int main(int argc, char **argv)
{
GOptionContext *context;
GMainLoop *loop;
GError *err = NULL;
DBusGProxy *dev;
char *username;
g_type_init();
dbus_g_object_register_marshaller (fprintd_marshal_VOID__STRING_BOOLEAN,
G_TYPE_NONE, G_TYPE_STRING, G_TYPE_BOOLEAN, G_TYPE_INVALID);
context = g_option_context_new ("Verify a fingerprint");
g_option_context_add_main_entries (context, entries, NULL);
if (g_option_context_parse (context, &argc, &argv, &err) == FALSE) {
g_print ("couldn't parse command-line options: %s\n", err->message);
g_error_free (err);
return 1;
}
if (usernames == NULL) {
username = "";
} else {
username = usernames[0];
}
if (g_fatal_warnings) {
GLogLevelFlags fatal_mask;
fatal_mask = g_log_set_always_fatal (G_LOG_FATAL_MASK);
fatal_mask |= G_LOG_LEVEL_WARNING | G_LOG_LEVEL_CRITICAL;
g_log_set_always_fatal (fatal_mask);
}
loop = g_main_loop_new(NULL, FALSE);
create_manager();
dev = open_device(username);
find_finger(dev, username);
do_verify(dev);
release_device(dev);
return 0;
}
void act_in_gvt(gv_namehead *gvt)
{
collseq *csp;
# ifdef GTM_TRIGGER
if (IS_MNAME_HASHT_GBLNAME(gvt->gvname.var_name))
return; /* No collation for triggers */
# endif
if (csp = ready_collseq((int)(gvt->act))) /* WARNING: ASSIGNMENT */
{
if (!do_verify(csp, gvt->act, gvt->ver))
{
gvt->root = 0;
rts_error_csa(CSA_ARG(NULL) VARLSTCNT(8) ERR_COLLTYPVERSION, 2, gvt->act, gvt->ver,
ERR_GVIS, 2, gvt->gvname.var_name.len, gvt->gvname.var_name.addr);
}
} else
{
gvt->root = 0;
rts_error_csa(CSA_ARG(NULL) VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, gvt->act,
ERR_GVIS, 2, gvt->gvname.var_name.len, gvt->gvname.var_name.addr);
}
gvt->collseq = csp;
return;
}
static Bool
do_verify (Heap *h, unsigned n)
{
if (left_child(n) < h->sz) {
if((*h->cmp)(h->data[n].data, h->data[left_child(n)].data) > 0)
return FALSE;
if (!do_verify (h, left_child(n)))
return FALSE;
}
if (right_child(n) < h->sz) {
if((*h->cmp)(h->data[n].data, h->data[right_child(n)].data) > 0)
return FALSE;
if (!do_verify (h, right_child(n)))
return FALSE;
}
return TRUE;
}
int index_search_item::verify()
{
const char *reason = do_verify();
if (!reason)
return 1;
error("`%1' is bad: %2", name, reason);
return 0;
}
/**
* do_test - Write, Read and Verify
* @serial: Serial Test Context
* @bytes: amount of data to transfer
*/
static int do_test(struct usb_serial_test *serial, uint32_t bytes)
{
int ret;
ret = do_write(serial, bytes);
if (ret < 0)
goto err;
ret = do_read(serial, bytes);
if (ret < 0)
goto err;
ret = do_verify(serial, bytes);
if (ret < 0)
goto err;
return 0;
err:
return ret;
}
int ifdhandler_process(ct_socket_t * sock, ifd_reader_t * reader,
ct_buf_t * argbuf, ct_buf_t * resbuf)
{
unsigned char cmd, unit;
ct_tlv_parser_t args;
ct_tlv_builder_t resp;
int rc;
/* Get command and target unit */
if (ct_buf_get(argbuf, &cmd, 1) < 0 || ct_buf_get(argbuf, &unit, 1) < 0)
return IFD_ERROR_INVALID_MSG;
ifd_debug(1, "ifdhandler_process(cmd=%s, unit=%u)",
get_cmd_name(cmd), unit);
/* First, handle commands that don't do TLV encoded
* arguments - currently this is only CT_CMD_TRANSACT. */
if (cmd == CT_CMD_TRANSACT_OLD) {
/* Security - deny any APDUs if there's an
* exclusive lock held by some other client. */
if ((rc =
ifdhandler_check_lock(sock, unit, IFD_LOCK_EXCLUSIVE)) < 0)
return rc;
return do_transact_old(reader, unit, argbuf, resbuf);
}
if ((rc = do_before_command(reader)) < 0) {
return rc;
}
memset(&args, 0, sizeof(args));
if (ct_tlv_parse(&args, argbuf) < 0)
return IFD_ERROR_INVALID_MSG;
if (args.use_large_tags)
sock->use_large_tags = 1;
ct_tlv_builder_init(&resp, resbuf, sock->use_large_tags);
switch (cmd) {
case CT_CMD_STATUS:
rc = do_status(reader, unit, &args, &resp);
break;
case CT_CMD_OUTPUT:
rc = do_output(reader, unit, &args, &resp);
break;
case CT_CMD_RESET:
case CT_CMD_REQUEST_ICC:
rc = do_reset(reader, unit, &args, &resp);
break;
case CT_CMD_EJECT_ICC:
rc = do_eject(reader, unit, &args, &resp);
break;
case CT_CMD_PERFORM_VERIFY:
rc = do_verify(reader, unit, &args, &resp);
break;
case CT_CMD_LOCK:
rc = do_lock(sock, reader, unit, &args, &resp);
