unsigned long pop[CTF_K_MAX + 1] = { 0 };
const ctf_type_t *tp;
- ctf_hash_t *hp;
uint32_t id, dst;
uint32_t *xp;
int nlstructs = 0, nlunions = 0;
int err;
+ assert (!(fp->ctf_flags & LCTF_RDWR));
+
if (_libctf_unlikely_ (fp->ctf_version == CTF_VERSION_1))
{
int err;
/* Now that we've counted up the number of each type, we can allocate
the hash tables, type translation table, and pointer table. */
- if ((fp->ctf_structs = ctf_hash_create (pop[CTF_K_STRUCT], ctf_hash_string,
- ctf_hash_eq_string)) == NULL)
+ if ((fp->ctf_structs.ctn_readonly
+ = ctf_hash_create (pop[CTF_K_STRUCT], ctf_hash_string,
+ ctf_hash_eq_string)) == NULL)
return ENOMEM;
- if ((fp->ctf_unions = ctf_hash_create (pop[CTF_K_UNION], ctf_hash_string,
- ctf_hash_eq_string)) == NULL)
+ if ((fp->ctf_unions.ctn_readonly
+ = ctf_hash_create (pop[CTF_K_UNION], ctf_hash_string,
+ ctf_hash_eq_string)) == NULL)
return ENOMEM;
- if ((fp->ctf_enums = ctf_hash_create (pop[CTF_K_ENUM], ctf_hash_string,
- ctf_hash_eq_string)) == NULL)
+ if ((fp->ctf_enums.ctn_readonly
+ = ctf_hash_create (pop[CTF_K_ENUM], ctf_hash_string,
+ ctf_hash_eq_string)) == NULL)
return ENOMEM;
- if ((fp->ctf_names = ctf_hash_create (pop[CTF_K_INTEGER] +
- pop[CTF_K_FLOAT] +
- pop[CTF_K_FUNCTION] +
- pop[CTF_K_TYPEDEF] +
- pop[CTF_K_POINTER] +
- pop[CTF_K_VOLATILE] +
- pop[CTF_K_CONST] +
- pop[CTF_K_RESTRICT],
- ctf_hash_string,
- ctf_hash_eq_string)) == NULL)
+ if ((fp->ctf_names.ctn_readonly
+ = ctf_hash_create (pop[CTF_K_INTEGER] +
+ pop[CTF_K_FLOAT] +
+ pop[CTF_K_FUNCTION] +
+ pop[CTF_K_TYPEDEF] +
+ pop[CTF_K_POINTER] +
+ pop[CTF_K_VOLATILE] +
+ pop[CTF_K_CONST] +
+ pop[CTF_K_RESTRICT],
+ ctf_hash_string,
+ ctf_hash_eq_string)) == NULL)
return ENOMEM;
fp->ctf_txlate = ctf_alloc (sizeof (uint32_t) * (fp->ctf_typemax + 1));
- fp->ctf_ptrtab = ctf_alloc (sizeof (uint32_t) * (fp->ctf_typemax + 1));
+ fp->ctf_ptrtab_len = fp->ctf_typemax + 1;
+ fp->ctf_ptrtab = ctf_alloc (sizeof (uint32_t) * fp->ctf_ptrtab_len);
if (fp->ctf_txlate == NULL || fp->ctf_ptrtab == NULL)
return ENOMEM; /* Memory allocation failed. */
root-visible version so that we can be sure to find it when
checking for conflicting definitions in ctf_add_type(). */
- if (((ctf_hash_lookup_type (fp->ctf_names, fp, name)) == 0)
+ if (((ctf_hash_lookup_type (fp->ctf_names.ctn_readonly,
+ fp, name)) == 0)
|| (flag & CTF_ADD_ROOT))
{
- err = ctf_hash_define_type (fp->ctf_names, fp,
+ err = ctf_hash_define_type (fp->ctf_names.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
if (err != 0)
break;
case CTF_K_FUNCTION:
- err = ctf_hash_insert_type (fp->ctf_names, fp,
+ err = ctf_hash_insert_type (fp->ctf_names.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
if (err != 0)
break;
case CTF_K_STRUCT:
