = bucksize1 + wats(j) - wilt_p(j)
buckdepth = depth(j) - depth(1)
else
diff = 100. - buckdepth
bucksize1 = bucksize1 + (wats(j) - wilt_p(j))*diff/thick(j)
buckdepth = 100.
exit
endif
enddo
do j=2,nroot_max
bucksize2 = bucksize2 + wats(j) - wilt_p(j)
enddo
END subroutine bucket
!******************************************************************************
SUBROUTINE snowpack(snow_sm, p_inf, pev)
! properties of snow
! calculation of soil surface temperature under snow pack
use data_climate
use data_evapo
use data_inter
use data_par
use data_simul
use data_soil
use data_soil_t
implicit none
real p_inf ! infiltrated water
real snow_sm
real pev
real airtemp_sm ! melting temperature
real snow_old ! old snow pack
real tc_snow ! thermal conductivity of snow J/cm/s/K
real thick_snow ! thickness of snow
real dens_snow ! density of snow
real:: dens_sn_new = 0.1 ! density of fresh snow
real fakta
snow_old = snow
!substract evaporation of snowcover from snow in both cases
if (airtemp .lt. temp_snow) then ! frost conditions
snow = snow + prec_stand ! precipitation as snow
snow_sm = 0.0 ! no snow melting
p_inf = 0.0 ! no infiltrated precipitation
pev = max((pev_s - aev_i), 0.) ! interc. evapor. reduces soil evapor.
else
airtemp_sm = max(airtemp, 0.)
snow_sm = airtemp*(0.45+0.2*airtemp) ! snow melting
snow_sm = MIN(snow_sm, snow)
snow = snow - snow_sm
p_inf = prec_stand + snow_sm ! infiltrated precipitation
pev = max((pev_s - aev_i), 0.) ! interc. evapor. reduces soil evapor.
end if ! airtemp
if (snow .ge. zero) then
snow_day = snow_day + 1
days_snow = days_snow + 1
if (pev .le. zero) then
pev = 0.
else
! snow sublimation
aev_s = max(min(snow, pev), 0.)
snow = snow - aev_s
pev = pev - aev_s
endif
! soil surface temperature under snow pack
! snow hight = 0.2598 * water equivalent + 8.6851; adjustment from measurement values (see Bodentemperatur.xls)
if (snow .ge. 0.05) then
dens_snow = dens_sn_new + snow_day*0.025
dens_snow = MIN(dens_snow, 1.)
dens_snow = 0.5*(dens_sn_new*prec_stand + dens_snow*snow_old)/snow
dens_snow = MIN(dens_snow, 1.)
tc_snow = 0.7938*EXP(3.808*dens_snow)*0.001 ! thermal conductivity of snow J/cm/s/K
thick_snow = snow / dens_snow
fakta = tc_snow * 86400. * (thick(1)/2.) / (t_cond(1) * thick_snow) ! s --> day
temps_surf = (0.5*temps(1) + fakta*airtemp) / (1. + fakta) ! CoupModel (Jansson, 2001)
endif
else
snow_day = 0
endif
END subroutine snowpack
!******************************************************************************
SUBROUTINE soil_stress
! Calculation of the stress factors
use data_soil
use data_species
use data_stand
use data_par
implicit none
integer :: i, k
real :: m_1, m_2, n_1, n_2
real :: wratio, wafpo
real, dimension (1:4) :: allstress, xvar, yvar
!temperature stress
do i=1,nlay
do k=1,nspecies
if (temps(i) .ge. spar(k)%tbase) then
svar(k)%tstress(i) = sin((pi/2)*(temps(i)-spar(k)%tbase)/(spar(k)%topt-spar(k)%tbase))
else
svar(k)%tstress(i) = 0.
endif
!soil strength
wratio=0.