break;
case CT_CMD_UNLOCK:
rc = do_unlock(sock, reader, unit, &args, &resp);
break;
case CT_CMD_MEMORY_READ:
rc = do_memory_read(reader, unit, &args, &resp);
break;
case CT_CMD_MEMORY_WRITE:
rc = do_memory_write(reader, unit, &args, &resp);
break;
case CT_CMD_TRANSACT:
rc = do_transact(reader, unit, &args, &resp);
break;
case CT_CMD_SET_PROTOCOL:
rc = do_set_protocol(reader, unit, &args, &resp);
break;
default:
return IFD_ERROR_INVALID_CMD;
}
if (rc >= 0)
rc = resp.error;
/*
* TODO consider checking error
*/
do_after_command(reader);
return rc;
}
int main(int argc, char **argv)
{
sc_context_t *ctx = NULL;
sc_context_param_t ctx_param;
sc_card_t *card = NULL;
int r;
int argind = 0;
int exit_status = EXIT_SUCCESS;
/* decode options */
argind = decode_options(argc, argv);
/* connect to the card */
memset(&ctx_param, 0, sizeof(ctx_param));
ctx_param.ver = 0;
ctx_param.app_name = app_name;
r = sc_context_create(&ctx, &ctx_param);
if (r) {
util_fatal("failed to establish context: %s", sc_strerror(r));
return EXIT_FAILURE;
}
r = util_connect_card(ctx, &card, opt_reader, opt_wait, verbose);
if (r) {
util_fatal("failed to connect to card: %s", sc_strerror(r));
return EXIT_FAILURE;
}
/* check card type */
if ((card->type != SC_CARD_TYPE_OPENPGP_BASE) &&
(card->type != SC_CARD_TYPE_OPENPGP_V1) &&
(card->type != SC_CARD_TYPE_OPENPGP_V2) &&
(card->type != SC_CARD_TYPE_OPENPGP_V3) &&
(card->type != SC_CARD_TYPE_OPENPGP_GNUK)) {
util_error("card type %X: not an OpenPGP card", card->type);
exit_status = EXIT_FAILURE;
goto out;
}
/* fail on too many arguments */
if (argind > argc)
util_print_usage_and_die(app_name, options, option_help, NULL);
/* set default action */
if (!actions)
opt_userinfo = 1;
if (opt_cardinfo)
exit_status |= do_info(card, card_data);
if (opt_userinfo)
exit_status |= do_info(card, user_data);
if (opt_keyinfo)
exit_status |= do_info(card, key_data);
if (opt_verify && opt_pin) {
exit_status |= do_verify(card, verifytype, pin);
}
if (opt_dump_do) {
size_t n;
for (n = 0; n < opt_dump_do; n++) {
exit_status |= do_dump_do(card, do_dump_idx[n]);
}
}
if (opt_genkey)
exit_status |= do_genkey(card, key_id, keytype);
if (exec_program) {
char *const largv[] = {exec_program, NULL};
sc_unlock(card);
sc_disconnect_card(card);
sc_release_context(ctx);
#ifndef _WIN32
execv(exec_program, largv);
#else
_execv(exec_program, (const char * const*)largv);
#endif
/* we should not get here */
perror("execv()");
exit(EXIT_FAILURE);
}
if (opt_delkey)
exit_status |= do_delete_key(card, key_id);
if (opt_erase)
exit_status |= do_erase(card);
out:
sc_unlock(card);
sc_disconnect_card(card);
sc_release_context(ctx);
exit(exit_status);
}
int main(int argc, char **argv)
{
int format = 0, verify = 0, use_tree = 0, benchmarks = 0;
int ret = 0, i;
json_config config;
char *output = "-";
memset(&config, 0, sizeof(json_config));
config.max_nesting = 0;
config.max_data = 0;
config.allow_c_comments = 1;
config.allow_yaml_comments = 1;
while (1) {
int option_index;
struct option long_options[] = {
{ "no-comments", 0, 0, 0 },
{ "no-yaml-comments", 0, 0, 0 },
{ "no-c-comments", 0, 0, 0 },
{ "format", 0, 0, 0 },
{ "verify", 0, 0, 0 },
{ "benchmark", 1, 0, 0 },
{ "help", 0, 0, 0 },
{ "max-nesting", 1, 0, 0 },
{ "max-data", 1, 0, 0 },
{ "indent-string", 1, 0, 0 },
{ "tree", 0, 0, 0 },
{ 0 },
};
int c = getopt_long(argc, argv, "o:", long_options, &option_index);
if (c == -1)
break;
switch (c) {
case 0: {
const char *name = long_options[option_index].name;
if (strcmp(name, "help") == 0)
usage(argv[0]);
else if (strcmp(name, "no-c-comments") == 0)
config.allow_c_comments = 0;
else if (strcmp(name, "no-yaml-comments") == 0)
config.allow_yaml_comments = 0;
else if (strcmp(name, "no-comments") == 0)
config.allow_c_comments = config.allow_yaml_comments = 0;
else if (strcmp(name, "format") == 0)
format = 1;
else if (strcmp(name, "verify") == 0)
verify = 1;
else if (strcmp(name, "max-nesting") == 0)
config.max_nesting = atoi(optarg);
else if (strcmp(name, "benchmark") == 0)
benchmarks = atoi(optarg);
