[GRASS-SVN] r30655 - grass/trunk/raster/r.sun
svn_grass at osgeo.org
svn_grass at osgeo.org
Thu Mar 20 09:43:22 EDT 2008
Author: neteler
Date: 2008-03-20 09:43:22 -0400 (Thu, 20 Mar 2008)
New Revision: 30655
Modified:
grass/trunk/raster/r.sun/main.c
Log:
indent -nbad -bap -bbb -nbbo -nbc -br -bli1 -bls -cbi0 -ncdb -nce \
-ci4 -cli0 -ncs -d0 -di0 -fc1 -nfca -hnl -i4 -ip4 -l80 -lc80 -lp -npcs \
-pi4 -nprs -npsl -sbi0 -sc -nsob -ss -ts8 main.c
Modified: grass/trunk/raster/r.sun/main.c
===================================================================
--- grass/trunk/raster/r.sun/main.c 2008-03-20 13:24:31 UTC (rev 30654)
+++ grass/trunk/raster/r.sun/main.c 2008-03-20 13:43:22 UTC (rev 30655)
@@ -1,3 +1,4 @@
+
/*******************************************************************************
r.sun: This program was writen by Jaro Hofierka in Summer 1993 and re-engineered
in 1996-1999. In cooperation with Marcel Suri and Thomas Huld from JRC in Ispra
@@ -32,7 +33,7 @@
#define M2_PI 2. * M_PI
#define RAD 360. / (2. * M_PI)
#define DEG (2. * M_PI)/360.
-#define EARTHRADIUS 6371000. /* appx. for most ellipsoids or projections */
+#define EARTHRADIUS 6371000. /* appx. for most ellipsoids or projections */
#define UNDEF 0. /* undefined value for terrain aspect */
#define UNDEFZ -9999. /* internal undefined value for NULL */
#define SKIP "1"
@@ -74,7 +75,7 @@
char *diff_rad = NULL;
char *refl_rad = NULL;
char *mapset1 = NULL, *mapset2 = NULL, *mapset3 = NULL, *mapset4 = NULL,
- *mapset5 = NULL, *mapset6 = NULL, *mapset7 = NULL, *mapset8 = NULL;
+ *mapset5 = NULL, *mapset6 = NULL, *mapset7 = NULL, *mapset8 = NULL;
char *per;
char *shade;
@@ -153,13 +154,14 @@
module->keywords = _("raster");
module->label = _("Solar irradiance and irradiation model.");
module->description =
- _("Computes direct (beam), diffuse and reflected solar irradiation raster "
- "maps for given day, latitude, surface and atmospheric conditions. Solar "
- "parameters (e.g. sunrise, sunset times, declination, extraterrestrial "
- "irradiance, daylight length) are saved in the map history file. "
- "Alternatively, a local time can be specified to compute solar "
- "incidence angle and/or irradiance raster maps. The shadowing effect of "
- "the topography is optionally incorporated.");
+ _
+ ("Computes direct (beam), diffuse and reflected solar irradiation raster "
+ "maps for given day, latitude, surface and atmospheric conditions. Solar "
+ "parameters (e.g. sunrise, sunset times, declination, extraterrestrial "
+ "irradiance, daylight length) are saved in the map history file. "
+ "Alternatively, a local time can be specified to compute solar "
+ "incidence angle and/or irradiance raster maps. The shadowing effect of "
+ "the topography is optionally incorporated.");
if (G_get_set_window(&cellhd) == -1)
G_fatal_error("G_get_set_window() failed");
@@ -182,16 +184,19 @@
parm.elevin->type = TYPE_STRING;
parm.elevin->required = YES;
parm.elevin->gisprompt = "old,cell,raster";
- parm.elevin->description = _("Name of the input elevation raster map [meters]");
- parm.elevin->guisection = _("Input_options");
+ parm.elevin->description =
+ _("Name of the input elevation raster map [meters]");
+ parm.elevin->guisection = _("Input_options");
parm.aspin = G_define_option();
parm.aspin->key = "aspin";
parm.aspin->type = TYPE_STRING;
parm.aspin->required = YES;
parm.aspin->gisprompt = "old,cell,raster";
