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blender-archive/source/blender/makesrna/intern/makesrna.c
Campbell Barton 07b8be9514 RNA: support enum defaults which don't exist in the item array
Allow dynamic defines to have defaults which don't exist in the
static array, this is an exception that's only allowed when the item
array is set to DummyRNA_NULL_items.
2019-03-13 09:10:34 +11:00

4249 lines
134 KiB
C

/*
* This program is free software; you can redistribute it and/or
* modify it under the terms of the GNU General Public License
* as published by the Free Software Foundation; either version 2
* of the License, or (at your option) any later version.
*
* This program is distributed in the hope that it will be useful,
* but WITHOUT ANY WARRANTY; without even the implied warranty of
* MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. See the
* GNU General Public License for more details.
*
* You should have received a copy of the GNU General Public License
* along with this program; if not, write to the Free Software Foundation,
* Inc., 51 Franklin Street, Fifth Floor, Boston, MA 02110-1301, USA.
*/
/** \file
* \ingroup RNA
*/
#include <float.h>
#include <limits.h>
#include <stdio.h>
#include <stdlib.h>
#include <string.h>
#include <errno.h>
#include "MEM_guardedalloc.h"
#include "BLI_utildefines.h"
#include "RNA_define.h"
#include "RNA_types.h"
#include "RNA_enum_types.h"
#include "rna_internal.h"
#ifdef _WIN32
# ifndef snprintf
# define snprintf _snprintf
# endif
#endif
#include "CLG_log.h"
static CLG_LogRef LOG = {"makesrna"};
/**
* Variable to control debug output of makesrna.
* debugSRNA:
* - 0 = no output, except errors
* - 1 = detail actions
*/
static int debugSRNA = 0;
/* stub for BLI_abort() */
#ifndef NDEBUG
void BLI_system_backtrace(FILE *fp)
{
(void)fp;
}
#endif
/* Replace if different */
#define TMP_EXT ".tmp"
/* copied from BLI_file_older */
#include <sys/stat.h>
static int file_older(const char *file1, const char *file2)
{
struct stat st1, st2;
if (debugSRNA > 0) {
printf("compare: %s %s\n", file1, file2);
}
if (stat(file1, &st1)) return 0;
if (stat(file2, &st2)) return 0;
return (st1.st_mtime < st2.st_mtime);
}
static const char *makesrna_path = NULL;
/* forward declarations */
static void rna_generate_static_parameter_prototypes(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc,
const char *name_override, int close_prototype);
/* helpers */
#define WRITE_COMMA \
{ \
if (!first) \
fprintf(f, ", "); \
first = 0; \
} (void)0
#define WRITE_PARAM(param) \
{ \
WRITE_COMMA; \
fprintf(f, param); \
} (void)0
static int replace_if_different(const char *tmpfile, const char *dep_files[])
{
/* return 0; *//* use for testing had edited rna */
#define REN_IF_DIFF \
{ \
FILE *file_test = fopen(orgfile, "rb"); \
if (file_test) { \
fclose(file_test); \
if (fp_org) fclose(fp_org); \
if (fp_new) fclose(fp_new); \
if (remove(orgfile) != 0) { \
CLOG_ERROR(&LOG, "remove error (%s): \"%s\"", \
strerror(errno), orgfile); \
return -1; \
} \
} \
} \
if (rename(tmpfile, orgfile) != 0) { \
CLOG_ERROR(&LOG, "rename error (%s): \"%s\" -> \"%s\"", \
strerror(errno), tmpfile, orgfile); \
return -1; \
} \
remove(tmpfile); \
return 1 \
/* end REN_IF_DIFF */
FILE *fp_new = NULL, *fp_org = NULL;
int len_new, len_org;
char *arr_new, *arr_org;
int cmp;
char orgfile[4096];
strcpy(orgfile, tmpfile);
orgfile[strlen(orgfile) - strlen(TMP_EXT)] = '\0'; /* strip '.tmp' */
fp_org = fopen(orgfile, "rb");
if (fp_org == NULL) {
REN_IF_DIFF;
}
/* XXX, trick to work around dependency problem
* assumes dep_files is in the same dir as makesrna.c, which is true for now. */
if (1) {
/* first check if makesrna.c is newer then generated files
* for development on makesrna.c you may want to disable this */
if (file_older(orgfile, __FILE__)) {
REN_IF_DIFF;
}
if (file_older(orgfile, makesrna_path)) {
REN_IF_DIFF;
}
/* now check if any files we depend on are newer then any generated files */
if (dep_files) {
int pass;
for (pass = 0; dep_files[pass]; pass++) {
char from_path[4096] = __FILE__;
char *p1, *p2;
/* dir only */
p1 = strrchr(from_path, '/');
p2 = strrchr(from_path, '\\');
strcpy((p1 > p2 ? p1 : p2) + 1, dep_files[pass]);
/* account for build deps, if makesrna.c (this file) is newer */
if (file_older(orgfile, from_path)) {
REN_IF_DIFF;
}
}
}
}
/* XXX end dep trick */
fp_new = fopen(tmpfile, "rb");
if (fp_new == NULL) {
/* shouldn't happen, just to be safe */
CLOG_ERROR(&LOG, "open error: \"%s\"", tmpfile);
fclose(fp_org);
return -1;
}
fseek(fp_new, 0L, SEEK_END); len_new = ftell(fp_new); fseek(fp_new, 0L, SEEK_SET);
fseek(fp_org, 0L, SEEK_END); len_org = ftell(fp_org); fseek(fp_org, 0L, SEEK_SET);
if (len_new != len_org) {
fclose(fp_new); fp_new = NULL;
fclose(fp_org); fp_org = NULL;
REN_IF_DIFF;
}
/* now compare the files... */
arr_new = MEM_mallocN(sizeof(char) * len_new, "rna_cmp_file_new");
arr_org = MEM_mallocN(sizeof(char) * len_org, "rna_cmp_file_org");
if (fread(arr_new, sizeof(char), len_new, fp_new) != len_new) {
CLOG_ERROR(&LOG, "unable to read file %s for comparison.", tmpfile);
}
if (fread(arr_org, sizeof(char), len_org, fp_org) != len_org) {
CLOG_ERROR(&LOG, "unable to read file %s for comparison.", orgfile);
}
fclose(fp_new); fp_new = NULL;
fclose(fp_org); fp_org = NULL;
cmp = memcmp(arr_new, arr_org, len_new);
MEM_freeN(arr_new);
MEM_freeN(arr_org);
if (cmp) {
REN_IF_DIFF;
}
else {
remove(tmpfile);
return 0;
}
#undef REN_IF_DIFF
}
/* Helper to solve keyword problems with C/C++ */
static const char *rna_safe_id(const char *id)
{
if (STREQ(id, "default"))
return "default_value";
else if (STREQ(id, "operator"))
return "operator_value";
else if (STREQ(id, "new"))
return "create";
else if (STREQ(id, "co_return")) {
/* MSVC2015, C++ uses for coroutines */
return "coord_return";
}
return id;
}
/* Sorting */
static int cmp_struct(const void *a, const void *b)
{
const StructRNA *structa = *(const StructRNA **)a;
const StructRNA *structb = *(const StructRNA **)b;
return strcmp(structa->identifier, structb->identifier);
}
static int cmp_property(const void *a, const void *b)
{
const PropertyRNA *propa = *(const PropertyRNA **)a;
const PropertyRNA *propb = *(const PropertyRNA **)b;
if (STREQ(propa->identifier, "rna_type")) return -1;
else if (STREQ(propb->identifier, "rna_type")) return 1;
if (STREQ(propa->identifier, "name")) return -1;
else if (STREQ(propb->identifier, "name")) return 1;
return strcmp(propa->name, propb->name);
}
static int cmp_def_struct(const void *a, const void *b)
{
const StructDefRNA *dsa = *(const StructDefRNA **)a;
const StructDefRNA *dsb = *(const StructDefRNA **)b;
return cmp_struct(&dsa->srna, &dsb->srna);
}
static int cmp_def_property(const void *a, const void *b)
{
const PropertyDefRNA *dpa = *(const PropertyDefRNA **)a;
const PropertyDefRNA *dpb = *(const PropertyDefRNA **)b;
return cmp_property(&dpa->prop, &dpb->prop);
}
static void rna_sortlist(ListBase *listbase, int (*cmp)(const void *, const void *))
{
Link *link;
void **array;
int a, size;
if (listbase->first == listbase->last)
return;
for (size = 0, link = listbase->first; link; link = link->next)
size++;
array = MEM_mallocN(sizeof(void *) * size, "rna_sortlist");
for (a = 0, link = listbase->first; link; link = link->next, a++)
array[a] = link;
qsort(array, size, sizeof(void *), cmp);
listbase->first = listbase->last = NULL;
for (a = 0; a < size; a++) {
link = array[a];
link->next = link->prev = NULL;
rna_addtail(listbase, link);
}
MEM_freeN(array);
}
/* Preprocessing */
static void rna_print_c_string(FILE *f, const char *str)
{
static const char *escape[] = {"\''", "\"\"", "\??", "\\\\", "\aa", "\bb", "\ff", "\nn", "\rr", "\tt", "\vv", NULL};
int i, j;
if (!str) {
fprintf(f, "NULL");
return;
}
fprintf(f, "\"");
for (i = 0; str[i]; i++) {
for (j = 0; escape[j]; j++)
if (str[i] == escape[j][0])
break;
if (escape[j]) fprintf(f, "\\%c", escape[j][1]);
else fprintf(f, "%c", str[i]);
}
fprintf(f, "\"");
}
static void rna_print_data_get(FILE *f, PropertyDefRNA *dp)
{
if (dp->dnastructfromname && dp->dnastructfromprop)
fprintf(f, " %s *data = (%s *)(((%s *)ptr->data)->%s);\n", dp->dnastructname, dp->dnastructname,
dp->dnastructfromname, dp->dnastructfromprop);
else
fprintf(f, " %s *data = (%s *)(ptr->data);\n", dp->dnastructname, dp->dnastructname);
}
static void rna_print_id_get(FILE *f, PropertyDefRNA *UNUSED(dp))
{
fprintf(f, " ID *id = ptr->id.data;\n");
}
static void rna_construct_function_name(char *buffer, int size, const char *structname, const char *propname, const char *type)
{
snprintf(buffer, size, "%s_%s_%s", structname, propname, type);
}
static void rna_construct_wrapper_function_name(char *buffer, int size, const char *structname, const char *propname, const char *type)
{
if (type == NULL || type[0] == '\0')
snprintf(buffer, size, "%s_%s", structname, propname);
else
snprintf(buffer, size, "%s_%s_%s", structname, propname, type);
}
static char *rna_alloc_function_name(const char *structname, const char *propname, const char *type)
{
AllocDefRNA *alloc;
char buffer[2048];
char *result;
rna_construct_function_name(buffer, sizeof(buffer), structname, propname, type);
result = MEM_callocN(sizeof(char) * strlen(buffer) + 1, "rna_alloc_function_name");
strcpy(result, buffer);
alloc = MEM_callocN(sizeof(AllocDefRNA), "AllocDefRNA");
alloc->mem = result;
rna_addtail(&DefRNA.allocs, alloc);
return result;
}
static StructRNA *rna_find_struct(const char *identifier)
{
StructDefRNA *ds;
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (STREQ(ds->srna->identifier, identifier))
return ds->srna;
return NULL;
}
static const char *rna_find_type(const char *type)
{
StructDefRNA *ds;
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (ds->dnaname && STREQ(ds->dnaname, type))
return ds->srna->identifier;
return NULL;
}
static const char *rna_find_dna_type(const char *type)
{
StructDefRNA *ds;
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (STREQ(ds->srna->identifier, type))
return ds->dnaname;
return NULL;
}
static const char *rna_type_type_name(PropertyRNA *prop)
{
switch (prop->type) {
case PROP_BOOLEAN:
return "bool";
case PROP_INT:
case PROP_ENUM:
return "int";
case PROP_FLOAT:
return "float";
case PROP_STRING:
if (prop->flag & PROP_THICK_WRAP) {
return "char *";
}
else {
return "const char *";
}
default:
return NULL;
}
}
static const char *rna_type_type(PropertyRNA *prop)
{
const char *type;
type = rna_type_type_name(prop);
if (type)
return type;
return "PointerRNA";
}
static const char *rna_type_struct(PropertyRNA *prop)
{
const char *type;
type = rna_type_type_name(prop);
if (type)
return "";
return "struct ";
}
static const char *rna_parameter_type_name(PropertyRNA *parm)
{
const char *type;
type = rna_type_type_name(parm);
if (type)
return type;
switch (parm->type) {
case PROP_POINTER:
{
PointerPropertyRNA *pparm = (PointerPropertyRNA *)parm;
if (parm->flag_parameter & PARM_RNAPTR)
return "PointerRNA";
else
return rna_find_dna_type((const char *)pparm->type);
}
case PROP_COLLECTION:
{
return "CollectionListBase";
}
default:
return "<error, no type specified>";
}
}
static int rna_enum_bitmask(PropertyRNA *prop)
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
int a, mask = 0;
if (eprop->item) {
for (a = 0; a < eprop->totitem; a++)
if (eprop->item[a].identifier[0])
mask |= eprop->item[a].value;
}
return mask;
}
static int rna_color_quantize(PropertyRNA *prop, PropertyDefRNA *dp)
{
return ( (prop->type == PROP_FLOAT) &&
(prop->subtype == PROP_COLOR || prop->subtype == PROP_COLOR_GAMMA) &&
(IS_DNATYPE_FLOAT_COMPAT(dp->dnatype) == 0) );
}
static const char *rna_function_string(void *func)
{
return (func) ? (const char *)func : "NULL";
}
static void rna_float_print(FILE *f, float num)
{
if (num == -FLT_MAX) fprintf(f, "-FLT_MAX");
else if (num == FLT_MAX) fprintf(f, "FLT_MAX");
else if ((ABS(num) < INT64_MAX) && ((int64_t)num == num)) fprintf(f, "%.1ff", num);
else fprintf(f, "%.10ff", num);
}
static void rna_int_print(FILE *f, int num)
{
if (num == INT_MIN) fprintf(f, "INT_MIN");
else if (num == INT_MAX) fprintf(f, "INT_MAX");
else fprintf(f, "%d", num);
}
static char *rna_def_property_get_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc)
{
char *func;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname) {
CLOG_ERROR(&LOG, "%s.%s has no valid dna info.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
return NULL;
}
/* typecheck, */
if (dp->dnatype && *dp->dnatype) {
if (prop->type == PROP_FLOAT) {
if (IS_DNATYPE_FLOAT_COMPAT(dp->dnatype) == 0) {
if (prop->subtype != PROP_COLOR_GAMMA) { /* colors are an exception. these get translated */
CLOG_ERROR(&LOG, "%s.%s is a '%s' but wrapped as type '%s'.",
srna->identifier, prop->identifier, dp->dnatype,
RNA_property_typename(prop->type));
DefRNA.error = 1;
return NULL;
}
}
}
else if (prop->type == PROP_INT || prop->type == PROP_BOOLEAN || prop->type == PROP_ENUM) {
if (IS_DNATYPE_INT_COMPAT(dp->dnatype) == 0) {
CLOG_ERROR(&LOG, "%s.%s is a '%s' but wrapped as type '%s'.",
srna->identifier, prop->identifier, dp->dnatype,
RNA_property_typename(prop->type));
DefRNA.error = 1;
return NULL;
}
}
}
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "get");
switch (prop->type) {
case PROP_STRING:
{
StringPropertyRNA *sprop = (StringPropertyRNA *)prop;
fprintf(f, "void %s(PointerRNA *ptr, char *value)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, value);\n", manualfunc);
}
else {
const PropertySubType subtype = prop->subtype;
const char *string_copy_func = (subtype == PROP_FILEPATH ||
subtype == PROP_DIRPATH ||
subtype == PROP_FILENAME ||
subtype == PROP_BYTESTRING) ?