- err = ctf_hash_define_type (fp->ctf_structs, fp,
+ err = ctf_hash_define_type (fp->ctf_structs.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
break;
case CTF_K_UNION:
- err = ctf_hash_define_type (fp->ctf_unions, fp,
+ err = ctf_hash_define_type (fp->ctf_unions.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
break;
case CTF_K_ENUM:
- err = ctf_hash_define_type (fp->ctf_enums, fp,
+ err = ctf_hash_define_type (fp->ctf_enums.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
break;
case CTF_K_TYPEDEF:
- err = ctf_hash_insert_type (fp->ctf_names, fp,
+ err = ctf_hash_insert_type (fp->ctf_names.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
if (err != 0)
break;
case CTF_K_FORWARD:
- /* Only insert forward tags into the given hash if the type or tag
- name is not already present. */
- switch (tp->ctt_type)
- {
- case CTF_K_STRUCT:
- hp = fp->ctf_structs;
- break;
- case CTF_K_UNION:
- hp = fp->ctf_unions;
- break;
- case CTF_K_ENUM:
- hp = fp->ctf_enums;
- break;
- default:
- hp = fp->ctf_structs;
- }
-
- if (ctf_hash_lookup_type (hp, fp, name) == 0)
- {
- err = ctf_hash_insert_type (hp, fp,
- LCTF_INDEX_TO_TYPE (fp, id, child),
- tp->ctt_name);
- if (err != 0)
- return err;
- }
- break;
+ {
+ ctf_names_t *np = ctf_name_table (fp, tp->ctt_type);
+ /* Only insert forward tags into the given hash if the type or tag
+ name is not already present. */
+ if (ctf_hash_lookup_type (np->ctn_readonly, fp, name) == 0)
+ {
+ err = ctf_hash_insert_type (np->ctn_readonly, fp,
+ LCTF_INDEX_TO_TYPE (fp, id, child),
+ tp->ctt_name);
+ if (err != 0)
+ return err;
+ }
+ break;
+ }
case CTF_K_POINTER:
/* If the type referenced by the pointer is in this CTF container,
case CTF_K_VOLATILE:
case CTF_K_CONST:
case CTF_K_RESTRICT:
- err = ctf_hash_insert_type (fp->ctf_names, fp,
+ err = ctf_hash_insert_type (fp->ctf_names.ctn_readonly, fp,
LCTF_INDEX_TO_TYPE (fp, id, child),
tp->ctt_name);
if (err != 0)
}
ctf_dprintf ("%lu total types processed\n", fp->ctf_typemax);
- ctf_dprintf ("%u enum names hashed\n", ctf_hash_size (fp->ctf_enums));
+ ctf_dprintf ("%u enum names hashed\n",
+ ctf_hash_size (fp->ctf_enums.ctn_readonly));
ctf_dprintf ("%u struct names hashed (%d long)\n",
- ctf_hash_size (fp->ctf_structs), nlstructs);
+ ctf_hash_size (fp->ctf_structs.ctn_readonly), nlstructs);
ctf_dprintf ("%u union names hashed (%d long)\n",
- ctf_hash_size (fp->ctf_unions), nlunions);
- ctf_dprintf ("%u base type names hashed\n", ctf_hash_size (fp->ctf_names));
+ ctf_hash_size (fp->ctf_unions.ctn_readonly), nlunions);
+ ctf_dprintf ("%u base type names hashed\n",
+ ctf_hash_size (fp->ctf_names.ctn_readonly));
/* Make an additional pass through the pointer table to find pointers that
point to anonymous typedef nodes. If we find one, modify the pointer table