- parm.aspin->description = _("Name of the input aspect map (terrain aspect or azimuth of the solar panel) [decimal degrees]");
- parm.aspin->guisection = _("Input_options");
+ parm.aspin->description =
+ _
+ ("Name of the input aspect map (terrain aspect or azimuth of the solar panel) [decimal degrees]");
+ parm.aspin->guisection = _("Input_options");
parm.slopein = G_define_option();
@@ -199,8 +204,10 @@
parm.slopein->type = TYPE_STRING;
parm.slopein->required = YES;
parm.slopein->gisprompt = "old,cell,raster";
- parm.slopein->description = _("Name of the input slope raster map (terrain slope or solar panel inclination) [decimal degrees]");
- parm.slopein->guisection = _("Input_options");
+ parm.slopein->description =
+ _
+ ("Name of the input slope raster map (terrain slope or solar panel inclination) [decimal degrees]");
+ parm.slopein->guisection = _("Input_options");
parm.linkein = G_define_option();
parm.linkein->key = "linkein";
@@ -208,8 +215,9 @@
parm.linkein->required = NO;
parm.linkein->gisprompt = "old,cell,raster";
parm.linkein->description =
- _("Name of the Linke atmospheric turbidity coefficient input raster map [-]");
- parm.linkein->guisection = _("Input_options");
+ _
+ ("Name of the Linke atmospheric turbidity coefficient input raster map [-]");
+ parm.linkein->guisection = _("Input_options");
if (parm.linkein->answer == NULL) {
parm.lin = G_define_option();
@@ -217,9 +225,10 @@
parm.lin->type = TYPE_DOUBLE;
parm.lin->answer = LINKE;
parm.lin->required = NO;
- parm.lin->guisection = _("Input_options");
+ parm.lin->guisection = _("Input_options");
parm.lin->description =
- _("A single value of the Linke atmospheric turbidity coefficient [-]");
+ _
+ ("A single value of the Linke atmospheric turbidity coefficient [-]");
}
parm.albedo = G_define_option();
@@ -227,8 +236,9 @@
parm.albedo->type = TYPE_STRING;
parm.albedo->required = NO;
parm.albedo->gisprompt = "old,cell,raster";
- parm.albedo->description = _("Name of the ground albedo coefficient input raster map [-]");
- parm.albedo->guisection = _("Input_options");
+ parm.albedo->description =
+ _("Name of the ground albedo coefficient input raster map [-]");
+ parm.albedo->guisection = _("Input_options");
if (parm.albedo->answer == NULL) {
parm.alb = G_define_option();
@@ -236,8 +246,9 @@
parm.alb->type = TYPE_DOUBLE;
parm.alb->answer = ALB;
parm.alb->required = NO;
- parm.alb->guisection = _("Input_options");
- parm.alb->description = _("A single value of the ground albedo coefficient [-]");
+ parm.alb->guisection = _("Input_options");
+ parm.alb->description =
+ _("A single value of the ground albedo coefficient [-]");
}
parm.latin = G_define_option();
@@ -247,15 +258,16 @@
parm.latin->gisprompt = "old,cell,raster";
parm.latin->description =
_("Name of the latitudes input raster map [decimal degrees]");
- parm.latin->guisection = _("Input_options");
+ parm.latin->guisection = _("Input_options");
if (parm.latin->answer == NULL) {
parm.lat = G_define_option();
parm.lat->key = "lat";
parm.lat->type = TYPE_DOUBLE;
parm.lat->required = NO;
- parm.lat->guisection = _("Input_options");
- parm.lat->description = _("A single value of latitude [decimal degrees]");
+ parm.lat->guisection = _("Input_options");
+ parm.lat->description =
+ _("A single value of latitude [decimal degrees]");
}
parm.coefbh = G_define_option();
@@ -265,7 +277,7 @@
parm.coefbh->gisprompt = "old,cell,raster";
parm.coefbh->description =
_("Name of real-sky beam radiation coefficient raster map [-]");