"BLI_strncpy" : "BLI_strncpy_utf8";
rna_print_data_get(f, dp);
if (!(prop->flag & PROP_NEVER_NULL)) {
fprintf(f, " if (data->%s == NULL) {\n", dp->dnaname);
fprintf(f, " *value = '\\0';\n");
fprintf(f, " return;\n");
fprintf(f, " }\n");
}
if (sprop->maxlength)
fprintf(f, " %s(value, data->%s, %d);\n", string_copy_func, dp->dnaname, sprop->maxlength);
else
fprintf(f, " %s(value, data->%s, sizeof(data->%s));\n", string_copy_func,
dp->dnaname, dp->dnaname);
}
fprintf(f, "}\n\n");
break;
}
case PROP_POINTER:
{
fprintf(f, "PointerRNA %s(PointerRNA *ptr)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " return %s(ptr);\n", manualfunc);
}
else {
PointerPropertyRNA *pprop = (PointerPropertyRNA *)prop;
rna_print_data_get(f, dp);
if (dp->dnapointerlevel == 0)
fprintf(f, " return rna_pointer_inherit_refine(ptr, &RNA_%s, &data->%s);\n",
(const char *)pprop->type, dp->dnaname);
else
fprintf(f, " return rna_pointer_inherit_refine(ptr, &RNA_%s, data->%s);\n",
(const char *)pprop->type, dp->dnaname);
}
fprintf(f, "}\n\n");
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)prop;
fprintf(f, "static PointerRNA %s(CollectionPropertyIterator *iter)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
if (STREQ(manualfunc, "rna_iterator_listbase_get") ||
STREQ(manualfunc, "rna_iterator_array_get") ||
STREQ(manualfunc, "rna_iterator_array_dereference_get"))
{
fprintf(f, " return rna_pointer_inherit_refine(&iter->parent, &RNA_%s, %s(iter));\n",
(cprop->item_type) ? (const char *)cprop->item_type : "UnknownType", manualfunc);
}
else {
fprintf(f, " return %s(iter);\n", manualfunc);
}
}
fprintf(f, "}\n\n");
break;
}
default:
if (prop->arraydimension) {
if (prop->flag & PROP_DYNAMIC)
fprintf(f, "void %s(PointerRNA *ptr, %s values[])\n", func, rna_type_type(prop));
else
fprintf(f, "void %s(PointerRNA *ptr, %s values[%u])\n", func, rna_type_type(prop),
prop->totarraylength);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, values);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (prop->flag & PROP_DYNAMIC) {
char *lenfunc = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier),
"get_length");
fprintf(f, " unsigned int arraylen[RNA_MAX_ARRAY_DIMENSION];\n");
fprintf(f, " unsigned int i;\n");
fprintf(f, " unsigned int len = %s(ptr, arraylen);\n\n", lenfunc);
fprintf(f, " for (i = 0; i < len; i++) {\n");
MEM_freeN(lenfunc);
}
else {
fprintf(f, " unsigned int i;\n\n");
fprintf(f, " for (i = 0; i < %u; i++) {\n", prop->totarraylength);
}
if (dp->dnaarraylength == 1) {
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " values[i] = %s((data->%s & (%du << i)) != 0);\n",
(dp->booleannegative) ? "!" : "", dp->dnaname, dp->booleanbit);
}
else {
fprintf(f, " values[i] = (%s)%s((&data->%s)[i]);\n",
rna_type_type(prop), (dp->booleannegative) ? "!" : "", dp->dnaname);
}
}
else {
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " values[i] = %s((data->%s[i] & ", (dp->booleannegative) ? "!" : "",
dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ") != 0);\n");
}
else if (rna_color_quantize(prop, dp)) {
fprintf(f, " values[i] = (%s)(data->%s[i] * (1.0f / 255.0f));\n",
rna_type_type(prop), dp->dnaname);
}
else if (dp->dnatype) {
fprintf(f, " values[i] = (%s)%s(((%s *)data->%s)[i]);\n",
rna_type_type(prop), (dp->booleannegative) ? "!" : "", dp->dnatype, dp->dnaname);
}
else {
fprintf(f, " values[i] = (%s)%s((data->%s)[i]);\n",
rna_type_type(prop), (dp->booleannegative) ? "!" : "", dp->dnaname);
}
}
fprintf(f, " }\n");
}
fprintf(f, "}\n\n");
}
else {
fprintf(f, "%s %s(PointerRNA *ptr)\n", rna_type_type(prop), func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " return %s(ptr);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " return %s(((data->%s) & ", (dp->booleannegative) ? "!" : "", dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ") != 0);\n");
}
else if (prop->type == PROP_ENUM && dp->enumbitflags) {
fprintf(f, " return ((data->%s) & ", dp->dnaname);
rna_int_print(f, rna_enum_bitmask(prop));
fprintf(f, ");\n");
}
else
fprintf(f, " return (%s)%s(data->%s);\n", rna_type_type(prop),
(dp->booleannegative) ? "!" : "", dp->dnaname);
}
fprintf(f, "}\n\n");
}
break;
}
return func;
}
/* defined min/max variables to be used by rna_clamp_value() */
static void rna_clamp_value_range(FILE *f, PropertyRNA *prop)
{
if (prop->type == PROP_FLOAT) {
FloatPropertyRNA *fprop = (FloatPropertyRNA *)prop;
if (fprop->range) {
fprintf(f,
" float prop_clamp_min = -FLT_MAX, prop_clamp_max = FLT_MAX, prop_soft_min, prop_soft_max;\n");
fprintf(f, " %s(ptr, &prop_clamp_min, &prop_clamp_max, &prop_soft_min, &prop_soft_max);\n",
rna_function_string(fprop->range));
}
}
else if (prop->type == PROP_INT) {
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
if (iprop->range) {
fprintf(f, " int prop_clamp_min = INT_MIN, prop_clamp_max = INT_MAX, prop_soft_min, prop_soft_max;\n");
fprintf(f, " %s(ptr, &prop_clamp_min, &prop_clamp_max, &prop_soft_min, &prop_soft_max);\n",
rna_function_string(iprop->range));
}
}
}
#ifdef USE_RNA_RANGE_CHECK
static void rna_clamp_value_range_check(
FILE *f, PropertyRNA *prop,
const char *dnaname_prefix, const char *dnaname)
{
if (prop->type == PROP_INT) {
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
fprintf(f,
" { BLI_STATIC_ASSERT("
"(TYPEOF_MAX(%s%s) >= %d) && "
"(TYPEOF_MIN(%s%s) <= %d), "
"\"invalid limits\"); }\n",
dnaname_prefix, dnaname, iprop->hardmax,
dnaname_prefix, dnaname, iprop->hardmin);
}
}
#endif /* USE_RNA_RANGE_CHECK */
static void rna_clamp_value(FILE *f, PropertyRNA *prop, int array)
{
if (prop->type == PROP_INT) {
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
if (iprop->hardmin != INT_MIN || iprop->hardmax != INT_MAX || iprop->range) {
if (array) fprintf(f, "CLAMPIS(values[i], ");
else fprintf(f, "CLAMPIS(value, ");
if (iprop->range) {
fprintf(f, "prop_clamp_min, prop_clamp_max);");
}
else {
rna_int_print(f, iprop->hardmin); fprintf(f, ", ");
rna_int_print(f, iprop->hardmax); fprintf(f, ");\n");
}
return;
}
}
else if (prop->type == PROP_FLOAT) {
FloatPropertyRNA *fprop = (FloatPropertyRNA *)prop;
if (fprop->hardmin != -FLT_MAX || fprop->hardmax != FLT_MAX || fprop->range) {
if (array) fprintf(f, "CLAMPIS(values[i], ");
else fprintf(f, "CLAMPIS(value, ");
if (fprop->range) {
fprintf(f, "prop_clamp_min, prop_clamp_max);");
}
else {
rna_float_print(f, fprop->hardmin); fprintf(f, ", ");
rna_float_print(f, fprop->hardmax); fprintf(f, ");\n");
}
return;
}
}
if (array)
fprintf(f, "values[i];\n");
else
fprintf(f, "value;\n");
}
static char *rna_def_property_set_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc)
{
char *func;
if (!(prop->flag & PROP_EDITABLE))
return NULL;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname) {
if (prop->flag & PROP_EDITABLE) {
CLOG_ERROR(&LOG, "%s.%s has no valid dna info.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
return NULL;
}
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "set");
switch (prop->type) {
case PROP_STRING:
{
StringPropertyRNA *sprop = (StringPropertyRNA *)prop;
fprintf(f, "void %s(PointerRNA *ptr, const char *value)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, value);\n", manualfunc);
}
else {
const PropertySubType subtype = prop->subtype;
const char *string_copy_func = (subtype == PROP_FILEPATH ||
subtype == PROP_DIRPATH ||
subtype == PROP_FILENAME ||
subtype == PROP_BYTESTRING) ?
"BLI_strncpy" : "BLI_strncpy_utf8";
rna_print_data_get(f, dp);
if (!(prop->flag & PROP_NEVER_NULL)) {
fprintf(f, " if (data->%s == NULL) {\n", dp->dnaname);
fprintf(f, " return;\n");
fprintf(f, " }\n");
}
if (sprop->maxlength)
fprintf(f, " %s(data->%s, value, %d);\n", string_copy_func, dp->dnaname, sprop->maxlength);
else
fprintf(f, " %s(data->%s, value, sizeof(data->%s));\n", string_copy_func,
dp->dnaname, dp->dnaname);
}
fprintf(f, "}\n\n");
break;
}
case PROP_POINTER:
{
fprintf(f, "void %s(PointerRNA *ptr, PointerRNA value)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, value);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (prop->flag & PROP_ID_SELF_CHECK) {
rna_print_id_get(f, dp);
fprintf(f, " if (id == value.data) return;\n\n");
}
if (prop->flag & PROP_ID_REFCOUNT) {
fprintf(f, "\n if (data->%s)\n", dp->dnaname);
fprintf(f, " id_us_min((ID *)data->%s);\n", dp->dnaname);
fprintf(f, " if (value.data)\n");
fprintf(f, " id_us_plus((ID *)value.data);\n\n");
}
else {
PointerPropertyRNA *pprop = (PointerPropertyRNA *)dp->prop;
StructRNA *type = (pprop->type) ? rna_find_struct((const char *)pprop->type) : NULL;
if (type && (type->flag & STRUCT_ID)) {
fprintf(f, " if (value.data)\n");
fprintf(f, " id_lib_extern((ID *)value.data);\n\n");
}
}
fprintf(f, " data->%s = value.data;\n", dp->dnaname);
}
fprintf(f, "}\n\n");
break;
}
default:
if (prop->arraydimension) {
if (prop->flag & PROP_DYNAMIC)
fprintf(f, "void %s(PointerRNA *ptr, const %s values[])\n", func, rna_type_type(prop));
else
fprintf(f, "void %s(PointerRNA *ptr, const %s values[%u])\n", func,
rna_type_type(prop), prop->totarraylength);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, values);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (prop->flag & PROP_DYNAMIC) {
char *lenfunc = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier),
"set_length");
fprintf(f, " unsigned int i, arraylen[RNA_MAX_ARRAY_DIMENSION];\n");
fprintf(f, " unsigned int len = %s(ptr, arraylen);\n\n", lenfunc);
rna_clamp_value_range(f, prop);
fprintf(f, " for (i = 0; i < len; i++) {\n");
MEM_freeN(lenfunc);
}
else {
fprintf(f, " unsigned int i;\n\n");
rna_clamp_value_range(f, prop);
fprintf(f, " for (i = 0; i < %u; i++) {\n", prop->totarraylength);
}
if (dp->dnaarraylength == 1) {
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " if (%svalues[i]) data->%s |= (%du << i);\n",
(dp->booleannegative) ? "!" : "", dp->dnaname, dp->booleanbit);
fprintf(f, " else data->%s &= ~(%du << i);\n", dp->dnaname, dp->booleanbit);
}
else {
fprintf(f, " (&data->%s)[i] = %s", dp->dnaname, (dp->booleannegative) ? "!" : "");
rna_clamp_value(f, prop, 1);
}
}
else {
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " if (%svalues[i]) data->%s[i] |= ", (dp->booleannegative) ? "!" : "",
dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ";\n");
fprintf(f, " else data->%s[i] &= ~", dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ";\n");
}
else if (rna_color_quantize(prop, dp)) {
fprintf(f, " data->%s[i] = unit_float_to_uchar_clamp(values[i]);\n", dp->dnaname);
}
else {
if (dp->dnatype)
fprintf(f, " ((%s *)data->%s)[i] = %s", dp->dnatype, dp->dnaname,
(dp->booleannegative) ? "!" : "");
else
fprintf(f, " (data->%s)[i] = %s", dp->dnaname, (dp->booleannegative) ? "!" : "");
rna_clamp_value(f, prop, 1);
}
}
fprintf(f, " }\n");
}
#ifdef USE_RNA_RANGE_CHECK
if (dp->dnaname && manualfunc == NULL) {
if (dp->dnaarraylength == 1) {
rna_clamp_value_range_check(f, prop, "data->", dp->dnaname);
}
else {
rna_clamp_value_range_check(f, prop, "*data->", dp->dnaname);
}
}
#endif
fprintf(f, "}\n\n");
}
else {
fprintf(f, "void %s(PointerRNA *ptr, %s value)\n", func, rna_type_type(prop));
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " %s(ptr, value);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (prop->type == PROP_BOOLEAN && dp->booleanbit) {
fprintf(f, " if (%svalue) data->%s |= ", (dp->booleannegative) ? "!" : "", dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ";\n");
fprintf(f, " else data->%s &= ~", dp->dnaname);
rna_int_print(f, dp->booleanbit);
fprintf(f, ";\n");
}
else if (prop->type == PROP_ENUM && dp->enumbitflags) {
fprintf(f, " data->%s &= ~", dp->dnaname);
rna_int_print(f, rna_enum_bitmask(prop));
fprintf(f, ";\n");
fprintf(f, " data->%s |= value;\n", dp->dnaname);
}
else {
rna_clamp_value_range(f, prop);
fprintf(f, " data->%s = %s", dp->dnaname, (dp->booleannegative) ? "!" : "");
rna_clamp_value(f, prop, 0);
}
}
#ifdef USE_RNA_RANGE_CHECK
if (dp->dnaname && manualfunc == NULL) {
rna_clamp_value_range_check(f, prop, "data->", dp->dnaname);
}
#endif
fprintf(f, "}\n\n");
}
break;
}
return func;
}
static char *rna_def_property_length_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc)
{
char *func = NULL;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (prop->type == PROP_STRING) {
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname) {
CLOG_ERROR(&LOG, "%s.%s has no valid dna info.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
return NULL;
}
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "length");
fprintf(f, "int %s(PointerRNA *ptr)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " return %s(ptr);\n", manualfunc);
}
else {
rna_print_data_get(f, dp);
if (!(prop->flag & PROP_NEVER_NULL)) {
fprintf(f, " if (data->%s == NULL) return 0;\n", dp->dnaname);
}
fprintf(f, " return strlen(data->%s);\n", dp->dnaname);
}
fprintf(f, "}\n\n");
}
else if (prop->type == PROP_COLLECTION) {
if (!manualfunc) {
if (prop->type == PROP_COLLECTION && (!(dp->dnalengthname || dp->dnalengthfixed) || !dp->dnaname)) {
CLOG_ERROR(&LOG, "%s.%s has no valid dna info.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
return NULL;
}
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "length");
fprintf(f, "int %s(PointerRNA *ptr)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " return %s(ptr);\n", manualfunc);
}
else {
if (dp->dnaarraylength <= 1 || dp->dnalengthname)
rna_print_data_get(f, dp);
if (dp->dnaarraylength > 1)
fprintf(f, " return ");
else
fprintf(f, " return (data->%s == NULL) ? 0 : ", dp->dnaname);
if (dp->dnalengthname)
fprintf(f, "data->%s;\n", dp->dnalengthname);
else
fprintf(f, "%d;\n", dp->dnalengthfixed);
}
fprintf(f, "}\n\n");
}
return func;
}
static char *rna_def_property_begin_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc)
{
char *func, *getfunc;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname) {
CLOG_ERROR(&LOG, "%s.%s has no valid dna info.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
return NULL;
}
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "begin");
fprintf(f, "void %s(CollectionPropertyIterator *iter, PointerRNA *ptr)\n", func);
fprintf(f, "{\n");
if (!manualfunc)
rna_print_data_get(f, dp);
fprintf(f, "\n memset(iter, 0, sizeof(*iter));\n");
fprintf(f, " iter->parent = *ptr;\n");
fprintf(f, " iter->prop = (PropertyRNA *)&rna_%s_%s;\n", srna->identifier, prop->identifier);
if (dp->dnalengthname || dp->dnalengthfixed) {
if (manualfunc) {
fprintf(f, "\n %s(iter, ptr);\n", manualfunc);
}
else {
if (dp->dnalengthname)
fprintf(f, "\n rna_iterator_array_begin(iter, data->%s, sizeof(data->%s[0]), data->%s, 0, NULL);\n",
dp->dnaname, dp->dnaname, dp->dnalengthname);
else
fprintf(f, "\n rna_iterator_array_begin(iter, data->%s, sizeof(data->%s[0]), %d, 0, NULL);\n",
dp->dnaname, dp->dnaname, dp->dnalengthfixed);
}
}
else {
if (manualfunc)
fprintf(f, "\n %s(iter, ptr);\n", manualfunc);
else if (dp->dnapointerlevel == 0)
fprintf(f, "\n rna_iterator_listbase_begin(iter, &data->%s, NULL);\n", dp->dnaname);
else
fprintf(f, "\n rna_iterator_listbase_begin(iter, data->%s, NULL);\n", dp->dnaname);
}
getfunc = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "get");
fprintf(f, "\n if (iter->valid)\n");
fprintf(f, " iter->ptr = %s(iter);\n", getfunc);
fprintf(f, "}\n\n");
return func;
}
static char *rna_def_property_lookup_int_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc, const char *nextfunc)
{
/* note on indices, this is for external functions and ignores skipped values.
* so the index can only be checked against the length when there is no 'skip' function. */
char *func;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname)
return NULL;
/* only supported in case of standard next functions */
if (STREQ(nextfunc, "rna_iterator_array_next")) {}
else if (STREQ(nextfunc, "rna_iterator_listbase_next")) {}
else return NULL;
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "lookup_int");
fprintf(f, "int %s(PointerRNA *ptr, int index, PointerRNA *r_ptr)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, "\n return %s(ptr, index, r_ptr);\n", manualfunc);
fprintf(f, "}\n\n");
return func;
}
fprintf(f, " int found = 0;\n");
fprintf(f, " CollectionPropertyIterator iter;\n\n");
fprintf(f, " %s_%s_begin(&iter, ptr);\n\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " if (iter.valid) {\n");
if (STREQ(nextfunc, "rna_iterator_array_next")) {
fprintf(f, " ArrayIterator *internal = &iter.internal.array;\n");
fprintf(f, " if (index < 0 || index >= internal->length) {\n");
fprintf(f, "#ifdef __GNUC__\n");
fprintf(f, " printf(\"Array iterator out of range: %%s (index %%d)\\n\", __func__, index);\n");
fprintf(f, "#else\n");
fprintf(f, " printf(\"Array iterator out of range: (index %%d)\\n\", index);\n");
fprintf(f, "#endif\n");
fprintf(f, " }\n");
fprintf(f, " else if (internal->skip) {\n");
fprintf(f, " while (index-- > 0 && iter.valid) {\n");
fprintf(f, " rna_iterator_array_next(&iter);\n");
fprintf(f, " }\n");
fprintf(f, " found = (index == -1 && iter.valid);\n");
fprintf(f, " }\n");
fprintf(f, " else {\n");
fprintf(f, " internal->ptr += internal->itemsize * index;\n");
fprintf(f, " found = 1;\n");
fprintf(f, " }\n");
}
else if (STREQ(nextfunc, "rna_iterator_listbase_next")) {
fprintf(f, " ListBaseIterator *internal = &iter.internal.listbase;\n");
fprintf(f, " if (internal->skip) {\n");
fprintf(f, " while (index-- > 0 && iter.valid) {\n");
fprintf(f, " rna_iterator_listbase_next(&iter);\n");
fprintf(f, " }\n");
fprintf(f, " found = (index == -1 && iter.valid);\n");
fprintf(f, " }\n");
fprintf(f, " else {\n");
fprintf(f, " while (index-- > 0 && internal->link)\n");
fprintf(f, " internal->link = internal->link->next;\n");
fprintf(f, " found = (index == -1 && internal->link);\n");
fprintf(f, " }\n");
}
fprintf(f, " if (found) *r_ptr = %s_%s_get(&iter);\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " }\n\n");
fprintf(f, " %s_%s_end(&iter);\n\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " return found;\n");
#if 0
rna_print_data_get(f, dp);
item_type = (cprop->item_type) ? (const char *)cprop->item_type : "UnknownType";
if (dp->dnalengthname || dp->dnalengthfixed) {
if (dp->dnalengthname)
fprintf(f, "\n rna_array_lookup_int(ptr, &RNA_%s, data->%s, sizeof(data->%s[0]), data->%s, index);\n",
item_type, dp->dnaname, dp->dnaname, dp->dnalengthname);
else
fprintf(f, "\n rna_array_lookup_int(ptr, &RNA_%s, data->%s, sizeof(data->%s[0]), %d, index);\n",
item_type, dp->dnaname, dp->dnaname, dp->dnalengthfixed);
}
else {
if (dp->dnapointerlevel == 0)
fprintf(f, "\n return rna_listbase_lookup_int(ptr, &RNA_%s, &data->%s, index);\n",
item_type, dp->dnaname);
else
fprintf(f, "\n return rna_listbase_lookup_int(ptr, &RNA_%s, data->%s, index);\n", item_type, dp->dnaname);
}
#endif
fprintf(f, "}\n\n");
return func;
}
static char *rna_def_property_lookup_string_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *dp,
const char *manualfunc, const char *item_type)
{
char *func;
StructRNA *item_srna, *item_name_base;
PropertyRNA *item_name_prop;
const int namebuflen = 1024;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc) {
if (!dp->dnastructname || !dp->dnaname)
return NULL;
/* only supported for collection items with name properties */
item_srna = rna_find_struct(item_type);
if (item_srna && item_srna->nameproperty) {
item_name_prop = item_srna->nameproperty;
item_name_base = item_srna;
while (item_name_base->base && item_name_base->base->nameproperty == item_name_prop)
item_name_base = item_name_base->base;
}
else
return NULL;
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "lookup_string");
fprintf(f, "int %s(PointerRNA *ptr, const char *key, PointerRNA *r_ptr)\n", func);
fprintf(f, "{\n");
if (manualfunc) {
fprintf(f, " return %s(ptr, key, r_ptr);\n", manualfunc);
fprintf(f, "}\n\n");
return func;
}
/* XXX extern declaration could be avoid by including RNA_blender.h, but this has lots of unknown
* DNA types in functions, leading to conflicting function signatures.
