/*!
\brief Define option for parser
\param n element id
\return pointer to Option structure
\return NULL on error
*/
struct Option* M_define_option(int n, const char *desc, int multiple)
{
char *str;
struct Option *p;
if (n >= nlist)
return NULL;
p = G_define_option();
p->key = list[n].alias;
p->type = TYPE_STRING;
if (multiple)
p->key_desc = "name";
else
p->key_desc = "from,to";
p->required = NO;
p->multiple = multiple;
G_asprintf(&str, "old,%s,%s", list[n].mainelem, list[n].maindesc);
p->gisprompt = str;
G_asprintf(&str, _("%s to be %s"),
list[n].text, desc);
p->description = str;
if (strcmp(p->key, "rast") == 0 || strcmp(p->key, "rast3d") == 0)
p->guisection = _("Raster");
else if (strcmp(p->key, "vect") == 0 || strcmp(p->key, "oldvect") == 0 ||
strcmp(p->key, "asciivect") == 0)
p->guisection = _("Vector");
else if (strcmp(p->key, "region") == 0 || strcmp(p->key, "region3d") == 0)
p->guisection = _("Region");
else if (strcmp(p->key, "group") == 0)
p->guisection = _("Group");
return p;
}
void args_fringe(struct GParams *params)
{
char *desc;
params->fringe = G_define_option();
params->fringe->key = "fringe";
params->fringe->type = TYPE_STRING;
params->fringe->options = "nw,ne,sw,se";
desc = NULL;
G_asprintf(&desc,
"nw;%s;ne;%s;sw;%s;se;%s",
_("North-West edge"),
_("North-East edge"),
_("South-West edge"), _("South-East edge"));
params->fringe->descriptions = desc;
params->fringe->description = _("Fringe edges");
params->fringe->guisection = _("Fringe");
params->fringe->multiple = YES;
params->fringe_color = G_define_standard_option(G_OPT_C_FG);
params->fringe_color->key = "fringe_color";
params->fringe_color->label = _("Fringe color");
params->fringe_color->guisection = _("Fringe");
params->fringe_color->answer = "grey";
params->fringe_elev = G_define_option();
params->fringe_elev->key = "fringe_elevation";
params->fringe_elev->type = TYPE_INTEGER;
params->fringe_elev->required = NO;
params->fringe_elev->multiple = NO;
params->fringe_elev->description = _("Fringe elevation");
params->fringe_elev->guisection = _("Fringe");
params->fringe_elev->answer = "55";
}
static int read_dblinks_pg(struct Map_info *Map)
{
#ifdef HAVE_POSTGRES
char *name;
struct dblinks *dbl;
struct Format_info_pg *pg_info;
dbl = Map->dblnk;
pg_info = &(Map->fInfo.pg);
if (!pg_info->fid_column) {
G_warning(_("Feature table <%s> has no primary key defined. "
"Unable to define DB links."), pg_info->table_name);
return -1;
}
G_debug(3, "Using FID column <%s>", pg_info->fid_column);
name = NULL;
if (G_strcasecmp(pg_info->schema_name, "public") != 0)
G_asprintf(&name, "%s.%s", pg_info->schema_name,
pg_info->table_name);
else
name = pg_info->table_name;
Vect_add_dblink(dbl, 1, name, name,
pg_info->fid_column,
pg_info->db_name, "pg");
if (name != pg_info->table_name)
G_free(name);
return 1;
#else
G_warning(_("GRASS not compiled with PostgreSQL support"));
return -1;
#endif
}
int stop_wx(const char *name)
{
char *env_name;
const char *pid;
env_name = NULL;
G_asprintf(&env_name, "MONITOR_%s_PID", G_store_upper(name));
pid = G_getenv_nofatal(env_name);
if (!pid) {
clean_env(name);
G_fatal_error(_("PID file not found"));
}
#ifdef __MINGW32__
/* TODO */
#else
if (kill((pid_t) atoi(pid), SIGTERM) != 0) {
/* G_fatal_error(_("Unable to stop monitor <%s>"), name); */
}
#endif
clean_env(name);
return 0;
}
static void add_search_dir(const char *name)
{
char envvar_name[256];
char *fullname = NULL;
if (sscanf(name, "${%255[^}]}", envvar_name) == 1) {
char *envvar_value = getenv(envvar_name);
/* N.B. If the envvar isn't set, directory is skipped completely */
if (envvar_value)
G_asprintf(&fullname, "%s%s", envvar_value,
(name + strlen(envvar_name) + 3));
}
else
fullname = G_store(name);
if (fullname) {
searchdirs = (char **)G_realloc(searchdirs,
(numsearchdirs + 1) * sizeof(char *));
searchdirs[numsearchdirs] = fullname;
G_convert_dirseps_to_host(searchdirs[numsearchdirs]);
numsearchdirs++;
}
return;
}
void report_error(char *err)
{
char *msg = NULL;
G_asprintf(&msg, "DBMI-ODBC driver error: %s", err);
db_error(msg);
G_free(msg);
}
int GPJ__get_datum_params(const struct Key_Value *projinfo,
char **datumname, char **params)
{
int returnval = -1;
if (NULL != G_find_key_value("datum", projinfo)) {
*datumname = G_store(G_find_key_value("datum", projinfo));
G_debug(3, "GPJ__get_datum_params: datumname: <%s>", G_find_key_value("datum", projinfo));
returnval = 1;
}
else
*datumname = NULL;
if (G_find_key_value("datumparams", projinfo) != NULL) {
*params = G_store(G_find_key_value("datumparams", projinfo));
G_debug(3, "GPJ__get_datum_params: datumparams: <%s>", G_find_key_value("datumparams", projinfo));
returnval = 2;
}
else if (G_find_key_value("nadgrids", projinfo) != NULL) {
const char *gisbase = G_gisbase();
G_asprintf(params, "nadgrids=%s%s/%s", gisbase, GRIDDIR,
G_find_key_value("nadgrids", projinfo));
returnval = 2;
}
else if (G_find_key_value("towgs84", projinfo) != NULL) {
G_asprintf(params, "towgs84=%s",
G_find_key_value("towgs84", projinfo));
returnval = 2;
}
else if (G_find_key_value("dx", projinfo) != NULL
&& G_find_key_value("dy", projinfo) != NULL
&& G_find_key_value("dz", projinfo) != NULL) {
G_asprintf(params, "towgs84=%s,%s,%s",
G_find_key_value("dx", projinfo),
G_find_key_value("dy", projinfo),
G_find_key_value("dz", projinfo));
returnval = 2;
}
else
*params = NULL;
return returnval;
}
void die(char *a, char *b)
{
char *message;
G_asprintf(&message, "%s: %s %s", G_program_name(), a, b);
G_fatal_error(message);
return;
}
/* start wxGUI display monitor */
void start_wx(const char *name, const char *tempfile,
const char *env_value, const char *cmd_value,
const char *width, const char *height)
{
char progname[GPATH_MAX];
char *env_name, *map_value;
env_name = NULL;
G_asprintf(&env_name, "MONITOR_%s_MAPFILE", name);
G_asprintf(&map_value, "%s.ppm", tempfile);
G_setenv(env_name, map_value);
/* close(creat(map_value, 0666)); */
G_debug(3, " mapfile = %s", map_value);
sprintf(progname, "%s/etc/gui/wxpython/gui_modules/mapdisp.py", G_gisbase());
G_spawn_ex(getenv("GRASS_PYTHON"), progname, progname,
name, map_value, cmd_value, env_value, width ? width : "", height ? height : "", SF_BACKGROUND, NULL);
}
/* start file-based monitor */
void start(const char *name, const char *output)
{
char *env_name;
if (!output)
return;
env_name = NULL;
G_asprintf(&env_name, "MONITOR_%s_MAPFILE", name);
G_setenv(env_name, output);
}
PGresult *build_stmt(const struct Plus_head *plus, const struct Format_info_pg *pg_info,
const plus_t *lines, int n_lines)
{
int i, line;
size_t stmt_id_size;
char *stmt, *stmt_id, buf_id[128];
struct P_line *BLine;
PGresult *res;
stmt = NULL;
stmt_id_size = DB_SQL_MAX;
stmt_id = (char *) G_malloc(stmt_id_size);
stmt_id[0] = '\0';
for (i = 0; i < n_lines; i++) {
if (strlen(stmt_id) + 100 > stmt_id_size) {
stmt_id_size = strlen(stmt_id) + DB_SQL_MAX;
stmt_id = (char *) G_realloc(stmt_id, stmt_id_size);
}
line = abs(lines[i]);
BLine = plus->Line[line];
if (i > 0)
strcat(stmt_id, ",");
sprintf(buf_id, "%d", (int) BLine->offset);
strcat(stmt_id, buf_id);
}
/* Not really working - why?
G_asprintf(&stmt, "SELECT geom FROM \"%s\".edge_data WHERE edge_id IN (%s) "
"ORDER BY POSITION(edge_id::text in '%s')", pg_info->toposchema_name,
stmt_id, stmt_id);
*/
G_asprintf(&stmt, "SELECT geom FROM \"%s\".edge_data AS t "
"JOIN (SELECT id, row_number() over() AS id_sorter FROM "
"(SELECT UNNEST(ARRAY[%s]) AS id) AS y) x ON "
"t.edge_id in (%s) AND x.id = t.edge_id "
"ORDER BY x.id_sorter", pg_info->toposchema_name, stmt_id, stmt_id);
G_free(stmt_id);
G_debug(2, "SQL: %s", stmt);
res = PQexec(pg_info->conn, stmt);
G_free(stmt);
if (!res || PQresultStatus(res) != PGRES_TUPLES_OK ||
PQntuples(res) != n_lines) {
if (res)
PQclear(res);
return NULL;
}
return res;
}
const char *GPJ_set_csv_loc(const char *name)
{
const char *gisbase = G_gisbase();
static char *buf = NULL;
if (buf != NULL)
G_free(buf);
G_asprintf(&buf, "%s%s/%s", gisbase, CSVDIR, name);
return buf;
}
/* check if monitor is running */
int check_mon(const char *name)
{
char *env_name;
const char *str;
env_name = NULL;
G_asprintf(&env_name, "MONITOR_%s_ENVFILE", G_store_upper(name));
str = G__getenv(env_name);
if (!str)
return FALSE;
return TRUE;
}
int stop(const char *name)
{
char *env_name;
const char *env_file;
env_name = NULL;
G_asprintf(&env_name, "MONITOR_%s_ENVFILE", G_store_upper(name));
env_file = G_getenv_nofatal(env_name);
if (!env_file)
G_warning(_("Env file not found"));
clean_env(name);
return 0;
}
/*!
\brief Append command to the cmd file
Cmd file is created by d.mon by defining GRASS variable
\c MONITOR_<name>_CMDFILE, where \c \<name\> is the upper case name of
the monitor.
Command string is usually generated by G_recreate_command(), NULL is
used to clean up list of commands (see d.erase command).
\param cmd string buffer with command or NULL
\return 0 no monitor selected
\return -1 on error
\return 1 on success
*/
int D_save_command(const char *cmd)
{
const char *mon_name, *mon_cmd;
char *env, *flag, *u_mon_name;
FILE *fd;
G_debug(1, "D_save_command(): %s", cmd);
mon_name = G__getenv("MONITOR");
if (!mon_name || /* if no monitor selected */
/* or wx monitor selected and display commands called by the monitor */
(G_strncasecmp(mon_name, "wx", 2) == 0 &&
getenv("GRASS_RENDER_IMMEDIATE")))
return 0;
/* GRASS variable names should be upper case. */
u_mon_name = G_store_upper(mon_name);
env = NULL;
G_asprintf(&env, "MONITOR_%s_CMDFILE", u_mon_name);
mon_cmd = G__getenv(env);
if (!mon_cmd)
return 0;
if (cmd)
flag = "a";
else
flag = "w";
fd = fopen(mon_cmd, flag);
if (!fd) {
G_warning(_("Unable to open file '%s'"), mon_cmd);
return -1;
}
if (cmd)
fprintf(fd, "%s\n", cmd);
fclose(fd);
return 1;
}
void print_proj4(int dontprettify)
{
struct pj_info pjinfo;
char *proj4, *proj4mod, *i;
const char *unfact;
if (check_xy(FALSE))
return;
if (pj_get_kv(&pjinfo, projinfo, projunits) == -1)
G_fatal_error(_("Unable to convert projection information to PROJ.4 format"));
proj4 = pj_get_def(pjinfo.pj, 0);
pj_free(pjinfo.pj);
/* GRASS-style PROJ.4 strings don't include a unit factor as this is
* handled separately in GRASS - must include it here though */
unfact = G_find_key_value("meters", projunits);
if (unfact != NULL && (strcmp(pjinfo.proj, "ll") != 0))
G_asprintf(&proj4mod, "%s +to_meter=%s", proj4, unfact);
else
proj4mod = G_store(proj4);
pj_dalloc(proj4);
for (i = proj4mod; *i; i++) {
/* Don't print the first space */
if (i == proj4mod && *i == ' ')
continue;
if (*i == ' ' && *(i+1) == '+' && !(dontprettify))
fputc('\n', stdout);
else
fputc(*i, stdout);
}
fputc('\n', stdout);
G_free(proj4mod);
return;
}
/* list related commands for given monitor */
void list_cmd(const char *name, FILE *fd_out)
{
char buf[1024];
char *cmd_name;
const char *cmd_value;
FILE *fd;
cmd_name = NULL;
G_asprintf(&cmd_name, "MONITOR_%s_CMDFILE", G_store_upper(name));
cmd_value = G__getenv(cmd_name);
if (!cmd_value)
G_fatal_error(_("Command file not found"));
fd = fopen(cmd_value, "r");
if (!fd)
G_fatal_error(_("Unable to read command file"));
while (G_getl2(buf, sizeof(buf) - 1, fd) != 0) {
fprintf(fd_out, "%s\n", buf);
}
fclose(fd);
}
int db__driver_create_table(dbTable * table)
{
dbString sql;
cursor *c;
char msg[OD_MSG];
char *emsg = NULL;
SQLRETURN ret;
SQLINTEGER err;
G_debug(3, "db__driver_create_table()");
db_init_string(&sql);
db_table_to_sql(table, &sql);
G_debug(3, " SQL: %s", db_get_string(&sql));
c = alloc_cursor();
if (c == NULL)
return DB_FAILED;
ret = SQLExecDirect(c->stmt, db_get_string(&sql), SQL_NTS);
if ((ret != SQL_SUCCESS) && (ret != SQL_SUCCESS_WITH_INFO)) {
SQLGetDiagRec(SQL_HANDLE_STMT, c->stmt, 1, NULL, &err, msg,
sizeof(msg), NULL);
G_asprintf(&emsg, "SQLExecDirect():\n%s\n%s (%d)\n",
db_get_string(&sql), msg, (int)err);
report_error(emsg);
G_free(emsg);
return DB_FAILED;
}
free_cursor(c);
return DB_OK;
}
struct gpj_datum_transform_list *GPJ_get_datum_transform_by_name(const char
*inputname)
{
FILE *fd;
char file[GPATH_MAX];
char buf[1024];
int line;
struct gpj_datum_transform_list *current = NULL, *outputlist = NULL;
struct gpj_datum dstruct;
int count = 0;
GPJ_get_datum_by_name(inputname, &dstruct);
if (dstruct.dx < 99999 && dstruct.dy < 99999 && dstruct.dz < 99999) {
/* Include the old-style dx dy dz parameters from datum.table at the
* start of the list, unless these have been set to all 99999 to
* indicate only entries in datumtransform.table should be used */
if (current == NULL)
current = outputlist =
G_malloc(sizeof(struct gpj_datum_transform_list));
else
current = current->next =
G_malloc(sizeof(struct gpj_datum_transform_list));
G_asprintf(&(current->params), "towgs84=%.3f,%.3f,%.3f", dstruct.dx,
dstruct.dy, dstruct.dz);
G_asprintf(&(current->where_used), "whole %s region", inputname);
G_asprintf(&(current->comment),
"Default 3-Parameter Transformation (May not be optimum for "
"older datums; use this only if no more appropriate options "
"are available.)");
count++;
current->count = count;
current->next = NULL;
}
GPJ_free_datum(&dstruct);
/* Now check for additional parameters in datumtransform.table */
sprintf(file, "%s%s", G_gisbase(), DATUMTRANSFORMTABLE);
fd = fopen(file, "r");
if (!fd) {
G_warning(_("Unable to open datum table file <%s>"), file);
return outputlist;
}
for (line = 1; G_getl2(buf, sizeof(buf), fd); line++) {
char name[100], params[1024], where_used[1024], comment[1024];
G_strip(buf);
if (*buf == '\0' || *buf == '#')
continue;
if (sscanf(buf, "%99s \"%1023[^\"]\" \"%1023[^\"]\" \"%1023[^\"]\"",
name, params, where_used, comment) != 4) {
G_warning(_("Error in datum table file <%s>, line %d"), file,
line);
continue;
}
if (G_strcasecmp(inputname, name) == 0) {
/* If the datum name in this line matches the one we are
* looking for, add an entry to the linked list */
if (current == NULL)
current = outputlist =
G_malloc(sizeof(struct gpj_datum_transform_list));
else
current = current->next =
G_malloc(sizeof(struct gpj_datum_transform_list));
current->params = G_store(params);
current->where_used = G_store(where_used);
current->comment = G_store(comment);
count++;
current->count = count;
current->next = NULL;
}
}
fclose(fd);
return outputlist;
}
int main(int argc, char *argv[])
{
struct Map_info In, Out, Error;
struct line_pnts *Points;
struct line_cats *Cats;
int i, type, iter;
struct GModule *module; /* GRASS module for parsing arguments */
struct Option *map_in, *map_out, *error_out, *thresh_opt, *method_opt,
*look_ahead_opt;
struct Option *iterations_opt, *cat_opt, *alpha_opt, *beta_opt, *type_opt;
struct Option *field_opt, *where_opt, *reduction_opt, *slide_opt;
struct Option *angle_thresh_opt, *degree_thresh_opt,
*closeness_thresh_opt;
struct Option *betweeness_thresh_opt;
struct Flag *notab_flag, *loop_support_flag;
int with_z;
int total_input, total_output; /* Number of points in the input/output map respectively */
double thresh, alpha, beta, reduction, slide, angle_thresh;