- parm.coefbh->guisection = _("Input_options");
+ parm.coefbh->guisection = _("Input_options");
parm.coefdh = G_define_option();
parm.coefdh->key = "coefdh";
@@ -274,15 +286,16 @@
parm.coefdh->gisprompt = "old,cell,raster";
parm.coefdh->description =
_("Name of real-sky diffuse radiation coefficient raster map [-]");
- parm.coefdh->guisection = _("Input_options");
+ parm.coefdh->guisection = _("Input_options");
parm.incidout = G_define_option();
parm.incidout->key = "incidout";
parm.incidout->type = TYPE_STRING;
parm.incidout->required = NO;
parm.incidout->gisprompt = "new,cell,raster";
- parm.incidout->description = _("Output incidence angle raster map (mode 1 only)");
- parm.incidout->guisection = _("Output_options");
+ parm.incidout->description =
+ _("Output incidence angle raster map (mode 1 only)");
+ parm.incidout->guisection = _("Output_options");
parm.beam_rad = G_define_option();
parm.beam_rad->key = "beam_rad";
@@ -290,16 +303,18 @@
parm.beam_rad->required = NO;
parm.beam_rad->gisprompt = "new,cell,raster";
parm.beam_rad->description =
- _("Output beam irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
- parm.beam_rad->guisection = _("Output_options");
+ _
+ ("Output beam irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
+ parm.beam_rad->guisection = _("Output_options");
parm.insol_time = G_define_option();
parm.insol_time->key = "insol_time";
parm.insol_time->type = TYPE_STRING;
parm.insol_time->required = NO;
parm.insol_time->gisprompt = "new,cell,raster";
- parm.insol_time->description = _("Output insolation time raster map [h] (mode 2 only)");
- parm.insol_time->guisection = _("Output_options");
+ parm.insol_time->description =
+ _("Output insolation time raster map [h] (mode 2 only)");
+ parm.insol_time->guisection = _("Output_options");
parm.diff_rad = G_define_option();
parm.diff_rad->key = "diff_rad";
@@ -307,8 +322,9 @@
parm.diff_rad->required = NO;
parm.diff_rad->gisprompt = "new,cell,raster";
parm.diff_rad->description =
- _("Output diffuse irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
- parm.diff_rad->guisection = _("Output_options");
+ _
+ ("Output diffuse irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
+ parm.diff_rad->guisection = _("Output_options");
parm.refl_rad = G_define_option();
parm.refl_rad->key = "refl_rad";
@@ -316,8 +332,9 @@
parm.refl_rad->required = NO;
parm.refl_rad->gisprompt = "new,cell,raster";
parm.refl_rad->description =
- _("Output ground reflected irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
- parm.refl_rad->guisection = _("Output_options");
+ _
+ ("Output ground reflected irradiance [W.m-2] (mode 1) or irradiation raster map [Wh.m-2.day-1] (mode 2)");
+ parm.refl_rad->guisection = _("Output_options");
parm.day = G_define_option();
parm.day->key = "day";
@@ -330,26 +347,28 @@
parm.step->type = TYPE_DOUBLE;
parm.step->answer = STEP;
parm.step->required = NO;
- parm.step->description = _("Time step when computing all-day radiation sums [decimal hours]");
+ parm.step->description =
+ _("Time step when computing all-day radiation sums [decimal hours]");
parm.declin = G_define_option();
parm.declin->key = "declin";
parm.declin->type = TYPE_DOUBLE;
parm.declin->required = NO;
parm.declin->description =
- _("Declination value (overriding the internally computed value) [radians]");
+ _
+ ("Declination value (overriding the internally computed value) [radians]");
parm.ltime = G_define_option();