*/
fprintf(f, " extern int %s_%s_length(PointerRNA *);\n", item_name_base->identifier, rna_safe_id(item_name_prop->identifier));
fprintf(f, " extern void %s_%s_get(PointerRNA *, char *);\n\n", item_name_base->identifier, rna_safe_id(item_name_prop->identifier));
fprintf(f, " bool found = false;\n");
fprintf(f, " CollectionPropertyIterator iter;\n");
fprintf(f, " char namebuf[%d];\n", namebuflen);
fprintf(f, " char *name;\n\n");
fprintf(f, " %s_%s_begin(&iter, ptr);\n\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " while (iter.valid) {\n");
fprintf(f, " if (iter.ptr.data) {\n");
fprintf(f, " int namelen = %s_%s_length(&iter.ptr);\n", item_name_base->identifier, rna_safe_id(item_name_prop->identifier));
fprintf(f, " if (namelen < %d) {\n", namebuflen);
fprintf(f, " %s_%s_get(&iter.ptr, namebuf);\n", item_name_base->identifier, rna_safe_id(item_name_prop->identifier));
fprintf(f, " if (strcmp(namebuf, key) == 0) {\n");
fprintf(f, " found = true;\n");
fprintf(f, " *r_ptr = iter.ptr;\n");
fprintf(f, " break;\n");
fprintf(f, " }\n");
fprintf(f, " }\n");
fprintf(f, " else {\n");
fprintf(f, " name = MEM_mallocN(namelen+1, \"name string\");\n");
fprintf(f, " %s_%s_get(&iter.ptr, name);\n", item_name_base->identifier, rna_safe_id(item_name_prop->identifier));
fprintf(f, " if (strcmp(name, key) == 0) {\n");
fprintf(f, " MEM_freeN(name);\n\n");
fprintf(f, " found = true;\n");
fprintf(f, " *r_ptr = iter.ptr;\n");
fprintf(f, " break;\n");
fprintf(f, " }\n");
fprintf(f, " else {\n");
fprintf(f, " MEM_freeN(name);\n");
fprintf(f, " }\n");
fprintf(f, " }\n");
fprintf(f, " }\n");
fprintf(f, " %s_%s_next(&iter);\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " }\n");
fprintf(f, " %s_%s_end(&iter);\n\n", srna->identifier, rna_safe_id(prop->identifier));
fprintf(f, " return found;\n");
fprintf(f, "}\n\n");
return func;
}
static char *rna_def_property_next_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *UNUSED(dp),
const char *manualfunc)
{
char *func, *getfunc;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
if (!manualfunc)
return NULL;
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "next");
fprintf(f, "void %s(CollectionPropertyIterator *iter)\n", func);
fprintf(f, "{\n");
fprintf(f, " %s(iter);\n", manualfunc);
getfunc = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "get");
fprintf(f, "\n if (iter->valid)\n");
fprintf(f, " iter->ptr = %s(iter);\n", getfunc);
fprintf(f, "}\n\n");
return func;
}
static char *rna_def_property_end_func(FILE *f, StructRNA *srna, PropertyRNA *prop, PropertyDefRNA *UNUSED(dp),
const char *manualfunc)
{
char *func;
if (prop->flag & PROP_IDPROPERTY && manualfunc == NULL)
return NULL;
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "end");
fprintf(f, "void %s(CollectionPropertyIterator *iter)\n", func);
fprintf(f, "{\n");
if (manualfunc)
fprintf(f, " %s(iter);\n", manualfunc);
fprintf(f, "}\n\n");
return func;
}
static void rna_set_raw_property(PropertyDefRNA *dp, PropertyRNA *prop)
{
if (dp->dnapointerlevel != 0)
return;
if (!dp->dnatype || !dp->dnaname || !dp->dnastructname)
return;
if (STREQ(dp->dnatype, "char")) {
prop->rawtype = PROP_RAW_CHAR;
prop->flag_internal |= PROP_INTERN_RAW_ACCESS;
}
else if (STREQ(dp->dnatype, "short")) {
prop->rawtype = PROP_RAW_SHORT;
prop->flag_internal |= PROP_INTERN_RAW_ACCESS;
}
else if (STREQ(dp->dnatype, "int")) {
prop->rawtype = PROP_RAW_INT;
prop->flag_internal |= PROP_INTERN_RAW_ACCESS;
}
else if (STREQ(dp->dnatype, "float")) {
prop->rawtype = PROP_RAW_FLOAT;
prop->flag_internal |= PROP_INTERN_RAW_ACCESS;
}
else if (STREQ(dp->dnatype, "double")) {
prop->rawtype = PROP_RAW_DOUBLE;
prop->flag_internal |= PROP_INTERN_RAW_ACCESS;
}
}
static void rna_set_raw_offset(FILE *f, StructRNA *srna, PropertyRNA *prop)
{
PropertyDefRNA *dp = rna_find_struct_property_def(srna, prop);
fprintf(f, "\toffsetof(%s, %s), %d", dp->dnastructname, dp->dnaname, prop->rawtype);
}
static void rna_def_property_funcs(FILE *f, StructRNA *srna, PropertyDefRNA *dp)
{
PropertyRNA *prop;
prop = dp->prop;
switch (prop->type) {
case PROP_BOOLEAN:
{
BoolPropertyRNA *bprop = (BoolPropertyRNA *)prop;
if (!prop->arraydimension) {
if (!bprop->get && !bprop->set && !dp->booleanbit)
rna_set_raw_property(dp, prop);
bprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)bprop->get);
bprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)bprop->set);
}
else {
bprop->getarray = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)bprop->getarray);
bprop->setarray = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)bprop->setarray);
}
break;
}
case PROP_INT:
{
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
if (!prop->arraydimension) {
if (!iprop->get && !iprop->set)
rna_set_raw_property(dp, prop);
iprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)iprop->get);
iprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)iprop->set);
}
else {
if (!iprop->getarray && !iprop->setarray)
rna_set_raw_property(dp, prop);
iprop->getarray = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)iprop->getarray);
iprop->setarray = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)iprop->setarray);
}
break;
}
case PROP_FLOAT:
{
FloatPropertyRNA *fprop = (FloatPropertyRNA *)prop;
if (!prop->arraydimension) {
if (!fprop->get && !fprop->set)
rna_set_raw_property(dp, prop);
fprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)fprop->get);
fprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)fprop->set);
}
else {
if (!fprop->getarray && !fprop->setarray)
rna_set_raw_property(dp, prop);
fprop->getarray = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)fprop->getarray);
fprop->setarray = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)fprop->setarray);
}
break;
}
case PROP_ENUM:
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
eprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)eprop->get);
eprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)eprop->set);
break;
}
case PROP_STRING:
{
StringPropertyRNA *sprop = (StringPropertyRNA *)prop;
sprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)sprop->get);
sprop->length = (void *)rna_def_property_length_func(f, srna, prop, dp, (const char *)sprop->length);
sprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)sprop->set);
break;
}
case PROP_POINTER:
{
PointerPropertyRNA *pprop = (PointerPropertyRNA *)prop;
pprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)pprop->get);
pprop->set = (void *)rna_def_property_set_func(f, srna, prop, dp, (const char *)pprop->set);
if (!pprop->type) {
CLOG_ERROR(&LOG, "%s.%s, pointer must have a struct type.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)prop;
const char *nextfunc = (const char *)cprop->next;
const char *item_type = (const char *)cprop->item_type;
if (cprop->length) {
/* always generate if we have a manual implementation */
cprop->length = (void *)rna_def_property_length_func(f, srna, prop, dp, (const char *)cprop->length);
}
else if (dp->dnatype && STREQ(dp->dnatype, "ListBase")) {
/* pass */
}
else if (dp->dnalengthname || dp->dnalengthfixed) {
cprop->length = (void *)rna_def_property_length_func(f, srna, prop, dp, (const char *)cprop->length);
}
/* test if we can allow raw array access, if it is using our standard
* array get/next function, we can be sure it is an actual array */
if (cprop->next && cprop->get)
if (STREQ((const char *)cprop->next, "rna_iterator_array_next") &&
STREQ((const char *)cprop->get, "rna_iterator_array_get"))
{
prop->flag_internal |= PROP_INTERN_RAW_ARRAY;
}
cprop->get = (void *)rna_def_property_get_func(f, srna, prop, dp, (const char *)cprop->get);
cprop->begin = (void *)rna_def_property_begin_func(f, srna, prop, dp, (const char *)cprop->begin);
cprop->next = (void *)rna_def_property_next_func(f, srna, prop, dp, (const char *)cprop->next);
cprop->end = (void *)rna_def_property_end_func(f, srna, prop, dp, (const char *)cprop->end);
cprop->lookupint = (void *)rna_def_property_lookup_int_func(f, srna, prop, dp,
(const char *)cprop->lookupint, nextfunc);
cprop->lookupstring = (void *)rna_def_property_lookup_string_func(f, srna, prop, dp,
(const char *)cprop->lookupstring, item_type);
if (!(prop->flag & PROP_IDPROPERTY)) {
if (!cprop->begin) {
CLOG_ERROR(&LOG, "%s.%s, collection must have a begin function.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
if (!cprop->next) {
CLOG_ERROR(&LOG, "%s.%s, collection must have a next function.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
if (!cprop->get) {
CLOG_ERROR(&LOG, "%s.%s, collection must have a get function.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
}
if (!cprop->item_type) {
CLOG_ERROR(&LOG, "%s.%s, collection must have a struct type.",
srna->identifier, prop->identifier);
DefRNA.error = 1;
}
break;
}
}
}
static void rna_def_property_funcs_header(FILE *f, StructRNA *srna, PropertyDefRNA *dp)
{
PropertyRNA *prop;
const char *func;
prop = dp->prop;
if (prop->flag & PROP_IDPROPERTY || prop->flag_internal & PROP_INTERN_BUILTIN) {
return;
}
func = rna_alloc_function_name(srna->identifier, rna_safe_id(prop->identifier), "");
switch (prop->type) {
case PROP_BOOLEAN:
{
if (!prop->arraydimension) {
fprintf(f, "bool %sget(PointerRNA *ptr);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, bool value);\n", func);
}
else if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "void %sget(PointerRNA *ptr, bool values[%u]);\n", func, prop->totarraylength);
fprintf(f, "void %sset(PointerRNA *ptr, const bool values[%u]);\n", func, prop->totarraylength);
}
else {
fprintf(f, "void %sget(PointerRNA *ptr, bool values[]);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, const bool values[]);\n", func);
}
break;
}
case PROP_INT:
{
if (!prop->arraydimension) {
fprintf(f, "int %sget(PointerRNA *ptr);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, int value);\n", func);
}
else if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "void %sget(PointerRNA *ptr, int values[%u]);\n", func, prop->totarraylength);
fprintf(f, "void %sset(PointerRNA *ptr, const int values[%u]);\n", func, prop->totarraylength);
}
else {
fprintf(f, "void %sget(PointerRNA *ptr, int values[]);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, const int values[]);\n", func);
}
break;
}
case PROP_FLOAT:
{
if (!prop->arraydimension) {
fprintf(f, "float %sget(PointerRNA *ptr);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, float value);\n", func);
}
else if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "void %sget(PointerRNA *ptr, float values[%u]);\n", func, prop->totarraylength);
fprintf(f, "void %sset(PointerRNA *ptr, const float values[%u]);\n", func, prop->totarraylength);
}
else {
fprintf(f, "void %sget(PointerRNA *ptr, float values[]);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, const float values[]);", func);
}
break;
}
case PROP_ENUM:
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
int i;
if (eprop->item && eprop->totitem) {
fprintf(f, "enum {\n");
for (i = 0; i < eprop->totitem; i++)
if (eprop->item[i].identifier[0])
fprintf(f, "\t%s_%s_%s = %d,\n", srna->identifier, prop->identifier,
eprop->item[i].identifier, eprop->item[i].value);
fprintf(f, "};\n\n");
}
fprintf(f, "int %sget(PointerRNA *ptr);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, int value);\n", func);
break;
}
case PROP_STRING:
{
StringPropertyRNA *sprop = (StringPropertyRNA *)prop;
if (sprop->maxlength) {
fprintf(f, "#define %s_%s_MAX %d\n\n", srna->identifier, prop->identifier, sprop->maxlength);
}
fprintf(f, "void %sget(PointerRNA *ptr, char *value);\n", func);
fprintf(f, "int %slength(PointerRNA *ptr);\n", func);
fprintf(f, "void %sset(PointerRNA *ptr, const char *value);\n", func);
break;
}
case PROP_POINTER:
{
fprintf(f, "PointerRNA %sget(PointerRNA *ptr);\n", func);
/*fprintf(f, "void %sset(PointerRNA *ptr, PointerRNA value);\n", func); */
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)prop;
fprintf(f, "void %sbegin(CollectionPropertyIterator *iter, PointerRNA *ptr);\n", func);
fprintf(f, "void %snext(CollectionPropertyIterator *iter);\n", func);
fprintf(f, "void %send(CollectionPropertyIterator *iter);\n", func);
if (cprop->length)
fprintf(f, "int %slength(PointerRNA *ptr);\n", func);
if (cprop->lookupint)
fprintf(f, "int %slookup_int(PointerRNA *ptr, int key, PointerRNA *r_ptr);\n", func);
if (cprop->lookupstring)
fprintf(f, "int %slookup_string(PointerRNA *ptr, const char *key, PointerRNA *r_ptr);\n", func);
break;
}
}
if (prop->getlength) {
char funcname[2048];
rna_construct_wrapper_function_name(funcname, sizeof(funcname), srna->identifier, prop->identifier, "get_length");
fprintf(f, "int %s(PointerRNA *ptr, int *arraylen);\n", funcname);
}
fprintf(f, "\n");
}
static void rna_def_function_funcs_header(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc)
{
FunctionRNA *func = dfunc->func;
char funcname[2048];
rna_construct_wrapper_function_name(funcname, sizeof(funcname), srna->identifier, func->identifier, NULL);
rna_generate_static_parameter_prototypes(f, srna, dfunc, funcname, 1);
}
static void rna_def_property_funcs_header_cpp(FILE *f, StructRNA *srna, PropertyDefRNA *dp)
{
PropertyRNA *prop;
prop = dp->prop;
if (prop->flag & PROP_IDPROPERTY || prop->flag_internal & PROP_INTERN_BUILTIN) {
return;
}
/* disabled for now to avoid msvc compiler error due to large file size */
#if 0
if (prop->name && prop->description && prop->description[0] != '\0')
fprintf(f, "\t/* %s: %s */\n", prop->name, prop->description);
else if (prop->name)
fprintf(f, "\t/* %s */\n", prop->name);
else
fprintf(f, "\t/* */\n");
#endif
switch (prop->type) {
case PROP_BOOLEAN:
{
if (!prop->arraydimension) {
fprintf(f, "\tinline bool %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(bool value);", rna_safe_id(prop->identifier));
}
else if (prop->totarraylength) {
fprintf(f, "\tinline Array<bool, %u> %s(void);\n", prop->totarraylength, rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(bool values[%u]);", rna_safe_id(prop->identifier), prop->totarraylength);
}
else if (prop->getlength) {
fprintf(f, "\tinline DynamicArray<bool> %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(bool values[]);", rna_safe_id(prop->identifier));
}
break;
}
case PROP_INT:
{
if (!prop->arraydimension) {
fprintf(f, "\tinline int %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(int value);", rna_safe_id(prop->identifier));
}
else if (prop->totarraylength) {
fprintf(f, "\tinline Array<int, %u> %s(void);\n", prop->totarraylength, rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(int values[%u]);", rna_safe_id(prop->identifier), prop->totarraylength);
}
else if (prop->getlength) {