if (dens(i) .le. BDopt(i)) then
svar(k)%BDstr(i) = 1
svar(k)%BDstr(i) = 1
elseif (dens(i) .ge. svar(k)%BDmax(i)) then
svar(k)%BDstr(i) = 0
else
svar(k)%BDstr(i) = (svar(k)%BDmax(i)-dens(i))/(svar(k)%BDmax(i)-BDopt(i))
endif
if (watvol(i) .lt. wilt_p_v(i)) then
wratio = 0.
elseif (watvol(i) .gt. f_cap_v(i)) then
wratio = 1.
else
wratio = (watvol(i)-wilt_p_v(i))/(f_cap_v(i)-wilt_p_v(i))
endif
svar(k)%sstr(i)=svar(k)%BDstr(i)*sin(1.57*wratio)
!aeration
wafpo=watvol(i)/pv_v(i)
if (wafpo .ge. svar(k)%porcrit(i)) then
svar(k)%airstr(i) = (1.-wafpo)/(1.-svar(k)%porcrit(i))
else
svar(k)%airstr(i) = 1.
endif
if (svar(k)%airstr(i) .lt. 0.) svar(k)%airstr(i) = 0.
!soil acidity
xvar=(/spar(k)%ph_min, spar(k)%ph_opt_min, spar(k)%ph_opt_max, spar(k)%ph_max/)
yvar=(/0,1,1,0/)
m_1=(yvar(1)-yvar(2))/(xvar(1)-xvar(2))
n_1=yvar(2)-m_1*xvar(2)
m_2=(yvar(3)-yvar(4))/(xvar(3)-xvar(4))
n_2=yvar(4)-m_2*xvar(4)
if (phv(i) .gt. spar(k)%ph_opt_max .and. phv(i) .le. spar(k)%ph_max ) then
svar(k)%phstr(i)=m_2*phv(i)+n_2
elseif (phv(i) .lt. spar(k)%ph_opt_min .and. phv(i) .ge. spar(k)%ph_min ) then
svar(k)%phstr(i)=m_1*phv(i)+n_1
elseif (phv(i) .gt. spar(k)%ph_max .or. phv(i) .lt. spar(k)%ph_min) then
svar(k)%phstr(i)=0.
else
svar(k)%phstr(i)=1.
endif
! total stress (Rstress) is taken as the largest of the four
allstress(1)=svar(k)%tstress(i)
allstress(2)=svar(k)%sstr(i)
allstress(3)=svar(k)%airstr(i)
allstress(4)=svar(k)%phstr(i)
svar(k)%Rstress(i)= minval(allstress)
svar(k)%Smean(i)=svar(k)%Rstress(i)+svar(k)%Smean(i)
enddo
enddo
END subroutine soil_stress
!*******************************************************************************
SUBROUTINE hum_add(xfcap, xwiltp, xpv)
! Soil parameter according to [Kuntze et al., Bodenkunde, 1994], S. 172
use data_simul
use data_soil
use data_soil_cn
implicit none
integer :: i, k
real :: fcapi, clayvi, siltvi, humvi, humvi2, wiltpi, pvi, nfki, hcbc
real, dimension(nlay):: xfcap, xwiltp, xpv ! output of addition mm/dm
xfcap(1) = 0.0
xwiltp(1) = 0.0
xpv(1) = 0.0
do i = 1, nlay
fcapi = 0.
wiltpi = 0.
pvi = 0.
clayvi = clayv(i)
humvi = humusv(i)*100.