double degree_thresh, closeness_thresh, betweeness_thresh;
int method;
int look_ahead, iterations;
int loop_support;
int layer;
int n_lines;
int simplification, mask_type;
struct cat_list *cat_list = NULL;
char *s, *descriptions;
/* initialize GIS environment */
G_gisinit(argv[0]); /* reads grass env, stores program name to G_program_name() */
/* initialize module */
module = G_define_module();
G_add_keyword(_("vector"));
G_add_keyword(_("generalization"));
G_add_keyword(_("simplification"));
G_add_keyword(_("smoothing"));
G_add_keyword(_("displacement"));
G_add_keyword(_("network generalization"));
module->description = _("Performs vector based generalization.");
/* Define the different options as defined in gis.h */
map_in = G_define_standard_option(G_OPT_V_INPUT);
field_opt = G_define_standard_option(G_OPT_V_FIELD_ALL);
type_opt = G_define_standard_option(G_OPT_V_TYPE);
type_opt->options = "line,boundary,area";
type_opt->answer = "line,boundary,area";
type_opt->guisection = _("Selection");
map_out = G_define_standard_option(G_OPT_V_OUTPUT);
error_out = G_define_standard_option(G_OPT_V_OUTPUT);
error_out->key = "error";
error_out->required = NO;
error_out->description =
_("Error map of all lines and boundaries not being generalized due to topology issues or over-simplification");
method_opt = G_define_option();
method_opt->key = "method";
method_opt->type = TYPE_STRING;
method_opt->required = YES;
method_opt->multiple = NO;
method_opt->options =
"douglas,douglas_reduction,lang,reduction,reumann,boyle,sliding_averaging,distance_weighting,chaiken,hermite,snakes,network,displacement";
descriptions = NULL;
G_asprintf(&descriptions,
"douglas;%s;"
"douglas_reduction;%s;"
"lang;%s;"
"reduction;%s;"
"reumann;%s;"
"boyle;%s;"
"sliding_averaging;%s;"
"distance_weighting;%s;"
"chaiken;%s;"
"hermite;%s;"
"snakes;%s;"
"network;%s;"
"displacement;%s;",
_("Douglas-Peucker Algorithm"),
_("Douglas-Peucker Algorithm with reduction parameter"),
_("Lang Simplification Algorithm"),
_("Vertex Reduction Algorithm eliminates points close to each other"),
_("Reumann-Witkam Algorithm"),
_("Boyle's Forward-Looking Algorithm"),
_("McMaster's Sliding Averaging Algorithm"),
_("McMaster's Distance-Weighting Algorithm"),
_("Chaiken's Algorithm"),
_("Interpolation by Cubic Hermite Splines"),
_("Snakes method for line smoothing"),
_("Network generalization"),
_("Displacement of lines close to each other"));
method_opt->descriptions = G_store(descriptions);
method_opt->description = _("Generalization algorithm");
thresh_opt = G_define_option();
thresh_opt->key = "threshold";
thresh_opt->type = TYPE_DOUBLE;
thresh_opt->required = YES;
thresh_opt->options = "0-1000000000";
thresh_opt->description = _("Maximal tolerance value");
look_ahead_opt = G_define_option();
look_ahead_opt->key = "look_ahead";
look_ahead_opt->type = TYPE_INTEGER;
look_ahead_opt->required = NO;
look_ahead_opt->answer = "7";
look_ahead_opt->description = _("Look-ahead parameter");
reduction_opt = G_define_option();
reduction_opt->key = "reduction";
reduction_opt->type = TYPE_DOUBLE;
reduction_opt->required = NO;
reduction_opt->answer = "50";
reduction_opt->options = "0-100";
reduction_opt->description =
_("Percentage of the points in the output of 'douglas_reduction' algorithm");
slide_opt = G_define_option();
slide_opt->key = "slide";
slide_opt->type = TYPE_DOUBLE;
slide_opt->required = NO;
slide_opt->answer = "0.5";
slide_opt->options = "0-1";
slide_opt->description =
_("Slide of computed point toward the original point");
angle_thresh_opt = G_define_option();
angle_thresh_opt->key = "angle_thresh";
angle_thresh_opt->type = TYPE_DOUBLE;
angle_thresh_opt->required = NO;
angle_thresh_opt->answer = "3";
angle_thresh_opt->options = "0-180";
angle_thresh_opt->description =
_("Minimum angle between two consecutive segments in Hermite method");
degree_thresh_opt = G_define_option();
degree_thresh_opt->key = "degree_thresh";
degree_thresh_opt->type = TYPE_INTEGER;
degree_thresh_opt->required = NO;
degree_thresh_opt->answer = "0";
degree_thresh_opt->description =
_("Degree threshold in network generalization");
closeness_thresh_opt = G_define_option();
closeness_thresh_opt->key = "closeness_thresh";
closeness_thresh_opt->type = TYPE_DOUBLE;
closeness_thresh_opt->required = NO;
closeness_thresh_opt->answer = "0";
closeness_thresh_opt->options = "0-1";
closeness_thresh_opt->description =
_("Closeness threshold in network generalization");
betweeness_thresh_opt = G_define_option();
betweeness_thresh_opt->key = "betweeness_thresh";
betweeness_thresh_opt->type = TYPE_DOUBLE;
betweeness_thresh_opt->required = NO;
betweeness_thresh_opt->answer = "0";
betweeness_thresh_opt->description =
_("Betweeness threshold in network generalization");
alpha_opt = G_define_option();
alpha_opt->key = "alpha";
alpha_opt->type = TYPE_DOUBLE;
alpha_opt->required = NO;
alpha_opt->answer = "1.0";
alpha_opt->description = _("Snakes alpha parameter");
beta_opt = G_define_option();
beta_opt->key = "beta";
beta_opt->type = TYPE_DOUBLE;
beta_opt->required = NO;
beta_opt->answer = "1.0";
beta_opt->description = _("Snakes beta parameter");
iterations_opt = G_define_option();
iterations_opt->key = "iterations";
iterations_opt->type = TYPE_INTEGER;
iterations_opt->required = NO;
iterations_opt->answer = "1";
iterations_opt->description = _("Number of iterations");
cat_opt = G_define_standard_option(G_OPT_V_CATS);
cat_opt->guisection = _("Selection");
where_opt = G_define_standard_option(G_OPT_DB_WHERE);
where_opt->guisection = _("Selection");
loop_support_flag = G_define_flag();
loop_support_flag->key = 'l';
loop_support_flag->label = _("Disable loop support");
loop_support_flag->description = _("Do not modify end points of lines forming a closed loop");
notab_flag = G_define_standard_flag(G_FLG_V_TABLE);
notab_flag->description = _("Do not copy attributes");
notab_flag->guisection = _("Attributes");
/* options and flags parser */
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
thresh = atof(thresh_opt->answer);
look_ahead = atoi(look_ahead_opt->answer);
alpha = atof(alpha_opt->answer);
beta = atof(beta_opt->answer);
reduction = atof(reduction_opt->answer);
iterations = atoi(iterations_opt->answer);
slide = atof(slide_opt->answer);
angle_thresh = atof(angle_thresh_opt->answer);
degree_thresh = atof(degree_thresh_opt->answer);
closeness_thresh = atof(closeness_thresh_opt->answer);
betweeness_thresh = atof(betweeness_thresh_opt->answer);
mask_type = type_mask(type_opt);
G_debug(3, "Method: %s", method_opt->answer);
s = method_opt->answer;
if (strcmp(s, "douglas") == 0)
method = DOUGLAS;
else if (strcmp(s, "lang") == 0)
method = LANG;
else if (strcmp(s, "reduction") == 0)
method = VERTEX_REDUCTION;
else if (strcmp(s, "reumann") == 0)
method = REUMANN;
else if (strcmp(s, "boyle") == 0)
method = BOYLE;
else if (strcmp(s, "distance_weighting") == 0)
method = DISTANCE_WEIGHTING;
else if (strcmp(s, "chaiken") == 0)
method = CHAIKEN;
else if (strcmp(s, "hermite") == 0)
method = HERMITE;
else if (strcmp(s, "snakes") == 0)
method = SNAKES;
else if (strcmp(s, "douglas_reduction") == 0)
method = DOUGLAS_REDUCTION;
else if (strcmp(s, "sliding_averaging") == 0)
method = SLIDING_AVERAGING;
else if (strcmp(s, "network") == 0)
method = NETWORK;
else if (strcmp(s, "displacement") == 0) {
method = DISPLACEMENT;
/* we can displace only the lines */
mask_type = GV_LINE;
}
else {
G_fatal_error(_("Unknown method"));
exit(EXIT_FAILURE);
}
/* simplification or smoothing? */
switch (method) {
case DOUGLAS:
case DOUGLAS_REDUCTION:
case LANG:
case VERTEX_REDUCTION:
case REUMANN:
simplification = 1;
break;
default:
simplification = 0;
break;
}
Points = Vect_new_line_struct();
Cats = Vect_new_cats_struct();
Vect_check_input_output_name(map_in->answer, map_out->answer,
G_FATAL_EXIT);
Vect_set_open_level(2);
if (Vect_open_old2(&In, map_in->answer, "", field_opt->answer) < 1)
G_fatal_error(_("Unable to open vector map <%s>"), map_in->answer);
if (Vect_get_num_primitives(&In, mask_type) == 0) {
G_warning(_("No lines found in input map <%s>"), map_in->answer);
Vect_close(&In);
exit(EXIT_SUCCESS);
}
with_z = Vect_is_3d(&In);
if (0 > Vect_open_new(&Out, map_out->answer, with_z)) {
Vect_close(&In);
G_fatal_error(_("Unable to create vector map <%s>"), map_out->answer);
}
if (error_out->answer) {
if (0 > Vect_open_new(&Error, error_out->answer, with_z)) {
Vect_close(&In);
G_fatal_error(_("Unable to create error vector map <%s>"), error_out->answer);
}
}
Vect_copy_head_data(&In, &Out);
Vect_hist_copy(&In, &Out);
Vect_hist_command(&Out);
total_input = total_output = 0;
layer = Vect_get_field_number(&In, field_opt->answer);
/* parse filter options */
if (layer > 0)
cat_list = Vect_cats_set_constraint(&In, layer,
where_opt->answer, cat_opt->answer);
if (method == DISPLACEMENT) {
/* modifies only lines, all other features including boundaries are preserved */
/* options where, cats, and layer are respected */
G_message(_("Displacement..."));
snakes_displacement(&In, &Out, thresh, alpha, beta, 1.0, 10.0,
iterations, cat_list, layer);
}
/* TODO: rearrange code below. It's really messy */
if (method == NETWORK) {
/* extracts lines of selected type, all other features are discarded */
/* options where, cats, and layer are ignored */
G_message(_("Network generalization..."));
total_output =
graph_generalization(&In, &Out, mask_type, degree_thresh,
closeness_thresh, betweeness_thresh);
}
/* copy tables here because method == NETWORK is complete and
* tables for Out may be needed for parse_filter_options() below */
if (!notab_flag->answer) {
if (method == NETWORK)
copy_tables_by_cats(&In, &Out);
else
Vect_copy_tables(&In, &Out, -1);
}
else if (where_opt->answer && method < NETWORK) {
G_warning(_("Attributes are needed for 'where' option, copying table"));
Vect_copy_tables(&In, &Out, -1);
}
/* smoothing/simplification */
if (method < NETWORK) {
/* modifies only lines of selected type, all other features are preserved */
int not_modified_boundaries = 0, n_oversimplified = 0;
struct line_pnts *APoints; /* original Points */
set_topo_debug();
Vect_copy_map_lines(&In, &Out);
Vect_build_partial(&Out, GV_BUILD_CENTROIDS);
G_message("-----------------------------------------------------");
G_message(_("Generalization (%s)..."), method_opt->answer);
G_message(_("Using threshold: %g %s"), thresh, G_database_unit_name(1));
G_percent_reset();
APoints = Vect_new_line_struct();
n_lines = Vect_get_num_lines(&Out);
for (i = 1; i <= n_lines; i++) {
int after = 0;
G_percent(i, n_lines, 1);
type = Vect_read_line(&Out, APoints, Cats, i);
if (!(type & GV_LINES) || !(mask_type & type))
continue;
if (layer > 0) {
if ((type & GV_LINE) &&
!Vect_cats_in_constraint(Cats, layer, cat_list))
continue;
else if ((type & GV_BOUNDARY)) {
int do_line = 0;
int left, right;
do_line = Vect_cats_in_constraint(Cats, layer, cat_list);
if (!do_line) {
/* check if any of the centroids is selected */
Vect_get_line_areas(&Out, i, &left, &right);
if (left < 0)
left = Vect_get_isle_area(&Out, abs(left));
if (right < 0)
right = Vect_get_isle_area(&Out, abs(right));
if (left > 0) {
Vect_get_area_cats(&Out, left, Cats);
do_line = Vect_cats_in_constraint(Cats, layer, cat_list);
}
if (!do_line && right > 0) {
Vect_get_area_cats(&Out, right, Cats);
do_line = Vect_cats_in_constraint(Cats, layer, cat_list);
}
}
if (!do_line)
continue;
}
}
Vect_line_prune(APoints);
if (APoints->n_points < 2)
/* Line of length zero, delete if boundary ? */
continue;
total_input += APoints->n_points;
/* copy points */
Vect_reset_line(Points);
Vect_append_points(Points, APoints, GV_FORWARD);
loop_support = 0;
if (!loop_support_flag->answer) {
int n1, n2;
Vect_get_line_nodes(&Out, i, &n1, &n2);
if (n1 == n2) {
if (Vect_get_node_n_lines(&Out, n1) == 2) {
if (abs(Vect_get_node_line(&Out, n1, 0)) == i &&
abs(Vect_get_node_line(&Out, n1, 1)) == i)
loop_support = 1;
}
}
}
for (iter = 0; iter < iterations; iter++) {
switch (method) {
case DOUGLAS:
douglas_peucker(Points, thresh, with_z);
break;
case DOUGLAS_REDUCTION:
douglas_peucker_reduction(Points, thresh, reduction,
with_z);
break;
case LANG:
lang(Points, thresh, look_ahead, with_z);
break;
case VERTEX_REDUCTION:
vertex_reduction(Points, thresh, with_z);
break;
case REUMANN:
reumann_witkam(Points, thresh, with_z);
break;
case BOYLE:
boyle(Points, look_ahead, loop_support, with_z);
break;
case SLIDING_AVERAGING:
sliding_averaging(Points, slide, look_ahead, loop_support, with_z);
break;
case DISTANCE_WEIGHTING:
distance_weighting(Points, slide, look_ahead, loop_support, with_z);
break;
case CHAIKEN:
chaiken(Points, thresh, loop_support, with_z);
break;
case HERMITE:
hermite(Points, thresh, angle_thresh, loop_support, with_z);
break;
case SNAKES:
snakes(Points, alpha, beta, loop_support, with_z);
break;
}
}
if (loop_support == 0) {
/* safety check, BUG in method if not passed */
if (APoints->x[0] != Points->x[0] ||
APoints->y[0] != Points->y[0] ||
APoints->z[0] != Points->z[0])
G_fatal_error(_("Method '%s' did not preserve first point"), method_opt->answer);
if (APoints->x[APoints->n_points - 1] != Points->x[Points->n_points - 1] ||
APoints->y[APoints->n_points - 1] != Points->y[Points->n_points - 1] ||
APoints->z[APoints->n_points - 1] != Points->z[Points->n_points - 1])
G_fatal_error(_("Method '%s' did not preserve last point"), method_opt->answer);
}
else {
/* safety check, BUG in method if not passed */
if (Points->x[0] != Points->x[Points->n_points - 1] ||
Points->y[0] != Points->y[Points->n_points - 1] ||
Points->z[0] != Points->z[Points->n_points - 1])
G_fatal_error(_("Method '%s' did not preserve loop"), method_opt->answer);
}
Vect_line_prune(Points);
/* oversimplified line */
if (Points->n_points < 2) {
after = APoints->n_points;
n_oversimplified++;
if (error_out->answer)
Vect_write_line(&Error, type, APoints, Cats);
}
/* check for topology corruption */
else if (type == GV_BOUNDARY) {
if (!check_topo(&Out, i, APoints, Points, Cats)) {
after = APoints->n_points;
not_modified_boundaries++;
if (error_out->answer)
Vect_write_line(&Error, type, APoints, Cats);
}
else
after = Points->n_points;
}
else {
/* type == GV_LINE */
Vect_rewrite_line(&Out, i, type, Points, Cats);
after = Points->n_points;
}
total_output += after;
}
if (not_modified_boundaries > 0)
G_warning(_("%d boundaries were not modified because modification would damage topology"),
not_modified_boundaries);
if (n_oversimplified > 0)
G_warning(_("%d lines/boundaries were not modified due to over-simplification"),
n_oversimplified);
G_message("-----------------------------------------------------");
/* make sure that clean topo is built at the end */
Vect_build_partial(&Out, GV_BUILD_NONE);
if (error_out->answer)
Vect_build_partial(&Error, GV_BUILD_NONE);
}
Vect_build(&Out);
if (error_out->answer)
Vect_build(&Error);
Vect_close(&In);
Vect_close(&Out);
if (error_out->answer)
Vect_close(&Error);
G_message("-----------------------------------------------------");