fprintf(f, "\tinline DynamicArray<int> %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(int values[]);", rna_safe_id(prop->identifier));
}
break;
}
case PROP_FLOAT:
{
if (!prop->arraydimension) {
fprintf(f, "\tinline float %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(float value);", rna_safe_id(prop->identifier));
}
else if (prop->totarraylength) {
fprintf(f, "\tinline Array<float, %u> %s(void);\n", prop->totarraylength, rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(float values[%u]);", rna_safe_id(prop->identifier), prop->totarraylength);
}
else if (prop->getlength) {
fprintf(f, "\tinline DynamicArray<float> %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(float values[]);", rna_safe_id(prop->identifier));
}
break;
}
case PROP_ENUM:
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
int i;
if (eprop->item) {
fprintf(f, "\tenum %s_enum {\n", rna_safe_id(prop->identifier));
for (i = 0; i < eprop->totitem; i++)
if (eprop->item[i].identifier[0])
fprintf(f, "\t\t%s_%s = %d,\n", rna_safe_id(prop->identifier), eprop->item[i].identifier,
eprop->item[i].value);
fprintf(f, "\t};\n");
}
fprintf(f, "\tinline %s_enum %s(void);\n", rna_safe_id(prop->identifier), rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(%s_enum value);", rna_safe_id(prop->identifier), rna_safe_id(prop->identifier));
break;
}
case PROP_STRING:
{
fprintf(f, "\tinline std::string %s(void);\n", rna_safe_id(prop->identifier));
fprintf(f, "\tinline void %s(const std::string& value);", rna_safe_id(prop->identifier));
break;
}
case PROP_POINTER:
{
PointerPropertyRNA *pprop = (PointerPropertyRNA *)dp->prop;
if (pprop->type)
fprintf(f, "\tinline %s %s(void);", (const char *)pprop->type, rna_safe_id(prop->identifier));
else
fprintf(f, "\tinline %s %s(void);", "UnknownType", rna_safe_id(prop->identifier));
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)dp->prop;
const char *collection_funcs = "DefaultCollectionFunctions";
if (!(dp->prop->flag & PROP_IDPROPERTY || dp->prop->flag_internal & PROP_INTERN_BUILTIN) && cprop->property.srna) {
collection_funcs = (char *)cprop->property.srna;
}
if (cprop->item_type)
fprintf(f, "\tCOLLECTION_PROPERTY(%s, %s, %s, %s, %s, %s, %s)", collection_funcs, (const char *)cprop->item_type, srna->identifier,
rna_safe_id(prop->identifier), (cprop->length ? "true" : "false"),
(cprop->lookupint ? "true" : "false"), (cprop->lookupstring ? "true" : "false"));
else
fprintf(f, "\tCOLLECTION_PROPERTY(%s, %s, %s, %s, %s, %s, %s)", collection_funcs, "UnknownType", srna->identifier,
rna_safe_id(prop->identifier), (cprop->length ? "true" : "false"),
(cprop->lookupint ? "true" : "false"), (cprop->lookupstring ? "true" : "false"));
break;
}
}
fprintf(f, "\n");
}
static const char *rna_parameter_type_cpp_name(PropertyRNA *prop)
{
if (prop->type == PROP_POINTER) {
/* for cpp api we need to use RNA structures names for pointers */
PointerPropertyRNA *pprop = (PointerPropertyRNA *) prop;
return (const char *) pprop->type;
}
else {
return rna_parameter_type_name(prop);
}
}
static void rna_def_struct_function_prototype_cpp(FILE *f, StructRNA *UNUSED(srna), FunctionDefRNA *dfunc,
const char *namespace, int close_prototype)
{
PropertyDefRNA *dp;
FunctionRNA *func = dfunc->func;
int first = 1;
const char *retval_type = "void";
if (func->c_ret) {
dp = rna_find_parameter_def(func->c_ret);
retval_type = rna_parameter_type_cpp_name(dp->prop);
}
if (namespace && namespace[0])
fprintf(f, "\tinline %s %s::%s(", retval_type, namespace, rna_safe_id(func->identifier));
else
fprintf(f, "\tinline %s %s(", retval_type, rna_safe_id(func->identifier));
if (func->flag & FUNC_USE_MAIN)
WRITE_PARAM("void *main");
if (func->flag & FUNC_USE_CONTEXT)
WRITE_PARAM("Context C");
for (dp = dfunc->cont.properties.first; dp; dp = dp->next) {
int type, flag, flag_parameter, pout;
const char *ptrstr;
if (dp->prop == func->c_ret)
continue;
type = dp->prop->type;
flag = dp->prop->flag;
flag_parameter = dp->prop->flag_parameter;
pout = (flag_parameter & PARM_OUTPUT);
if (flag & PROP_DYNAMIC)
ptrstr = pout ? "**" : "*";
else if (type == PROP_POINTER)
ptrstr = pout ? "*" : "";
else if (dp->prop->arraydimension)
ptrstr = "*";
else if (type == PROP_STRING && (flag & PROP_THICK_WRAP))
ptrstr = "";
else
ptrstr = pout ? "*" : "";
WRITE_COMMA;
if (flag & PROP_DYNAMIC)
fprintf(f, "int %s%s_len, ", (flag_parameter & PARM_OUTPUT) ? "*" : "", dp->prop->identifier);
if (!(flag & PROP_DYNAMIC) && dp->prop->arraydimension)
fprintf(f, "%s %s[%u]", rna_parameter_type_cpp_name(dp->prop),
rna_safe_id(dp->prop->identifier), dp->prop->totarraylength);
else {
fprintf(f, "%s%s%s%s",
rna_parameter_type_cpp_name(dp->prop),
(dp->prop->type == PROP_POINTER && ptrstr[0] == '\0') ? "& " : " ",
ptrstr,
rna_safe_id(dp->prop->identifier));
}
}
fprintf(f, ")");
if (close_prototype)
fprintf(f, ";\n");
}
static void rna_def_struct_function_header_cpp(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc)
{
if (dfunc->call) {
/* disabled for now to avoid msvc compiler error due to large file size */
#if 0
FunctionRNA *func = dfunc->func;
fprintf(f, "\n\t/* %s */\n", func->description);
#endif
rna_def_struct_function_prototype_cpp(f, srna, dfunc, NULL, 1);
}
}
static void rna_def_property_funcs_impl_cpp(FILE *f, StructRNA *srna, PropertyDefRNA *dp)
{
PropertyRNA *prop;
prop = dp->prop;
if (prop->flag & PROP_IDPROPERTY || prop->flag_internal & PROP_INTERN_BUILTIN) {
return;
}
switch (prop->type) {
case PROP_BOOLEAN:
{
if (!prop->arraydimension)
fprintf(f, "\tBOOLEAN_PROPERTY(%s, %s)", srna->identifier, rna_safe_id(prop->identifier));
else if (prop->totarraylength)
fprintf(f, "\tBOOLEAN_ARRAY_PROPERTY(%s, %u, %s)", srna->identifier, prop->totarraylength,
rna_safe_id(prop->identifier));
else if (prop->getlength)
fprintf(f, "\tBOOLEAN_DYNAMIC_ARRAY_PROPERTY(%s, %s)", srna->identifier,
rna_safe_id(prop->identifier));
break;
}
case PROP_INT:
{
if (!prop->arraydimension)
fprintf(f, "\tINT_PROPERTY(%s, %s)", srna->identifier, rna_safe_id(prop->identifier));
else if (prop->totarraylength)
fprintf(f, "\tINT_ARRAY_PROPERTY(%s, %u, %s)", srna->identifier, prop->totarraylength,
rna_safe_id(prop->identifier));
else if (prop->getlength)
fprintf(f, "\tINT_DYNAMIC_ARRAY_PROPERTY(%s, %s)", srna->identifier,
rna_safe_id(prop->identifier));
break;
}
case PROP_FLOAT:
{
if (!prop->arraydimension)
fprintf(f, "\tFLOAT_PROPERTY(%s, %s)", srna->identifier, rna_safe_id(prop->identifier));
else if (prop->totarraylength)
fprintf(f, "\tFLOAT_ARRAY_PROPERTY(%s, %u, %s)", srna->identifier, prop->totarraylength,
rna_safe_id(prop->identifier));
else if (prop->getlength)
fprintf(f, "\tFLOAT_DYNAMIC_ARRAY_PROPERTY(%s, %s)", srna->identifier,
rna_safe_id(prop->identifier));
break;
}
case PROP_ENUM:
{
fprintf(f, "\tENUM_PROPERTY(%s_enum, %s, %s)", rna_safe_id(prop->identifier), srna->identifier,
rna_safe_id(prop->identifier));
break;
}
case PROP_STRING:
{
fprintf(f, "\tSTRING_PROPERTY(%s, %s)", srna->identifier, rna_safe_id(prop->identifier));
break;
}
case PROP_POINTER:
{
PointerPropertyRNA *pprop = (PointerPropertyRNA *)dp->prop;
if (pprop->type)
fprintf(f, "\tPOINTER_PROPERTY(%s, %s, %s)", (const char *)pprop->type, srna->identifier,
rna_safe_id(prop->identifier));
else
fprintf(f, "\tPOINTER_PROPERTY(%s, %s, %s)", "UnknownType", srna->identifier,
rna_safe_id(prop->identifier));
break;
}
case PROP_COLLECTION:
{
#if 0
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)dp->prop;
if (cprop->type)
fprintf(f, "\tCOLLECTION_PROPERTY(%s, %s, %s, %s, %s, %s)", (const char *)cprop->type, srna->identifier,
prop->identifier, (cprop->length ? "true" : "false"),
(cprop->lookupint ? "true" : "false"), (cprop->lookupstring ? "true" : "false"));
else
fprintf(f, "\tCOLLECTION_PROPERTY(%s, %s, %s, %s, %s, %s)", "UnknownType", srna->identifier,
prop->identifier, (cprop->length ? "true" : "false"),
(cprop->lookupint ? "true" : "false"), (cprop->lookupstring ? "true" : "false"));
#endif
break;
}
}
fprintf(f, "\n");
}
static void rna_def_struct_function_call_impl_cpp(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc)
{
PropertyDefRNA *dp;
StructDefRNA *dsrna;
FunctionRNA *func = dfunc->func;
char funcname[2048];
int first = 1;
rna_construct_wrapper_function_name(funcname, sizeof(funcname), srna->identifier, func->identifier, NULL);
fprintf(f, "%s(", funcname);
dsrna = rna_find_struct_def(srna);
if (func->flag & FUNC_USE_SELF_ID)
WRITE_PARAM("(::ID *) ptr.id.data");
if ((func->flag & FUNC_NO_SELF) == 0) {
WRITE_COMMA;
if (dsrna->dnafromprop) fprintf(f, "(::%s *) this->ptr.data", dsrna->dnafromname);
else if (dsrna->dnaname) fprintf(f, "(::%s *) this->ptr.data", dsrna->dnaname);
else fprintf(f, "(::%s *) this->ptr.data", srna->identifier);
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
WRITE_COMMA;
fprintf(f, "this->ptr.type");
}
if (func->flag & FUNC_USE_MAIN)
WRITE_PARAM("(::Main *) main");
if (func->flag & FUNC_USE_CONTEXT)
WRITE_PARAM("(::bContext *) C.ptr.data");
if (func->flag & FUNC_USE_REPORTS)
WRITE_PARAM("NULL");
dp = dfunc->cont.properties.first;
for (; dp; dp = dp->next) {
if (dp->prop == func->c_ret)
continue;
WRITE_COMMA;
if (dp->prop->flag & PROP_DYNAMIC)
fprintf(f, "%s_len, ", dp->prop->identifier);
if (dp->prop->type == PROP_POINTER)
if ((dp->prop->flag_parameter & PARM_RNAPTR) && !(dp->prop->flag & PROP_THICK_WRAP))
fprintf(f, "(::%s *) &%s.ptr", rna_parameter_type_name(dp->prop), rna_safe_id(dp->prop->identifier));
else if (dp->prop->flag_parameter & PARM_OUTPUT) {
if (dp->prop->flag_parameter & PARM_RNAPTR) {
fprintf(f, "&%s->ptr",
rna_safe_id(dp->prop->identifier));
}
else {
fprintf(f, "(::%s **) &%s->ptr.data",
rna_parameter_type_name(dp->prop), rna_safe_id(dp->prop->identifier));
}
}
else
fprintf(f, "(::%s *) %s.ptr.data", rna_parameter_type_name(dp->prop), rna_safe_id(dp->prop->identifier));
else
fprintf(f, "%s", rna_safe_id(dp->prop->identifier));
}
fprintf(f, ");\n");
}
static void rna_def_struct_function_impl_cpp(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc)
{
PropertyDefRNA *dp;
PointerPropertyRNA *pprop;
FunctionRNA *func = dfunc->func;
if (!dfunc->call)
return;
rna_def_struct_function_prototype_cpp(f, srna, dfunc, srna->identifier, 0);
fprintf(f, " {\n");
if (func->c_ret) {
dp = rna_find_parameter_def(func->c_ret);
if (dp->prop->type == PROP_POINTER) {
pprop = (PointerPropertyRNA *) dp->prop;
fprintf(f, "\t\tPointerRNA result;\n");
if ((dp->prop->flag_parameter & PARM_RNAPTR) == 0) {
StructRNA *ret_srna = rna_find_struct((const char *) pprop->type);
fprintf(f, "\t\t::%s *retdata = ", rna_parameter_type_name(dp->prop));
rna_def_struct_function_call_impl_cpp(f, srna, dfunc);
if (ret_srna->flag & STRUCT_ID)
fprintf(f, "\t\tRNA_id_pointer_create((::ID *) retdata, &result);\n");
else
fprintf(f, "\t\tRNA_pointer_create((::ID *) ptr.id.data, &RNA_%s, retdata, &result);\n", (const char *) pprop->type);
}
else {
fprintf(f, "\t\tresult = ");
rna_def_struct_function_call_impl_cpp(f, srna, dfunc);
}
fprintf(f, "\t\treturn %s(result);\n", (const char *) pprop->type);
}
else {
fprintf(f, "\t\treturn ");
rna_def_struct_function_call_impl_cpp(f, srna, dfunc);
}
}
else {
fprintf(f, "\t\t");
rna_def_struct_function_call_impl_cpp(f, srna, dfunc);
}
fprintf(f, "\t}\n\n");
}
static void rna_def_property_wrapper_funcs(FILE *f, StructDefRNA *dsrna, PropertyDefRNA *dp)
{
if (dp->prop->getlength) {
char funcname[2048];
rna_construct_wrapper_function_name(funcname, sizeof(funcname), dsrna->srna->identifier, dp->prop->identifier, "get_length");
fprintf(f, "int %s(PointerRNA *ptr, int *arraylen)\n", funcname);
fprintf(f, "{\n");
fprintf(f, "\treturn %s(ptr, arraylen);\n", rna_function_string(dp->prop->getlength));
fprintf(f, "}\n\n");
}
}
static void rna_def_function_wrapper_funcs(FILE *f, StructDefRNA *dsrna, FunctionDefRNA *dfunc)
{
StructRNA *srna = dsrna->srna;
FunctionRNA *func = dfunc->func;
PropertyDefRNA *dparm;
int first;
char funcname[2048];
if (!dfunc->call)
return;
rna_construct_wrapper_function_name(funcname, sizeof(funcname), srna->identifier, func->identifier, NULL);
rna_generate_static_parameter_prototypes(f, srna, dfunc, funcname, 0);
fprintf(f, "\n{\n");
if (func->c_ret)
fprintf(f, "\treturn %s(", dfunc->call);
else
fprintf(f, "\t%s(", dfunc->call);
first = 1;
if (func->flag & FUNC_USE_SELF_ID)
WRITE_PARAM("_selfid");
if ((func->flag & FUNC_NO_SELF) == 0) {
WRITE_PARAM("_self");
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
WRITE_PARAM("_type");
}
if (func->flag & FUNC_USE_MAIN)
WRITE_PARAM("bmain");
if (func->flag & FUNC_USE_CONTEXT)
WRITE_PARAM("C");
if (func->flag & FUNC_USE_REPORTS)
WRITE_PARAM("reports");
dparm = dfunc->cont.properties.first;
for (; dparm; dparm = dparm->next) {
if (dparm->prop == func->c_ret)
continue;
WRITE_COMMA;
if (dparm->prop->flag & PROP_DYNAMIC)
fprintf(f, "%s_len, %s", dparm->prop->identifier, dparm->prop->identifier);
else
fprintf(f, "%s", rna_safe_id(dparm->prop->identifier));
}
fprintf(f, ");\n");
fprintf(f, "}\n\n");
}
static void rna_def_function_funcs(FILE *f, StructDefRNA *dsrna, FunctionDefRNA *dfunc)
{
StructRNA *srna;
FunctionRNA *func;
PropertyDefRNA *dparm;
PropertyType type;
const char *funcname, *valstr;
const char *ptrstr;
const bool has_data = (dfunc->cont.properties.first != NULL);
int flag, flag_parameter, pout, cptr, first;
srna = dsrna->srna;
func = dfunc->func;
if (!dfunc->call)
return;
funcname = rna_alloc_function_name(srna->identifier, func->identifier, "call");
/* function definition */
fprintf(f, "void %s(bContext *C, ReportList *reports, PointerRNA *_ptr, ParameterList *_parms)", funcname);
fprintf(f, "\n{\n");
/* variable definitions */
if (func->flag & FUNC_USE_SELF_ID) {
fprintf(f, "\tstruct ID *_selfid;\n");
}
if ((func->flag & FUNC_NO_SELF) == 0) {
if (dsrna->dnafromprop) fprintf(f, "\tstruct %s *_self;\n", dsrna->dnafromname);
else if (dsrna->dnaname) fprintf(f, "\tstruct %s *_self;\n", dsrna->dnaname);
else fprintf(f, "\tstruct %s *_self;\n", srna->identifier);
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
fprintf(f, "\tstruct StructRNA *_type;\n");
}
dparm = dfunc->cont.properties.first;
for (; dparm; dparm = dparm->next) {
type = dparm->prop->type;
flag = dparm->prop->flag;
flag_parameter = dparm->prop->flag_parameter;
pout = (flag_parameter & PARM_OUTPUT);
cptr = ((type == PROP_POINTER) && !(flag_parameter & PARM_RNAPTR));
if (dparm->prop == func->c_ret)
ptrstr = cptr || dparm->prop->arraydimension ? "*" : "";
/* XXX only arrays and strings are allowed to be dynamic, is this checked anywhere? */
else if (cptr || (flag & PROP_DYNAMIC))
ptrstr = pout ? "**" : "*";
/* fixed size arrays and RNA pointers are pre-allocated on the ParameterList stack, pass a pointer to it */
else if (type == PROP_POINTER || dparm->prop->arraydimension)
ptrstr = "*";