{
tp = LCTF_INDEX_TO_TYPEPTR (fp, id);
- if (LCTF_INFO_KIND (fp, tp->ctt_info) == CTF_K_TYPEDEF &&
- strcmp (ctf_strptr (fp, tp->ctt_name), "") == 0 &&
- LCTF_TYPE_ISCHILD (fp, tp->ctt_type) == child &&
- LCTF_TYPE_TO_INDEX (fp, tp->ctt_type) <= fp->ctf_typemax)
- fp->ctf_ptrtab[LCTF_TYPE_TO_INDEX (fp, tp->ctt_type)] = dst;
+ if (LCTF_INFO_KIND (fp, tp->ctt_info) == CTF_K_TYPEDEF
+ && strcmp (ctf_strptr (fp, tp->ctt_name), "") == 0
+ && LCTF_TYPE_ISCHILD (fp, tp->ctt_type) == child
+ && LCTF_TYPE_TO_INDEX (fp, tp->ctt_type) <= fp->ctf_typemax)
+ fp->ctf_ptrtab[LCTF_TYPE_TO_INDEX (fp, tp->ctt_type)] = dst;
}
}
flip_lbls (void *start, size_t len)
{
ctf_lblent_t *lbl = start;
+ ssize_t i;
- for (ssize_t i = len / sizeof (struct ctf_lblent); i > 0; lbl++, i--)
+ for (i = len / sizeof (struct ctf_lblent); i > 0; lbl++, i--)
{
swap_thing (lbl->ctl_label);
swap_thing (lbl->ctl_type);
flip_objts (void *start, size_t len)
{
uint32_t *obj = start;
+ ssize_t i;
- for (ssize_t i = len / sizeof (uint32_t); i > 0; obj++, i--)
+ for (i = len / sizeof (uint32_t); i > 0; obj++, i--)
swap_thing (*obj);
}
flip_vars (void *start, size_t len)
{
ctf_varent_t *var = start;
+ ssize_t i;
- for (ssize_t i = len / sizeof (struct ctf_varent); i > 0; var++, i--)
+ for (i = len / sizeof (struct ctf_varent); i > 0; var++, i--)
{
swap_thing (var->ctv_name);
swap_thing (var->ctv_type);
/* This type has a bunch of uint32_ts. */
uint32_t *item = (uint32_t *) t;
+ ssize_t i;
- for (ssize_t i = vlen; i > 0; item++, i--)
+ for (i = vlen; i > 0; item++, i--)
swap_thing (*item);
break;
}
if (_libctf_unlikely_ (size >= CTF_LSTRUCT_THRESH))
{
ctf_lmember_t *lm = (ctf_lmember_t *) t;
- for (ssize_t i = vlen; i > 0; i--, lm++)
+ ssize_t i;
+ for (i = vlen; i > 0; i--, lm++)
{
swap_thing (lm->ctlm_name);
swap_thing (lm->ctlm_offsethi);
else
{
ctf_member_t *m = (ctf_member_t *) t;
- for (ssize_t i = vlen; i > 0; i--, m++)
+ ssize_t i;
+ for (i = vlen; i > 0; i--, m++)
{
swap_thing (m->ctm_name);
swap_thing (m->ctm_offset);
/* This has an array of ctf_enum_t. */
ctf_enum_t *item = (ctf_enum_t *) t;
+ ssize_t i;
- for (ssize_t i = vlen; i > 0; item++, i--)
+ for (i = vlen; i > 0; item++, i--)
{
swap_thing (item->cte_name);
swap_thing (item->cte_value);
return flip_types (buf + cth->cth_typeoff, cth->cth_stroff - cth->cth_typeoff);
}
+/* Set up the ctl hashes in a ctf_file_t. Called by both writable and
+ non-writable dictionary initialization. */
+void ctf_set_ctl_hashes (ctf_file_t *fp)
+{
+ /* Initialize the ctf_lookup_by_name top-level dictionary. We keep an
+ array of type name prefixes and the corresponding ctf_hash to use. */
+ fp->ctf_lookups[0].ctl_prefix = "struct";
+ fp->ctf_lookups[0].ctl_len = strlen (fp->ctf_lookups[0].ctl_prefix);