if (total_input != 0 && total_input != total_output)
G_done_msg(_("Number of vertices for selected features %s from %d to %d (%d%% remaining)"),
simplification ? _("reduced") : _("changed"),
total_input, total_output,
(total_output * 100) / total_input);
else
G_done_msg(" ");
exit(EXIT_SUCCESS);
}
/*--------------------------------------------------------------------*/
int main(int argc, char *argv[])
{
/* Variable declarations */
int nsply, nsplx, nrows, ncols, nsplx_adj, nsply_adj;
int nsubregion_col, nsubregion_row, subregion_row, subregion_col;
int subregion = 0, nsubregions = 0;
int last_row, last_column, grid, bilin, ext, flag_auxiliar, cross; /* booleans */
double stepN, stepE, lambda, mean;
double N_extension, E_extension, edgeE, edgeN;
const char *mapset, *drv, *db, *vector, *map;
char table_name[GNAME_MAX], title[64];
char xname[GNAME_MAX], xmapset[GMAPSET_MAX];
int dim_vect, nparameters, BW;
int *lineVect; /* Vector restoring primitive's ID */
double *TN, *Q, *parVect; /* Interpolating and least-square vectors */
double **N, **obsVect; /* Interpolation and least-square matrix */
SEGMENT out_seg, mask_seg;
const char *out_file, *mask_file;
int out_fd, mask_fd;
double seg_size;
int seg_mb, segments_in_memory;
int have_mask;
/* Structs declarations */
int raster;
struct Map_info In, In_ext, Out;
struct History history;
struct GModule *module;
struct Option *in_opt, *in_ext_opt, *out_opt, *out_map_opt, *stepE_opt,
*stepN_opt, *lambda_f_opt, *type_opt, *dfield_opt, *col_opt, *mask_opt,
*memory_opt, *solver, *error, *iter;
struct Flag *cross_corr_flag, *spline_step_flag;
struct Reg_dimens dims;
struct Cell_head elaboration_reg, original_reg;
struct bound_box general_box, overlap_box, original_box;
struct Point *observ;
struct line_cats *Cats;
dbCatValArray cvarr;
int with_z;
int nrec, ctype = 0;
struct field_info *Fi;
dbDriver *driver, *driver_cats;
/*----------------------------------------------------------------*/
/* Options declarations */
module = G_define_module();
G_add_keyword(_("vector"));
G_add_keyword(_("surface"));
G_add_keyword(_("interpolation"));
G_add_keyword(_("LIDAR"));
module->description =
_("Performs bicubic or bilinear spline interpolation with Tykhonov regularization.");
cross_corr_flag = G_define_flag();
cross_corr_flag->key = 'c';
cross_corr_flag->description =
_("Find the best Tykhonov regularizing parameter using a \"leave-one-out\" cross validation method");
spline_step_flag = G_define_flag();
spline_step_flag->key = 'e';
spline_step_flag->label = _("Estimate point density and distance");
spline_step_flag->description =
_("Estimate point density and distance for the input vector points within the current region extends and quit");
in_opt = G_define_standard_option(G_OPT_V_INPUT);
in_opt->label = _("Name of input vector point map");
dfield_opt = G_define_standard_option(G_OPT_V_FIELD);
dfield_opt->guisection = _("Settings");
col_opt = G_define_standard_option(G_OPT_DB_COLUMN);
col_opt->required = NO;
col_opt->label =
_("Name of the attribute column with values to be used for approximation");
col_opt->description = _("If not given and input is 3D vector map then z-coordinates are used.");
col_opt->guisection = _("Settings");
in_ext_opt = G_define_standard_option(G_OPT_V_INPUT);
in_ext_opt->key = "sparse_input";
in_ext_opt->required = NO;
in_ext_opt->label =
_("Name of input vector map with sparse points");
out_opt = G_define_standard_option(G_OPT_V_OUTPUT);
out_opt->required = NO;
out_opt->guisection = _("Outputs");
out_map_opt = G_define_standard_option(G_OPT_R_OUTPUT);
out_map_opt->key = "raster_output";
out_map_opt->required = NO;
out_map_opt->guisection = _("Outputs");
mask_opt = G_define_standard_option(G_OPT_R_INPUT);
mask_opt->key = "mask";
mask_opt->label = _("Raster map to use for masking (applies to raster output only)");
mask_opt->description = _("Only cells that are not NULL and not zero are interpolated");
mask_opt->required = NO;
stepE_opt = G_define_option();
stepE_opt->key = "ew_step";
stepE_opt->type = TYPE_DOUBLE;
stepE_opt->required = NO;
stepE_opt->answer = "4";
stepE_opt->description =
_("Length of each spline step in the east-west direction");
stepE_opt->guisection = _("Settings");
stepN_opt = G_define_option();
stepN_opt->key = "ns_step";
stepN_opt->type = TYPE_DOUBLE;
stepN_opt->required = NO;
stepN_opt->answer = "4";
stepN_opt->description =
_("Length of each spline step in the north-south direction");
stepN_opt->guisection = _("Settings");
type_opt = G_define_option();
type_opt->key = "method";
type_opt->description = _("Spline interpolation algorithm");
type_opt->type = TYPE_STRING;
type_opt->options = "bilinear,bicubic";
type_opt->answer = "bilinear";
type_opt->guisection = _("Settings");
G_asprintf((char **) &(type_opt->descriptions),
"bilinear;%s;bicubic;%s",
_("Bilinear interpolation"),
_("Bicubic interpolation"));
lambda_f_opt = G_define_option();
lambda_f_opt->key = "lambda_i";
lambda_f_opt->type = TYPE_DOUBLE;
lambda_f_opt->required = NO;
lambda_f_opt->description = _("Tykhonov regularization parameter (affects smoothing)");
lambda_f_opt->answer = "0.01";
lambda_f_opt->guisection = _("Settings");
solver = N_define_standard_option(N_OPT_SOLVER_SYMM);
solver->options = "cholesky,cg";
solver->answer = "cholesky";
iter = N_define_standard_option(N_OPT_MAX_ITERATIONS);
error = N_define_standard_option(N_OPT_ITERATION_ERROR);
memory_opt = G_define_option();
memory_opt->key = "memory";
memory_opt->type = TYPE_INTEGER;
memory_opt->required = NO;
memory_opt->answer = "300";
memory_opt->label = _("Maximum memory to be used (in MB)");
memory_opt->description = _("Cache size for raster rows");
/*----------------------------------------------------------------*/
/* Parsing */
G_gisinit(argv[0]);
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
vector = out_opt->answer;
map = out_map_opt->answer;
if (vector && map)
G_fatal_error(_("Choose either vector or raster output, not both"));
if (!vector && !map && !cross_corr_flag->answer)
G_fatal_error(_("No raster or vector or cross-validation output"));
if (!strcmp(type_opt->answer, "linear"))
bilin = P_BILINEAR;
else
bilin = P_BICUBIC;
stepN = atof(stepN_opt->answer);
stepE = atof(stepE_opt->answer);
lambda = atof(lambda_f_opt->answer);
flag_auxiliar = FALSE;
drv = db_get_default_driver_name();
if (!drv) {
if (db_set_default_connection() != DB_OK)
G_fatal_error(_("Unable to set default DB connection"));
drv = db_get_default_driver_name();
}
db = db_get_default_database_name();
if (!db)
G_fatal_error(_("No default DB defined"));
/* Set auxiliary table's name */
if (vector) {
if (G_name_is_fully_qualified(out_opt->answer, xname, xmapset)) {
sprintf(table_name, "%s_aux", xname);
}
else
sprintf(table_name, "%s_aux", out_opt->answer);
}
/* Something went wrong in a previous v.surf.bspline execution */
if (db_table_exists(drv, db, table_name)) {
/* Start driver and open db */
driver = db_start_driver_open_database(drv, db);
if (driver == NULL)
G_fatal_error(_("No database connection for driver <%s> is defined. Run db.connect."),
drv);
db_set_error_handler_driver(driver);
if (P_Drop_Aux_Table(driver, table_name) != DB_OK)
G_fatal_error(_("Old auxiliary table could not be dropped"));
db_close_database_shutdown_driver(driver);
}
/* Open input vector */
if ((mapset = G_find_vector2(in_opt->answer, "")) == NULL)
G_fatal_error(_("Vector map <%s> not found"), in_opt->answer);
Vect_set_open_level(1); /* WITHOUT TOPOLOGY */
if (1 > Vect_open_old(&In, in_opt->answer, mapset))
G_fatal_error(_("Unable to open vector map <%s> at the topological level"),
in_opt->answer);
bspline_field = 0; /* assume 3D input */
bspline_column = col_opt->answer;
with_z = !bspline_column && Vect_is_3d(&In);
if (Vect_is_3d(&In)) {
if (!with_z)
G_verbose_message(_("Input is 3D: using attribute values instead of z-coordinates for approximation"));
else
G_verbose_message(_("Input is 3D: using z-coordinates for approximation"));
}
else { /* 2D */
if (!bspline_column)
G_fatal_error(_("Input vector map is 2D. Parameter <%s> required."), col_opt->key);
}
if (!with_z) {
bspline_field = Vect_get_field_number(&In, dfield_opt->answer);
}
/* Estimate point density and mean distance for current region */
if (spline_step_flag->answer) {
double dens, dist;
if (P_estimate_splinestep(&In, &dens, &dist) == 0) {
fprintf(stdout, _("Estimated point density: %.4g"), dens);
fprintf(stdout, _("Estimated mean distance between points: %.4g"), dist);
}
else {
fprintf(stdout, _("No points in current region"));
}
Vect_close(&In);
exit(EXIT_SUCCESS);
}
/*----------------------------------------------------------------*/
/* Cross-correlation begins */
if (cross_corr_flag->answer) {
G_debug(1, "CrossCorrelation()");
cross = cross_correlation(&In, stepE, stepN);
if (cross != TRUE)
G_fatal_error(_("Cross validation didn't finish correctly"));
else {
G_debug(1, "Cross validation finished correctly");
Vect_close(&In);
G_done_msg(_("Cross validation finished for ew_step = %f and ns_step = %f"), stepE, stepN);
exit(EXIT_SUCCESS);
}
}
/* Open input ext vector */
ext = FALSE;
if (in_ext_opt->answer) {
ext = TRUE;
G_message(_("Vector map <%s> of sparse points will be interpolated"),
in_ext_opt->answer);
if ((mapset = G_find_vector2(in_ext_opt->answer, "")) == NULL)
G_fatal_error(_("Vector map <%s> not found"), in_ext_opt->answer);
Vect_set_open_level(1); /* WITHOUT TOPOLOGY */
if (1 > Vect_open_old(&In_ext, in_ext_opt->answer, mapset))
G_fatal_error(_("Unable to open vector map <%s> at the topological level"),
in_opt->answer);
}
/* Open output map */
/* vector output */
if (vector && !map) {
if (strcmp(drv, "dbf") == 0)
G_fatal_error(_("Sorry, the <%s> driver is not compatible with "
"the vector output of this module. "
"Try with raster output or another driver."), drv);
Vect_check_input_output_name(in_opt->answer, out_opt->answer,
G_FATAL_EXIT);
grid = FALSE;
if (0 > Vect_open_new(&Out, out_opt->answer, WITH_Z))
G_fatal_error(_("Unable to create vector map <%s>"),
out_opt->answer);
/* Copy vector Head File */
if (ext == FALSE) {
Vect_copy_head_data(&In, &Out);
Vect_hist_copy(&In, &Out);
}
else {
Vect_copy_head_data(&In_ext, &Out);
Vect_hist_copy(&In_ext, &Out);
}
Vect_hist_command(&Out);
G_verbose_message(_("Points in input vector map <%s> will be interpolated"),
vector);
}
/* read z values from attribute table */
if (bspline_field > 0) {
G_message(_("Reading values from attribute table..."));
db_CatValArray_init(&cvarr);
Fi = Vect_get_field(&In, bspline_field);
if (Fi == NULL)
G_fatal_error(_("Cannot read layer info"));
driver_cats = db_start_driver_open_database(Fi->driver, Fi->database);
/*G_debug (0, _("driver=%s db=%s"), Fi->driver, Fi->database); */
if (driver_cats == NULL)
G_fatal_error(_("Unable to open database <%s> by driver <%s>"),
Fi->database, Fi->driver);
db_set_error_handler_driver(driver_cats);
nrec =
db_select_CatValArray(driver_cats, Fi->table, Fi->key,
col_opt->answer, NULL, &cvarr);
G_debug(3, "nrec = %d", nrec);
ctype = cvarr.ctype;
if (ctype != DB_C_TYPE_INT && ctype != DB_C_TYPE_DOUBLE)
G_fatal_error(_("Column type not supported"));
if (nrec < 0)
G_fatal_error(_("Unable to select data from table"));
G_verbose_message(_("%d records selected from table"), nrec);
db_close_database_shutdown_driver(driver_cats);
}
/*----------------------------------------------------------------*/
/* Interpolation begins */
G_debug(1, "Interpolation()");
/* Open driver and database */
driver = db_start_driver_open_database(drv, db);
if (driver == NULL)
G_fatal_error(_("No database connection for driver <%s> is defined. "
"Run db.connect."), drv);
db_set_error_handler_driver(driver);
/* Create auxiliary table */
if (vector) {
if ((flag_auxiliar = P_Create_Aux4_Table(driver, table_name)) == FALSE) {
P_Drop_Aux_Table(driver, table_name);
G_fatal_error(_("Interpolation: Creating table: "
"It was impossible to create table <%s>."),
table_name);
}
/* db_create_index2(driver, table_name, "ID"); */
/* sqlite likes that ??? */
db_close_database_shutdown_driver(driver);
driver = db_start_driver_open_database(drv, db);
}
/* raster output */
raster = -1;
Rast_set_fp_type(DCELL_TYPE);
if (!vector && map) {
grid = TRUE;
raster = Rast_open_fp_new(out_map_opt->answer);
G_verbose_message(_("Cells for raster map <%s> will be interpolated"),
map);
}
/* Setting regions and boxes */
G_debug(1, "Interpolation: Setting regions and boxes");
G_get_window(&original_reg);
G_get_window(&elaboration_reg);
Vect_region_box(&original_reg, &original_box);
Vect_region_box(&elaboration_reg, &overlap_box);
Vect_region_box(&elaboration_reg, &general_box);
nrows = Rast_window_rows();
ncols = Rast_window_cols();
/* Alloc raster matrix */
have_mask = 0;
out_file = mask_file = NULL;
out_fd = mask_fd = -1;
if (grid == TRUE) {
int row;
DCELL *drastbuf;
seg_mb = atoi(memory_opt->answer);
if (seg_mb < 3)
G_fatal_error(_("Memory in MB must be >= 3"));
if (mask_opt->answer)
seg_size = sizeof(double) + sizeof(char);
else
seg_size = sizeof(double);
seg_size = (seg_size * SEGSIZE * SEGSIZE) / (1 << 20);
segments_in_memory = seg_mb / seg_size + 0.5;
G_debug(1, "%d %dx%d segments held in memory", segments_in_memory, SEGSIZE, SEGSIZE);
out_file = G_tempfile();
out_fd = creat(out_file, 0666);
if (Segment_format(out_fd, nrows, ncols, SEGSIZE, SEGSIZE, sizeof(double)) != 1)
G_fatal_error(_("Can not create temporary file"));
close(out_fd);
out_fd = open(out_file, 2);
if (Segment_init(&out_seg, out_fd, segments_in_memory) != 1)
G_fatal_error(_("Can not initialize temporary file"));
/* initialize output */
G_message(_("Initializing output..."));
drastbuf = Rast_allocate_buf(DCELL_TYPE);
Rast_set_d_null_value(drastbuf, ncols);
for (row = 0; row < nrows; row++) {
G_percent(row, nrows, 2);
Segment_put_row(&out_seg, drastbuf, row);
}
G_percent(row, nrows, 2);
if (mask_opt->answer) {
int row, col, maskfd;
DCELL dval, *drastbuf;
char mask_val;
G_message(_("Load masking map"));
mask_file = G_tempfile();
mask_fd = creat(mask_file, 0666);
if (Segment_format(mask_fd, nrows, ncols, SEGSIZE, SEGSIZE, sizeof(char)) != 1)
G_fatal_error(_("Can not create temporary file"));
close(mask_fd);
mask_fd = open(mask_file, 2);
if (Segment_init(&mask_seg, mask_fd, segments_in_memory) != 1)
G_fatal_error(_("Can not initialize temporary file"));
maskfd = Rast_open_old(mask_opt->answer, "");
drastbuf = Rast_allocate_buf(DCELL_TYPE);
for (row = 0; row < nrows; row++) {
G_percent(row, nrows, 2);
Rast_get_d_row(maskfd, drastbuf, row);
for (col = 0; col < ncols; col++) {
dval = drastbuf[col];
if (Rast_is_d_null_value(&dval) || dval == 0)
mask_val = 0;
else
mask_val = 1;
Segment_put(&mask_seg, &mask_val, row, col);
}
}
G_percent(row, nrows, 2);
G_free(drastbuf);
Rast_close(maskfd);
have_mask = 1;
}
}
/*------------------------------------------------------------------
| Subdividing and working with tiles:
| Each original region will be divided into several subregions.