else if ((type == PROP_POINTER) && (flag_parameter & PARM_RNAPTR) && !(flag & PROP_THICK_WRAP))
ptrstr = "*";
/* PROP_THICK_WRAP strings are pre-allocated on the ParameterList stack,
* but type name for string props is already (char *), so leave empty */
else if (type == PROP_STRING && (flag & PROP_THICK_WRAP))
ptrstr = "";
else
ptrstr = pout ? "*" : "";
/* for dynamic parameters we pass an additional int for the length of the parameter */
if (flag & PROP_DYNAMIC)
fprintf(f, "\tint %s%s_len;\n", pout ? "*" : "", dparm->prop->identifier);
fprintf(f, "\t%s%s %s%s;\n", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop),
ptrstr, dparm->prop->identifier);
}
if (has_data) {
fprintf(f, "\tchar *_data");
if (func->c_ret) fprintf(f, ", *_retdata");
fprintf(f, ";\n");
fprintf(f, "\t\n");
}
/* assign self */
if (func->flag & FUNC_USE_SELF_ID) {
fprintf(f, "\t_selfid = (struct ID *)_ptr->id.data;\n");
}
if ((func->flag & FUNC_NO_SELF) == 0) {
if (dsrna->dnafromprop) fprintf(f, "\t_self = (struct %s *)_ptr->data;\n", dsrna->dnafromname);
else if (dsrna->dnaname) fprintf(f, "\t_self = (struct %s *)_ptr->data;\n", dsrna->dnaname);
else fprintf(f, "\t_self = (struct %s *)_ptr->data;\n", srna->identifier);
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
fprintf(f, "\t_type = _ptr->type;\n");
}
if (has_data) {
fprintf(f, "\t_data = (char *)_parms->data;\n");
}
dparm = dfunc->cont.properties.first;
for (; dparm; dparm = dparm->next) {
type = dparm->prop->type;
flag = dparm->prop->flag;
flag_parameter = dparm->prop->flag_parameter;
pout = (flag_parameter & PARM_OUTPUT);
cptr = ((type == PROP_POINTER) && !(flag_parameter & PARM_RNAPTR));
if (dparm->prop == func->c_ret)
fprintf(f, "\t_retdata = _data;\n");
else {
const char *data_str;
if (cptr || (flag & PROP_DYNAMIC)) {
ptrstr = "**";
valstr = "*";
}
else if ((type == PROP_POINTER) && !(flag & PROP_THICK_WRAP)) {
ptrstr = "**";
valstr = "*";
}
else if (type == PROP_POINTER || dparm->prop->arraydimension) {
ptrstr = "*";
valstr = "";
}
else if (type == PROP_STRING && (flag & PROP_THICK_WRAP)) {
ptrstr = "";
valstr = "";
}
else {
ptrstr = "*";
valstr = "*";
}
/* this must be kept in sync with RNA_parameter_dynamic_length_get_data and RNA_parameter_get,
* we could just call the function directly, but this is faster */
if (flag & PROP_DYNAMIC) {
fprintf(f, "\t%s_len = %s((ParameterDynAlloc *)_data)->array_tot;\n", dparm->prop->identifier,
pout ? "(int *)&" : "(int)");
data_str = "(&(((ParameterDynAlloc *)_data)->array))";
}
else {
data_str = "_data";
}
fprintf(f, "\t%s = ", dparm->prop->identifier);
if (!pout)
fprintf(f, "%s", valstr);
fprintf(f, "((%s%s %s)%s);\n", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop),
ptrstr, data_str);
}
if (dparm->next)
fprintf(f, "\t_data += %d;\n", rna_parameter_size(dparm->prop));
}
if (dfunc->call) {
fprintf(f, "\t\n");
fprintf(f, "\t");
if (func->c_ret) fprintf(f, "%s = ", func->c_ret->identifier);
fprintf(f, "%s(", dfunc->call);
first = 1;
if (func->flag & FUNC_USE_SELF_ID) {
fprintf(f, "_selfid");
first = 0;
}
if ((func->flag & FUNC_NO_SELF) == 0) {
if (!first) fprintf(f, ", ");
fprintf(f, "_self");
first = 0;
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
if (!first) fprintf(f, ", ");
fprintf(f, "_type");
first = 0;
}
if (func->flag & FUNC_USE_MAIN) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "CTX_data_main(C)"); /* may have direct access later */
}
if (func->flag & FUNC_USE_CONTEXT) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "C");
}
if (func->flag & FUNC_USE_REPORTS) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "reports");
}
dparm = dfunc->cont.properties.first;
for (; dparm; dparm = dparm->next) {
if (dparm->prop == func->c_ret)
continue;
if (!first) fprintf(f, ", ");
first = 0;
if (dparm->prop->flag & PROP_DYNAMIC)
fprintf(f, "%s_len, %s", dparm->prop->identifier, dparm->prop->identifier);
else
fprintf(f, "%s", dparm->prop->identifier);
}
fprintf(f, ");\n");
if (func->c_ret) {
dparm = rna_find_parameter_def(func->c_ret);
ptrstr = (((dparm->prop->type == PROP_POINTER) && !(dparm->prop->flag_parameter & PARM_RNAPTR)) ||
(dparm->prop->arraydimension)) ? "*" : "";
fprintf(f, "\t*((%s%s %s*)_retdata) = %s;\n", rna_type_struct(dparm->prop),
rna_parameter_type_name(dparm->prop), ptrstr, func->c_ret->identifier);
}
}
fprintf(f, "}\n\n");
dfunc->gencall = funcname;
}
static void rna_auto_types(void)
{
StructDefRNA *ds;
PropertyDefRNA *dp;
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
/* DNA name for Screen is patched in 2.5, we do the reverse here .. */
if (ds->dnaname) {
if (STREQ(ds->dnaname, "Screen"))
ds->dnaname = "bScreen";
if (STREQ(ds->dnaname, "Group"))
ds->dnaname = "Collection";
if (STREQ(ds->dnaname, "GroupObject"))
ds->dnaname = "CollectionObject";
}
for (dp = ds->cont.properties.first; dp; dp = dp->next) {
if (dp->dnastructname) {
if (STREQ(dp->dnastructname, "Screen"))
dp->dnastructname = "bScreen";
if (STREQ(dp->dnastructname, "Group"))
dp->dnastructname = "Collection";
if (STREQ(dp->dnastructname, "GroupObject"))
dp->dnastructname = "CollectionObject";
}
if (dp->dnatype) {
if (dp->prop->type == PROP_POINTER) {
PointerPropertyRNA *pprop = (PointerPropertyRNA *)dp->prop;
StructRNA *type;
if (!pprop->type && !pprop->get)
pprop->type = (StructRNA *)rna_find_type(dp->dnatype);
if (pprop->type) {
type = rna_find_struct((const char *)pprop->type);
if (type && (type->flag & STRUCT_ID_REFCOUNT))
pprop->property.flag |= PROP_ID_REFCOUNT;
}
}
else if (dp->prop->type == PROP_COLLECTION) {
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)dp->prop;
if (!cprop->item_type && !cprop->get && STREQ(dp->dnatype, "ListBase"))
cprop->item_type = (StructRNA *)rna_find_type(dp->dnatype);
}
}
}
}
}
static void rna_sort(BlenderRNA *brna)
{
StructDefRNA *ds;
StructRNA *srna;
rna_sortlist(&brna->structs, cmp_struct);
rna_sortlist(&DefRNA.structs, cmp_def_struct);
for (srna = brna->structs.first; srna; srna = srna->cont.next)
rna_sortlist(&srna->cont.properties, cmp_property);
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
rna_sortlist(&ds->cont.properties, cmp_def_property);
}
static const char *rna_property_structname(PropertyType type)
{
switch (type) {
case PROP_BOOLEAN: return "BoolPropertyRNA";
case PROP_INT: return "IntPropertyRNA";
case PROP_FLOAT: return "FloatPropertyRNA";
case PROP_STRING: return "StringPropertyRNA";
case PROP_ENUM: return "EnumPropertyRNA";
case PROP_POINTER: return "PointerPropertyRNA";
case PROP_COLLECTION: return "CollectionPropertyRNA";
default: return "UnknownPropertyRNA";
}
}
static const char *rna_property_subtypename(PropertySubType type)
{
switch (type) {
case PROP_NONE: return "PROP_NONE";
case PROP_FILEPATH: return "PROP_FILEPATH";
case PROP_FILENAME: return "PROP_FILENAME";
case PROP_DIRPATH: return "PROP_DIRPATH";
case PROP_PIXEL: return "PROP_PIXEL";
case PROP_BYTESTRING: return "PROP_BYTESTRING";
case PROP_UNSIGNED: return "PROP_UNSIGNED";
case PROP_PERCENTAGE: return "PROP_PERCENTAGE";
case PROP_FACTOR: return "PROP_FACTOR";
case PROP_ANGLE: return "PROP_ANGLE";
case PROP_TIME: return "PROP_TIME";
case PROP_DISTANCE: return "PROP_DISTANCE";
case PROP_DISTANCE_CAMERA: return "PROP_DISTANCE_CAMERA";
case PROP_COLOR: return "PROP_COLOR";
case PROP_TRANSLATION: return "PROP_TRANSLATION";
case PROP_DIRECTION: return "PROP_DIRECTION";
case PROP_MATRIX: return "PROP_MATRIX";
case PROP_EULER: return "PROP_EULER";
case PROP_QUATERNION: return "PROP_QUATERNION";
case PROP_AXISANGLE: return "PROP_AXISANGLE";
case PROP_VELOCITY: return "PROP_VELOCITY";
case PROP_ACCELERATION: return "PROP_ACCELERATION";
case PROP_XYZ: return "PROP_XYZ";
case PROP_COLOR_GAMMA: return "PROP_COLOR_GAMMA";
case PROP_COORDS: return "PROP_COORDS";
case PROP_LAYER: return "PROP_LAYER";
case PROP_LAYER_MEMBER: return "PROP_LAYER_MEMBER";
case PROP_PASSWORD: return "PROP_PASSWORD";
case PROP_POWER: return "PROP_POWER";
default:
{
/* in case we don't have a type preset that includes the subtype */
if (RNA_SUBTYPE_UNIT(type)) {
return rna_property_subtypename(type & ~RNA_SUBTYPE_UNIT(type));
}
else {
return "PROP_SUBTYPE_UNKNOWN";
}
}
}
}
static const char *rna_property_subtype_unit(PropertySubType type)
{
switch (RNA_SUBTYPE_UNIT(type)) {
case PROP_UNIT_NONE: return "PROP_UNIT_NONE";
case PROP_UNIT_LENGTH: return "PROP_UNIT_LENGTH";
case PROP_UNIT_AREA: return "PROP_UNIT_AREA";
case PROP_UNIT_VOLUME: return "PROP_UNIT_VOLUME";
case PROP_UNIT_MASS: return "PROP_UNIT_MASS";
case PROP_UNIT_ROTATION: return "PROP_UNIT_ROTATION";
case PROP_UNIT_TIME: return "PROP_UNIT_TIME";
case PROP_UNIT_VELOCITY: return "PROP_UNIT_VELOCITY";
case PROP_UNIT_ACCELERATION: return "PROP_UNIT_ACCELERATION";
case PROP_UNIT_CAMERA: return "PROP_UNIT_CAMERA";
case PROP_UNIT_POWER: return "PROP_UNIT_POWER";
default: return "PROP_UNIT_UNKNOWN";
}
}
static void rna_generate_prototypes(BlenderRNA *brna, FILE *f)
{
StructRNA *srna;
for (srna = brna->structs.first; srna; srna = srna->cont.next)
fprintf(f, "extern StructRNA RNA_%s;\n", srna->identifier);
fprintf(f, "\n");
}
static void rna_generate_blender(BlenderRNA *brna, FILE *f)
{
StructRNA *srna;
fprintf(f,
"BlenderRNA BLENDER_RNA = {\n"
"\t.structs = {"
);
srna = brna->structs.first;
if (srna) fprintf(f, "&RNA_%s, ", srna->identifier);
else fprintf(f, "NULL, ");
srna = brna->structs.last;
if (srna) fprintf(f, "&RNA_%s},\n", srna->identifier);
else fprintf(f, "NULL},\n");
fprintf(f,
"\t.structs_map = NULL,\n"
"\t.structs_len = 0,\n"
"};\n\n"
);
}
static void rna_generate_property_prototypes(BlenderRNA *UNUSED(brna), StructRNA *srna, FILE *f)
{
PropertyRNA *prop;
StructRNA *base;
base = srna->base;
while (base) {
fprintf(f, "\n");
for (prop = base->cont.properties.first; prop; prop = prop->next)
fprintf(f, "%s%s rna_%s_%s;\n", "extern ", rna_property_structname(prop->type),
base->identifier, prop->identifier);
base = base->base;
}
if (srna->cont.properties.first)
fprintf(f, "\n");
for (prop = srna->cont.properties.first; prop; prop = prop->next)
fprintf(f, "%s rna_%s_%s;\n", rna_property_structname(prop->type),
srna->identifier, prop->identifier);
fprintf(f, "\n");
}
static void rna_generate_parameter_prototypes(BlenderRNA *UNUSED(brna), StructRNA *srna, FunctionRNA *func, FILE *f)
{
PropertyRNA *parm;
for (parm = func->cont.properties.first; parm; parm = parm->next)
fprintf(f, "%s%s rna_%s_%s_%s;\n", "extern ", rna_property_structname(parm->type), srna->identifier,
func->identifier, parm->identifier);
if (func->cont.properties.first)
fprintf(f, "\n");
}
static void rna_generate_function_prototypes(BlenderRNA *brna, StructRNA *srna, FILE *f)
{
FunctionRNA *func;
StructRNA *base;
base = srna->base;
while (base) {
for (func = base->functions.first; func; func = func->cont.next) {
fprintf(f, "%s%s rna_%s_%s_func;\n", "extern ", "FunctionRNA", base->identifier, func->identifier);
rna_generate_parameter_prototypes(brna, base, func, f);
}
if (base->functions.first)
fprintf(f, "\n");
base = base->base;
}
for (func = srna->functions.first; func; func = func->cont.next) {
fprintf(f, "%s%s rna_%s_%s_func;\n", "extern ", "FunctionRNA", srna->identifier, func->identifier);
rna_generate_parameter_prototypes(brna, srna, func, f);
}
if (srna->functions.first)
fprintf(f, "\n");
}
static void rna_generate_static_parameter_prototypes(FILE *f, StructRNA *srna, FunctionDefRNA *dfunc, const char *name_override, int close_prototype)
{
FunctionRNA *func;
PropertyDefRNA *dparm;
StructDefRNA *dsrna;
PropertyType type;
int flag, flag_parameter, pout, cptr, first;
const char *ptrstr;
dsrna = rna_find_struct_def(srna);
func = dfunc->func;
/* return type */
for (dparm = dfunc->cont.properties.first; dparm; dparm = dparm->next) {
if (dparm->prop == func->c_ret) {
if (dparm->prop->arraydimension)
fprintf(f, "XXX no array return types yet"); /* XXX not supported */
else if (dparm->prop->type == PROP_POINTER && !(dparm->prop->flag_parameter & PARM_RNAPTR))
fprintf(f, "%s%s *", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop));
else
fprintf(f, "%s%s ", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop));
break;
}
}
/* void if nothing to return */
if (!dparm)
fprintf(f, "void ");
/* function name */
if (name_override == NULL || name_override[0] == '\0')
fprintf(f, "%s(", dfunc->call);
else
fprintf(f, "%s(", name_override);
first = 1;
/* self, context and reports parameters */
if (func->flag & FUNC_USE_SELF_ID) {
fprintf(f, "struct ID *_selfid");
first = 0;
}
if ((func->flag & FUNC_NO_SELF) == 0) {
if (!first) fprintf(f, ", ");
if (dsrna->dnafromprop) fprintf(f, "struct %s *_self", dsrna->dnafromname);
else if (dsrna->dnaname) fprintf(f, "struct %s *_self", dsrna->dnaname);
else fprintf(f, "struct %s *_self", srna->identifier);
first = 0;
}
else if (func->flag & FUNC_USE_SELF_TYPE) {
if (!first) fprintf(f, ", ");
fprintf(f, "struct StructRNA *_type");
first = 0;
}
if (func->flag & FUNC_USE_MAIN) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "Main *bmain");
}
if (func->flag & FUNC_USE_CONTEXT) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "bContext *C");
}
if (func->flag & FUNC_USE_REPORTS) {
if (!first) fprintf(f, ", ");
first = 0;
fprintf(f, "ReportList *reports");
}
/* defined parameters */
for (dparm = dfunc->cont.properties.first; dparm; dparm = dparm->next) {
type = dparm->prop->type;
flag = dparm->prop->flag;
flag_parameter = dparm->prop->flag_parameter;
pout = (flag_parameter & PARM_OUTPUT);
cptr = ((type == PROP_POINTER) && !(flag_parameter & PARM_RNAPTR));
if (dparm->prop == func->c_ret)
continue;
if (cptr || (flag & PROP_DYNAMIC))
ptrstr = pout ? "**" : "*";
else if (type == PROP_POINTER || dparm->prop->arraydimension)
ptrstr = "*";
else if (type == PROP_STRING && (flag & PROP_THICK_WRAP))
ptrstr = "";
else
ptrstr = pout ? "*" : "";
if (!first) fprintf(f, ", ");
first = 0;
if (flag & PROP_DYNAMIC)
fprintf(f, "int %s%s_len, ", pout ? "*" : "", dparm->prop->identifier);
if (!(flag & PROP_DYNAMIC) && dparm->prop->arraydimension)
fprintf(f, "%s%s %s[%u]", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop),
rna_safe_id(dparm->prop->identifier), dparm->prop->totarraylength);
else
fprintf(f, "%s%s %s%s", rna_type_struct(dparm->prop), rna_parameter_type_name(dparm->prop),
ptrstr, rna_safe_id(dparm->prop->identifier));
}
/* ensure func(void) if there are no args */
if (first) fprintf(f, "void");
fprintf(f, ")");
if (close_prototype)
fprintf(f, ";\n");
}
static void rna_generate_static_function_prototypes(BlenderRNA *UNUSED(brna), StructRNA *srna, FILE *f)
{
FunctionRNA *func;
FunctionDefRNA *dfunc;
int first = 1;
for (func = srna->functions.first; func; func = func->cont.next) {
dfunc = rna_find_function_def(func);
if (dfunc->call) {
if (first) {