+ fp->ctf_lookups[0].ctl_hash = &fp->ctf_structs;
+ fp->ctf_lookups[1].ctl_prefix = "union";
+ fp->ctf_lookups[1].ctl_len = strlen (fp->ctf_lookups[1].ctl_prefix);
+ fp->ctf_lookups[1].ctl_hash = &fp->ctf_unions;
+ fp->ctf_lookups[2].ctl_prefix = "enum";
+ fp->ctf_lookups[2].ctl_len = strlen (fp->ctf_lookups[2].ctl_prefix);
+ fp->ctf_lookups[2].ctl_hash = &fp->ctf_enums;
+ fp->ctf_lookups[3].ctl_prefix = _CTF_NULLSTR;
+ fp->ctf_lookups[3].ctl_len = strlen (fp->ctf_lookups[3].ctl_prefix);
+ fp->ctf_lookups[3].ctl_hash = &fp->ctf_names;
+ fp->ctf_lookups[4].ctl_prefix = NULL;
+ fp->ctf_lookups[4].ctl_len = 0;
+ fp->ctf_lookups[4].ctl_hash = NULL;
+}
+
/* Open a CTF file, mocking up a suitable ctf_sect. */
ctf_file_t *ctf_simple_open (const char *ctfsect, size_t ctfsect_size,
{
return ctf_simple_open_internal (ctfsect, ctfsect_size, symsect, symsect_size,
symsect_entsize, strsect, strsect_size, NULL,
- errp);
+ 0, errp);
}
/* Open a CTF file, mocking up a suitable ctf_sect and overriding the external
const char *symsect, size_t symsect_size,
size_t symsect_entsize,
const char *strsect, size_t strsect_size,
- ctf_dynhash_t *syn_strtab, int *errp)
+ ctf_dynhash_t *syn_strtab, int writable,
+ int *errp)
{
ctf_sect_t skeleton;
strsectp = &str_sect;
}
- return ctf_bufopen_internal (ctfsectp, symsectp, strsectp, syn_strtab, errp);
+ return ctf_bufopen_internal (ctfsectp, symsectp, strsectp, syn_strtab,
+ writable, errp);
}
/* Decode the specified CTF buffer and optional symbol table, and create a new
ctf_bufopen (const ctf_sect_t *ctfsect, const ctf_sect_t *symsect,
const ctf_sect_t *strsect, int *errp)
{
- return ctf_bufopen_internal (ctfsect, symsect, strsect, NULL, errp);
+ return ctf_bufopen_internal (ctfsect, symsect, strsect, NULL, 0, errp);
}
/* Like ctf_bufopen, but overriding the external strtab with a synthetic one. */
ctf_file_t *
ctf_bufopen_internal (const ctf_sect_t *ctfsect, const ctf_sect_t *symsect,
const ctf_sect_t *strsect, ctf_dynhash_t *syn_strtab,
- int *errp)
+ int writable, int *errp)
{
const ctf_preamble_t *pp;
size_t hdrsz = sizeof (ctf_header_t);
memset (fp, 0, sizeof (ctf_file_t));
+ if (writable)
+ fp->ctf_flags |= LCTF_RDWR;
+
if ((fp->ctf_header = ctf_alloc (sizeof (struct ctf_header))) == NULL)
{
ctf_free (fp);
ctf_set_base (fp, hp, fp->ctf_base);
+ /* No need to do anything else for dynamic containers: they do not support
+ symbol lookups, and the type table is maintained in the dthashes. */
+ if (fp->ctf_flags & LCTF_RDWR)
+ {
+ fp->ctf_refcnt = 1;
+ return fp;
+ }
+
if ((err = init_types (fp, hp)) != 0)
goto bad;
goto bad;
}
- /* Initialize the ctf_lookup_by_name top-level dictionary. We keep an
- array of type name prefixes and the corresponding ctf_hash to use.