| Each one will be overlaped by its neighbouring subregions.
| The overlapping is calculated as a fixed OVERLAP_SIZE times
| the largest spline step plus 2 * edge
----------------------------------------------------------------*/
/* Fixing parameters of the elaboration region */
P_zero_dim(&dims); /* Set dim struct to zero */
nsplx_adj = NSPLX_MAX;
nsply_adj = NSPLY_MAX;
if (stepN > stepE)
dims.overlap = OVERLAP_SIZE * stepN;
else
dims.overlap = OVERLAP_SIZE * stepE;
P_get_edge(bilin, &dims, stepE, stepN);
P_set_dim(&dims, stepE, stepN, &nsplx_adj, &nsply_adj);
G_verbose_message(_("Adjusted EW splines %d"), nsplx_adj);
G_verbose_message(_("Adjusted NS splines %d"), nsply_adj);
/* calculate number of subregions */
edgeE = dims.ew_size - dims.overlap - 2 * dims.edge_v;
edgeN = dims.sn_size - dims.overlap - 2 * dims.edge_h;
N_extension = original_reg.north - original_reg.south;
E_extension = original_reg.east - original_reg.west;
nsubregion_col = ceil(E_extension / edgeE) + 0.5;
nsubregion_row = ceil(N_extension / edgeN) + 0.5;
if (nsubregion_col < 0)
nsubregion_col = 0;
if (nsubregion_row < 0)
nsubregion_row = 0;
nsubregions = nsubregion_row * nsubregion_col;
/* Creating line and categories structs */
Cats = Vect_new_cats_struct();
Vect_cat_set(Cats, 1, 0);
subregion_row = 0;
elaboration_reg.south = original_reg.north;
last_row = FALSE;
while (last_row == FALSE) { /* For each subregion row */
subregion_row++;
P_set_regions(&elaboration_reg, &general_box, &overlap_box, dims,
GENERAL_ROW);
if (elaboration_reg.north > original_reg.north) { /* First row */
P_set_regions(&elaboration_reg, &general_box, &overlap_box, dims,
FIRST_ROW);
}
if (elaboration_reg.south <= original_reg.south) { /* Last row */
P_set_regions(&elaboration_reg, &general_box, &overlap_box, dims,
LAST_ROW);
last_row = TRUE;
}
nsply =
ceil((elaboration_reg.north -
elaboration_reg.south) / stepN) + 0.5;
G_debug(1, "Interpolation: nsply = %d", nsply);
/*
if (nsply > NSPLY_MAX)
nsply = NSPLY_MAX;
*/
elaboration_reg.east = original_reg.west;
last_column = FALSE;
subregion_col = 0;
/* TODO: process each subregion using its own thread (via OpenMP or pthreads) */
/* I'm not sure about pthreads, but you can tell OpenMP to start all at the
same time and it will keep num_workers supplied with the next job as free
cpus become available */
while (last_column == FALSE) { /* For each subregion column */
int npoints = 0;
/* needed for sparse points interpolation */
int npoints_ext, *lineVect_ext = NULL;
double **obsVect_ext; /*, mean_ext = .0; */
struct Point *observ_ext;
subregion_col++;
subregion++;
if (nsubregions > 1)
G_message(_("Processing subregion %d of %d..."), subregion, nsubregions);
P_set_regions(&elaboration_reg, &general_box, &overlap_box, dims,
GENERAL_COLUMN);
if (elaboration_reg.west < original_reg.west) { /* First column */
P_set_regions(&elaboration_reg, &general_box, &overlap_box,
dims, FIRST_COLUMN);
}
if (elaboration_reg.east >= original_reg.east) { /* Last column */
P_set_regions(&elaboration_reg, &general_box, &overlap_box,
dims, LAST_COLUMN);
last_column = TRUE;
}
nsplx =
ceil((elaboration_reg.east -
elaboration_reg.west) / stepE) + 0.5;
G_debug(1, "Interpolation: nsplx = %d", nsplx);
/*
if (nsplx > NSPLX_MAX)
nsplx = NSPLX_MAX;
*/
G_debug(1, "Interpolation: (%d,%d): subregion bounds",
subregion_row, subregion_col);
G_debug(1, "Interpolation: \t\tNORTH:%.2f\t",
elaboration_reg.north);
G_debug(1, "Interpolation: WEST:%.2f\t\tEAST:%.2f",
elaboration_reg.west, elaboration_reg.east);
G_debug(1, "Interpolation: \t\tSOUTH:%.2f",
elaboration_reg.south);
#ifdef DEBUG_SUBREGIONS
fprintf(stdout, "B 5\n");
fprintf(stdout, " %.11g %.11g\n", elaboration_reg.east, elaboration_reg.north);
fprintf(stdout, " %.11g %.11g\n", elaboration_reg.west, elaboration_reg.north);
fprintf(stdout, " %.11g %.11g\n", elaboration_reg.west, elaboration_reg.south);
fprintf(stdout, " %.11g %.11g\n", elaboration_reg.east, elaboration_reg.south);
fprintf(stdout, " %.11g %.11g\n", elaboration_reg.east, elaboration_reg.north);
fprintf(stdout, "C 1 1\n");
fprintf(stdout, " %.11g %.11g\n", (elaboration_reg.west + elaboration_reg.east) / 2,
(elaboration_reg.south + elaboration_reg.north) / 2);
fprintf(stdout, " 1 %d\n", subregion);
#endif
/* reading points in interpolation region */
dim_vect = nsplx * nsply;
observ_ext = NULL;
if (grid == FALSE && ext == TRUE) {
observ_ext =
P_Read_Vector_Region_Map(&In_ext,
&elaboration_reg,
&npoints_ext, dim_vect,
1);
}
else
npoints_ext = 1;
if (grid == TRUE && have_mask) {
/* any unmasked cells in general region ? */
mean = 0;
observ_ext =
P_Read_Raster_Region_masked(&mask_seg, &original_reg,
original_box, general_box,
&npoints_ext, dim_vect, mean);
}
observ = NULL;
if (npoints_ext > 0) {
observ =
P_Read_Vector_Region_Map(&In, &elaboration_reg, &npoints,
dim_vect, bspline_field);
}
else
npoints = 1;
G_debug(1,
"Interpolation: (%d,%d): Number of points in <elaboration_box> is %d",
subregion_row, subregion_col, npoints);
if (npoints > 0)
G_verbose_message(_("%d points found in this subregion"), npoints);
/* only interpolate if there are any points in current subregion */
if (npoints > 0 && npoints_ext > 0) {
int i;
nparameters = nsplx * nsply;
BW = P_get_BandWidth(bilin, nsply);
/* Least Squares system */
N = G_alloc_matrix(nparameters, BW); /* Normal matrix */
TN = G_alloc_vector(nparameters); /* vector */
parVect = G_alloc_vector(nparameters); /* Parameters vector */
obsVect = G_alloc_matrix(npoints, 3); /* Observation vector */
Q = G_alloc_vector(npoints); /* "a priori" var-cov matrix */
lineVect = G_alloc_ivector(npoints); /* */
for (i = 0; i < npoints; i++) { /* Setting obsVect vector & Q matrix */
double dval;
Q[i] = 1; /* Q=I */
lineVect[i] = observ[i].lineID;
obsVect[i][0] = observ[i].coordX;
obsVect[i][1] = observ[i].coordY;
/* read z coordinates from attribute table */
if (bspline_field > 0) {
int cat, ival, ret;
cat = observ[i].cat;
if (cat < 0)
continue;
if (ctype == DB_C_TYPE_INT) {
ret =
db_CatValArray_get_value_int(&cvarr, cat,
&ival);
obsVect[i][2] = ival;
observ[i].coordZ = ival;
}
else { /* DB_C_TYPE_DOUBLE */
ret =
db_CatValArray_get_value_double(&cvarr, cat,
&dval);
obsVect[i][2] = dval;
observ[i].coordZ = dval;
}
if (ret != DB_OK) {
G_warning(_("Interpolation: (%d,%d): No record for point (cat = %d)"),
subregion_row, subregion_col, cat);
continue;
}
}
/* use z coordinates of 3D vector */
else {
obsVect[i][2] = observ[i].coordZ;
}
}
/* Mean calculation for every point */
mean = P_Mean_Calc(&elaboration_reg, observ, npoints);
G_debug(1, "Interpolation: (%d,%d): mean=%lf",
subregion_row, subregion_col, mean);
G_free(observ);
for (i = 0; i < npoints; i++)
obsVect[i][2] -= mean;
/* Bilinear interpolation */
if (bilin) {
G_debug(1,
"Interpolation: (%d,%d): Bilinear interpolation...",
subregion_row, subregion_col);
normalDefBilin(N, TN, Q, obsVect, stepE, stepN, nsplx,
nsply, elaboration_reg.west,
elaboration_reg.south, npoints,
nparameters, BW);
nCorrectGrad(N, lambda, nsplx, nsply, stepE, stepN);
}
/* Bicubic interpolation */
else {
G_debug(1,
"Interpolation: (%d,%d): Bicubic interpolation...",
subregion_row, subregion_col);
normalDefBicubic(N, TN, Q, obsVect, stepE, stepN, nsplx,
nsply, elaboration_reg.west,
elaboration_reg.south, npoints,
nparameters, BW);
nCorrectGrad(N, lambda, nsplx, nsply, stepE, stepN);
}
if(G_strncasecmp(solver->answer, "cg", 2) == 0)
G_math_solver_cg_sband(N, parVect, TN, nparameters, BW, atoi(iter->answer), atof(error->answer));
else
G_math_solver_cholesky_sband(N, parVect, TN, nparameters, BW);
G_free_matrix(N);
G_free_vector(TN);
G_free_vector(Q);
if (grid == TRUE) { /* GRID INTERPOLATION ==> INTERPOLATION INTO A RASTER */
G_debug(1, "Interpolation: (%d,%d): Regular_Points...",
subregion_row, subregion_col);
if (!have_mask) {
P_Regular_Points(&elaboration_reg, &original_reg, general_box,
overlap_box, &out_seg, parVect,
stepN, stepE, dims.overlap, mean,
nsplx, nsply, nrows, ncols, bilin);
}
else {
P_Sparse_Raster_Points(&out_seg,
&elaboration_reg, &original_reg,
general_box, overlap_box,
observ_ext, parVect,
stepE, stepN,
dims.overlap, nsplx, nsply,
npoints_ext, bilin, mean);
}
}
else { /* OBSERVATION POINTS INTERPOLATION */
if (ext == FALSE) {
G_debug(1, "Interpolation: (%d,%d): Sparse_Points...",
subregion_row, subregion_col);
P_Sparse_Points(&Out, &elaboration_reg, general_box,
overlap_box, obsVect, parVect,
lineVect, stepE, stepN,
dims.overlap, nsplx, nsply, npoints,
bilin, Cats, driver, mean,
table_name);
}
else { /* FLAG_EXT == TRUE */
/* done that earlier */
/*
int npoints_ext, *lineVect_ext = NULL;
double **obsVect_ext;
struct Point *observ_ext;
observ_ext =
P_Read_Vector_Region_Map(&In_ext,
&elaboration_reg,
&npoints_ext, dim_vect,
1);
*/
obsVect_ext = G_alloc_matrix(npoints_ext, 3); /* Observation vector_ext */
lineVect_ext = G_alloc_ivector(npoints_ext);
for (i = 0; i < npoints_ext; i++) { /* Setting obsVect_ext vector & Q matrix */
obsVect_ext[i][0] = observ_ext[i].coordX;
obsVect_ext[i][1] = observ_ext[i].coordY;
obsVect_ext[i][2] = observ_ext[i].coordZ - mean;
lineVect_ext[i] = observ_ext[i].lineID;
}
G_free(observ_ext);
G_debug(1, "Interpolation: (%d,%d): Sparse_Points...",
subregion_row, subregion_col);
P_Sparse_Points(&Out, &elaboration_reg, general_box,
overlap_box, obsVect_ext, parVect,
lineVect_ext, stepE, stepN,
dims.overlap, nsplx, nsply,
npoints_ext, bilin, Cats, driver,
mean, table_name);
G_free_matrix(obsVect_ext);
G_free_ivector(lineVect_ext);
} /* END FLAG_EXT == TRUE */
} /* END GRID == FALSE */
G_free_vector(parVect);
G_free_matrix(obsVect);
G_free_ivector(lineVect);
}
else {
if (observ)
G_free(observ);
if (observ_ext)
G_free(observ_ext);
if (npoints == 0)
G_warning(_("No data within this subregion. "
"Consider increasing spline step values."));
}
} /*! END WHILE; last_column = TRUE */
} /*! END WHILE; last_row = TRUE */
G_verbose_message(_("Writing output..."));
/* Writing the output raster map */
if (grid == TRUE) {
int row, col;
DCELL *drastbuf, dval;
if (have_mask) {
Segment_release(&mask_seg); /* release memory */
close(mask_fd);
unlink(mask_file);
}
drastbuf = Rast_allocate_buf(DCELL_TYPE);
for (row = 0; row < nrows; row++) {
G_percent(row, nrows, 2);
for (col = 0; col < ncols; col++) {
Segment_get(&out_seg, &dval, row, col);
drastbuf[col] = dval;
}
Rast_put_d_row(raster, drastbuf);
}
Rast_close(raster);
Segment_release(&out_seg); /* release memory */
close(out_fd);
unlink(out_file);
/* set map title */
sprintf(title, "%s interpolation with Tykhonov regularization",
type_opt->answer);
Rast_put_cell_title(out_map_opt->answer, title);
/* write map history */
Rast_short_history(out_map_opt->answer, "raster", &history);
Rast_command_history(&history);
Rast_write_history(out_map_opt->answer, &history);
}
/* Writing to the output vector map the points from the overlapping zones */
else if (flag_auxiliar == TRUE) {
if (ext == FALSE)
P_Aux_to_Vector(&In, &Out, driver, table_name);
else
P_Aux_to_Vector(&In_ext, &Out, driver, table_name);
/* Drop auxiliary table */
G_debug(1, "%s: Dropping <%s>", argv[0], table_name);
if (P_Drop_Aux_Table(driver, table_name) != DB_OK)
G_fatal_error(_("Auxiliary table could not be dropped"));
}