fprintf(f, "/* Repeated prototypes to detect errors */\n\n");
first = 0;
}
rna_generate_static_parameter_prototypes(f, srna, dfunc, NULL, 1);
}
}
fprintf(f, "\n");
}
static void rna_generate_struct_prototypes(FILE *f)
{
StructDefRNA *ds;
PropertyDefRNA *dp;
FunctionDefRNA *dfunc;
const char *structures[2048];
int all_structures = 0;
/* structures definitions */
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
for (dfunc = ds->functions.first; dfunc; dfunc = dfunc->cont.next) {
if (dfunc->call) {
for (dp = dfunc->cont.properties.first; dp; dp = dp->next) {
if (dp->prop->type == PROP_POINTER) {
int a, found = 0;
const char *struct_name = rna_parameter_type_name(dp->prop);
if (struct_name == NULL) {
printf("No struct found for property '%s'\n", dp->prop->identifier);
exit(1);
}
for (a = 0; a < all_structures; a++) {
if (STREQ(struct_name, structures[a])) {
found = 1;
break;
}
}
if (found == 0) {
fprintf(f, "struct %s;\n", struct_name);
if (all_structures >= sizeof(structures) / sizeof(structures[0])) {
printf("Array size to store all structures names is too small\n");
exit(1);
}
structures[all_structures++] = struct_name;
}
}
}
}
}
}
fprintf(f, "\n");
}
static void rna_generate_property(FILE *f, StructRNA *srna, const char *nest, PropertyRNA *prop)
{
char *strnest = (char *)"", *errnest = (char *)"";
int len, freenest = 0;
if (nest != NULL) {
len = strlen(nest);
strnest = MEM_mallocN(sizeof(char) * (len + 2), "rna_generate_property -> strnest");
errnest = MEM_mallocN(sizeof(char) * (len + 2), "rna_generate_property -> errnest");
strcpy(strnest, "_"); strcat(strnest, nest);
strcpy(errnest, "."); strcat(errnest, nest);
freenest = 1;
}
switch (prop->type) {
case PROP_ENUM:
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
int i, defaultfound = 0, totflag = 0;
if (eprop->item) {
fprintf(f, "static const EnumPropertyItem rna_%s%s_%s_items[%d] = {\n\t", srna->identifier,
strnest, prop->identifier, eprop->totitem + 1);
for (i = 0; i < eprop->totitem; i++) {
fprintf(f, "{%d, ", eprop->item[i].value);
rna_print_c_string(f, eprop->item[i].identifier); fprintf(f, ", ");
fprintf(f, "%d, ", eprop->item[i].icon);
rna_print_c_string(f, eprop->item[i].name); fprintf(f, ", ");
rna_print_c_string(f, eprop->item[i].description); fprintf(f, "},\n\t");
if (eprop->item[i].identifier[0]) {
if (prop->flag & PROP_ENUM_FLAG) {
totflag |= eprop->item[i].value;
}
else {
if (eprop->defaultvalue == eprop->item[i].value) {
defaultfound = 1;
}
}
}
}
fprintf(f, "{0, NULL, 0, NULL, NULL}\n};\n\n");
if (prop->flag & PROP_ENUM_FLAG) {
if (eprop->defaultvalue & ~totflag) {
CLOG_ERROR(&LOG, "%s%s.%s, enum default includes unused bits (%d).",
srna->identifier, errnest, prop->identifier,
eprop->defaultvalue & ~totflag);
DefRNA.error = 1;
}
}
else {
if (!defaultfound &&
!(eprop->itemf && eprop->item == DummyRNA_NULL_items))
{
CLOG_ERROR(&LOG, "%s%s.%s, enum default is not in items.",
srna->identifier, errnest, prop->identifier);
DefRNA.error = 1;
}
}
}
else {
CLOG_ERROR(&LOG, "%s%s.%s, enum must have items defined.",
srna->identifier, errnest, prop->identifier);
DefRNA.error = 1;
}
break;
}
case PROP_BOOLEAN:
{
BoolPropertyRNA *bprop = (BoolPropertyRNA *)prop;
unsigned int i;
if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "static bool rna_%s%s_%s_default[%u] = {\n\t", srna->identifier, strnest,
prop->identifier, prop->totarraylength);
for (i = 0; i < prop->totarraylength; i++) {
if (bprop->defaultarray)
fprintf(f, "%d", bprop->defaultarray[i]);
else
fprintf(f, "%d", bprop->defaultvalue);
if (i != prop->totarraylength - 1)
fprintf(f, ",\n\t");
}
fprintf(f, "\n};\n\n");
}
break;
}
case PROP_INT:
{
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
unsigned int i;
if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "static int rna_%s%s_%s_default[%u] = {\n\t", srna->identifier, strnest,
prop->identifier, prop->totarraylength);
for (i = 0; i < prop->totarraylength; i++) {
if (iprop->defaultarray)
fprintf(f, "%d", iprop->defaultarray[i]);
else
fprintf(f, "%d", iprop->defaultvalue);
if (i != prop->totarraylength - 1)
fprintf(f, ",\n\t");
}
fprintf(f, "\n};\n\n");
}
break;
}
case PROP_FLOAT:
{
FloatPropertyRNA *fprop = (FloatPropertyRNA *)prop;
unsigned int i;
if (prop->arraydimension && prop->totarraylength) {
fprintf(f, "static float rna_%s%s_%s_default[%u] = {\n\t", srna->identifier, strnest,
prop->identifier, prop->totarraylength);
for (i = 0; i < prop->totarraylength; i++) {
if (fprop->defaultarray)
rna_float_print(f, fprop->defaultarray[i]);
else
rna_float_print(f, fprop->defaultvalue);
if (i != prop->totarraylength - 1)
fprintf(f, ",\n\t");
}
fprintf(f, "\n};\n\n");
}
break;
}
case PROP_POINTER:
{
PointerPropertyRNA *pprop = (PointerPropertyRNA *)prop;
/* XXX This systematically enforces that flag on ID pointers... we'll probably have to revisit. :/ */
StructRNA *type = rna_find_struct((const char *)pprop->type);
if (type && (type->flag & STRUCT_ID)) {
prop->flag |= PROP_PTR_NO_OWNERSHIP;
}
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)prop;
/* XXX This systematically enforces that flag on ID pointers... we'll probably have to revisit. :/ */
StructRNA *type = rna_find_struct((const char *)cprop->item_type);
if (type && (type->flag & STRUCT_ID)) {
prop->flag |= PROP_PTR_NO_OWNERSHIP;
}
break;
}
default:
break;
}
fprintf(f, "%s rna_%s%s_%s = {\n",
rna_property_structname(prop->type),
srna->identifier, strnest, prop->identifier);
if (prop->next) fprintf(f, "\t{(PropertyRNA *)&rna_%s%s_%s, ", srna->identifier, strnest, prop->next->identifier);
else fprintf(f, "\t{NULL, ");
if (prop->prev) fprintf(f, "(PropertyRNA *)&rna_%s%s_%s,\n", srna->identifier, strnest, prop->prev->identifier);
else fprintf(f, "NULL,\n");
fprintf(f, "\t%d, ", prop->magic);
rna_print_c_string(f, prop->identifier);
fprintf(f, ", %d, %d, %d, %d, %d, ", prop->flag, prop->flag_override, prop->flag_parameter, prop->flag_internal, prop->tags);
rna_print_c_string(f, prop->name); fprintf(f, ",\n\t");
rna_print_c_string(f, prop->description); fprintf(f, ",\n\t");
fprintf(f, "%d, ", prop->icon);
rna_print_c_string(f, prop->translation_context); fprintf(f, ",\n");
fprintf(f, "\t%s, %s | %s, %s, %u, {%u, %u, %u}, %u,\n",
RNA_property_typename(prop->type),
rna_property_subtypename(prop->subtype),
rna_property_subtype_unit(prop->subtype),
rna_function_string(prop->getlength),
prop->arraydimension,
prop->arraylength[0],
prop->arraylength[1],
prop->arraylength[2],
prop->totarraylength);
fprintf(f, "\t%s%s, %d, %s, %s, %s, %s, %s,\n",
(prop->flag & PROP_CONTEXT_UPDATE) ? "(UpdateFunc)" : "",
rna_function_string(prop->update),
prop->noteflag,
rna_function_string(prop->editable),
rna_function_string(prop->itemeditable),
rna_function_string(prop->override_diff),
rna_function_string(prop->override_store),
rna_function_string(prop->override_apply));
if (prop->flag_internal & PROP_INTERN_RAW_ACCESS) rna_set_raw_offset(f, srna, prop);
else fprintf(f, "\t0, -1");
/* our own type - collections/arrays only */
if (prop->srna) fprintf(f, ", &RNA_%s", (const char *)prop->srna);
else fprintf(f, ", NULL");
fprintf(f, "},\n");
switch (prop->type) {
case PROP_BOOLEAN:
{
BoolPropertyRNA *bprop = (BoolPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, %s, %s, %s, %d, ",
rna_function_string(bprop->get),
rna_function_string(bprop->set),
rna_function_string(bprop->getarray),
rna_function_string(bprop->setarray),
rna_function_string(bprop->get_ex),
rna_function_string(bprop->set_ex),
rna_function_string(bprop->getarray_ex),
rna_function_string(bprop->setarray_ex),
bprop->defaultvalue);
if (prop->arraydimension && prop->totarraylength)
fprintf(f, "rna_%s%s_%s_default\n", srna->identifier, strnest, prop->identifier);
else fprintf(f, "NULL\n");
break;
}
case PROP_INT:
{
IntPropertyRNA *iprop = (IntPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, %s, %s, %s, %s, %s,\n\t",
rna_function_string(iprop->get),
rna_function_string(iprop->set),
rna_function_string(iprop->getarray),
rna_function_string(iprop->setarray),
rna_function_string(iprop->range),
rna_function_string(iprop->get_ex),
rna_function_string(iprop->set_ex),
rna_function_string(iprop->getarray_ex),
rna_function_string(iprop->setarray_ex),
rna_function_string(iprop->range_ex));
rna_int_print(f, iprop->softmin); fprintf(f, ", ");
rna_int_print(f, iprop->softmax); fprintf(f, ", ");
rna_int_print(f, iprop->hardmin); fprintf(f, ", ");
rna_int_print(f, iprop->hardmax); fprintf(f, ", ");
rna_int_print(f, iprop->step); fprintf(f, ", ");
rna_int_print(f, iprop->defaultvalue); fprintf(f, ", ");
if (prop->arraydimension && prop->totarraylength)
fprintf(f, "rna_%s%s_%s_default\n", srna->identifier, strnest, prop->identifier);
else fprintf(f, "NULL\n");
break;
}
case PROP_FLOAT:
{
FloatPropertyRNA *fprop = (FloatPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, %s, %s, %s, %s, %s, ",
rna_function_string(fprop->get),
rna_function_string(fprop->set),
rna_function_string(fprop->getarray),
rna_function_string(fprop->setarray),
rna_function_string(fprop->range),
rna_function_string(fprop->get_ex),
rna_function_string(fprop->set_ex),
rna_function_string(fprop->getarray_ex),
rna_function_string(fprop->setarray_ex),
rna_function_string(fprop->range_ex));
rna_float_print(f, fprop->softmin); fprintf(f, ", ");
rna_float_print(f, fprop->softmax); fprintf(f, ", ");
rna_float_print(f, fprop->hardmin); fprintf(f, ", ");
rna_float_print(f, fprop->hardmax); fprintf(f, ", ");
rna_float_print(f, fprop->step); fprintf(f, ", ");
rna_int_print(f, (int)fprop->precision); fprintf(f, ", ");
rna_float_print(f, fprop->defaultvalue); fprintf(f, ", ");
if (prop->arraydimension && prop->totarraylength)
fprintf(f, "rna_%s%s_%s_default\n", srna->identifier, strnest, prop->identifier);
else fprintf(f, "NULL\n");
break;
}
case PROP_STRING:
{
StringPropertyRNA *sprop = (StringPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, %s, %d, ",
rna_function_string(sprop->get),
rna_function_string(sprop->length),
rna_function_string(sprop->set),
rna_function_string(sprop->get_ex),
rna_function_string(sprop->length_ex),
rna_function_string(sprop->set_ex),
sprop->maxlength);
rna_print_c_string(f, sprop->defaultvalue); fprintf(f, "\n");
break;
}
case PROP_ENUM:
{
EnumPropertyRNA *eprop = (EnumPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, NULL, ",
rna_function_string(eprop->get),
rna_function_string(eprop->set),
rna_function_string(eprop->itemf),
rna_function_string(eprop->get_ex),
rna_function_string(eprop->set_ex));
if (eprop->item)
fprintf(f, "rna_%s%s_%s_items, ", srna->identifier, strnest, prop->identifier);
else
fprintf(f, "NULL, ");
fprintf(f, "%d, %d\n", eprop->totitem, eprop->defaultvalue);
break;
}
case PROP_POINTER:
{
PointerPropertyRNA *pprop = (PointerPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s,", rna_function_string(pprop->get),
rna_function_string(pprop->set),
rna_function_string(pprop->typef),
rna_function_string(pprop->poll));
if (pprop->type) fprintf(f, "&RNA_%s\n", (const char *)pprop->type);
else fprintf(f, "NULL\n");
break;
}
case PROP_COLLECTION:
{
CollectionPropertyRNA *cprop = (CollectionPropertyRNA *)prop;
fprintf(f, "\t%s, %s, %s, %s, %s, %s, %s, %s, ",
rna_function_string(cprop->begin),
rna_function_string(cprop->next),
rna_function_string(cprop->end),
rna_function_string(cprop->get),
rna_function_string(cprop->length),
rna_function_string(cprop->lookupint),
rna_function_string(cprop->lookupstring),
rna_function_string(cprop->assignint));
if (cprop->item_type) fprintf(f, "&RNA_%s\n", (const char *)cprop->item_type);
else fprintf(f, "NULL\n");
break;
}
}
fprintf(f, "};\n\n");
if (freenest) {
MEM_freeN(strnest);
MEM_freeN(errnest);
}
}
static void rna_generate_struct(BlenderRNA *UNUSED(brna), StructRNA *srna, FILE *f)
{
FunctionRNA *func;
FunctionDefRNA *dfunc;
PropertyRNA *prop, *parm;
StructRNA *base;
fprintf(f, "/* %s */\n", srna->name);
for (prop = srna->cont.properties.first; prop; prop = prop->next)
rna_generate_property(f, srna, NULL, prop);
for (func = srna->functions.first; func; func = func->cont.next) {
for (parm = func->cont.properties.first; parm; parm = parm->next)
rna_generate_property(f, srna, func->identifier, parm);
fprintf(f, "%s%s rna_%s_%s_func = {\n", "", "FunctionRNA", srna->identifier, func->identifier);
if (func->cont.next)
fprintf(f, "\t{(FunctionRNA *)&rna_%s_%s_func, ", srna->identifier,
((FunctionRNA *)func->cont.next)->identifier);
else
fprintf(f, "\t{NULL, ");
if (func->cont.prev)
fprintf(f, "(FunctionRNA *)&rna_%s_%s_func,\n", srna->identifier,
((FunctionRNA *)func->cont.prev)->identifier);
else
fprintf(f, "NULL,\n");
fprintf(f, "\tNULL,\n");
parm = func->cont.properties.first;
if (parm) fprintf(f, "\t{(PropertyRNA *)&rna_%s_%s_%s, ", srna->identifier, func->identifier, parm->identifier);
else fprintf(f, "\t{NULL, ");
parm = func->cont.properties.last;
if (parm) fprintf(f, "(PropertyRNA *)&rna_%s_%s_%s}},\n", srna->identifier, func->identifier, parm->identifier);
else fprintf(f, "NULL}},\n");
fprintf(f, "\t");
rna_print_c_string(f, func->identifier);
fprintf(f, ", %d, ", func->flag);
rna_print_c_string(f, func->description); fprintf(f, ",\n");
dfunc = rna_find_function_def(func);
if (dfunc->gencall) fprintf(f, "\t%s,\n", dfunc->gencall);
else fprintf(f, "\tNULL,\n");
if (func->c_ret)
fprintf(f, "\t(PropertyRNA *)&rna_%s_%s_%s\n", srna->identifier, func->identifier, func->c_ret->identifier);
else
fprintf(f, "\tNULL\n");
fprintf(f, "};\n");
fprintf(f, "\n");
}
fprintf(f, "StructRNA RNA_%s = {\n", srna->identifier);
if (srna->cont.next) fprintf(f, "\t{(ContainerRNA *)&RNA_%s, ", ((StructRNA *)srna->cont.next)->identifier);
else fprintf(f, "\t{NULL, ");
if (srna->cont.prev) fprintf(f, "(ContainerRNA *)&RNA_%s,\n", ((StructRNA *)srna->cont.prev)->identifier);
else fprintf(f, "NULL,\n");
fprintf(f, "\tNULL,\n");
prop = srna->cont.properties.first;
if (prop) fprintf(f, "\t{(PropertyRNA *)&rna_%s_%s, ", srna->identifier, prop->identifier);
else fprintf(f, "\t{NULL, ");
prop = srna->cont.properties.last;
if (prop) fprintf(f, "(PropertyRNA *)&rna_%s_%s}},\n", srna->identifier, prop->identifier);
else fprintf(f, "NULL}},\n");
fprintf(f, "\t");
rna_print_c_string(f, srna->identifier);
fprintf(f, ", NULL, NULL"); /* PyType - Cant initialize here */
fprintf(f, ", %d, NULL, ", srna->flag);
rna_print_c_string(f, srna->name);
fprintf(f, ",\n\t");
rna_print_c_string(f, srna->description);
fprintf(f, ",\n\t");
rna_print_c_string(f, srna->translation_context);
fprintf(f, ", %d,\n", srna->icon);
prop = srna->nameproperty;
if (prop) {
base = srna;
while (base->base && base->base->nameproperty == prop)
base = base->base;
fprintf(f, "\t(PropertyRNA *)&rna_%s_%s, ", base->identifier, prop->identifier);