else if (strcmp(name, "max-data") == 0)
config.max_data = atoi(optarg);
else if (strcmp(name, "indent-string") == 0)
indent_string = strdup(optarg);
else if (strcmp(name, "tree") == 0)
use_tree = 1;
break;
}
case 'o':
output = strdup(optarg);
break;
default:
break;
}
}
if (config.max_nesting < 0)
config.max_nesting = 0;
if (!output)
output = "-";
if (optind >= argc)
usage(argv[0]);
if (benchmarks > 0) {
for (i = 0; i < benchmarks; i++) {
if (use_tree) {
json_val_t *root_structure;
ret = do_tree(&config, argv[optind], &root_structure);
} else {
ret = do_verify(&config, argv[optind]);
}
if (ret)
exit(ret);
}
exit(0);
}
for (i = optind; i < argc; i++) {
if (use_tree) {
json_val_t *root_structure;
ret = do_tree(&config, argv[i], &root_structure);
if (ret)
exit(ret);
if (!verify)
print_tree(root_structure, output);
} else {
if (format)
ret = do_format(&config, argv[i], output);
else if (verify)
ret = do_verify(&config, argv[i]);
else
ret = do_parse(&config, argv[i]);
}
if (ret)
exit(ret);
}
return ret;
}
void bin_load(uint4 begin, uint4 end)
{
unsigned char *ptr, *cp1, *cp2, *btop, *gvkey_char_ptr, *tmp_ptr, *tmp_key_ptr, *c, *ctop, *ptr_base;
unsigned char hdr_lvl, src_buff[MAX_KEY_SZ + 1], dest_buff[MAX_ZWR_KEY_SZ],
cmpc_str[MAX_KEY_SZ + 1], dup_key_str[MAX_KEY_SZ + 1], sn_key_str[MAX_KEY_SZ + 1], *sn_key_str_end;
unsigned char *end_buff;
unsigned short rec_len, next_cmpc, numsubs;
int len;
int current, last, length, max_blk_siz, max_key, status;
int tmp_cmpc, sn_chunk_number, expected_sn_chunk_number = 0, sn_hold_buff_pos, sn_hold_buff_size;
uint4 iter, max_data_len, max_subsc_len, key_count, gblsize;
ssize_t rec_count, global_key_count, subsc_len,extr_std_null_coll, last_sn_error_offset=0,
file_offset_base=0, file_offset=0;
boolean_t need_xlation, new_gvn, utf8_extract;
boolean_t is_hidden_subscript, ok_to_put = TRUE, putting_a_sn = FALSE, sn_incmp_gbl_already_killed = FALSE;
rec_hdr *rp, *next_rp;
mval v, tmp_mval;
mstr mstr_src, mstr_dest;
collseq *extr_collseq, *db_collseq, *save_gv_target_collseq;
coll_hdr extr_collhdr, db_collhdr;
gv_key *tmp_gvkey = NULL; /* null-initialize at start, will be malloced later */
gv_key *sn_gvkey = NULL; /* null-initialize at start, will be malloced later */
gv_key *sn_savekey = NULL; /* null-initialize at start, will be malloced later */
char std_null_coll[BIN_HEADER_NUMSZ + 1], *sn_hold_buff = NULL, *sn_hold_buff_temp = NULL;
# ifdef GTM_CRYPT
gtmcrypt_key_t *encr_key_handles;
char *inbuf;
int4 index;
int req_dec_blk_size, init_status, crypt_status;
muext_hash_hdr_ptr_t hash_array = NULL;
# endif
DCL_THREADGBL_ACCESS;
SETUP_THREADGBL_ACCESS;
assert(4 == SIZEOF(coll_hdr));
gvinit();
v.mvtype = MV_STR;
len = file_input_bin_get((char **)&ptr, &file_offset_base, (char **)&ptr_base);
hdr_lvl = EXTR_HEADER_LEVEL(ptr);
if (!(((('4' == hdr_lvl) || ('5' == hdr_lvl)) && (V5_BIN_HEADER_SZ == len)) ||
(('6' == hdr_lvl) && (BIN_HEADER_SZ == len)) ||
(('7' == hdr_lvl) && (BIN_HEADER_SZ == len)) ||
(('4' > hdr_lvl) && (V3_BIN_HEADER_SZ == len))))
{
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* expecting the level in a single character */
assert(' ' == *(ptr + SIZEOF(BIN_HEADER_LABEL) - 3));
if (0 != memcmp(ptr, BIN_HEADER_LABEL, SIZEOF(BIN_HEADER_LABEL) - 2) || ('2' > hdr_lvl) ||
*(BIN_HEADER_VERSION_ENCR) < hdr_lvl)
{ /* ignore the level check */
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* check if extract was generated in UTF-8 mode */
utf8_extract = (0 == MEMCMP_LIT(&ptr[len - BIN_HEADER_LABELSZ], UTF8_NAME)) ? TRUE : FALSE;
if ((utf8_extract && !gtm_utf8_mode) || (!utf8_extract && gtm_utf8_mode))
{ /* extract CHSET doesn't match $ZCHSET */
if (utf8_extract)
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("UTF-8"));
else
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("M"));
mupip_exit(ERR_LDBINFMT);
}
if ('4' >= hdr_lvl)
{ /* Binary extracts in V50000-to-V52000 (label=4) and pre-V50000 (label=3) could have a '\0' byte (NULL byte)
* in the middle of the string. Replace it with ' ' (space) like it would be in V52000 binary extracts and above.