db_close_database_shutdown_driver(driver);
Vect_close(&In);
if (ext != FALSE)
Vect_close(&In_ext);
if (vector)
Vect_close(&Out);
G_done_msg(" ");
exit(EXIT_SUCCESS);
} /*END MAIN */
int main(int argc, char *argv[])
{
struct Option *type, *rc_file;
struct Flag *update, *nolaunch;
struct GModule *module;
const char *gui_type_env;
char progname[GPATH_MAX];
char *desc;
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("general"));
G_add_keyword(_("gui"));
G_add_keyword(_("user interface"));
module->label =
_("Launches a GRASS graphical user interface (GUI) session.");
module->description = _("And updates default user interface settings.");
type = G_define_option();
type->key = "ui";
type->type = TYPE_STRING;
type->label = _("User interface");
type->description = _("Default value: GRASS_GUI if defined otherwise wxpython");
desc = NULL;
G_asprintf(&desc,
"wxpython;%s;text;%s",
_("wxPython based GUI (wxGUI)"),
_("command line interface only"));
type->descriptions = desc;
type->options = "wxpython,text";
type->guisection = _("Type");
rc_file = G_define_standard_option(G_OPT_F_INPUT);
rc_file->key = "workspace";
rc_file->required = NO;
rc_file->key_desc = "name.gxw";
rc_file->description = _("Name of workspace file to load on start-up (valid only for wxGUI)");
update = G_define_flag();
update->key = 'd';
update->description = _("Update default user interface settings");
update->guisection = _("Default");
nolaunch = G_define_flag();
nolaunch->key = 'n';
nolaunch->description =
_("Do not launch GUI after updating the default user interface settings");
nolaunch->guisection = _("Default");
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
if (type->answer && strcmp(type->answer, "text") == 0 &&
!nolaunch->answer)
nolaunch->answer = TRUE;
if (nolaunch->answer && !update->answer)
update->answer = TRUE;
gui_type_env = G__getenv("GUI");
if (!type->answer) {
if (gui_type_env && strcmp(gui_type_env, "text")) {
type->answer = G_store(gui_type_env);
}
else {
type->answer = "wxpython";
}
}
if (((gui_type_env && update->answer) &&
strcmp(gui_type_env, type->answer) != 0) || !gui_type_env) {
G_setenv("GUI", type->answer);
G_message(_("<%s> is now the default GUI"), type->answer);
}
else {
if(update->answer)
if(gui_type_env) {
G_debug(1, "No change: old gui_type_env=[%s], new type->ans=[%s]",
gui_type_env, type->answer);
}
}
if(nolaunch->answer)
exit(EXIT_SUCCESS);
G_message(_("Launching <%s> GUI in the background, please wait..."), type->answer);
if (strcmp(type->answer, "wxpython") == 0) {
sprintf(progname, "%s/gui/wxpython/wxgui.py", G_gisbase());
if (rc_file->answer) {
G_spawn_ex(getenv("GRASS_PYTHON"), getenv("GRASS_PYTHON"), progname,
"--workspace", rc_file->answer, SF_BACKGROUND, NULL);
}
else {
G_spawn_ex(getenv("GRASS_PYTHON"), getenv("GRASS_PYTHON"), progname,
SF_BACKGROUND, NULL);
}
}
/* stop the impatient from starting it again
before the splash screen comes up */
G_sleep(3);
exit(EXIT_SUCCESS);
}
int main(int argc, char *argv[])
{
struct GModule *module;
struct {
struct Flag *r, *w, *l, *g, *a, *n, *c;
} flag;
struct {
struct Option *map, *field, *colr, *rast, *volume, *rules,
*attrcol, *rgbcol, *range, *use;
} opt;
int layer;
int overwrite, remove, is_from_stdin, stat, have_colors, convert, use;
const char *mapset, *cmapset;
const char *style, *rules, *cmap, *attrcolumn, *rgbcolumn;
char *name;
struct Map_info Map;
struct FPRange range;
struct Colors colors, colors_tmp;
/* struct Cell_stats statf; */
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("vector"));
G_add_keyword(_("color table"));
module->description =
_("Creates/modifies the color table associated with a vector map.");
opt.map = G_define_standard_option(G_OPT_V_MAP);
opt.field = G_define_standard_option(G_OPT_V_FIELD);
opt.use = G_define_option();
opt.use->key = "use";
opt.use->type = TYPE_STRING;
opt.use->required = YES;
opt.use->multiple = NO;
opt.use->options = "attr,cat,z";
opt.use->description = _("Source values");
G_asprintf((char **) &(opt.use->descriptions),
"attr;%s;cat;%s;z;%s",
_("read values from attribute table (requires <column> option)"),
_("use category values"),
_("use z coordinate (3D points or centroids only)"));
opt.use->answer = "cat";
opt.attrcol = G_define_standard_option(G_OPT_DB_COLUMN);
opt.attrcol->label = _("Name of column containing numeric data");
opt.attrcol->description = _("Required for use=attr");
opt.attrcol->guisection = _("Define");
opt.range = G_define_option();
opt.range->key = "range";
opt.range->type = TYPE_DOUBLE;
opt.range->required = NO;
opt.range->label = _("Manually set range (refers to 'column' option)");
opt.range->description = _("Ignored when 'rules' given");
opt.range->key_desc = "min,max";
opt.colr = G_define_standard_option(G_OPT_M_COLR);
opt.colr->guisection = _("Define");
opt.rast = G_define_standard_option(G_OPT_R_INPUT);
opt.rast->key = "raster";
opt.rast->required = NO;
opt.rast->description =
_("Raster map from which to copy color table");
opt.rast->guisection = _("Define");
opt.volume = G_define_standard_option(G_OPT_R3_INPUT);
opt.volume->key = "raster_3d";
opt.volume->required = NO;
opt.volume->description =
_("3D raster map from which to copy color table");
opt.volume->guisection = _("Define");
opt.rules = G_define_standard_option(G_OPT_F_INPUT);
opt.rules->key = "rules";
opt.rules->required = NO;
opt.rules->description = _("Path to rules file");
opt.rules->guisection = _("Define");
opt.rgbcol = G_define_standard_option(G_OPT_DB_COLUMN);
opt.rgbcol->key = "rgb_column";
opt.rgbcol->label = _("Name of color column to populate RGB values");
opt.rgbcol->description = _("If not given writes color table");
flag.r = G_define_flag();
flag.r->key = 'r';
flag.r->description = _("Remove existing color table");
flag.r->guisection = _("Remove");
flag.w = G_define_flag();
flag.w->key = 'w';
flag.w->description =
_("Only write new color table if it does not already exist");
flag.l = G_define_flag();
flag.l->key = 'l';
flag.l->description = _("List available rules then exit");
flag.l->suppress_required = YES;
flag.l->guisection = _("Print");
flag.n = G_define_flag();
flag.n->key = 'n';
flag.n->description = _("Invert colors");
flag.n->guisection = _("Define");
flag.g = G_define_flag();
flag.g->key = 'g';
flag.g->description = _("Logarithmic scaling");
flag.g->guisection = _("Define");
flag.a = G_define_flag();
flag.a->key = 'a';
flag.a->description = _("Logarithmic-absolute scaling");
flag.a->guisection = _("Define");
flag.c = G_define_flag();
flag.c->key = 'c';
flag.c->label = _("Convert color rules from RGB values to color table");
flag.c->description = _("Option 'rgb_column' with valid RGB values required");
/* TODO ?
flag.e = G_define_flag();
flag.e->key = 'e';
flag.e->description = _("Histogram equalization");
flag.e->guisection = _("Define");
*/
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
if (flag.l->answer) {
G_list_color_rules(stdout);
return EXIT_SUCCESS;
}
overwrite = !flag.w->answer;
remove = flag.r->answer;
name = opt.map->answer;
style = opt.colr->answer;
rules = opt.rules->answer;
attrcolumn = opt.attrcol->answer;
rgbcolumn = opt.rgbcol->answer;
convert = flag.c->answer;
use = USE_CAT;
if (opt.use->answer) {
switch (opt.use->answer[0]) {
case 'a':
use = USE_ATTR;
break;
case 'c':
use = USE_CAT;
break;
case 'z':
use = USE_Z;
break;
default:
break;
}
}
G_debug(1, "use=%d", use);
if (!name)
G_fatal_error(_("No vector map specified"));
if (use == USE_ATTR && !attrcolumn)
G_fatal_error(_("Option <%s> required"), opt.attrcol->key);
if (use != USE_ATTR && attrcolumn) {
G_important_message(_("Option <%s> given, assuming <use=attr>..."), opt.attrcol->key);
use = USE_ATTR;
}
if (opt.rast->answer && opt.volume->answer)
G_fatal_error(_("%s= and %s= are mutually exclusive"),
opt.rast->key, opt.volume->key);
cmap = NULL;
if (opt.rast->answer)
cmap = opt.rast->answer;
if (opt.volume->answer)
cmap = opt.volume->answer;
if (!cmap && !style && !rules && !remove && !convert)
G_fatal_error(_("One of -%c, -%c or %s=, %s= or %s= "
"must be specified"), flag.r->key, flag.c->key,
opt.colr->key, opt.rast->key, opt.rules->key);
if (!!style + !!cmap + !!rules > 1)
G_fatal_error(_("%s=, %s= and %s= are mutually exclusive"),
opt.colr->key, opt.rules->key, opt.rast->key);
if (flag.g->answer && flag.a->answer)
G_fatal_error(_("-%c and -%c are mutually exclusive"),
flag.g->key, flag.a->key);
if (flag.c->answer && !rgbcolumn)
G_fatal_error(_("%s= required for -%c"),
opt.rgbcol->key, flag.c->key);
is_from_stdin = rules && strcmp(rules, "-") == 0;
if (is_from_stdin)
G_fatal_error(_("Reading rules from standard input is not implemented yet, please provide path to rules file instead."));
mapset = G_find_vector(name, "");
if (!mapset)
G_fatal_error(_("Vector map <%s> not found"), name);
stat = -1;
if (remove) {
stat = Vect_remove_colors(name, mapset);
if (stat < 0)
G_fatal_error(_("Unable to remove color table of vector map <%s>"), name);
if (stat == 0)
G_warning(_("Color table of vector map <%s> not found"), name);
return EXIT_SUCCESS;
}
G_suppress_warnings(TRUE);
have_colors = Vect_read_colors(name, mapset, NULL);
if (have_colors > 0 && !overwrite) {
G_fatal_error(_("Color table exists. Exiting."));
}
G_suppress_warnings(FALSE);
/* open map and get min/max values */
Vect_set_open_level(1); /* no topology required */
if (Vect_open_old2(&Map, name, mapset, opt.field->answer) < 0)
G_fatal_error(_("Unable to open vector map <%s>"), name);
Vect_set_error_handler_io(&Map, NULL);
if (use == USE_Z && !Vect_is_3d(&Map))
G_fatal_error(_("Vector map <%s> is not 3D"), Vect_get_full_name(&Map));
layer = Vect_get_field_number(&Map, opt.field->answer);
if (layer < 1)
G_fatal_error(_("Layer <%s> not found"), opt.field->answer);
if (opt.range->answer) {
range.min = atof(opt.range->answers[0]);
range.max = atof(opt.range->answers[1]);
if (range.min > range.max)
G_fatal_error(_("Option <%s>: min must be greater or equal to max"),
opt.range->key);
}
Rast_init_colors(&colors);
if (is_from_stdin) {
G_fatal_error(_("Reading color rules from standard input is currently not supported"));
/*
if (!read_color_rules(stdin, &colors, min, max, fp))
exit(EXIT_FAILURE);
*/
} else if (style || rules) {
if (style && !G_find_color_rule(style))
G_fatal_error(_("Color table <%s> not found"), style);
if (use == USE_CAT) {
scan_cats(&Map, layer, style, rules,
opt.range->answer ? &range : NULL,
&colors);
}
else if (use == USE_Z) {
scan_z(&Map, layer, style, rules,
opt.range->answer ? &range : NULL,
&colors);
}
else {
scan_attr(&Map, layer, attrcolumn, style, rules,
opt.range->answer ? &range : NULL,
&colors);
}
}
else {
/* use color from another map (cmap) */
if (opt.rast->answer) {
cmapset = G_find_raster2(cmap, "");
if (!cmapset)
G_fatal_error(_("Raster map <%s> not found"), cmap);
if (Rast_read_colors(cmap, cmapset, &colors) < 0)
G_fatal_error(_("Unable to read color table for raster map <%s>"), cmap);
} else if (opt.volume->answer) {
cmapset = G_find_raster3d(cmap, "");
if (!cmapset)
G_fatal_error(_("3D raster map <%s> not found"), cmap);
if (Rast3d_read_colors(cmap, cmapset, &colors) < 0)
G_fatal_error(_("Unable to read color table for 3D raster map <%s>"), cmap);
}
}
if (flag.n->answer)
Rast_invert_colors(&colors);
/* TODO ?