humvi2 = humusv(i)*humusv(i)
if (humvi .lt. 15.) then
if (clayvi .le. 0.05) then
wiltpi = 0.0609 * humvi2 + 0.33 * humvi
pvi = 0.0436 * humvi2 + 0.631 * humvi
nfki = -0.0009 * humvi2 + 1.171 * humvi
fcapi = nfki + wiltpi
else if (clayvi .le. 0.12) then
wiltpi = 0.0357 * humvi2 + 0.0762 * humvi
pvi = 0.0441 * humvi2 + 0.5455 * humvi
nfki = 0.0252 * humvi2 + 0.7462 * humvi
fcapi = nfki + wiltpi
else if (clayvi .le. 0.17) then
wiltpi = 0.0374 * humvi2 - 0.1777 * humvi
pvi = 0.0552 * humvi2 + 0.2936 * humvi
nfki = 0.0324 * humvi2 + 0.6243 * humvi
fcapi = nfki + wiltpi
else if (clayvi .le. 0.35) then
wiltpi = 0.0179 * humvi2 - 0.0385 * humvi
pvi = 0.0681 * humvi2 + 0.0768 * humvi
nfki = 0.0373 * humvi2 + 0.3617 * humvi
fcapi = nfki + wiltpi
else if (clayvi .le. 0.65) then
wiltpi = 0.0039 * humvi2 + 0.0254 * humvi
pvi = 0.0613 * humvi2 + 0.0947 * humvi
nfki = 0.0338 * humvi2 + 0.0904 * humvi
fcapi = nfki + wiltpi
else
wiltpi = 0.0
pvi = 0.0613 * humvi2 + 0.0947 * humvi
nfki = 0.0104 * humvi2 + 0.2853 * humvi
fcapi = nfki + wiltpi
endif
else ! humvi > 15
! organic soils
continue
endif ! humvi
xfcap(i) = fcapi
xwiltp(i) = wiltpi
xpv(i) = pvi
enddo
if (flag_bc .gt. 0) then
do i = 1, nlay
if (C_bc(i) .gt. 0.) then
fcapi = f_cap_v(i)
clayvi = clayv(i)
siltvi = siltv(i)
humvi = humusv(i)*100.
hcbc = C_bc(i)*100.*100. / (cpart_bc(y_bc_n) * dmass(i))
if ((clayvi .le. 0.17) .and. (siltvi .le. 0.5)) then ! sand
fcapi = 0.0619 * hcbc
wiltpi = 0.0375 * hcbc
nfki = 7.0
elseif ((clayvi .le. 0.45) .and. (siltvi .gt. 0.17)) then ! loam
fcapi = 0.015 * hcbc
wiltpi = 0.0157 * hcbc
nfki = 10.
else ! clay
fcapi = -0.0109 * hcbc
wiltpi = -0.0318 * hcbc
nfki = 16.
endif
xfcap(i) = xfcap(i) + fcapi
xwiltp(i) = xwiltp(i) + wiltpi
endif
enddo
endif
END subroutine hum_add
!*******************************************************************************
SUBROUTINE bc_appl
! application of biochar
use data_out
use data_simul
use data_soil
use data_soil_cn
implicit none
character :: text
integer :: ios, inunit, j
logical :: ex
real :: hcbc
call testfile(valfile(ip),ex)
IF (ex .eqv. .true.) then
inunit = getunit()
ios=0
open(inunit,file=valfile(ip),iostat=ios,status='old',action='read')
if (.not.flag_mult8910) then
print *,'***** Reading application values of biochar from file ',valfile(ip),'...'
write (unit_err, *) 'Application values of biochar from file ',trim(valfile(ip))
endif
do
read(inunit,*) text
IF(text .ne. '!')then
backspace(inunit)
exit
endif
enddo
read (inunit,*,iostat=ios) n_appl_bc
allocate (C_bc_appl(n_appl_bc))
allocate (N_bc_appl(n_appl_bc))
allocate (bc_appl_lay(n_appl_bc))
allocate (cnv_bc(n_appl_bc))
allocate (dens_bc(n_appl_bc))
allocate (cpart_bc(n_appl_bc))
allocate (y_bc(0 : n_appl_bc + 1))
y_bc = 0
C_bc_appl = 0.
N_bc_appl = 0.
do j = 1, n_appl_bc
read (inunit,*,iostat=ios) y_bc(j), cpart_bc(j), cnv_bc(j), dens_bc(j)
read (inunit,*,iostat=ios) bc_appl_lay(j), C_bc_appl(j)
enddo
endif ! ex
END subroutine bc_appl
!*******************************************************************************