*/
for (c = ptr, ctop = c + len; c < ctop; c++)
{
if ('\0' == *c)
*c = ' ';
}
}
util_out_print("Label = !AD\n", TRUE, len, ptr);
new_gvn = FALSE;
if (hdr_lvl > '3')
{
if (hdr_lvl > '5')
{
memcpy(std_null_coll, ptr + BIN_HEADER_NULLCOLLOFFSET, BIN_HEADER_NUMSZ);
std_null_coll[BIN_HEADER_NUMSZ] = '\0';
}
else
{
memcpy(std_null_coll, ptr + V5_BIN_HEADER_NULLCOLLOFFSET, V5_BIN_HEADER_NUMSZ);
std_null_coll[V5_BIN_HEADER_NUMSZ] = '\0';
}
extr_std_null_coll = STRTOUL(std_null_coll, NULL, 10);
if (0 != extr_std_null_coll && 1!= extr_std_null_coll)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupted null collation field in header"),
ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
} else
extr_std_null_coll = 0;
# ifdef GTM_CRYPT
if ('7' <= hdr_lvl)
{
int i, num_indexes;
len = file_input_bin_get((char **)&ptr, &file_offset_base, (char **)&ptr_base);
hash_array = (muext_hash_hdr *)malloc(len);
/* store hashes of all the files used during extract into muext_hash_hdr structure */
memcpy((char *)hash_array, ptr, len);
num_indexes = len / GTMCRYPT_HASH_LEN;
encr_key_handles = (gtmcrypt_key_t *)malloc(SIZEOF(gtmcrypt_key_t) * num_indexes);
INIT_PROC_ENCRYPTION(crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
for (index = 0; index < num_indexes; index++)
{
if (0 == memcmp(hash_array[index].gtmcrypt_hash, EMPTY_GTMCRYPT_HASH, GTMCRYPT_HASH_LEN))
continue;
GTMCRYPT_GETKEY(hash_array[index].gtmcrypt_hash, encr_key_handles[index], crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
}
}
# endif
if ('2' < hdr_lvl)
{
len = file_input_bin_get((char **)&ptr, &file_offset_base, (char **)&ptr_base);
if (SIZEOF(coll_hdr) != len)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupt collation header"), ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
extr_collhdr = *((coll_hdr *)(ptr));
new_gvn = TRUE;
} else
gtm_putmsg(VARLSTCNT(3) ERR_OLDBINEXTRACT, 1, hdr_lvl - '0');
if (begin < 2)
begin = 2;
for (iter = 2; iter < begin; iter++)
{
if (!(len = file_input_bin_get((char **)&ptr, &file_offset_base, (char **)&ptr_base)))
{
gtm_putmsg(VARLSTCNT(3) ERR_LOADEOF, 1, begin);
util_out_print("Error reading record number: !UL\n", TRUE, iter);
mupip_error_occurred = TRUE;
return;
} else if (len == SIZEOF(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
iter--;
}
}
assert(iter == begin);
util_out_print("Beginning LOAD at record number: !UL\n", TRUE, begin);
max_data_len = 0;
max_subsc_len = 0;
global_key_count = key_count = 0;
rec_count = begin - 1;
extr_collseq = db_collseq = NULL;
need_xlation = FALSE;
assert(NULL == tmp_gvkey); /* GVKEY_INIT macro relies on this */
GVKEY_INIT(tmp_gvkey, DBKEYSIZE(MAX_KEY_SZ)); /* tmp_gvkey will point to malloced memory after this */
assert(NULL == sn_gvkey); /* GVKEY_INIT macro relies on this */
GVKEY_INIT(sn_gvkey, DBKEYSIZE(MAX_KEY_SZ)); /* sn_gvkey will point to malloced memory after this */
assert(NULL == sn_savekey); /* GVKEY_INIT macro relies on this */
GVKEY_INIT(sn_savekey, DBKEYSIZE(MAX_KEY_SZ)); /* sn_gvkey will point to malloced memory after this */
for (; !mupip_DB_full ;)
{
if (++rec_count > end)
break;
next_cmpc = 0;
mupip_error_occurred = FALSE;
if (mu_ctrly_occurred)
break;
if (mu_ctrlc_occurred)
{
util_out_print("!AD:!_ Key cnt: !UL max subsc len: !UL max data len: !UL", TRUE,
LEN_AND_LIT(gt_lit), key_count, max_subsc_len, max_data_len);
util_out_print("Last LOAD record number: !UL", TRUE, key_count ? (rec_count - 1) : 0);
mu_gvis();
util_out_print(0, TRUE);
mu_ctrlc_occurred = FALSE;
}
if (!(len = file_input_bin_get((char **)&ptr, &file_offset_base, (char **)&ptr_base)) || mupip_error_occurred)
break;
else if (len == SIZEOF(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
new_gvn = TRUE; /* next record will contain a new gvn */
rec_count--; /* Decrement as this record does not count as a record for loading purposes */
continue;
}
rp = (rec_hdr*)(ptr);
# ifdef GTM_CRYPT
if ('7' <= hdr_lvl)
{ /* Getting index value from the extracted file. It indicates which database file this record belongs to */
GET_LONG(index, ptr);
if (-1 != index) /* Indicates that the record is encrypted. */
{
req_dec_blk_size = len - SIZEOF(int4);
inbuf = (char *)(ptr + SIZEOF(int4));
GTMCRYPT_DECODE_FAST(encr_key_handles[index], inbuf, req_dec_blk_size, NULL, crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
}
rp = (rec_hdr*)(ptr + SIZEOF(int4));
}
# endif
btop = ptr + len;
cp1 = (unsigned char*)(rp + 1);
v.str.addr = (char*)cp1;
while (*cp1++)
;
v.str.len =INTCAST((char*)cp1 - v.str.addr - 1);
if (('2' >= hdr_lvl) || new_gvn)
{
if ((HASHT_GBLNAME_LEN == v.str.len) && (0 == memcmp(v.str.addr, HASHT_GBLNAME, HASHT_GBLNAME_LEN)))
continue;
bin_call_db(BIN_BIND, (INTPTR_T)gd_header, (INTPTR_T)&v.str);
max_key = gv_cur_region->max_key_size;
db_collhdr.act = gv_target->act;
db_collhdr.ver = gv_target->ver;
db_collhdr.nct = gv_target->nct;
}
GET_USHORT(rec_len, &rp->rsiz);
if (EVAL_CMPC(rp) != 0 || v.str.len > rec_len || mupip_error_occurred)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
DISPLAY_FILE_OFFSET_OF_RECORD_AND_REST_OF_BLOCK;
continue;
}
if (new_gvn)
{