parm.ltime->key = "time";
parm.ltime->type = TYPE_DOUBLE;
/* parm.ltime->answer = TIME; */
parm.ltime->required = NO;
- parm.ltime->description = _("Local (solar) time (to be set for mode 1 only) [decimal hours]");
+ parm.ltime->description =
+ _("Local (solar) time (to be set for mode 1 only) [decimal hours]");
flag.shade = G_define_flag();
flag.shade->key = 's';
- flag.shade->description =
- _("Incorporate the shadowing effect of terrain");
+ flag.shade->description = _("Incorporate the shadowing effect of terrain");
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
@@ -370,7 +389,7 @@
diff_rad = parm.diff_rad->answer;
refl_rad = parm.refl_rad->answer;
- if((insol_time != NULL) && (incidout != NULL))
+ if ((insol_time != NULL) && (incidout != NULL))
G_fatal_error(_("insol_time and incidout are incompatible options"));
sscanf(parm.day->answer, "%d", &day);
@@ -378,15 +397,17 @@
tt = parm.ltime->answer;
if (parm.ltime->answer != NULL) {
- if(insol_time != NULL)
+ if (insol_time != NULL)
G_fatal_error(_("time and insol_time are incompatible options"));
- G_message(_("Mode 1: instantaneous solar incidence angle & irradiance given a set local time"));
+ G_message(_
+ ("Mode 1: instantaneous solar incidence angle & irradiance given a set local time"));
sscanf(parm.ltime->answer, "%lf", &timo);
}
else {
- if(incidout != NULL)
+ if (incidout != NULL)
G_fatal_error(_("incidout requires time parameter to be set"));
- G_message(_("Mode 2: integrated daily irradiation for a given day of the year"));
+ G_message(_
+ ("Mode 2: integrated daily irradiation for a given day of the year"));
}
if (parm.linkein->answer == NULL)
@@ -435,7 +456,8 @@
if ((in_proj_info = G_get_projinfo()) == NULL)
G_fatal_error
- (_("Can't get projection info of current location: please set latitude via 'lat' or 'latin' option!"));
+ (_
+ ("Can't get projection info of current location: please set latitude via 'lat' or 'latin' option!"));
if ((in_unit_info = G_get_projunits()) == NULL)
G_fatal_error(_("Can't get projection units of current location"));
@@ -453,7 +475,7 @@
sprintf(oproj.proj, "ll");
if ((oproj.pj = pj_latlong_from_proj(iproj.pj)) == NULL)
G_fatal_error(_("Unable to set up lat/long projection parameters"));
-
+
}
/**********end of parser - ******************************/
@@ -478,14 +500,14 @@
cell2 = G_allocate_f_raster_buf();
cell3 = G_allocate_f_raster_buf();
- z = (float **)G_malloc (sizeof(float *) * (m));
- o = (float **)G_malloc (sizeof(float *) * (m));
- s = (float **)G_malloc (sizeof(float *) * (m));
+ z = (float **)G_malloc(sizeof(float *) * (m));
+ o = (float **)G_malloc(sizeof(float *) * (m));
+ s = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- z[l] = (float *)G_malloc (sizeof(float) * (n));
- o[l] = (float *)G_malloc (sizeof(float) * (n));
- s[l] = (float *)G_malloc (sizeof(float) * (n));
+ z[l] = (float *)G_malloc(sizeof(float) * (n));
+ o[l] = (float *)G_malloc(sizeof(float) * (n));
+ s[l] = (float *)G_malloc(sizeof(float) * (n));
}
@@ -504,9 +526,9 @@
if (linkein != NULL) {
cell4 = G_allocate_f_raster_buf();
- li = (float **)G_malloc (sizeof(float *) * (m));
+ li = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++)
- li[l] = (float *)G_malloc (sizeof(float) * (n));
+ li[l] = (float *)G_malloc(sizeof(float) * (n));
if ((mapset4 = G_find_cell(linkein, "")) == NULL)
G_fatal_error(_("linkein raster map <%s> not found"), linkein);
@@ -516,9 +538,9 @@
if (albedo != NULL) {
cell5 = G_allocate_f_raster_buf();