- NOTE: This code must be kept in sync with the code in ctf_update(). */
- fp->ctf_lookups[0].ctl_prefix = "struct";
- fp->ctf_lookups[0].ctl_len = strlen (fp->ctf_lookups[0].ctl_prefix);
- fp->ctf_lookups[0].ctl_hash = fp->ctf_structs;
- fp->ctf_lookups[1].ctl_prefix = "union";
- fp->ctf_lookups[1].ctl_len = strlen (fp->ctf_lookups[1].ctl_prefix);
- fp->ctf_lookups[1].ctl_hash = fp->ctf_unions;
- fp->ctf_lookups[2].ctl_prefix = "enum";
- fp->ctf_lookups[2].ctl_len = strlen (fp->ctf_lookups[2].ctl_prefix);
- fp->ctf_lookups[2].ctl_hash = fp->ctf_enums;
- fp->ctf_lookups[3].ctl_prefix = _CTF_NULLSTR;
- fp->ctf_lookups[3].ctl_len = strlen (fp->ctf_lookups[3].ctl_prefix);
- fp->ctf_lookups[3].ctl_hash = fp->ctf_names;
- fp->ctf_lookups[4].ctl_prefix = NULL;
- fp->ctf_lookups[4].ctl_len = 0;
- fp->ctf_lookups[4].ctl_hash = NULL;
+ ctf_set_ctl_hashes (fp);
if (symsect != NULL)
{
ctf_dtd_delete (fp, dtd);
}
ctf_dynhash_destroy (fp->ctf_dthash);
- ctf_dynhash_destroy (fp->ctf_dtbyname);
+ if (fp->ctf_flags & LCTF_RDWR)
+ {
+ ctf_dynhash_destroy (fp->ctf_structs.ctn_writable);
+ ctf_dynhash_destroy (fp->ctf_unions.ctn_writable);
+ ctf_dynhash_destroy (fp->ctf_enums.ctn_writable);
+ ctf_dynhash_destroy (fp->ctf_names.ctn_writable);
+ }
+ else
+ {
+ ctf_hash_destroy (fp->ctf_structs.ctn_readonly);
+ ctf_hash_destroy (fp->ctf_unions.ctn_readonly);
+ ctf_hash_destroy (fp->ctf_enums.ctn_readonly);
+ ctf_hash_destroy (fp->ctf_names.ctn_readonly);
+ }
for (dvd = ctf_list_next (&fp->ctf_dvdefs); dvd != NULL; dvd = nvd)
{
ctf_dynhash_destroy (fp->ctf_syn_ext_strtab);
ctf_dynhash_destroy (fp->ctf_link_inputs);
ctf_dynhash_destroy (fp->ctf_link_outputs);
+ ctf_dynhash_destroy (fp->ctf_link_type_mapping);
+ ctf_dynhash_destroy (fp->ctf_link_cu_mapping);
+ ctf_dynhash_destroy (fp->ctf_add_processing);
ctf_free (fp->ctf_sxlate);
ctf_free (fp->ctf_txlate);
ctf_free (fp->ctf_ptrtab);
- ctf_hash_destroy (fp->ctf_structs);
- ctf_hash_destroy (fp->ctf_unions);
- ctf_hash_destroy (fp->ctf_enums);
- ctf_hash_destroy (fp->ctf_names);
-
ctf_free (fp->ctf_header);
ctf_free (fp);
}
structure, not a pointer to it, since that is likely to become a pointer to
freed data before the return value is used under the expected use case of
ctf_getsect()/ ctf_file_close()/free(). */
-extern ctf_sect_t
+ctf_sect_t
ctf_getdatasect (const ctf_file_t *fp)
{
return fp->ctf_data;
projects / deliverable / binutils-gdb.git / blobdiff