global_key_count = 1;
if ((db_collhdr.act != extr_collhdr.act || db_collhdr.ver != extr_collhdr.ver
|| db_collhdr.nct != extr_collhdr.nct
|| gv_cur_region->std_null_coll != extr_std_null_coll))
{
if (extr_collhdr.act)
{
if (extr_collseq = ready_collseq((int)extr_collhdr.act))
{
if (!do_verify(extr_collseq, extr_collhdr.act, extr_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, extr_collhdr.act,
extr_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, extr_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
if (db_collhdr.act)
{
if (db_collseq = ready_collseq((int)db_collhdr.act))
{
if (!do_verify(db_collseq, db_collhdr.act, db_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, db_collhdr.act,
db_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, db_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
need_xlation = TRUE;
} else
need_xlation = FALSE;
}
new_gvn = FALSE;
for (; rp < (rec_hdr*)btop; rp = (rec_hdr*)((unsigned char *)rp + rec_len))
{
GET_USHORT(rec_len, &rp->rsiz);
if (rec_len + (unsigned char *)rp > btop)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
DISPLAY_FILE_OFFSET_OF_RECORD_AND_REST_OF_BLOCK;
break;
}
cp1 = (unsigned char*)(rp + 1);
cp2 = gv_currkey->base + EVAL_CMPC(rp);
current = 1;
for (;;)
{
last = current;
current = *cp2++ = *cp1++;
if (0 == last && 0 == current)
break;
if (cp1 > (unsigned char *)rp + rec_len ||
cp2 > (unsigned char *)gv_currkey + gv_currkey->top)
{
gv_currkey->end = cp2 - gv_currkey->base - 1;
gv_currkey->base[gv_currkey->end] = 0;
gv_currkey->base[gv_currkey->end - 1] = 0;
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
DISPLAY_FILE_OFFSET_OF_RECORD_AND_REST_OF_BLOCK;
break;
}
}
if (mupip_error_occurred)
break;
gv_currkey->end = cp2 - gv_currkey->base - 1;
if (need_xlation)
{
assert(hdr_lvl >= '3');
assert(extr_collhdr.act || db_collhdr.act || extr_collhdr.nct || db_collhdr.nct ||
extr_std_null_coll != gv_cur_region->std_null_coll);
/* gv_currkey would have been modified/translated in the earlier put */
memcpy(gv_currkey->base, cmpc_str, next_cmpc);
next_rp = (rec_hdr *)((unsigned char*)rp + rec_len);
if ((unsigned char*)next_rp < btop)
{
next_cmpc = EVAL_CMPC(next_rp);
assert(next_cmpc <= gv_currkey->end);
memcpy(cmpc_str, gv_currkey->base, next_cmpc);
} else
next_cmpc = 0;
/* length of the key might change (due to nct variation),
* so get a copy of the original key from the extract */
memcpy(dup_key_str, gv_currkey->base, gv_currkey->end + 1);
gvkey_char_ptr = dup_key_str;
while (*gvkey_char_ptr++)
;
gv_currkey->prev = 0;
gv_currkey->end = gvkey_char_ptr - dup_key_str;
assert(gv_keysize <= tmp_gvkey->top);
while (*gvkey_char_ptr)
{
/* get next subscript (in GT.M internal subsc format) */
subsc_len = 0;
tmp_ptr = src_buff;
while (*gvkey_char_ptr)
*tmp_ptr++ = *gvkey_char_ptr++;
subsc_len = tmp_ptr - src_buff;
src_buff[subsc_len] = '\0';
if (extr_collseq)
{
/* undo the extract time collation */
TREF(transform) = TRUE;
save_gv_target_collseq = gv_target->collseq;
gv_target->collseq = extr_collseq;
} else
TREF(transform) = FALSE;
/* convert the subscript to string format */
end_buff = gvsub2str(src_buff, dest_buff, FALSE);
/* transform the string to the current subsc format */
TREF(transform) = TRUE;
tmp_mval.mvtype = MV_STR;
tmp_mval.str.addr = (char *)dest_buff;
tmp_mval.str.len = INTCAST(end_buff - dest_buff);
tmp_gvkey->prev = 0;
tmp_gvkey->end = 0;
if (extr_collseq)
gv_target->collseq = save_gv_target_collseq;
mval2subsc(&tmp_mval, tmp_gvkey);
/* we now have the correctly transformed subscript */
tmp_key_ptr = gv_currkey->base + gv_currkey->end;
memcpy(tmp_key_ptr, tmp_gvkey->base, tmp_gvkey->end + 1);
gv_currkey->prev = gv_currkey->end;
gv_currkey->end += tmp_gvkey->end;
gvkey_char_ptr++;
}
if ( gv_cur_region->std_null_coll != extr_std_null_coll && gv_currkey->prev)
{
if (extr_std_null_coll == 0)
{
GTM2STDNULLCOLL(gv_currkey->base, gv_currkey->end);
} else
{
STD2GTMNULLCOLL(gv_currkey->base, gv_currkey->end);
}
}
}
if (gv_currkey->end >= max_key)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
DISPLAY_FILE_OFFSET_OF_RECORD_AND_REST_OF_BLOCK;
continue;
}
/*
* Spanning node-related variables and their usage:
*
* expected_sn_chunk_number: 0 - looking for spanning nodes (regular nodes are OK, too)
* !0 - number of the next chunk needed (implies we are building
* a spanning node's value)
*
* While building a spanning node's value:
* numsubs: the number of chunks needed to build the spanning node's value
* gblsize: the expected size of the completed value
* sn_chunk_number: The chunk number of the chunk from the current record from the extract
*
* Managing the value
* sn_hold_buff: buffer used to accumulate the spanning node's value
* sn_hold_buff_size: Allocated size of buffer
* sn_hold_buff_pos: amount of the buffer used; where to place the next chunk
* sn_hold_buff_temp: used when we have to increase the size of the buffer
*
* Controlling the placing of the key,value in the database:
* ok_to_put: means we are ready to place the key,value in the database, i.e., we have the full value
* (either of the spanning node or a regular node).