- a = (float **)G_malloc (sizeof(float *) * (m));
+ a = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++)
- a[l] = (float *)G_malloc (sizeof(float) * (n));
+ a[l] = (float *)G_malloc(sizeof(float) * (n));
if ((mapset5 = G_find_cell(albedo, "")) == NULL)
G_fatal_error(_("albedo raster map <%s> not found"), albedo);
@@ -528,9 +550,9 @@
if (latin != NULL) {
cell6 = G_allocate_f_raster_buf();
- la = (float **)G_malloc (sizeof(float *) * (m));
+ la = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++)
- la[l] = (float *)G_malloc (sizeof(float) * (n));
+ la[l] = (float *)G_malloc(sizeof(float) * (n));
if ((mapset6 = G_find_cell(latin, "")) == NULL)
G_fatal_error(_("latin raster map <%s> not found"), latin);
@@ -540,9 +562,9 @@
if (coefbh != NULL) {
rast1 = G_allocate_f_raster_buf();
- cbhr = (float **)G_malloc (sizeof(float *) * (m));
+ cbhr = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++)
- cbhr[l] = (float *)G_malloc (sizeof(float) * (n));
+ cbhr[l] = (float *)G_malloc(sizeof(float) * (n));
if ((mapset7 = G_find_cell(coefbh, "")) == NULL)
G_fatal_error(_("coefbh raster map <%s> not found"), coefbh);
@@ -552,9 +574,9 @@
if (coefdh != NULL) {
rast2 = G_allocate_f_raster_buf();
- cdhr = (float **)G_malloc (sizeof(float *) * (m));
+ cdhr = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++)
- cdhr[l] = (float *)G_malloc (sizeof(float) * (n));
+ cdhr[l] = (float *)G_malloc(sizeof(float) * (n));
if ((mapset8 = G_find_cell(coefdh, "")) == NULL)
G_fatal_error(_("coefdh raster map <%s> not found"), coefdh);
@@ -664,7 +686,7 @@
o[i][j] = 90. - o[i][j];
else
o[i][j] = 450. - o[i][j];
- G_debug (3, "o:%f z:%f i:%d j:%d", o[i][j], z[i][j], i, j);
+ G_debug(3, "o:%f z:%f i:%d j:%d", o[i][j], z[i][j], i, j);
if (z[i][j] == UNDEFZ || o[i][j] == UNDEFZ || s[i][j] == UNDEFZ)
z[i][j] = UNDEFZ;
@@ -724,12 +746,12 @@
cell10 = G_allocate_f_raster_buf();
fd10 = G_open_fp_cell_new(refl_rad);
if (fd10 < 0)
- G_fatal_error(_("Unable to create raster map %s"),refl_rad );
+ G_fatal_error(_("Unable to create raster map %s"), refl_rad);
}
if (G_set_window(&cellhd) < 0)
- G_fatal_error ("region error");
+ G_fatal_error("region error");
if (m != G_window_rows())
G_fatal_error(_("rows changed from %d to %d"), m, G_window_rows());
@@ -796,23 +818,23 @@
if (incidout != NULL) {
G_close_cell(fd7);
- G_write_history(incidout, &hist);
+ G_write_history(incidout, &hist);
}
if (beam_rad != NULL) {
G_close_cell(fd8);
- G_write_history(beam_rad, &hist);
+ G_write_history(beam_rad, &hist);
}
if (diff_rad != NULL) {
G_close_cell(fd9);
- G_write_history(diff_rad, &hist);
+ G_write_history(diff_rad, &hist);
}
if (refl_rad != NULL) {
G_close_cell(fd10);
- G_write_history(refl_rad, &hist);
+ G_write_history(refl_rad, &hist);
}
if (insol_time != NULL) {
G_close_cell(fd11);
- G_write_history(insol_time, &hist);
+ G_write_history(insol_time, &hist);
}
return 1;
@@ -1126,32 +1148,32 @@
double dx, dy;
int i, j;
- sx = xx0 * invstepx + 0.5; /* offset 0.5 cell size to get the right cell i, j */
- sy = yy0 * invstepy + 0.5;
+ sx = xx0 * invstepx + 0.5; /* offset 0.5 cell size to get the right cell i, j */
+ sy = yy0 * invstepy + 0.5;
i = (int)sx;
j = (int)sy;
if (i <= n - 1 && j <= m - 1) {
- dx = (double)i *stepx;
- dy = (double)j *stepy;
+ dx = (double)i *stepx;
+ dy = (double)j *stepy;
- length = DISTANCE1(xg0, dx, yg0, dy); /* dist from orig. grid point to the current grid point */