if (flag.e->answer) {
if (!have_stats)
have_stats = get_stats(name, mapset, &statf);
Rast_histogram_eq_colors(&colors_tmp, &colors, &statf);
colors = colors_tmp;
}
*/
if (flag.g->answer) {
Rast_log_colors(&colors_tmp, &colors, 100);
colors = colors_tmp;
}
if (flag.a->answer) {
Rast_abs_log_colors(&colors_tmp, &colors, 100);
colors = colors_tmp;
}
G_important_message(_("Writing color rules..."));
if (style || rules || opt.rast->answer || opt.volume->answer) {
if (rgbcolumn)
write_rgb_values(&Map, layer, rgbcolumn, &colors);
else
Vect_write_colors(name, mapset, &colors);
}
if (convert) {
/* convert RGB values to color tables */
rgb2colr(&Map, layer, rgbcolumn, &colors);
Vect_write_colors(name, mapset, &colors);
}
Vect_close(&Map);
G_message(_("Color table for vector map <%s> set to '%s'"),
G_fully_qualified_name(name, mapset),
is_from_stdin || convert ? "rules" : style ? style : rules ? rules :
cmap);
exit(EXIT_SUCCESS);
}
/* ************************************************************************* */
int main(int argc, char *argv[])
{
RASTER3D_Region region, inputmap_bounds;
struct Cell_head region2d;
struct GModule *module;
struct History history;
void *map = NULL; /*The 3D Rastermap */
int i = 0, changemask = 0;
int *fd = NULL, output_type, cols, rows;
char *RasterFileName;
int overwrite = 0;
/* Initialize GRASS */
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("raster3d"));
G_add_keyword(_("conversion"));
G_add_keyword(_("raster"));
G_add_keyword(_("voxel"));
module->description = _("Converts 3D raster maps to 2D raster maps");
/* Get parameters from user */
set_params();
/* Have GRASS get inputs */
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
G_debug(3, "Open 3D raster map <%s>", param.input->answer);
if (NULL == G_find_raster3d(param.input->answer, ""))
Rast3d_fatal_error(_("3D raster map <%s> not found"),
param.input->answer);
/*Set the defaults */
Rast3d_init_defaults();
/*Set the resolution of the output maps */
if (param.res->answer) {
/*Open the map with current region */
map = Rast3d_open_cell_old(param.input->answer,
G_find_raster3d(param.input->answer, ""),
RASTER3D_DEFAULT_WINDOW, RASTER3D_TILE_SAME_AS_FILE,
RASTER3D_USE_CACHE_DEFAULT);
if (map == NULL)
Rast3d_fatal_error(_("Unable to open 3D raster map <%s>"),
param.input->answer);
/*Get the region of the map */
Rast3d_get_region_struct_map(map, ®ion);
/*set this region as current 3D window for map */
Rast3d_set_window_map(map, ®ion);
/*Set the 2d region appropriate */
Rast3d_extract2d_region(®ion, ®ion2d);
/*Make the new 2d region the default */
Rast_set_window(®ion2d);
} else {
/* Figure out the region from the map */
Rast3d_get_window(®ion);
/*Open the 3d raster map */
map = Rast3d_open_cell_old(param.input->answer,
G_find_raster3d(param.input->answer, ""),
®ion, RASTER3D_TILE_SAME_AS_FILE,
RASTER3D_USE_CACHE_DEFAULT);
if (map == NULL)
Rast3d_fatal_error(_("Unable to open 3D raster map <%s>"),
param.input->answer);
}
/*Check if the g3d-region is equal to the 2D rows and cols */
rows = Rast_window_rows();
cols = Rast_window_cols();
/*If not equal, set the 3D window correct */
if (rows != region.rows || cols != region.cols) {
G_message(_("The 2D and 3D region settings are different. "
"Using the 2D window settings to adjust the 2D part of the 3D region."));
G_get_set_window(®ion2d);
region.ns_res = region2d.ns_res;
region.ew_res = region2d.ew_res;
region.rows = region2d.rows;
region.cols = region2d.cols;
Rast3d_adjust_region(®ion);
Rast3d_set_window_map(map, ®ion);
}
/* save the input map region for later use (history meta-data) */
Rast3d_get_region_struct_map(map, &inputmap_bounds);
/*Get the output type */
output_type = Rast3d_file_type_map(map);
/*prepare the filehandler */
fd = (int *) G_malloc(region.depths * sizeof (int));
if (fd == NULL)
fatal_error(map, NULL, 0, _("Out of memory"));
G_message(_("Creating %i raster maps"), region.depths);
/*Loop over all output maps! open */
for (i = 0; i < region.depths; i++) {
/*Create the outputmaps */
G_asprintf(&RasterFileName, "%s_%05d", param.output->answer, i + 1);
G_message(_("Raster map %i Filename: %s"), i + 1, RasterFileName);
overwrite = G_check_overwrite(argc, argv);
if (G_find_raster2(RasterFileName, "") && !overwrite)
G_fatal_error(_("Raster map %d Filename: %s already exists. Use the flag --o to overwrite."),
i + 1, RasterFileName);
if (output_type == FCELL_TYPE)
fd[i] = open_output_map(RasterFileName, FCELL_TYPE);
else if (output_type == DCELL_TYPE)
fd[i] = open_output_map(RasterFileName, DCELL_TYPE);
}
/*if requested set the Mask on */
if (param.mask->answer) {
if (Rast3d_mask_file_exists()) {
changemask = 0;
if (Rast3d_mask_is_off(map)) {
Rast3d_mask_on(map);
changemask = 1;
}
}
}
/*Create the Rastermaps */
g3d_to_raster(map, region, fd);
/*Loop over all output maps! close */
for (i = 0; i < region.depths; i++) {
close_output_map(fd[i]);
/* write history */
G_asprintf(&RasterFileName, "%s_%i", param.output->answer, i + 1);
G_debug(4, "Raster map %d Filename: %s", i + 1, RasterFileName);
Rast_short_history(RasterFileName, "raster", &history);
Rast_set_history(&history, HIST_DATSRC_1, "3D Raster map:");
Rast_set_history(&history, HIST_DATSRC_2, param.input->answer);
Rast_append_format_history(&history, "Level %d of %d", i + 1, region.depths);
Rast_append_format_history(&history, "Level z-range: %f to %f",
region.bottom + (i * region.tb_res),
region.bottom + (i + 1 * region.tb_res));
Rast_append_format_history(&history, "Input map full z-range: %f to %f",
inputmap_bounds.bottom, inputmap_bounds.top);
Rast_append_format_history(&history, "Input map z-resolution: %f",
inputmap_bounds.tb_res);
if (!param.res->answer) {
Rast_append_format_history(&history, "GIS region full z-range: %f to %f",
region.bottom, region.top);
Rast_append_format_history(&history, "GIS region z-resolution: %f",
region.tb_res);
}
Rast_command_history(&history);
Rast_write_history(RasterFileName, &history);
}
/*We set the Mask off, if it was off before */
if (param.mask->answer) {
if (Rast3d_mask_file_exists())
if (Rast3d_mask_is_on(map) && changemask)
Rast3d_mask_off(map);
}
/*Cleaning */
if (RasterFileName)
G_free(RasterFileName);
if (fd)
G_free(fd);
/* Close files and exit */
if (!Rast3d_close(map))
fatal_error(map, NULL, 0, _("Unable to close 3D raster map"));
map = NULL;
return (EXIT_SUCCESS);
}
int main(int argc, char **argv)
{
struct GModule *module;
struct Option *bg_color_opt, *fg_color_opt, *coords, *n_arrow, *fsize,
*width_opt, *rotation_opt, *lbl_opt;
struct Flag *no_text, *rotate_text, *rads;
double east, north;
double rotation;
double fontsize, line_width;
int rot_with_text;
/* Initialize the GIS calls */
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("display"));
G_add_keyword(_("cartography"));
module->description =
_("Displays a north arrow on the graphics monitor.");
n_arrow = G_define_option();
n_arrow->key = "style";
n_arrow->description = _("North arrow style");
n_arrow->options =
"1a,1b,2,3,4,5,6,7a,7b,8a,8b,9,fancy_compass,basic_compass,arrow1,arrow2,arrow3,star";
G_asprintf((char **)&(n_arrow->descriptions),
"1a;%s;" "1b;%s;" "2;%s;" "3;%s;" "4;%s;" "5;%s;" "6;%s;"
"7a;%s;" "7b;%s;" "8a;%s;" "8b;%s;" "9;%s;" "fancy_compass;%s;"
"basic_compass;%s;" "arrow1;%s;" "arrow2;%s;" "arrow3;%s;"
"star;%s;",
_("Two color arrowhead"),
_("Two color arrowhead with circle"),
_("Narrow with blending N"), _("Long with small arrowhead"),
_("Inverted narrow inside a circle"),
_("Triangle and N inside a circle"),
_("Arrowhead and N inside a circle"),
_("Tall half convex arrowhead"),
_("Tall half concave arrowhead"), _("Thin arrow in a circle"),
_("Fat arrow in a circle"), _("One color arrowhead"),
_("Fancy compass"), _("Basic compass"), _("Simple arrow"),
_("Thin arrow"), _("Fat arrow"), _("4-point star"));
n_arrow->answer = "1a";
n_arrow->guisection = _("Style");
n_arrow->gisprompt = "old,northarrow,northarrow";
coords = G_define_option();
coords->key = "at";
coords->key_desc = "x,y";
coords->type = TYPE_DOUBLE;
coords->answer = "85.0,15.0";
coords->options = "0-100";
coords->label =
_("Screen coordinates of the rectangle's top-left corner");
coords->description = _("(0,0) is lower-left of the display frame");
rotation_opt = G_define_option();
rotation_opt->key = "rotation";
rotation_opt->type = TYPE_DOUBLE;
rotation_opt->required = NO;
rotation_opt->answer = "0";
rotation_opt->description =
_("Rotation angle in degrees (counter-clockwise)");
lbl_opt = G_define_option();
lbl_opt->key = "label";
lbl_opt->required = NO;
lbl_opt->answer = "N";
lbl_opt->description =
_("Displayed letter on the top of arrow");
lbl_opt->guisection = _("Text");
fg_color_opt = G_define_standard_option(G_OPT_C);
fg_color_opt->label = _("Line color");
fg_color_opt->guisection = _("Colors");
bg_color_opt = G_define_standard_option(G_OPT_CN);
bg_color_opt->key = "fill_color";
bg_color_opt->label = _("Fill color");
bg_color_opt->answer = _("black");
bg_color_opt->guisection = _("Colors");
width_opt = G_define_option();
width_opt->key = "width";
width_opt->type = TYPE_DOUBLE;
width_opt->answer = "0";
width_opt->description = _("Line width");
fsize = G_define_option();
fsize->key = "fontsize";
fsize->type = TYPE_DOUBLE;
fsize->required = NO;
fsize->answer = "14";
fsize->options = "1-360";
fsize->description = _("Font size");
fsize->guisection = _("Text");
no_text = G_define_flag();
no_text->key = 't';
no_text->description = _("Draw the symbol without text");
no_text->guisection = _("Text");
rotate_text = G_define_flag();
rotate_text->key = 'w';
rotate_text->description = _("Do not rotate text with symbol");
rotate_text->guisection = _("Text");
rads = G_define_flag();
rads->key = 'r';
rads->description = _("Use radians instead of degrees for rotation");
/* TODO:
- add a -n flag to rotate to match true north instead of grid north.
Similar to 'g.region -n' but use the at=x,y coord for the convergence
angle calc. (assuming that's the center of the icon)
*/
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
sscanf(coords->answers[0], "%lf", &east);
sscanf(coords->answers[1], "%lf", &north);
fontsize = atof(fsize->answer);
if (no_text->answer)
fontsize = -1;
rot_with_text = 0;
if (!rotate_text->answer)
rot_with_text = 1;
/* Convert to radians */
rotation = atof(rotation_opt->answer);
if (!rads->answer)
rotation *= M_PI / 180.0;
rotation = fmod(rotation, 2.0 * M_PI);
if (rotation < 0.0)
rotation += 2.0 * M_PI;
/* Parse and select foreground color */
fg_color = D_parse_color(fg_color_opt->answer, 0);
/* Parse and select background color */
bg_color = D_parse_color(bg_color_opt->answer, 1);
if (bg_color == 0)
do_background = FALSE;
line_width = atof(width_opt->answer);
if (line_width < 0)
line_width = 0;
else if (line_width > 72)
line_width = 72;
D_open_driver();
draw_n_arrow(east, north, rotation, lbl_opt->answer, rot_with_text,
fontsize, n_arrow->answer, line_width);
D_save_command(G_recreate_command());
D_close_driver();
exit(EXIT_SUCCESS);
}
int main(int argc, char *argv[])
{
struct Option *vector_opt, *seed_opt, *flowlines_opt, *flowacc_opt, *sampled_opt,
*scalar_opt, *unit_opt, *step_opt, *limit_opt, *skip_opt, *dir_opt,
*error_opt;
struct Flag *table_fl;
struct GModule *module;
RASTER3D_Region region;
RASTER3D_Map *flowacc, *sampled;
struct Integration integration;
struct Seed seed;
struct Gradient_info gradient_info;
struct Map_info seed_Map;
struct line_pnts *seed_points;
struct line_cats *seed_cats;
struct Map_info fl_map;
struct line_cats *fl_cats; /* for flowlines */
struct line_pnts *fl_points; /* for flowlines */
struct field_info *finfo;
dbDriver *driver;
int cat; /* cat of flowlines */
int if_table;
int i, r, c, d;
char *desc;
int n_seeds, seed_count, ltype;
int skip[3];
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("raster3d"));
G_add_keyword(_("hydrology"));
G_add_keyword(_("voxel"));
module->description =
_("Computes 3D flow lines and 3D flow accumulation.");
scalar_opt = G_define_standard_option(G_OPT_R3_INPUT);
scalar_opt->required = NO;
scalar_opt->guisection = _("Input");
vector_opt = G_define_standard_option(G_OPT_R3_INPUTS);
vector_opt->key = "vector_field";
vector_opt->required = NO;
vector_opt->description = _("Names of three 3D raster maps describing "
"x, y, z components of vector field");
vector_opt->guisection = _("Input");
seed_opt = G_define_standard_option(G_OPT_V_INPUT);
seed_opt->required = NO;
seed_opt->key = "seed_points";
seed_opt->description = _("If no map is provided, "
"flow lines are generated "
"from each cell of the input 3D raster");
seed_opt->label = _("Name of vector map with points "
"from which flow lines are generated");
seed_opt->guisection = _("Input");
flowlines_opt = G_define_standard_option(G_OPT_V_OUTPUT);
flowlines_opt->key = "flowline";
flowlines_opt->required = NO;
flowlines_opt->description = _("Name for vector map of flow lines");
flowlines_opt->guisection = _("Output");
flowacc_opt = G_define_standard_option(G_OPT_R3_OUTPUT);
flowacc_opt->key = "flowaccumulation";
flowacc_opt->required = NO;
flowacc_opt->description =
_("Name for output flowaccumulation 3D raster");
flowacc_opt->guisection = _("Output");
sampled_opt = G_define_standard_option(G_OPT_R3_INPUT);
sampled_opt->key = "sampled";
sampled_opt->required = NO;
sampled_opt->label =
_("Name for 3D raster sampled by flowlines");
sampled_opt->description =
_("Values of this 3D raster will be stored "
"as attributes of flowlines segments");
unit_opt = G_define_option();
unit_opt->key = "unit";
unit_opt->type = TYPE_STRING;
unit_opt->required = NO;
unit_opt->answer = "cell";
unit_opt->options = "time,length,cell";
desc = NULL;
G_asprintf(&desc,
"time;%s;"
"length;%s;"
"cell;%s",
_("elapsed time"),
_("length in map units"), _("length in cells (voxels)"));
unit_opt->descriptions = desc;
unit_opt->label = _("Unit of integration step");
unit_opt->description = _("Default unit is cell");
unit_opt->guisection = _("Integration");
step_opt = G_define_option();
step_opt->key = "step";
step_opt->type = TYPE_DOUBLE;
step_opt->required = NO;
step_opt->answer = "0.25";
step_opt->label = _("Integration step in selected unit");
step_opt->description = _("Default step is 0.25 cell");
step_opt->guisection = _("Integration");
limit_opt = G_define_option();
limit_opt->key = "limit";
limit_opt->type = TYPE_INTEGER;
limit_opt->required = NO;
limit_opt->answer = "2000";
limit_opt->description = _("Maximum number of steps");
limit_opt->guisection = _("Integration");
error_opt = G_define_option();
error_opt->key = "max_error";
error_opt->type = TYPE_DOUBLE;
error_opt->required = NO;
error_opt->answer = "1e-5";
error_opt->label = _("Maximum error of integration");
error_opt->description = _("Influences step, increase maximum error "
"to allow bigger steps");
error_opt->guisection = _("Integration");
skip_opt = G_define_option();
skip_opt->key = "skip";
skip_opt->type = TYPE_INTEGER;
skip_opt->required = NO;
skip_opt->multiple = YES;
skip_opt->description =
_("Number of cells between flow lines in x, y and z direction");
dir_opt = G_define_option();
dir_opt->key = "direction";
dir_opt->type = TYPE_STRING;
dir_opt->required = NO;
dir_opt->multiple = NO;
dir_opt->options = "up,down,both";
dir_opt->answer = "down";
dir_opt->description = _("Compute flowlines upstream, "
"downstream or in both direction.");
table_fl = G_define_flag();
table_fl->key = 'a';
table_fl->description = _("Create and fill attribute table");
G_option_required(scalar_opt, vector_opt, NULL);
G_option_exclusive(scalar_opt, vector_opt, NULL);
G_option_required(flowlines_opt, flowacc_opt, NULL);
G_option_requires(seed_opt, flowlines_opt, NULL);
G_option_requires(table_fl, flowlines_opt, NULL);
G_option_requires(sampled_opt, table_fl, NULL);
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
driver = NULL;
finfo = NULL;
if_table = table_fl->answer ? TRUE : FALSE;
check_vector_input_maps(vector_opt, seed_opt);
Rast3d_init_defaults();
Rast3d_get_window(®ion);
/* set up integration variables */
if (step_opt->answer) {
integration.step = atof(step_opt->answer);
integration.unit = unit_opt->answer;