* putting_a_sn: we are placing a spanning node in the database, i.e, use the key from sn_gvkey and
* the value from sn_hold_buff.
*/
CHECK_HIDDEN_SUBSCRIPT(gv_currkey,is_hidden_subscript);
if (!is_hidden_subscript && (max_subsc_len < (gv_currkey->end + 1)))
max_subsc_len = gv_currkey->end + 1;
v.str.addr = (char*)cp1;
v.str.len =INTCAST(rec_len - (cp1 - (unsigned char *)rp));
if (expected_sn_chunk_number && !is_hidden_subscript)
{ /* we were expecting a chunk of an spanning node and we did not get one */
DISPLAY_INCMP_SN_MSG;
util_out_print("!_!_Expected chunk number : !UL but found a non-spanning node", TRUE,
expected_sn_chunk_number + 1);
if (sn_hold_buff_pos)
DISPLAY_PARTIAL_SN_HOLD_BUFF;
KILL_INCMP_SN_IF_NEEDED;
sn_hold_buff_pos = 0;
expected_sn_chunk_number = 0;
ok_to_put = TRUE;
putting_a_sn = FALSE;
numsubs = 0;
}
if (is_hidden_subscript)
{ /* it's a chunk and we were expecting one */
sn_chunk_number = SPAN_GVSUBS2INT((span_subs *) &(gv_currkey->base[gv_currkey->end - 4]));
if (!expected_sn_chunk_number && is_hidden_subscript && sn_chunk_number)
{ /* we not expecting a payload chunk (as opposed to a control record) but we got one */
DISPLAY_INCMP_SN_MSG;
util_out_print("!_!_Not expecting a spanning node chunk but found chunk : !UL", TRUE,
sn_chunk_number + 1);
if (v.str.len)
DISPLAY_VALUE("!_!_Errant Chunk :");
continue;
}
if (0 == sn_chunk_number)
{ /* first spanning node chunk, get ctrl info */
if (0 != expected_sn_chunk_number)
{
DISPLAY_INCMP_SN_MSG;
util_out_print("!_!_Expected chunk number : !UL but found chunk number : !UL", TRUE,
expected_sn_chunk_number + 1, sn_chunk_number + 1);
if (sn_hold_buff_pos)
DISPLAY_PARTIAL_SN_HOLD_BUFF;
KILL_INCMP_SN_IF_NEEDED;
}
/* start building a new spanning node */
sn_gvkey->end = gv_currkey->end - (SPAN_SUBS_LEN + 1);
memcpy(sn_gvkey->base, gv_currkey->base, sn_gvkey->end);
sn_gvkey->base[sn_gvkey->end] = 0;
sn_gvkey->prev = gv_currkey->prev;
sn_gvkey->top = gv_currkey->top;
GET_NSBCTRL(v.str.addr, numsubs, gblsize);
/* look for first payload chunk */
expected_sn_chunk_number = 1;
sn_hold_buff_pos = 0;
ok_to_put = FALSE;
sn_incmp_gbl_already_killed = FALSE;
} else
{ /* we only need to compare the key before the hidden subscripts */
if ((expected_sn_chunk_number == sn_chunk_number)
&& (sn_gvkey->end == gv_currkey->end - (SPAN_SUBS_LEN + 1))
&& !memcmp(sn_gvkey->base,gv_currkey->base, sn_gvkey->end)
&& ((sn_hold_buff_pos + v.str.len) <= gblsize))
{
if (NULL == sn_hold_buff)
{
sn_hold_buff_size = DEFAULT_SN_HOLD_BUFF_SIZE;
sn_hold_buff = (char *)malloc(DEFAULT_SN_HOLD_BUFF_SIZE);
}
if ((sn_hold_buff_pos + v.str.len) > sn_hold_buff_size)
{
sn_hold_buff_size = sn_hold_buff_size * 2;
sn_hold_buff_temp = (char *)malloc(sn_hold_buff_size);
memcpy(sn_hold_buff_temp, sn_hold_buff, sn_hold_buff_pos);
free (sn_hold_buff);
sn_hold_buff = sn_hold_buff_temp;
}
memcpy(sn_hold_buff + sn_hold_buff_pos, v.str.addr, v.str.len);
sn_hold_buff_pos += v.str.len;
if (expected_sn_chunk_number == numsubs)
{
if (sn_hold_buff_pos != gblsize)
{ /* we don't have the expected size even though */
/* we have all the expected chunks. */
DISPLAY_INCMP_SN_MSG;
util_out_print("!_!_Expected size : !UL actual size : !UL", TRUE,
gblsize, sn_hold_buff_pos);
if (sn_hold_buff_pos)
DISPLAY_PARTIAL_SN_HOLD_BUFF;
KILL_INCMP_SN_IF_NEEDED;
expected_sn_chunk_number = 0;
ok_to_put = FALSE;
sn_hold_buff_pos = 0;
}
else
{
expected_sn_chunk_number = 0;
ok_to_put = TRUE;
putting_a_sn = TRUE;
}
}else
expected_sn_chunk_number++;
}else
{
DISPLAY_INCMP_SN_MSG;
if ((sn_hold_buff_pos + v.str.len) <= gblsize)
util_out_print("!_!_Expected chunk number : !UL but found chunk number : !UL", /*BYPASSOK*/
TRUE, expected_sn_chunk_number + 1, sn_chunk_number + 1);
else
util_out_print("!_!_Global value too large: expected size : !UL actual size : !UL chunk number : !UL", TRUE, /*BYPASSOK*/
gblsize, sn_hold_buff_pos + v.str.len, sn_chunk_number + 1);
if (sn_hold_buff_pos)
DISPLAY_PARTIAL_SN_HOLD_BUFF;
if (v.str.len)
DISPLAY_VALUE("!_!_Errant Chunk :");
KILL_INCMP_SN_IF_NEEDED;
sn_hold_buff_pos = 0;
expected_sn_chunk_number = 0;
}
}
} else
ok_to_put = TRUE;
if (ok_to_put)
{
if (putting_a_sn)
{
gv_currkey->base[gv_currkey->end - (SPAN_SUBS_LEN + 1)] = 0;