+ length = DISTANCE1(xg0, dx, yg0, dy); /* dist from orig. grid point to the current grid point */
- cube(j, i);
- return;
+ cube(j, i);
+ return;
}
- else
+ else
func = NULL;
}
void cube(int jmin, int imin)
{
- zp = z[jmin][imin];
- if ((zp == UNDEFZ))
- func = NULL;
+ zp = z[jmin][imin];
+ if ((zp == UNDEFZ))
+ func = NULL;
}
int searching(void)
@@ -1168,11 +1190,11 @@
where_is_point();
if (func == NULL)
return (3);
-/* length += stepxy;*/
+ /* length += stepxy; */
- curvature_diff = EARTHRADIUS*(1.-cos(length/EARTHRADIUS));
- z2 = z_orig + curvature_diff + length * tanh0; /* also corrected to the earth's curvature */
-
+ curvature_diff = EARTHRADIUS * (1. - cos(length / EARTHRADIUS));
+ z2 = z_orig + curvature_diff + length * tanh0; /* also corrected to the earth's curvature */
+
if (z2 < zp)
succes = 2; /* shadow */
if (z2 > zmax)
@@ -1193,9 +1215,9 @@
double lum, q1;
if (incidout != NULL) {
- lumcl = (float **)G_malloc (sizeof(float *) * (m));
+ lumcl = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- lumcl[l] = (float *)G_malloc (sizeof(float) * (n));
+ lumcl[l] = (float *)G_malloc(sizeof(float) * (n));
}
for (j = 0; j < m; j++) {
for (i = 0; i < n; i++)
@@ -1204,9 +1226,9 @@
}
if (beam_rad != NULL) {
- beam = (float **)G_malloc (sizeof(float *) * (m));
+ beam = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- beam[l] = (float *)G_malloc (sizeof(float) * (n));
+ beam[l] = (float *)G_malloc(sizeof(float) * (n));
}
for (j = 0; j < m; j++) {
@@ -1216,9 +1238,9 @@
}
if (insol_time != NULL) {
- insol = (float **)G_malloc (sizeof(float *) * (m));
+ insol = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- insol[l] = (float *)G_malloc (sizeof(float) * (n));
+ insol[l] = (float *)G_malloc(sizeof(float) * (n));
}
for (j = 0; j < m; j++) {
@@ -1228,9 +1250,9 @@
}
if (diff_rad != NULL) {
- diff = (float **)G_malloc (sizeof(float *) * (m));
+ diff = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- diff[l] = (float *)G_malloc (sizeof(float) * (n));
+ diff[l] = (float *)G_malloc(sizeof(float) * (n));
}
for (j = 0; j < m; j++) {
@@ -1240,9 +1262,9 @@
}
if (refl_rad != NULL) {
- refl = (float **)G_malloc (sizeof(float *) * (m));
+ refl = (float **)G_malloc(sizeof(float *) * (m));
for (l = 0; l < m; l++) {
- refl[l] = (float *)G_malloc (sizeof(float) * (n));
+ refl[l] = (float *)G_malloc(sizeof(float) * (n));
}
for (j = 0; j < m; j++) {
@@ -1297,7 +1319,8 @@
longitude = xp;
latitude = yp;
- if (pj_do_proj(&longitude, &latitude, &iproj, &oproj) < 0) {
+ if (pj_do_proj(&longitude, &latitude, &iproj, &oproj) <
+ 0) {
G_fatal_error(_("Error in pj_do_proj"));
}
@@ -1368,57 +1391,86 @@
G_short_history("r.sun solar model output", "raster", &hist);
- sprintf (hist.edhist[0], " ----------------------------------------------------------------");
- sprintf (hist.edhist[1], " Day [1-365]: %d", day);
+ sprintf(hist.edhist[0],
+ " ----------------------------------------------------------------");
+ sprintf(hist.edhist[1], " Day [1-365]: %d",
+ day);
hist.edlinecnt = 2;
if (tt != NULL) {
- sprintf (hist.edhist[hist.edlinecnt], " Local (solar) time (decimal hr.): %.4f", timo);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Local (solar) time (decimal hr.): %.4f", timo);
hist.edlinecnt++;
}
- sprintf (hist.edhist[hist.edlinecnt], " Solar constant (W/m^2): 1367");
- sprintf (hist.edhist[hist.edlinecnt+1], " Extraterrestrial irradiance (W/m^2): %f", c);