}
else {
integration.unit = "cell";
integration.step = 0.25;
}
integration.max_error = atof(error_opt->answer);
integration.max_step = 5 * integration.step;
integration.min_step = integration.step / 5;
integration.limit = atof(limit_opt->answer);
if (strcmp(dir_opt->answer, "up") == 0)
integration.direction_type = FLOWDIR_UP;
else if (strcmp(dir_opt->answer, "down") == 0)
integration.direction_type = FLOWDIR_DOWN;
else
integration.direction_type = FLOWDIR_BOTH;
/* cell size is the diagonal */
integration.cell_size = sqrt(region.ns_res * region.ns_res +
region.ew_res * region.ew_res +
region.tb_res * region.tb_res);
/* set default skip if needed */
if (skip_opt->answers) {
for (i = 0; i < 3; i++) {
if (skip_opt->answers[i] != NULL) {
skip[i] = atoi(skip_opt->answers[i]);
}
else {
G_fatal_error(_("Please provide 3 integer values for skip option."));
}
}
}
else {
skip[0] = fmax(1, region.cols / 10);
skip[1] = fmax(1, region.rows / 10);
skip[2] = fmax(1, region.depths / 10);
}
/* open raster 3D maps of velocity components */
gradient_info.initialized = FALSE;
load_input_raster3d_maps(scalar_opt, vector_opt, &gradient_info, ®ion);
/* open new 3D raster map of flowacumulation */
if (flowacc_opt->answer) {
flowacc = Rast3d_open_new_opt_tile_size(flowacc_opt->answer,
RASTER3D_USE_CACHE_DEFAULT,
®ion, FCELL_TYPE, 32);
if (!flowacc)
Rast3d_fatal_error(_("Unable to open 3D raster map <%s>"),
flowacc_opt->answer);
init_flowaccum(®ion, flowacc);
}
/* open 3D raster map used for sampling */
if (sampled_opt->answer) {
sampled = Rast3d_open_cell_old(sampled_opt->answer,
G_find_raster3d(sampled_opt->answer, ""),
®ion, RASTER3D_TILE_SAME_AS_FILE,
RASTER3D_USE_CACHE_DEFAULT);
if (!sampled)
Rast3d_fatal_error(_("Unable to open 3D raster map <%s>"),
sampled_opt->answer);
}
else
sampled = NULL;
/* open new vector map of flowlines */
if (flowlines_opt->answer) {
fl_cats = Vect_new_cats_struct();
fl_points = Vect_new_line_struct();
if (Vect_open_new(&fl_map, flowlines_opt->answer, TRUE) < 0)
G_fatal_error(_("Unable to create vector map <%s>"),
flowlines_opt->answer);
Vect_hist_command(&fl_map);
if (if_table) {
create_table(&fl_map, &finfo, &driver,
gradient_info.compute_gradient, sampled ? 1 : 0);
}
}
n_seeds = 0;
/* open vector map of seeds */
if (seed_opt->answer) {
if (Vect_open_old2(&seed_Map, seed_opt->answer, "", "1") < 0)
G_fatal_error(_("Unable to open vector map <%s>"),
seed_opt->answer);
if (!Vect_is_3d(&seed_Map))
G_fatal_error(_("Vector map <%s> is not 3D"), seed_opt->answer);
n_seeds = Vect_get_num_primitives(&seed_Map, GV_POINT);
}
if (flowacc_opt->answer || (!seed_opt->answer && flowlines_opt->answer)) {
if (flowacc_opt->answer)
n_seeds += region.cols * region.rows * region.depths;
else {
n_seeds += ceil(region.cols / (double)skip[0]) *
ceil(region.rows / (double)skip[1]) *
ceil(region.depths / (double)skip[2]);
}
}
G_debug(1, "Number of seeds is %d", n_seeds);
seed_count = 0;
cat = 1;
if (seed_opt->answer) {
seed_points = Vect_new_line_struct();
seed_cats = Vect_new_cats_struct();
/* compute flowlines from vector seed map */
while (TRUE) {
ltype = Vect_read_next_line(&seed_Map, seed_points, seed_cats);
if (ltype == -1) {
Vect_close(&seed_Map);
G_fatal_error(_("Error during reading seed vector map"));
}
else if (ltype == -2) {
break;
}
else if (ltype == GV_POINT) {
seed.x = seed_points->x[0];
seed.y = seed_points->y[0];
seed.z = seed_points->z[0];
seed.flowline = TRUE;
seed.flowaccum = FALSE;
}
G_percent(seed_count, n_seeds, 1);
if (integration.direction_type == FLOWDIR_UP ||
integration.direction_type == FLOWDIR_BOTH) {
integration.actual_direction = FLOWDIR_UP;
compute_flowline(®ion, &seed, &gradient_info, flowacc, sampled,
&integration, &fl_map, fl_cats, fl_points,
&cat, if_table, finfo, driver);
}
if (integration.direction_type == FLOWDIR_DOWN ||
integration.direction_type == FLOWDIR_BOTH) {
integration.actual_direction = FLOWDIR_DOWN;
compute_flowline(®ion, &seed, &gradient_info, flowacc, sampled,
&integration, &fl_map, fl_cats, fl_points,
&cat, if_table, finfo, driver);
}
seed_count++;
}
Vect_destroy_line_struct(seed_points);
Vect_destroy_cats_struct(seed_cats);
Vect_close(&seed_Map);
}
if (flowacc_opt->answer || (!seed_opt->answer && flowlines_opt->answer)) {
/* compute flowlines from points on grid */
for (r = region.rows; r > 0; r--) {
for (c = 0; c < region.cols; c++) {
for (d = 0; d < region.depths; d++) {
seed.x =
region.west + c * region.ew_res + region.ew_res / 2;
seed.y =
region.south + r * region.ns_res - region.ns_res / 2;
seed.z =
region.bottom + d * region.tb_res + region.tb_res / 2;
seed.flowline = FALSE;
seed.flowaccum = FALSE;
if (flowacc_opt->answer)
seed.flowaccum = TRUE;
if (flowlines_opt->answer && !seed_opt->answer &&
(c % skip[0] == 0) && (r % skip[1] == 0) && (d % skip[2] == 0))
seed.flowline = TRUE;
if (seed.flowaccum || seed.flowline) {
G_percent(seed_count, n_seeds, 1);
if (integration.direction_type == FLOWDIR_UP ||
integration.direction_type == FLOWDIR_BOTH) {
integration.actual_direction = FLOWDIR_UP;
compute_flowline(®ion, &seed, &gradient_info,
flowacc, sampled, &integration, &fl_map,
fl_cats, fl_points, &cat,
if_table, finfo, driver);
}
if (integration.direction_type == FLOWDIR_DOWN ||
integration.direction_type == FLOWDIR_BOTH) {
integration.actual_direction = FLOWDIR_DOWN;
compute_flowline(®ion, &seed, &gradient_info,
flowacc, sampled, &integration, &fl_map,
fl_cats, fl_points, &cat,
if_table, finfo, driver);
}
seed_count++;
}
}
}
}
}
G_percent(1, 1, 1);
if (flowlines_opt->answer) {
if (if_table) {
db_commit_transaction(driver);
db_close_database_shutdown_driver(driver);
}
Vect_destroy_line_struct(fl_points);
Vect_destroy_cats_struct(fl_cats);
Vect_build(&fl_map);
Vect_close(&fl_map);
}
if (flowacc_opt->answer)
Rast3d_close(flowacc);
return EXIT_SUCCESS;
}
int main(int argc, char **argv)
{
int ret, level;
int stat, type, display;
int chcat;
int has_color, has_fcolor;
struct color_rgb color, fcolor;
double size;
int default_width;
double width_scale;
double minreg, maxreg, reg;
char map_name[GNAME_MAX];
struct GModule *module;
struct Option *map_opt;
struct Option *color_opt, *fcolor_opt, *rgbcol_opt, *zcol_opt;
struct Option *type_opt, *display_opt;
struct Option *icon_opt, *size_opt, *sizecolumn_opt, *rotcolumn_opt;
struct Option *where_opt;
struct Option *field_opt, *cat_opt, *lfield_opt;
struct Option *lcolor_opt, *bgcolor_opt, *bcolor_opt;
struct Option *lsize_opt, *font_opt, *enc_opt, *xref_opt, *yref_opt;
struct Option *attrcol_opt, *maxreg_opt, *minreg_opt;
struct Option *width_opt, *wcolumn_opt, *wscale_opt;
struct Option *leglab_opt;
struct Option *icon_line_opt, *icon_area_opt;
struct Flag *id_flag, *cats_acolors_flag, *sqrt_flag, *legend_flag;
char *desc;
struct cat_list *Clist;
LATTR lattr;
struct Map_info Map;
struct Cell_head window;
struct bound_box box;
double overlap;
stat = 0;
/* Initialize the GIS calls */
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("display"));
G_add_keyword(_("graphics"));
G_add_keyword(_("vector"));
module->description = _("Displays user-specified vector map "
"in the active graphics frame.");
map_opt = G_define_standard_option(G_OPT_V_MAP);
field_opt = G_define_standard_option(G_OPT_V_FIELD_ALL);
field_opt->answer = "1";
field_opt->guisection = _("Selection");
display_opt = G_define_option();
display_opt->key = "display";
display_opt->type = TYPE_STRING;
display_opt->required = YES;
display_opt->multiple = YES;
display_opt->answer = "shape";
display_opt->options = "shape,cat,topo,vert,dir,zcoor";
display_opt->description = _("Display");
desc = NULL;
G_asprintf(&desc,
"shape;%s;cat;%s;topo;%s;vert;%s;dir;%s;zcoor;%s",
_("Display geometry of features"),
_("Display category numbers of features"),
_("Display topology information (nodes, edges)"),
_("Display vertices of features"),
_("Display direction of linear features"),
_("Display z-coordinate of features (only for 3D vector maps)"));
display_opt->descriptions = desc;
/* Query */
type_opt = G_define_standard_option(G_OPT_V_TYPE);
type_opt->answer = "point,line,area,face";
type_opt->options = "point,line,boundary,centroid,area,face";
type_opt->guisection = _("Selection");
cat_opt = G_define_standard_option(G_OPT_V_CATS);
cat_opt->guisection = _("Selection");
where_opt = G_define_standard_option(G_OPT_DB_WHERE);
where_opt->guisection = _("Selection");
/* Colors */
color_opt = G_define_standard_option(G_OPT_CN);
color_opt->label = _("Feature color");
color_opt->guisection = _("Colors");
fcolor_opt = G_define_standard_option(G_OPT_CN);
fcolor_opt->key = "fill_color";
fcolor_opt->answer = "200:200:200";
fcolor_opt->label = _("Area fill color");
fcolor_opt->guisection = _("Colors");
rgbcol_opt = G_define_standard_option(G_OPT_DB_COLUMN);
rgbcol_opt->key = "rgb_column";
rgbcol_opt->guisection = _("Colors");
rgbcol_opt->label = _("Colorize features according color definition column");
rgbcol_opt->description = _("Color definition in R:G:B form");
zcol_opt = G_define_standard_option(G_OPT_M_COLR);
zcol_opt->key = "zcolor";
zcol_opt->description = _("Colorize point or area features according to z-coordinate");
zcol_opt->guisection = _("Colors");
/* Lines */
width_opt = G_define_option();
width_opt->key = "width";
width_opt->type = TYPE_INTEGER;
width_opt->answer = "0";
width_opt->guisection = _("Lines");
width_opt->description = _("Line width");
wcolumn_opt = G_define_standard_option(G_OPT_DB_COLUMN);
wcolumn_opt->key = "width_column";
wcolumn_opt->guisection = _("Lines");
wcolumn_opt->label = _("Name of numeric column containing line width");
wcolumn_opt->description = _("These values will be scaled by width_scale");
wscale_opt = G_define_option();
wscale_opt->key = "width_scale";
wscale_opt->type = TYPE_DOUBLE;
wscale_opt->answer = "1";
wscale_opt->guisection = _("Lines");
wscale_opt->description = _("Scale factor for width_column");
/* Symbols */
icon_opt = G_define_option();
icon_opt->key = "icon";
icon_opt->type = TYPE_STRING;
icon_opt->required = NO;
icon_opt->multiple = NO;
icon_opt->guisection = _("Symbols");
icon_opt->answer = "basic/x";
/* This could also use ->gisprompt = "old,symbol,symbol" instead of ->options */
icon_opt->options = icon_files();
icon_opt->description = _("Point and centroid symbol");
size_opt = G_define_option();
size_opt->key = "size";
size_opt->type = TYPE_DOUBLE;
size_opt->answer = "5";
size_opt->guisection = _("Symbols");
size_opt->label = _("Symbol size");
size_opt->description =
_("When used with the size_column option this becomes the scale factor");
sizecolumn_opt = G_define_standard_option(G_OPT_DB_COLUMN);
sizecolumn_opt->key = "size_column";
sizecolumn_opt->guisection = _("Symbols");
sizecolumn_opt->description =
_("Name of numeric column containing symbol size");
rotcolumn_opt = G_define_standard_option(G_OPT_DB_COLUMN);
rotcolumn_opt->key = "rotation_column";
rotcolumn_opt->guisection = _("Symbols");
rotcolumn_opt->label =
_("Name of numeric column containing symbol rotation angle");
rotcolumn_opt->description =
_("Measured in degrees CCW from east");
icon_area_opt = G_define_option();
icon_area_opt->key = "icon_area";
icon_area_opt->type = TYPE_STRING;
icon_area_opt->required = NO;
icon_area_opt->multiple = NO;
icon_area_opt->guisection = _("Legend");
icon_area_opt->answer = "legend/area";
icon_area_opt->options = icon_files();
icon_area_opt->description = _("Area/boundary symbol for legend");
icon_line_opt = G_define_option();
icon_line_opt->key = "icon_line";
icon_line_opt->type = TYPE_STRING;
icon_line_opt->required = NO;
icon_line_opt->multiple = NO;
icon_line_opt->guisection = _("Legend");
icon_line_opt->answer = "legend/line";
icon_line_opt->options = icon_files();
icon_line_opt->description = _("Line symbol for legend");
leglab_opt = G_define_option();
leglab_opt->key = "legend_label";
leglab_opt->type = TYPE_STRING;
leglab_opt->guisection = _("Legend");
leglab_opt->description = _("Label to display after symbol in vector legend");
/* Labels */
lfield_opt = G_define_standard_option(G_OPT_V_FIELD);
lfield_opt->key = "label_layer";
lfield_opt->required = NO;
lfield_opt->guisection = _("Labels");
lfield_opt->label =
_("Layer number for labels (default: the given layer number)");
attrcol_opt = G_define_standard_option(G_OPT_DB_COLUMN);
attrcol_opt->key = "attribute_column";
attrcol_opt->multiple = NO; /* or fix attr.c, around line 102 */
attrcol_opt->guisection = _("Labels");
attrcol_opt->description = _("Name of column to be displayed as a label");
lcolor_opt = G_define_standard_option(G_OPT_C);
lcolor_opt->key = "label_color";
lcolor_opt->answer = "red";
lcolor_opt->label = _("Label color");
lcolor_opt->guisection = _("Labels");
bgcolor_opt = G_define_standard_option(G_OPT_CN);
bgcolor_opt->key = "label_bgcolor";
bgcolor_opt->answer = "none";
bgcolor_opt->guisection = _("Labels");
bgcolor_opt->label = _("Label background color");
bcolor_opt = G_define_standard_option(G_OPT_CN);
bcolor_opt->key = "label_bcolor";
bcolor_opt->type = TYPE_STRING;
bcolor_opt->answer = "none";
bcolor_opt->guisection = _("Labels");
bcolor_opt->label = _("Label border color");
lsize_opt = G_define_option();
lsize_opt->key = "label_size";
lsize_opt->type = TYPE_INTEGER;
lsize_opt->answer = "8";
lsize_opt->guisection = _("Labels");
lsize_opt->description = _("Label size (pixels)");
font_opt = G_define_option();
font_opt->key = "font";
font_opt->type = TYPE_STRING;
font_opt->guisection = _("Labels");
font_opt->description = _("Font name");
enc_opt = G_define_option();
enc_opt->key = "encoding";
enc_opt->type = TYPE_STRING;
enc_opt->guisection = _("Labels");
enc_opt->description = _("Text encoding");
xref_opt = G_define_option();
xref_opt->key = "xref";
xref_opt->type = TYPE_STRING;
xref_opt->guisection = _("Labels");
xref_opt->answer = "left";
xref_opt->options = "left,center,right";
xref_opt->description = _("Label horizontal justification");
yref_opt = G_define_option();
yref_opt->key = "yref";
yref_opt->type = TYPE_STRING;
yref_opt->guisection = _("Labels");
yref_opt->answer = "center";
yref_opt->options = "top,center,bottom";
yref_opt->description = _("Label vertical justification");
minreg_opt = G_define_option();
minreg_opt->key = "minreg";
minreg_opt->type = TYPE_DOUBLE;
minreg_opt->required = NO;
minreg_opt->description =
_("Minimum region size (average from height and width) "
"when map is displayed");
maxreg_opt = G_define_option();
maxreg_opt->key = "maxreg";
maxreg_opt->type = TYPE_DOUBLE;
maxreg_opt->required = NO;
maxreg_opt->description =
_("Maximum region size (average from height and width) "
"when map is displayed");
/* Colors */
cats_acolors_flag = G_define_flag();
cats_acolors_flag->key = 'c';
cats_acolors_flag->guisection = _("Colors");
cats_acolors_flag->description =
_("Random colors according to category number "
"(or layer number if 'layer=-1' is given)");
/* Query */
id_flag = G_define_flag();
id_flag->key = 'i';
id_flag->guisection = _("Selection");
id_flag->description = _("Use values from 'cats' option as feature id");
sqrt_flag = G_define_flag();
sqrt_flag->key = 'r';
sqrt_flag->label = _("Use square root of the value of size_column");
sqrt_flag->description =
_("This makes circle areas proportionate to the size_column values "
"instead of circle radius");
sqrt_flag->guisection = _("Symbols");
legend_flag = G_define_flag();
legend_flag->key = 's';
legend_flag->label = _("Do not show this layer in vector legend");
legend_flag->guisection = _("Legend");
/* Check command line */
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
D_open_driver();
G_get_set_window(&window);
/* Check min/max region */
reg = ((window.east - window.west) + (window.north - window.south)) / 2;
if (minreg_opt->answer) {
minreg = atof(minreg_opt->answer);
if (reg < minreg) {
G_important_message(_("Region size is lower than minreg, nothing displayed"));
exit(EXIT_SUCCESS);
}
}
if (maxreg_opt->answer) {
maxreg = atof(maxreg_opt->answer);
if (reg > maxreg) {
G_important_message(_("Region size is greater than maxreg, nothing displayed"));
exit(EXIT_SUCCESS);
}
}