gv_currkey->end -= (SPAN_SUBS_LEN + 1);
v.str.addr = sn_hold_buff;
v.str.len = sn_hold_buff_pos;
}
if (max_data_len < v.str.len)
max_data_len = v.str.len;
bin_call_db(BIN_PUT, (INTPTR_T)&v, 0);
if (mupip_error_occurred)
{
if (!mupip_DB_full)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
file_offset = file_offset_base + ((unsigned char *)rp - ptr_base);
util_out_print("!_!_at File offset : [0x!XL]", TRUE, file_offset);
DISPLAY_CURRKEY;
DISPLAY_VALUE("!_!_Value :");
}
break;
}
if (putting_a_sn)
putting_a_sn = FALSE;
else
{
key_count++;
global_key_count++;
}
}
}
}
GTMCRYPT_ONLY(
if (NULL != hash_array)
free(hash_array);
)
void bin_load(uint4 begin, uint4 end)
{
unsigned char *ptr, *cp1, *cp2, *btop, *gvkey_char_ptr, *tmp_ptr, *tmp_key_ptr;
unsigned char hdr_lvl, src_buff[MAX_KEY_SZ + 1], dest_buff[MAX_ZWR_KEY_SZ],
cmpc_str[MAX_KEY_SZ + 1], dup_key_str[MAX_KEY_SZ + 1];
unsigned char *end_buff;
unsigned short len, rec_len, next_cmpc;
int current, last, length, max_blk_siz, max_key, status;
uint4 iter, max_data_len, max_subsc_len, key_count;
ssize_t rec_count, global_key_count, subsc_len,extr_std_null_coll;
boolean_t need_xlation, new_gvn, utf8_extract;
rec_hdr *rp, *next_rp;
mval v, tmp_mval;
mstr mstr_src, mstr_dest;
collseq *extr_collseq, *db_collseq, *save_gv_target_collseq;
coll_hdr extr_collhdr, db_collhdr;
gv_key *tmp_gvkey;
char std_null_coll[BIN_HEADER_NUMSZ + 1];
error_def(ERR_GVIS);
error_def(ERR_TEXT);
error_def(ERR_LDBINFMT);
error_def(ERR_LOADCTRLY);
error_def(ERR_LOADEOF);
error_def(ERR_MUNOFINISH);
error_def(ERR_COLLTYPVERSION);
error_def(ERR_COLLATIONUNDEF);
error_def(ERR_OLDBINEXTRACT);
error_def(ERR_LOADINVCHSET);
tmp_gvkey = (gv_key *)malloc(sizeof(gv_key) + MAX_KEY_SZ - 1);
assert(4 == sizeof(coll_hdr));
gvinit();
v.mvtype = MV_STR;
len = mu_bin_get((char **)&ptr);
hdr_lvl = EXTR_HEADER_LEVEL(ptr);
if (!((hdr_lvl == '4' && len == BIN_HEADER_SZ) || (hdr_lvl < '4' && len == V3_BIN_HEADER_SZ)))
{
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* assert the assumption that the level can be represented in a single character */
assert(' ' == *(ptr + sizeof(BIN_HEADER_LABEL) - 3));
if (0 != memcmp(ptr, BIN_HEADER_LABEL, sizeof(BIN_HEADER_LABEL) - 2) || hdr_lvl < '2' || *(BIN_HEADER_VERSION) < hdr_lvl)
{ /* ignore the level check */
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* check if extract was generated in UTF-8 mode */
utf8_extract = (0 == MEMCMP_LIT(&ptr[len - BIN_HEADER_LABELSZ], UTF8_NAME)) ? TRUE : FALSE;
if ((utf8_extract && !gtm_utf8_mode) || (!utf8_extract && gtm_utf8_mode))
{ /* extract CHSET doesn't match $ZCHSET */
if (utf8_extract)
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("UTF-8"));
else
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("M"));
mupip_exit(ERR_LDBINFMT);
}
util_out_print("Label = !AD\n", TRUE, len, ptr);
new_gvn = FALSE;
if (hdr_lvl > '3')
{
memcpy(std_null_coll, ptr + BIN_HEADER_NULLCOLLOFFSET, BIN_HEADER_NUMSZ);
std_null_coll[BIN_HEADER_NUMSZ] = '\0';
extr_std_null_coll = STRTOUL(std_null_coll, NULL, 10);
if (0 != extr_std_null_coll && 1!= extr_std_null_coll)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupted null collation field in header"),
ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
} else
extr_std_null_coll = 0;
if (hdr_lvl > '2')
{
len = mu_bin_get((char **)&ptr);
if (sizeof(coll_hdr) != len)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupt collation header"), ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
extr_collhdr = *((coll_hdr *)(ptr));
new_gvn = TRUE;
} else
gtm_putmsg(VARLSTCNT(3) ERR_OLDBINEXTRACT, 1, hdr_lvl - '0');
if (begin < 2)
begin = 2;
for (iter = 2; iter < begin; iter++)
{
if (!(len = mu_bin_get((char **)&ptr)))
{
gtm_putmsg(VARLSTCNT(3) ERR_LOADEOF, 1, begin);
util_out_print("Error reading record number: !UL\n", TRUE, iter);
mupip_error_occurred = TRUE;
return;
} else if (len == sizeof(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
iter--;
}
}
assert(iter == begin);
util_out_print("Beginning LOAD at record number: !UL\n", TRUE, begin);
max_data_len = 0;
max_subsc_len = 0;
key_count = 0;
rec_count = begin - 1;
extr_collseq = db_collseq = NULL;
need_xlation = FALSE;
for (; !mupip_DB_full ;)
{
if (++rec_count > end)