- sprintf (hist.edhist[hist.edlinecnt+2], " Declination (rad): %f", -declination);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Solar constant (W/m^2): 1367");
+ sprintf(hist.edhist[hist.edlinecnt + 1],
+ " Extraterrestrial irradiance (W/m^2): %f", c);
+ sprintf(hist.edhist[hist.edlinecnt + 2],
+ " Declination (rad): %f", -declination);
hist.edlinecnt += 3;
if (lt != NULL)
- sprintf (hist.edhist[hist.edlinecnt], " Latitude (deg): %.4f", -latitude * RAD);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Latitude (deg): %.4f",
+ -latitude * RAD);
else
- sprintf (hist.edhist[hist.edlinecnt], " Latitude min-max(deg): %.4f - %.4f", la_min, la_max);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Latitude min-max(deg): %.4f - %.4f",
+ la_min, la_max);
hist.edlinecnt++;
if (tt != NULL) {
- sprintf (hist.edhist[hist.edlinecnt], " Sunrise time (hr.): %.2f", sunrise_time);
- sprintf (hist.edhist[hist.edlinecnt+1], " Sunset time (hr.): %.2f", sunset_time);
- sprintf (hist.edhist[hist.edlinecnt+2], " Daylight time (hr.): %.2f", sunset_time - sunrise_time);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Sunrise time (hr.): %.2f",
+ sunrise_time);
+ sprintf(hist.edhist[hist.edlinecnt + 1],
+ " Sunset time (hr.): %.2f", sunset_time);
+ sprintf(hist.edhist[hist.edlinecnt + 2],
+ " Daylight time (hr.): %.2f",
+ sunset_time - sunrise_time);
}
else {
- sprintf (hist.edhist[hist.edlinecnt], " Sunrise time min-max (hr.): %.2f - %.2f", sr_min, sr_max);
- sprintf (hist.edhist[hist.edlinecnt+1], " Sunset time min-max (hr.): %.2f - %.2f", ss_min, ss_max);
- sprintf (hist.edhist[hist.edlinecnt+2], " Time step (hr.): %.4f", step);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Sunrise time min-max (hr.): %.2f - %.2f",
+ sr_min, sr_max);
+ sprintf(hist.edhist[hist.edlinecnt + 1],
+ " Sunset time min-max (hr.): %.2f - %.2f",
+ ss_min, ss_max);
+ sprintf(hist.edhist[hist.edlinecnt + 2],
+ " Time step (hr.): %.4f", step);
}
hist.edlinecnt += 3;
if (incidout != NULL || tt != NULL) {
- sprintf (hist.edhist[hist.edlinecnt], " Solar altitude (deg): %.4f", h0 * RAD);
- sprintf (hist.edhist[hist.edlinecnt+1], " Solar azimuth (deg): %.4f", A0 * RAD);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Solar altitude (deg): %.4f", h0 * RAD);
+ sprintf(hist.edhist[hist.edlinecnt + 1],
+ " Solar azimuth (deg): %.4f", A0 * RAD);
hist.edlinecnt += 2;
}
if (linkein == NULL)
- sprintf (hist.edhist[hist.edlinecnt], " Linke turbidity factor: %.1f", linke);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Linke turbidity factor: %.1f", linke);
else
- sprintf (hist.edhist[hist.edlinecnt], " Linke turbidity factor min-max: %.1f-%.1f", li_min, li_max);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Linke turbidity factor min-max: %.1f-%.1f", li_min,
+ li_max);
hist.edlinecnt++;
if (albedo == NULL)
- sprintf (hist.edhist[hist.edlinecnt], " Ground albedo: %.3f", alb);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Ground albedo: %.3f", alb);
else
- sprintf (hist.edhist[hist.edlinecnt], " Ground albedo min-max: %.3f-%.3f", al_min, al_max);
+ sprintf(hist.edhist[hist.edlinecnt],
+ " Ground albedo min-max: %.3f-%.3f", al_min,
+ al_max);
hist.edlinecnt++;
- sprintf (hist.edhist[hist.edlinecnt], " -----------------------------------------------------------------");
+ sprintf(hist.edhist[hist.edlinecnt],
+ " -----------------------------------------------------------------");
hist.edlinecnt++;
G_command_history(&hist);
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