}
else {
fprintf(f, "\tNULL, ");
}
prop = srna->iteratorproperty;
base = srna;
while (base->base && base->base->iteratorproperty == prop)
base = base->base;
fprintf(f, "(PropertyRNA *)&rna_%s_rna_properties,\n", base->identifier);
if (srna->base) fprintf(f, "\t&RNA_%s,\n", srna->base->identifier);
else fprintf(f, "\tNULL,\n");
if (srna->nested) fprintf(f, "\t&RNA_%s,\n", srna->nested->identifier);
else fprintf(f, "\tNULL,\n");
fprintf(f, "\t%s,\n", rna_function_string(srna->refine));
fprintf(f, "\t%s,\n", rna_function_string(srna->path));
fprintf(f, "\t%s,\n", rna_function_string(srna->reg));
fprintf(f, "\t%s,\n", rna_function_string(srna->unreg));
fprintf(f, "\t%s,\n", rna_function_string(srna->instance));
fprintf(f, "\t%s,\n", rna_function_string(srna->idproperties));
if (srna->reg && !srna->refine) {
CLOG_ERROR(&LOG, "%s has a register function, must also have refine function.",
srna->identifier);
DefRNA.error = 1;
}
func = srna->functions.first;
if (func) fprintf(f, "\t{(FunctionRNA *)&rna_%s_%s_func, ", srna->identifier, func->identifier);
else fprintf(f, "\t{NULL, ");
func = srna->functions.last;
if (func) fprintf(f, "(FunctionRNA *)&rna_%s_%s_func}\n", srna->identifier, func->identifier);
else fprintf(f, "NULL}\n");
fprintf(f, "};\n");
fprintf(f, "\n");
}
typedef struct RNAProcessItem {
const char *filename;
const char *api_filename;
void (*define)(BlenderRNA *brna);
} RNAProcessItem;
static RNAProcessItem PROCESS_ITEMS[] = {
{"rna_rna.c", NULL, RNA_def_rna},
{"rna_ID.c", NULL, RNA_def_ID},
{"rna_texture.c", "rna_texture_api.c", RNA_def_texture},
{"rna_action.c", "rna_action_api.c", RNA_def_action},
{"rna_animation.c", "rna_animation_api.c", RNA_def_animation},
{"rna_animviz.c", NULL, RNA_def_animviz},
{"rna_armature.c", "rna_armature_api.c", RNA_def_armature},
{"rna_boid.c", NULL, RNA_def_boid},
{"rna_brush.c", NULL, RNA_def_brush},
{"rna_cachefile.c", NULL, RNA_def_cachefile},
{"rna_camera.c", "rna_camera_api.c", RNA_def_camera},
{"rna_cloth.c", NULL, RNA_def_cloth},
{"rna_collection.c", NULL, RNA_def_collections},
{"rna_color.c", NULL, RNA_def_color},
{"rna_constraint.c", NULL, RNA_def_constraint},
{"rna_context.c", NULL, RNA_def_context},
{"rna_curve.c", "rna_curve_api.c", RNA_def_curve},
{"rna_dynamicpaint.c", NULL, RNA_def_dynamic_paint},
{"rna_fcurve.c", "rna_fcurve_api.c", RNA_def_fcurve},
{"rna_fluidsim.c", NULL, RNA_def_fluidsim},
{"rna_gpencil.c", NULL, RNA_def_gpencil},
{"rna_image.c", "rna_image_api.c", RNA_def_image},
{"rna_key.c", NULL, RNA_def_key},
{"rna_light.c", NULL, RNA_def_light},
{"rna_lattice.c", "rna_lattice_api.c", RNA_def_lattice},
{"rna_layer.c", NULL, RNA_def_view_layer},
{"rna_linestyle.c", NULL, RNA_def_linestyle},
{"rna_main.c", "rna_main_api.c", RNA_def_main},
{"rna_material.c", "rna_material_api.c", RNA_def_material},
{"rna_mesh.c", "rna_mesh_api.c", RNA_def_mesh},
{"rna_meta.c", "rna_meta_api.c", RNA_def_meta},
{"rna_modifier.c", NULL, RNA_def_modifier},
{"rna_gpencil_modifier.c", NULL, RNA_def_greasepencil_modifier},
{"rna_shader_fx.c", NULL, RNA_def_shader_fx },
{"rna_nla.c", NULL, RNA_def_nla},
{"rna_nodetree.c", NULL, RNA_def_nodetree},
{"rna_object.c", "rna_object_api.c", RNA_def_object},
{"rna_object_force.c", NULL, RNA_def_object_force},
{"rna_depsgraph.c", NULL, RNA_def_depsgraph},
{"rna_packedfile.c", NULL, RNA_def_packedfile},
{"rna_palette.c", NULL, RNA_def_palette},
{"rna_particle.c", NULL, RNA_def_particle},
{"rna_pose.c", "rna_pose_api.c", RNA_def_pose},
{"rna_lightprobe.c", NULL, RNA_def_lightprobe},
{"rna_render.c", NULL, RNA_def_render},
{"rna_rigidbody.c", NULL, RNA_def_rigidbody},
{"rna_scene.c", "rna_scene_api.c", RNA_def_scene},
{"rna_screen.c", NULL, RNA_def_screen},
{"rna_sculpt_paint.c", NULL, RNA_def_sculpt_paint},
{"rna_sequencer.c", "rna_sequencer_api.c", RNA_def_sequencer},
{"rna_smoke.c", NULL, RNA_def_smoke},
{"rna_space.c", "rna_space_api.c", RNA_def_space},
{"rna_speaker.c", NULL, RNA_def_speaker},
{"rna_test.c", NULL, RNA_def_test},
{"rna_text.c", "rna_text_api.c", RNA_def_text},
{"rna_timeline.c", NULL, RNA_def_timeline_marker},
{"rna_sound.c", "rna_sound_api.c", RNA_def_sound},
{"rna_ui.c", "rna_ui_api.c", RNA_def_ui},
{"rna_userdef.c", NULL, RNA_def_userdef},
{"rna_vfont.c", "rna_vfont_api.c", RNA_def_vfont},
{"rna_wm.c", "rna_wm_api.c", RNA_def_wm},
{"rna_wm_gizmo.c", "rna_wm_gizmo_api.c", RNA_def_wm_gizmo},
{"rna_workspace.c", "rna_workspace_api.c", RNA_def_workspace},
{"rna_world.c", NULL, RNA_def_world},
{"rna_movieclip.c", NULL, RNA_def_movieclip},
{"rna_tracking.c", NULL, RNA_def_tracking},
{"rna_mask.c", NULL, RNA_def_mask},
{NULL, NULL},
};
static void rna_generate(BlenderRNA *brna, FILE *f, const char *filename, const char *api_filename)
{
StructDefRNA *ds;
PropertyDefRNA *dp;
FunctionDefRNA *dfunc;
fprintf(f,
"\n"
"/* Automatically generated struct definitions for the Data API.\n"
" * Do not edit manually, changes will be overwritten. */\n\n"
"#define RNA_RUNTIME\n\n");
fprintf(f, "#include <float.h>\n");
fprintf(f, "#include <stdio.h>\n");
fprintf(f, "#include <limits.h>\n");
fprintf(f, "#include <string.h>\n\n");
fprintf(f, "#include <stddef.h>\n\n");
fprintf(f, "#include \"MEM_guardedalloc.h\"\n\n");
fprintf(f, "#include \"DNA_ID.h\"\n");
fprintf(f, "#include \"DNA_scene_types.h\"\n");
fprintf(f, "#include \"BLI_blenlib.h\"\n\n");
fprintf(f, "#include \"BLI_utildefines.h\"\n\n");
fprintf(f, "#include \"BKE_context.h\"\n");
fprintf(f, "#include \"BKE_library.h\"\n");
fprintf(f, "#include \"BKE_main.h\"\n");
fprintf(f, "#include \"BKE_report.h\"\n");
fprintf(f, "#include \"RNA_define.h\"\n");
fprintf(f, "#include \"RNA_types.h\"\n");
fprintf(f, "#include \"rna_internal.h\"\n\n");
/* include the generated prototypes header */
fprintf(f, "#include \"rna_prototypes_gen.h\"\n\n");
fprintf(f, "#include \"%s\"\n", filename);
if (api_filename)
fprintf(f, "#include \"%s\"\n", api_filename);
fprintf(f, "\n");
/* we want the included C files to have warnings enabled but for the generated code
* ignore unused-parameter warnings which are hard to prevent */
#if defined( __GNUC__) || defined(__clang__)
fprintf(f, "#pragma GCC diagnostic ignored \"-Wunused-parameter\"\n\n");
#endif
fprintf(f, "/* Autogenerated Functions */\n\n");
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
if (!filename || ds->filename == filename) {
rna_generate_property_prototypes(brna, ds->srna, f);
rna_generate_function_prototypes(brna, ds->srna, f);
}
}
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (!filename || ds->filename == filename)
for (dp = ds->cont.properties.first; dp; dp = dp->next)
rna_def_property_funcs(f, ds->srna, dp);
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
if (!filename || ds->filename == filename) {
for (dp = ds->cont.properties.first; dp; dp = dp->next)
rna_def_property_wrapper_funcs(f, ds, dp);
for (dfunc = ds->functions.first; dfunc; dfunc = dfunc->cont.next) {
rna_def_function_wrapper_funcs(f, ds, dfunc);
rna_def_function_funcs(f, ds, dfunc);
}
rna_generate_static_function_prototypes(brna, ds->srna, f);
}
}
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (!filename || ds->filename == filename)
rna_generate_struct(brna, ds->srna, f);
if (STREQ(filename, "rna_ID.c")) {
/* this is ugly, but we cannot have c files compiled for both
* makesrna and blender with some build systems at the moment */
fprintf(f, "#include \"rna_define.c\"\n\n");
rna_generate_blender(brna, f);
}
}
static void rna_generate_header(BlenderRNA *UNUSED(brna), FILE *f)
{
StructDefRNA *ds;
PropertyDefRNA *dp;
StructRNA *srna;
FunctionDefRNA *dfunc;
fprintf(f, "\n#ifndef __RNA_BLENDER_H__\n");
fprintf(f, "#define __RNA_BLENDER_H__\n\n");
fprintf(f,
"/* Automatically generated function declarations for the Data API.\n"
" * Do not edit manually, changes will be overwritten. */\n\n");
fprintf(f, "#include \"RNA_types.h\"\n\n");
fprintf(f, "#ifdef __cplusplus\nextern \"C\" {\n#endif\n\n");
fprintf(f, "#define FOREACH_BEGIN(property, sptr, itemptr) \\\n");
fprintf(f, " { \\\n");
fprintf(f, " CollectionPropertyIterator rna_macro_iter; \\\n");
fprintf(f, " for (property##_begin(&rna_macro_iter, sptr); rna_macro_iter.valid; "
"property##_next(&rna_macro_iter)) { \\\n");
fprintf(f, " itemptr = rna_macro_iter.ptr;\n\n");
fprintf(f, "#define FOREACH_END(property) \\\n");
fprintf(f, " } \\\n");
fprintf(f, " property##_end(&rna_macro_iter); \\\n");
fprintf(f, " }\n\n");
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
srna = ds->srna;
fprintf(f, "/**************** %s ****************/\n\n", srna->name);
while (srna) {
fprintf(f, "extern StructRNA RNA_%s;\n", srna->identifier);
srna = srna->base;
}
fprintf(f, "\n");
for (dp = ds->cont.properties.first; dp; dp = dp->next)
rna_def_property_funcs_header(f, ds->srna, dp);
for (dfunc = ds->functions.first; dfunc; dfunc = dfunc->cont.next)
rna_def_function_funcs_header(f, ds->srna, dfunc);
}
fprintf(f, "#ifdef __cplusplus\n}\n#endif\n\n");
fprintf(f, "#endif /* __RNA_BLENDER_H__ */\n\n");
}
static const char *cpp_classes = ""
"\n"
"#include <stdlib.h> /* for malloc */\n"
"#include <string>\n"
"#include <string.h> /* for memcpy */\n"
"\n"
"namespace BL {\n"
"\n"
"#define BOOLEAN_PROPERTY(sname, identifier) \\\n"
" inline bool sname::identifier(void) { return sname##_##identifier##_get(&ptr) ? true: false; } \\\n"
" inline void sname::identifier(bool value) { sname##_##identifier##_set(&ptr, value); }\n"
"\n"
"#define BOOLEAN_ARRAY_PROPERTY(sname, size, identifier) \\\n"
" inline Array<bool, size> sname::identifier(void) \\\n"
" { Array<bool, size> ar; sname##_##identifier##_get(&ptr, ar.data); return ar; } \\\n"
" inline void sname::identifier(bool values[size]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define BOOLEAN_DYNAMIC_ARRAY_PROPERTY(sname, identifier) \\\n"
" inline DynamicArray<bool> sname::identifier(void) { \\\n"
" int arraylen[3]; \\\n"
" int len = sname##_##identifier##_get_length(&ptr, arraylen); \\\n"
" DynamicArray<bool> ar(len); \\\n"
" sname##_##identifier##_get(&ptr, ar.data); \\\n"
" return ar; } \\\n"
" inline void sname::identifier(bool values[]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define INT_PROPERTY(sname, identifier) \\\n"
" inline int sname::identifier(void) { return sname##_##identifier##_get(&ptr); } \\\n"
" inline void sname::identifier(int value) { sname##_##identifier##_set(&ptr, value); }\n"
"\n"
"#define INT_ARRAY_PROPERTY(sname, size, identifier) \\\n"
" inline Array<int, size> sname::identifier(void) \\\n"
" { Array<int, size> ar; sname##_##identifier##_get(&ptr, ar.data); return ar; } \\\n"
" inline void sname::identifier(int values[size]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define INT_DYNAMIC_ARRAY_PROPERTY(sname, identifier) \\\n"
" inline DynamicArray<int> sname::identifier(void) { \\\n"
" int arraylen[3]; \\\n"
" int len = sname##_##identifier##_get_length(&ptr, arraylen); \\\n"
" DynamicArray<int> ar(len); \\\n"
" sname##_##identifier##_get(&ptr, ar.data); \\\n"
" return ar; } \\\n"
" inline void sname::identifier(int values[]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define FLOAT_PROPERTY(sname, identifier) \\\n"
" inline float sname::identifier(void) { return sname##_##identifier##_get(&ptr); } \\\n"
" inline void sname::identifier(float value) { sname##_##identifier##_set(&ptr, value); }\n"
"\n"
"#define FLOAT_ARRAY_PROPERTY(sname, size, identifier) \\\n"
" inline Array<float, size> sname::identifier(void) \\\n"
" { Array<float, size> ar; sname##_##identifier##_get(&ptr, ar.data); return ar; } \\\n"
" inline void sname::identifier(float values[size]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define FLOAT_DYNAMIC_ARRAY_PROPERTY(sname, identifier) \\\n"
" inline DynamicArray<float> sname::identifier(void) { \\\n"
" int arraylen[3]; \\\n"
" int len = sname##_##identifier##_get_length(&ptr, arraylen); \\\n"
" DynamicArray<float> ar(len); \\\n"
" sname##_##identifier##_get(&ptr, ar.data); \\\n"
" return ar; } \\\n"
" inline void sname::identifier(float values[]) \\\n"
" { sname##_##identifier##_set(&ptr, values); } \\\n"
"\n"
"#define ENUM_PROPERTY(type, sname, identifier) \\\n"
" inline sname::type sname::identifier(void) { return (type)sname##_##identifier##_get(&ptr); } \\\n"
" inline void sname::identifier(sname::type value) { sname##_##identifier##_set(&ptr, value); }\n"
"\n"
"#define STRING_PROPERTY(sname, identifier) \\\n"
" inline std::string sname::identifier(void) { \\\n"
" int len = sname##_##identifier##_length(&ptr); \\\n"
" std::string str; str.resize(len); \\\n"
" sname##_##identifier##_get(&ptr, &str[0]); return str; } \\\n"
" inline void sname::identifier(const std::string& value) { \\\n"
" sname##_##identifier##_set(&ptr, value.c_str()); } \\\n"
"\n"
"#define POINTER_PROPERTY(type, sname, identifier) \\\n"
" inline type sname::identifier(void) { return type(sname##_##identifier##_get(&ptr)); }\n"
"\n"
"#define COLLECTION_PROPERTY_LENGTH_false(sname, identifier) \\\n"
" inline static int sname##_##identifier##_length_wrap(PointerRNA *ptr) \\\n"
" { \\\n"
" CollectionPropertyIterator iter; \\\n"
" int length = 0; \\\n"
" sname##_##identifier##_begin(&iter, ptr); \\\n"
" while (iter.valid) { \\\n"
" sname##_##identifier##_next(&iter); \\\n"
" ++length; \\\n"
" } \\\n"
" sname##_##identifier##_end(&iter); \\\n"
" return length; \\\n"
" } \n"
"#define COLLECTION_PROPERTY_LENGTH_true(sname, identifier) \\\n"
" inline static int sname##_##identifier##_length_wrap(PointerRNA *ptr) \\\n"
" { return sname##_##identifier##_length(ptr); } \n"
"\n"
"#define COLLECTION_PROPERTY_LOOKUP_INT_false(sname, identifier) \\\n"
" inline static int sname##_##identifier##_lookup_int_wrap(PointerRNA *ptr, int key, PointerRNA *r_ptr) \\\n"
" { \\\n"
" CollectionPropertyIterator iter; \\\n"
" int i = 0, found = 0; \\\n"
" sname##_##identifier##_begin(&iter, ptr); \\\n"
" while (iter.valid) { \\\n"
" if (i == key) { \\\n"
" *r_ptr = iter.ptr; \\\n"
" found = 1; \\\n"
" break; \\\n"
" } \\\n"
" sname##_##identifier##_next(&iter); \\\n"
" ++i; \\\n"
" } \\\n"
" sname##_##identifier##_end(&iter); \\\n"
" if (!found) \\\n"
" memset(r_ptr, 0, sizeof(*r_ptr)); \\\n"
" return found; \\\n"
" } \n"
"#define COLLECTION_PROPERTY_LOOKUP_INT_true(sname, identifier) \\\n"
" inline static int sname##_##identifier##_lookup_int_wrap(PointerRNA *ptr, int key, PointerRNA *r_ptr) \\\n"
" { \\\n"
" int found = sname##_##identifier##_lookup_int(ptr, key, r_ptr); \\\n"
" if (!found) \\\n"
" memset(r_ptr, 0, sizeof(*r_ptr)); \\\n"
" return found; \\\n"
" } \n"
"#define COLLECTION_PROPERTY_LOOKUP_STRING_false(sname, identifier) \\\n"
" inline static int sname##_##identifier##_lookup_string_wrap(PointerRNA *ptr, const char *key, PointerRNA *r_ptr) \\\n"