strcpy(map_name, map_opt->answer);
default_width = atoi(width_opt->answer);
if (default_width < 0)
default_width = 0;
width_scale = atof(wscale_opt->answer);
if (cats_acolors_flag->answer && rgbcol_opt->answer) {
G_warning(_("The -%c flag and <%s> option cannot be used together, "
"the -%c flag will be ignored!"),
cats_acolors_flag->key, rgbcol_opt->key, cats_acolors_flag->key);
cats_acolors_flag->answer = FALSE;
}
color = G_standard_color_rgb(WHITE);
has_color = option_to_color(&color, color_opt->answer);
fcolor = G_standard_color_rgb(WHITE);
has_fcolor = option_to_color(&fcolor, fcolor_opt->answer);
size = atof(size_opt->answer);
/* if where_opt was specified select categories from db
* otherwise parse cat_opt */
Clist = Vect_new_cat_list();
Clist->field = atoi(field_opt->answer);
/* open vector */
level = Vect_open_old2(&Map, map_name, "", field_opt->answer);
chcat = 0;
if (where_opt->answer) {
if (Clist->field < 1)
G_fatal_error(_("Option <%s> must be > 0"), field_opt->key);
chcat = 1;
option_to_where(&Map, Clist, where_opt->answer);
}
else if (cat_opt->answer) {
if (Clist->field < 1 && !id_flag->answer)
G_fatal_error(_("Option <%s> must be > 0"), field_opt->key);
chcat = 1;
ret = Vect_str_to_cat_list(cat_opt->answer, Clist);
if (ret > 0)
G_warning(n_("%d error in cat option", "%d errors in cat option", ret), ret);
}
type = Vect_option_to_types(type_opt);
display = option_to_display(display_opt);
/* labels */
options_to_lattr(&lattr, lfield_opt->answer,
lcolor_opt->answer, bgcolor_opt->answer, bcolor_opt->answer,
atoi(lsize_opt->answer), font_opt->answer, enc_opt->answer,
xref_opt->answer, yref_opt->answer);
D_setup(0);
D_set_reduction(1.0);
G_verbose_message(_("Plotting..."));
if (level >= 2)
Vect_get_map_box(&Map, &box);
if (level >= 2 && (window.north < box.S || window.south > box.N ||
window.east < box.W ||
window.west > G_adjust_easting(box.E, &window))) {
G_warning(_("The bounding box of the map is outside the current region, "
"nothing drawn"));
}
else {
overlap = G_window_percentage_overlap(&window, box.N, box.S,
box.E, box.W);
G_debug(1, "overlap = %f \n", overlap);
if (overlap < 1)
Vect_set_constraint_region(&Map, window.north, window.south,
window.east, window.west,
PORT_DOUBLE_MAX, -PORT_DOUBLE_MAX);
/* default line width */
if (!wcolumn_opt->answer)
D_line_width(default_width);
if (display & DISP_SHAPE) {
stat += display_shape(&Map, type, Clist, &window,
has_color ? &color : NULL, has_fcolor ? &fcolor : NULL, chcat,
icon_opt->answer, size, sizecolumn_opt->answer,
sqrt_flag->answer ? TRUE : FALSE, rotcolumn_opt->answer,
id_flag->answer ? TRUE : FALSE,
cats_acolors_flag->answer ? TRUE : FALSE, rgbcol_opt->answer,
default_width, wcolumn_opt->answer, width_scale,
zcol_opt->answer);
if (wcolumn_opt->answer)
D_line_width(default_width);
}
if (has_color) {
D_RGB_color(color.r, color.g, color.b);
if (display & DISP_DIR)
stat += display_dir(&Map, type, Clist, chcat, size);
}
if (!legend_flag->answer) {
write_into_legfile(&Map, type, leglab_opt->answer, map_name,
icon_opt->answer, size_opt->answer,
color_opt->answer, fcolor_opt->answer,
width_opt->answer, icon_area_opt->answer,
icon_line_opt->answer, sizecolumn_opt->answer);
}
/* reset line width: Do we need to get line width from display
* driver (not implemented)? It will help restore previous line
* width (not just 0) determined by another module (e.g.,
* d.linewidth). */
if (!wcolumn_opt->answer)
D_line_width(0);
if (display & DISP_CAT)
stat += display_label(&Map, type, Clist, &lattr, chcat);
if (attrcol_opt->answer)
stat += display_attr(&Map, type, attrcol_opt->answer, Clist, &lattr, chcat);
if (display & DISP_ZCOOR)
stat += display_zcoor(&Map, type, &lattr);
if (display & DISP_VERT)
stat += display_vert(&Map, type, &lattr, size);
if (display & DISP_TOPO)
stat += display_topo(&Map, type, &lattr, size);
}
D_save_command(G_recreate_command());
D_close_driver();
Vect_close(&Map);
Vect_destroy_cat_list(Clist);
if (stat != 0) {
G_fatal_error(_("Rendering failed"));
}
G_done_msg(" ");
exit(EXIT_SUCCESS);
}
int main(int argc, char *argv[])
{
const char *input, *source, *output;
char *title;
struct Cell_head cellhd;
GDALDatasetH hDS;
GDALRasterBandH hBand;
struct GModule *module;
struct {
struct Option *input, *source, *output, *band, *title;
} parm;
struct {
struct Flag *o, *f, *e, *r, *h, *v;
} flag;
int min_band, max_band, band;
struct band_info info;
int flip;
struct Ref reference;
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("raster"));
G_add_keyword(_("import"));
G_add_keyword(_("input"));
G_add_keyword(_("external"));
module->description =
_("Links GDAL supported raster data as a pseudo GRASS raster map.");
parm.input = G_define_standard_option(G_OPT_F_INPUT);
parm.input->description = _("Name of raster file to be linked");
parm.input->required = NO;
parm.input->guisection = _("Input");
parm.source = G_define_option();
parm.source->key = "source";
parm.source->description = _("Name of non-file GDAL data source");
parm.source->required = NO;
parm.source->type = TYPE_STRING;
parm.source->key_desc = "name";
parm.source->guisection = _("Input");
parm.output = G_define_standard_option(G_OPT_R_OUTPUT);
parm.band = G_define_option();
parm.band->key = "band";
parm.band->type = TYPE_INTEGER;
parm.band->required = NO;
parm.band->description = _("Band to select (default: all)");
parm.band->guisection = _("Input");
parm.title = G_define_option();
parm.title->key = "title";
parm.title->key_desc = "phrase";
parm.title->type = TYPE_STRING;
parm.title->required = NO;
parm.title->description = _("Title for resultant raster map");
parm.title->guisection = _("Metadata");
flag.f = G_define_flag();
flag.f->key = 'f';
flag.f->description = _("List supported formats and exit");
flag.f->guisection = _("Print");
flag.f->suppress_required = YES;
flag.o = G_define_flag();
flag.o->key = 'o';
flag.o->description =
_("Override projection (use location's projection)");
flag.e = G_define_flag();
flag.e->key = 'e';
flag.e->description = _("Extend location extents based on new dataset");
flag.r = G_define_flag();
flag.r->key = 'r';
flag.r->description = _("Require exact range");
flag.h = G_define_flag();
flag.h->key = 'h';
flag.h->description = _("Flip horizontally");
flag.v = G_define_flag();
flag.v->key = 'v';
flag.v->description = _("Flip vertically");
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
GDALAllRegister();
if (flag.f->answer) {
list_formats();
exit(EXIT_SUCCESS);
}
input = parm.input->answer;
source = parm.source->answer;
output = parm.output->answer;
flip = 0;
if (flag.h->answer)
flip |= FLIP_H;
if (flag.v->answer)
flip |= FLIP_V;
if (parm.title->answer) {
title = G_store(parm.title->answer);
G_strip(title);
}
else
title = NULL;
if (!input && !source)
G_fatal_error(_("One of options <%s> or <%s> must be given"),
parm.input->key, parm.source->key);
if (input && source)
G_fatal_error(_("Option <%s> and <%s> are mutually exclusive"),
parm.input->key, parm.source->key);
if (input && !G_is_absolute_path(input)) {
char path[GPATH_MAX];
getcwd(path, sizeof(path));
strcat(path, "/");
strcat(path, input);
input = G_store(path);
}
if (!input)
input = source;
hDS = GDALOpen(input, GA_ReadOnly);
if (hDS == NULL)
return 1;
setup_window(&cellhd, hDS, &flip);
check_projection(&cellhd, hDS, flag.o->answer);
Rast_set_window(&cellhd);
if (parm.band->answer)
min_band = max_band = atoi(parm.band->answer);
else
min_band = 1, max_band = GDALGetRasterCount(hDS);
G_verbose_message(_("Proceeding with import..."));
if (max_band > min_band) {
if (I_find_group(output) == 1)
G_warning(_("Imagery group <%s> already exists and will be overwritten."), output);
I_init_group_ref(&reference);
}
for (band = min_band; band <= max_band; band++) {
char *output2, *title2 = NULL;
G_message(_("Reading band %d of %d..."),
band, GDALGetRasterCount( hDS ));
hBand = GDALGetRasterBand(hDS, band);
if (!hBand)
G_fatal_error(_("Selected band (%d) does not exist"), band);
if (max_band > min_band) {
G_asprintf(&output2, "%s.%d", output, band);
if (title)
G_asprintf(&title2, "%s (band %d)", title, band);
G_debug(1, "Adding raster map <%s> to group <%s>", output2, output);
I_add_file_to_group_ref(output2, G_mapset(), &reference);
}
else {
output2 = G_store(output);
if (title)
title2 = G_store(title);
}
query_band(hBand, output2, flag.r->answer, &cellhd, &info);
create_map(input, band, output2, &cellhd, &info, title, flip);
G_free(output2);
G_free(title2);
}
if (flag.e->answer)
update_default_window(&cellhd);
/* Create the imagery group if multiple bands are imported */
if (max_band > min_band) {
I_put_group_ref(output, &reference);
I_put_group(output);
G_message(_("Imagery group <%s> created"), output);
}
exit(EXIT_SUCCESS);
}
int main(int argc, char **argv)
{
struct GModule *module;
struct Option *viewopts[MAXVIEWS], *out, *qual;
struct Flag *conv;
int i;
int *sdimp, longdim, r_out;
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("raster"));
G_add_keyword(_("export"));
G_add_keyword(_("animation"));
module->description =
_("Converts raster map series to MPEG movie.");
for (i = 0; i < MAXVIEWS; i++) {
char *buf = NULL;
viewopts[i] = G_define_standard_option(G_OPT_R_INPUTS);
G_asprintf(&buf, "view%d", i + 1);
viewopts[i]->key = G_store(buf);
viewopts[i]->required = (i ? NO : YES);
G_asprintf(&buf, _("Name of input raster map(s) for view no.%d"), i + 1);
viewopts[i]->description = G_store(buf);
viewopts[i]->guisection = _("Views");
G_free(buf);
}
out = G_define_standard_option(G_OPT_R_OUTPUT);
out->description = _("Name for output file");
qual = G_define_option();
qual->key = "qual";
qual->type = TYPE_INTEGER;
qual->required = NO;
qual->multiple = NO;
qual->answer = "3";
qual->options = "1-5";
qual->description =
_("Quality factor (1 = highest quality, lowest compression)");
qual->guisection = _("Settings");
conv = G_define_flag();
conv->key = 'c';
conv->label = _("Convert on the fly, uses less disk space");
conv->description = _("Requires r.out.ppm with stdout option");
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
parse_command(viewopts, vfiles, &numviews, &frames);
r_out = 0;
if (conv->answer)
r_out = 1;
quality = 3;
if (qual->answer != NULL)
sscanf(qual->answer, "%d", &quality);
if (quality > 5 || quality < 1)
quality = 3;
/* find a working encoder */
if (check_encoder("ppmtompeg"))
encoder = "ppmtompeg";
else if (check_encoder("mpeg_encode"))
encoder = "mpeg_encode";
else
G_fatal_error(_("Either mpeg_encode or ppmtompeg must be installed"));
G_debug(1, "encoder = [%s]", encoder);
vrows = Rast_window_rows();
vcols = Rast_window_cols();
nrows = vrows;
ncols = vcols;
/* short dimension */
sdimp = nrows > ncols ? &ncols : &nrows;
/* these proportions should work fine for 1 or 4 views, but for
2 views, want to double the narrow dim & for 3 views triple it */
if (numviews == 2)
*sdimp *= 2;
else if (numviews == 3)
*sdimp *= 3;
longdim = nrows > ncols ? nrows : ncols;
scale = 1.0;
{ /* find animation image size */
int max, min;
char *p;
max = DEF_MAX;
min = DEF_MIN;
if ((p = getenv("GMPEG_SIZE")))
max = min = atoi(p);
if (longdim > max) /* scale down */
scale = (float)max / longdim;
else if (longdim < min) /* scale up */
scale = (float)min / longdim;
}
/* TODO: align image size to 16 pixel width & height */
vscale = scale;
if (numviews == 4)
vscale = scale / 2.;
nrows *= scale;
ncols *= scale;
/* now nrows & ncols are the size of the combined - views image */
vrows *= vscale;
vcols *= vscale;
/* now vrows & vcols are the size for each sub-image */
/* add to nrows & ncols for borders */
/* irows, icols used for vert/horizontal determination in loop below */
irows = nrows;
icols = ncols;
nrows += (1 + (nrows / vrows)) * BORDER_W;
ncols += (1 + (ncols / vcols)) * BORDER_W;
if (numviews == 1 && r_out)
use_r_out();
else
load_files();
return (EXIT_SUCCESS);
}
int main(int argc, char *argv[])
{
struct GModule *module;
struct Option *input, *output, *memory, *col, *use_opt, *val_opt,
*field_opt, *type_opt, *where_opt, *cats_opt,
*rgbcol_opt, *label_opt;
struct Flag *dense_flag;
int cache_mb, use, value_type, type;
double value;
char *desc;
G_gisinit(argv[0]);
module = G_define_module();
G_add_keyword(_("vector"));
G_add_keyword(_("conversion"));
G_add_keyword(_("raster"));
G_add_keyword(_("rasterization"));
module->description = _("Converts (rasterize) a vector map into a raster map.");
input = G_define_standard_option(G_OPT_V_INPUT);
field_opt = G_define_standard_option(G_OPT_V_FIELD);
type_opt = G_define_standard_option(G_OPT_V_TYPE);
type_opt->options = "point,line,area";
type_opt->answer = "point,line,area";
type_opt->guisection = _("Selection");
cats_opt = G_define_standard_option(G_OPT_V_CATS);
cats_opt->guisection = _("Selection");
where_opt = G_define_standard_option(G_OPT_DB_WHERE);
where_opt->guisection = _("Selection");
output = G_define_standard_option(G_OPT_R_OUTPUT);
use_opt = G_define_option();
use_opt->key = "use";
use_opt->type = TYPE_STRING;
use_opt->required = YES;
use_opt->multiple = NO;
use_opt->options = "attr,cat,val,z,dir";
use_opt->description = _("Source of raster values");
desc = NULL;
G_asprintf(&desc,
"attr;%s;cat;%s;val;%s;z;%s;dir;%s",
_("read values from attribute table"),
_("use category values"),
_("use value specified by value option"),
_("use z coordinate (points or contours only)"),
_("output as flow direction (lines only)"));
use_opt->descriptions = desc;
col = G_define_standard_option(G_OPT_DB_COLUMN);
col->key = "attribute_column";
col->description =
_("Name of column for 'attr' parameter (data type must be numeric)");
col->guisection = _("Attributes");
rgbcol_opt = G_define_standard_option(G_OPT_DB_COLUMN);
rgbcol_opt->key = "rgb_column";
rgbcol_opt->description =
_("Name of color definition column (with RRR:GGG:BBB entries)");
rgbcol_opt->guisection = _("Attributes");
label_opt = G_define_standard_option(G_OPT_DB_COLUMN);
label_opt->key = "label_column";
label_opt->description =
_("Name of column used as raster category labels");
label_opt->guisection = _("Attributes");
val_opt = G_define_option();
val_opt->key = "value";
val_opt->type = TYPE_DOUBLE;
val_opt->required = NO;
val_opt->multiple = NO;
val_opt->answer = "1";
val_opt->description = _("Raster value (for use=val)");
memory = G_define_option();
memory->key = "memory";
memory->type = TYPE_INTEGER;
memory->required = NO;
memory->multiple = NO;
memory->answer = "300";
memory->label = _("Maximum memory to be used (in MB)");
memory->description = _("Cache size for raster rows");
dense_flag = G_define_flag();
dense_flag->key = 'd';
dense_flag->label = _("Create densified lines (default: thin lines)");
dense_flag->description = _("All cells touched by the line will be set, "
"not only those on the render path");
if (G_parser(argc, argv))
exit(EXIT_FAILURE);
type = Vect_option_to_types(type_opt);
cache_mb = atoi(memory->answer);
if (cache_mb < 1) {
G_warning(_("Cache size must be at least 1 MiB, changing %d to 1"),
cache_mb);
cache_mb = 1;
}
switch (use_opt->answer[0]) {
case 'a':
use = USE_ATTR;
if (!col->answer)
G_fatal_error(_("Column parameter missing (or use value parameter)"));
break;
case 'c':
use = USE_CAT;
if (col->answer)
G_fatal_error(_("Column parameter cannot be combined with use of category values option"));
break;
case 'v':
use = USE_VAL;
if (col->answer || label_opt->answer || rgbcol_opt->answer)
G_fatal_error(_("Column parameter cannot be combined with use of value option"));
break;
case 'z':
use = USE_Z;
if (col->answer || label_opt->answer || rgbcol_opt->answer)
G_fatal_error(_("Column parameter cannot be combined with use of z coordinate"));
break;
case 'd':
use = USE_D;
break;
default:
G_fatal_error(_("Unknown option '%s'"), use_opt->answer);
break;
}
value = atof(val_opt->answer);
value_type = (strchr(val_opt->answer, '.')) ? DCELL_TYPE : CELL_TYPE;
if (vect_to_rast(input->answer, output->answer, field_opt->answer,
col->answer, cache_mb, use, value, value_type,
rgbcol_opt->answer, label_opt->answer, type,
where_opt->answer, cats_opt->answer, dense_flag->answer)) {
exit(EXIT_FAILURE);
}
G_done_msg(" ");
exit(EXIT_SUCCESS);
}