" { \\\n"
" CollectionPropertyIterator iter; \\\n"
" int found = 0; \\\n"
" PropertyRNA *item_name_prop = RNA_struct_name_property(ptr->type); \\\n"
" sname##_##identifier##_begin(&iter, ptr); \\\n"
" while (iter.valid && !found) { \\\n"
" char name_fixed[32]; \\\n"
" const char *name; \\\n"
" int name_length; \\\n"
" name = RNA_property_string_get_alloc(&iter.ptr, item_name_prop, name_fixed, sizeof(name_fixed), &name_length); \\\n"
" if (!strncmp(name, key, name_length)) { \\\n"
" *r_ptr = iter.ptr; \\\n"
" found = 1; \\\n"
" } \\\n"
" if (name_fixed != name) \\\n"
" MEM_freeN((void *) name); \\\n"
" sname##_##identifier##_next(&iter); \\\n"
" } \\\n"
" sname##_##identifier##_end(&iter); \\\n"
" if (!found) \\\n"
" memset(r_ptr, 0, sizeof(*r_ptr)); \\\n"
" return found; \\\n"
" } \n"
"#define COLLECTION_PROPERTY_LOOKUP_STRING_true(sname, identifier) \\\n"
" inline static int sname##_##identifier##_lookup_string_wrap(PointerRNA *ptr, const char *key, PointerRNA *r_ptr) \\\n"
" { \\\n"
" int found = sname##_##identifier##_lookup_string(ptr, key, r_ptr); \\\n"
" if (!found) \\\n"
" memset(r_ptr, 0, sizeof(*r_ptr)); \\\n"
" return found; \\\n"
" } \n"
"#define COLLECTION_PROPERTY(collection_funcs, type, sname, identifier, has_length, has_lookup_int, has_lookup_string) \\\n"
" typedef CollectionIterator<type, sname##_##identifier##_begin, \\\n"
" sname##_##identifier##_next, sname##_##identifier##_end> identifier##_iterator; \\\n"
" COLLECTION_PROPERTY_LENGTH_##has_length(sname, identifier) \\\n"
" COLLECTION_PROPERTY_LOOKUP_INT_##has_lookup_int(sname, identifier) \\\n"
" COLLECTION_PROPERTY_LOOKUP_STRING_##has_lookup_string(sname, identifier) \\\n"
" CollectionRef<sname, type, sname##_##identifier##_begin, \\\n"
" sname##_##identifier##_next, sname##_##identifier##_end, \\\n"
" sname##_##identifier##_length_wrap, \\\n"
" sname##_##identifier##_lookup_int_wrap, sname##_##identifier##_lookup_string_wrap, collection_funcs> identifier;\n"
"\n"
"class Pointer {\n"
"public:\n"
" Pointer(const PointerRNA &p) : ptr(p) { }\n"
" operator const PointerRNA&() { return ptr; }\n"
" bool is_a(StructRNA *type) { return RNA_struct_is_a(ptr.type, type) ? true: false; }\n"
" operator void*() { return ptr.data; }\n"
" operator bool() { return ptr.data != NULL; }\n"
"\n"
" bool operator==(const Pointer &other) { return ptr.data == other.ptr.data; }\n"
" bool operator!=(const Pointer &other) { return ptr.data != other.ptr.data; }\n"
"\n"
" PointerRNA ptr;\n"
"};\n"
"\n"
"\n"
"template<typename T, int Tsize>\n"
"class Array {\n"
"public:\n"
" T data[Tsize];\n"
"\n"
" Array() {}\n"
" Array(const Array<T, Tsize>& other) { memcpy(data, other.data, sizeof(T) * Tsize); }\n"
" const Array<T, Tsize>& operator = (const Array<T, Tsize>& other) { memcpy(data, other.data, sizeof(T) * Tsize); "
"return *this; }\n"
"\n"
" operator T*() { return data; }\n"
" operator const T*() const { return data; }\n"
"};\n"
"\n"
"template<typename T>\n"
"class DynamicArray {\n"
"public:\n"
" T *data;\n"
" int length;\n"
"\n"
" DynamicArray() : data(NULL), length(0) {}\n"
" DynamicArray(int new_length) : data(NULL), length(new_length) { data = (T *)malloc(sizeof(T) * new_length); }\n"
" DynamicArray(const DynamicArray<T>& other) { copy_from(other); }\n"
" const DynamicArray<T>& operator = (const DynamicArray<T>& other) { copy_from(other); return *this; }\n"
"\n"
" ~DynamicArray() { if (data) free(data); }\n"
"\n"
" operator T*() { return data; }\n"
"\n"
"protected:\n"
" void copy_from(const DynamicArray<T>& other) {\n"
" if (data) free(data);\n"
" data = (T *)malloc(sizeof(T) * other.length);\n"
" memcpy(data, other.data, sizeof(T) * other.length);\n"
" length = other.length;\n"
" }\n"
"};\n"
"\n"
"typedef void (*TBeginFunc)(CollectionPropertyIterator *iter, PointerRNA *ptr);\n"
"typedef void (*TNextFunc)(CollectionPropertyIterator *iter);\n"
"typedef void (*TEndFunc)(CollectionPropertyIterator *iter);\n"
"typedef int (*TLengthFunc)(PointerRNA *ptr);\n"
"typedef int (*TLookupIntFunc)(PointerRNA *ptr, int key, PointerRNA *r_ptr);\n"
"typedef int (*TLookupStringFunc)(PointerRNA *ptr, const char *key, PointerRNA *r_ptr);\n"
"\n"
"template<typename T, TBeginFunc Tbegin, TNextFunc Tnext, TEndFunc Tend>\n"
"class CollectionIterator {\n"
"public:\n"
" CollectionIterator() : iter(), t(iter.ptr), init(false) { iter.valid = false; }\n"
" ~CollectionIterator(void) { if (init) Tend(&iter); };\n"
"\n"
" operator bool(void)\n"
" { return iter.valid != 0; }\n"
" const CollectionIterator<T, Tbegin, Tnext, Tend>& operator++() { Tnext(&iter); t = T(iter.ptr); return *this; }\n"
"\n"
" T& operator*(void) { return t; }\n"
" T* operator->(void) { return &t; }\n"
" bool operator == (const CollectionIterator<T, Tbegin, Tnext, Tend>& other) "
"{ return iter.valid == other.iter.valid; }\n"
" bool operator!=(const CollectionIterator<T, Tbegin, Tnext, Tend>& other) "
"{ return iter.valid != other.iter.valid; }\n"
"\n"
" void begin(const Pointer &ptr)\n"
" { if (init) Tend(&iter); Tbegin(&iter, (PointerRNA *)&ptr.ptr); t = T(iter.ptr); init = true; }\n"
"\n"
"private:\n"
" const CollectionIterator<T, Tbegin, Tnext, Tend>& operator = "
"(const CollectionIterator<T, Tbegin, Tnext, Tend>& /*copy*/) {}\n"
""
" CollectionPropertyIterator iter;\n"
" T t;\n"
" bool init;\n"
"};\n"
"\n"
"template<typename Tp, typename T, TBeginFunc Tbegin, TNextFunc Tnext, TEndFunc Tend,\n"
" TLengthFunc Tlength, TLookupIntFunc Tlookup_int, TLookupStringFunc Tlookup_string,\n"
" typename Tcollection_funcs>\n"
"class CollectionRef : public Tcollection_funcs {\n"
"public:\n"
" CollectionRef(const PointerRNA &p) : Tcollection_funcs(p), ptr(p) {}\n"
"\n"
" void begin(CollectionIterator<T, Tbegin, Tnext, Tend>& iter)\n"
" { iter.begin(ptr); }\n"
" CollectionIterator<T, Tbegin, Tnext, Tend> end()\n"
" { return CollectionIterator<T, Tbegin, Tnext, Tend>(); } /* test */ \n"
""
" int length()\n"
" { return Tlength(&ptr); }\n"
" T operator[](int key)\n"
" { PointerRNA r_ptr; Tlookup_int(&ptr, key, &r_ptr); return T(r_ptr); }\n"
" T operator[](const std::string &key)\n"
" { PointerRNA r_ptr; Tlookup_string(&ptr, key.c_str(), &r_ptr); return T(r_ptr); }\n"
"\n"
"private:\n"
" PointerRNA ptr;\n"
"};\n"
"\n"
"class DefaultCollectionFunctions {\n"
"public:\n"
" DefaultCollectionFunctions(const PointerRNA & /*p*/) {}\n"
"};\n"
"\n"
"\n";
static int rna_is_collection_prop(PropertyRNA *prop)
{
if (!(prop->flag & PROP_IDPROPERTY || prop->flag_internal & PROP_INTERN_BUILTIN)) {
if (prop->type == PROP_COLLECTION) {
return 1;
}
}
return 0;
}
static int rna_is_collection_functions_struct(const char **collection_structs, const char *struct_name)
{
int a = 0, found = 0;
while (collection_structs[a]) {
if (STREQ(collection_structs[a], struct_name)) {
found = 1;
break;
}
a++;
}
return found;
}
static void rna_generate_header_class_cpp(StructDefRNA *ds, FILE *f)
{
StructRNA *srna = ds->srna;
PropertyDefRNA *dp;
FunctionDefRNA *dfunc;
fprintf(f, "/**************** %s ****************/\n\n", srna->name);
fprintf(f, "class %s : public %s {\n", srna->identifier, (srna->base) ? srna->base->identifier : "Pointer");
fprintf(f, "public:\n");
fprintf(f, "\t%s(const PointerRNA &ptr_arg) :\n\t\t%s(ptr_arg)", srna->identifier,
(srna->base) ? srna->base->identifier : "Pointer");
for (dp = ds->cont.properties.first; dp; dp = dp->next)
if (rna_is_collection_prop(dp->prop))
fprintf(f, ",\n\t\t%s(ptr_arg)", dp->prop->identifier);
fprintf(f, "\n\t\t{}\n\n");
for (dp = ds->cont.properties.first; dp; dp = dp->next)
rna_def_property_funcs_header_cpp(f, ds->srna, dp);
fprintf(f, "\n");
for (dfunc = ds->functions.first; dfunc; dfunc = dfunc->cont.next)
rna_def_struct_function_header_cpp(f, srna, dfunc);
fprintf(f, "};\n\n");
}
static void rna_generate_header_cpp(BlenderRNA *UNUSED(brna), FILE *f)
{
StructDefRNA *ds;
PropertyDefRNA *dp;
StructRNA *srna;
FunctionDefRNA *dfunc;
const char *first_collection_func_struct = NULL;
const char *collection_func_structs[256] = {NULL};
int all_collection_func_structs = 0;
int max_collection_func_structs = sizeof(collection_func_structs) / sizeof(collection_func_structs[0]) - 1;
fprintf(f, "\n#ifndef __RNA_BLENDER_CPP_H__\n");
fprintf(f, "#define __RNA_BLENDER_CPP_H__\n\n");
fprintf(f,
"/* Automatically generated classes for the Data API.\n"
" * Do not edit manually, changes will be overwritten. */\n\n");
fprintf(f, "#include \"RNA_blender.h\"\n");
fprintf(f, "#include \"RNA_types.h\"\n");
fprintf(f, "#include \"RNA_access.h\"\n");
fprintf(f, "%s", cpp_classes);
fprintf(f, "/**************** Declarations ****************/\n\n");
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
fprintf(f, "class %s;\n", ds->srna->identifier);
}
fprintf(f, "\n");
/* first get list of all structures used as collection functions, so they'll be declared first */
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
for (dp = ds->cont.properties.first; dp; dp = dp->next) {
if (rna_is_collection_prop(dp->prop)) {
PropertyRNA *prop = dp->prop;
if (prop->srna) {
/* store name of structure which first uses custom functions for collections */
if (first_collection_func_struct == NULL)
first_collection_func_struct = ds->srna->identifier;
if (!rna_is_collection_functions_struct(collection_func_structs, (char *)prop->srna)) {
if (all_collection_func_structs >= max_collection_func_structs) {
printf("Array size to store all collection structures names is too small\n");
exit(1);
}
collection_func_structs[all_collection_func_structs++] = (char *)prop->srna;
}
}
}
}
}
/* declare all structures in such order:
* - first N structures which doesn't use custom functions for collections
* - all structures used for custom functions in collections
* - all the rest structures
* such an order prevents usage of non-declared classes
*/
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
srna = ds->srna;
if (STREQ(srna->identifier, first_collection_func_struct)) {
StructDefRNA *ds2;
StructRNA *srna2;
for (ds2 = DefRNA.structs.first; ds2; ds2 = ds2->cont.next) {
srna2 = ds2->srna;
if (rna_is_collection_functions_struct(collection_func_structs, srna2->identifier)) {
rna_generate_header_class_cpp(ds2, f);
}
}
}
if (!rna_is_collection_functions_struct(collection_func_structs, srna->identifier))
rna_generate_header_class_cpp(ds, f);
}
fprintf(f, "} /* namespace BL */\n");
fprintf(f, "\n");
fprintf(f, "/**************** Implementation ****************/\n");
fprintf(f, "\n");
fprintf(f, "/* Structure prototypes */\n\n");
fprintf(f, "extern \"C\" {\n");
rna_generate_struct_prototypes(f);
fprintf(f, "}\n\n");
fprintf(f, "namespace BL {\n");
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next) {
srna = ds->srna;
for (dp = ds->cont.properties.first; dp; dp = dp->next)
rna_def_property_funcs_impl_cpp(f, ds->srna, dp);
fprintf(f, "\n");
for (dfunc = ds->functions.first; dfunc; dfunc = dfunc->cont.next)
rna_def_struct_function_impl_cpp(f, srna, dfunc);
fprintf(f, "\n");
}
fprintf(f, "}\n\n#endif /* __RNA_BLENDER_CPP_H__ */\n\n");
}
static void make_bad_file(const char *file, int line)
{
FILE *fp = fopen(file, "w");
fprintf(fp,
"#error \"Error! can't make correct RNA file from %s:%d, "
"check DNA properties.\"\n",
__FILE__, line);
fclose(fp);
}
static int rna_preprocess(const char *outfile)
{
BlenderRNA *brna;
StructDefRNA *ds;
FILE *file;
char deffile[4096];
int i, status;
const char *deps[3]; /* expand as needed */
/* define rna */
brna = RNA_create();
for (i = 0; PROCESS_ITEMS[i].filename; i++) {
if (PROCESS_ITEMS[i].define) {
PROCESS_ITEMS[i].define(brna);
/* sanity check */
if (!DefRNA.animate) {
fprintf(stderr,
"Error: DefRNA.animate left disabled in %s\n",
PROCESS_ITEMS[i].filename);
}
for (ds = DefRNA.structs.first; ds; ds = ds->cont.next)
if (!ds->filename)
ds->filename = PROCESS_ITEMS[i].filename;
}
}
rna_auto_types();
status = (DefRNA.error != 0);
/* create rna prototype header file */
strcpy(deffile, outfile);
strcat(deffile, "rna_prototypes_gen.h");
if (status) {
make_bad_file(deffile, __LINE__);
}
file = fopen(deffile, "w");
if (!file) {
fprintf(stderr, "Unable to open file: %s\n", deffile);
status = 1;
}
else {
fprintf(file,
"/* Automatically generated function declarations for the Data API.\n"
" * Do not edit manually, changes will be overwritten. */\n\n");
rna_generate_prototypes(brna, file);
fclose(file);
status = (DefRNA.error != 0);
}
/* create rna_gen_*.c files */
for (i = 0; PROCESS_ITEMS[i].filename; i++) {
strcpy(deffile, outfile);
strcat(deffile, PROCESS_ITEMS[i].filename);
deffile[strlen(deffile) - 2] = '\0';
strcat(deffile, "_gen.c" TMP_EXT);
if (status) {
make_bad_file(deffile, __LINE__);
}
else {
file = fopen(deffile, "w");
if (!file) {
fprintf(stderr, "Unable to open file: %s\n", deffile);
status = 1;
}
else {
rna_generate(brna, file, PROCESS_ITEMS[i].filename, PROCESS_ITEMS[i].api_filename);
fclose(file);
status = (DefRNA.error != 0);
}
}
/* avoid unneeded rebuilds */
deps[0] = PROCESS_ITEMS[i].filename;
deps[1] = PROCESS_ITEMS[i].api_filename;
deps[2] = NULL;
replace_if_different(deffile, deps);
}
/* create RNA_blender_cpp.h */
strcpy(deffile, outfile);
strcat(deffile, "RNA_blender_cpp.h" TMP_EXT);
if (status) {
make_bad_file(deffile, __LINE__);
}
else {
file = fopen(deffile, "w");
if (!file) {
fprintf(stderr, "Unable to open file: %s\n", deffile);
status = 1;
}
else {
rna_generate_header_cpp(brna, file);
fclose(file);
status = (DefRNA.error != 0);
}
}
replace_if_different(deffile, NULL);
rna_sort(brna);
/* create RNA_blender.h */
strcpy(deffile, outfile);
strcat(deffile, "RNA_blender.h" TMP_EXT);
if (status) {
make_bad_file(deffile, __LINE__);
}
else {
file = fopen(deffile, "w");
if (!file) {
fprintf(stderr, "Unable to open file: %s\n", deffile);
status = 1;
}
else {
rna_generate_header(brna, file);
fclose(file);
status = (DefRNA.error != 0);
}
}
replace_if_different(deffile, NULL);
/* free RNA */
RNA_define_free(brna);
RNA_free(brna);
return status;
}
static void mem_error_cb(const char *errorStr)
{
fprintf(stderr, "%s", errorStr);
fflush(stderr);
}
int main(int argc, char **argv)
{
int totblock, return_status = 0;
CLG_init();
/* Some useful defaults since this runs standalone. */
CLG_output_use_basename_set(true);
CLG_level_set(debugSRNA);
if (argc < 2) {
fprintf(stderr, "Usage: %s outdirectory/\n", argv[0]);
return_status = 1;
}
else {
if (debugSRNA > 0) {
fprintf(stderr, "Running makesrna\n");
}
makesrna_path = argv[0];
return_status = rna_preprocess(argv[1]);
}
CLG_exit();
totblock = MEM_get_memory_blocks_in_use();
if (totblock != 0) {
fprintf(stderr, "Error Totblock: %d\n", totblock);
MEM_set_error_callback(mem_error_cb);
MEM_printmemlist();
}
return return_status;
}