break;
next_cmpc = 0;
mupip_error_occurred = FALSE;
if (mu_ctrly_occurred)
break;
if (mu_ctrlc_occurred)
{
util_out_print("!AD:!_ Key cnt: !UL max subsc len: !UL max data len: !UL", TRUE,
LEN_AND_LIT(gt_lit), key_count, max_subsc_len, max_data_len);
util_out_print("Last LOAD record number: !UL", TRUE, key_count ? (rec_count - 1) : 0);
mu_gvis();
util_out_print(0, TRUE);
mu_ctrlc_occurred = FALSE;
}
/* reset the stringpool for every record in order to avoid garbage collection */
stringpool.free = stringpool.base;
if (!(len = mu_bin_get((char **)&ptr)) || mupip_error_occurred)
break;
else if (len == sizeof(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
new_gvn = TRUE; /* next record will contain a new gvn */
rec_count--; /* Decrement as this record does not count as a record for loading purposes */
continue;
}
global_key_count = 1;
rp = (rec_hdr*)ptr;
btop = ptr + len;
cp1 = (unsigned char*)(rp + 1);
v.str.addr = (char*)cp1;
while (*cp1++) ;
v.str.len =INTCAST((char*)cp1 - v.str.addr - 1);
if (hdr_lvl <= '2' || new_gvn)
{
bin_call_db(BIN_BIND, (INTPTR_T)gd_header, (INTPTR_T)&v.str);
max_key = gv_cur_region->max_key_size;
db_collhdr.act = gv_target->act;
db_collhdr.ver = gv_target->ver;
db_collhdr.nct = gv_target->nct;
}
GET_SHORT(rec_len, &rp->rsiz);
if (rp->cmpc != 0 || v.str.len > rec_len || mupip_error_occurred)
{
bin_call_db(ERR_COR, rec_count, global_key_count);
mu_gvis();
util_out_print(0, TRUE);
continue;
}
if (new_gvn)
{
if ((db_collhdr.act != extr_collhdr.act || db_collhdr.ver != extr_collhdr.ver
|| db_collhdr.nct != extr_collhdr.nct
|| gv_cur_region->std_null_coll != extr_std_null_coll))
{
if (extr_collhdr.act)
{
if (extr_collseq = ready_collseq((int)extr_collhdr.act))
{
if (!do_verify(extr_collseq, extr_collhdr.act, extr_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, extr_collhdr.act,
extr_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, extr_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
if (db_collhdr.act)
{
if (db_collseq = ready_collseq((int)db_collhdr.act))
{
if (!do_verify(db_collseq, db_collhdr.act, db_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, db_collhdr.act,
db_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, db_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
need_xlation = TRUE;
} else
need_xlation = FALSE;
}
new_gvn = FALSE;
for (; rp < (rec_hdr*)btop; rp = (rec_hdr*)((unsigned char *)rp + rec_len))
{
GET_SHORT(rec_len, &rp->rsiz);
if (rec_len + (unsigned char *)rp > btop)
{
bin_call_db(ERR_COR, rec_count, global_key_count);
mu_gvis();
util_out_print(0, TRUE);
break;
}
cp1 = (unsigned char*)(rp + 1);
cp2 = gv_currkey->base + rp->cmpc;
current = 1;
for (;;)
{
last = current;
current = *cp2++ = *cp1++;
if (0 == last && 0 == current)
break;
if (cp1 > (unsigned char *) rp + rec_len ||
cp2 > (unsigned char *) gv_currkey + gv_currkey->top)
{
bin_call_db(ERR_COR, rec_count, global_key_count);
mu_gvis();
util_out_print(0, TRUE);
break;
}
}
if (mupip_error_occurred)
break;
gv_currkey->end = cp2 - gv_currkey->base - 1;
if (need_xlation)
{
assert(hdr_lvl >= '3');
assert(extr_collhdr.act || db_collhdr.act || extr_collhdr.nct || db_collhdr.nct ||
extr_std_null_coll != gv_cur_region->std_null_coll);
/* gv_currkey would have been modified/translated in the earlier put */
memcpy(gv_currkey->base, cmpc_str, next_cmpc);
next_rp = (rec_hdr *)((unsigned char*)rp + rec_len);
if ((unsigned char*)next_rp < btop)
{
next_cmpc = next_rp->cmpc;
assert(next_cmpc <= gv_currkey->end);
memcpy(cmpc_str, gv_currkey->base, next_cmpc);
} else
next_cmpc = 0;
/* length of the key might change (due to nct variation),
* so get a copy of the original key from the extract */
memcpy(dup_key_str, gv_currkey->base, gv_currkey->end + 1);
gvkey_char_ptr = dup_key_str;
while (*gvkey_char_ptr++) ;
gv_currkey->prev = 0;
gv_currkey->end = gvkey_char_ptr - dup_key_str;
tmp_gvkey->top = gv_keysize;
while (*gvkey_char_ptr)
{
/* get next subscript (in GT.M internal subsc format) */
subsc_len = 0;
tmp_ptr = src_buff;
while (*gvkey_char_ptr)
*tmp_ptr++ = *gvkey_char_ptr++;
subsc_len = tmp_ptr - src_buff;
src_buff[subsc_len] = '\0';
if (extr_collseq)
{
/* undo the extract time collation */
transform = TRUE;
save_gv_target_collseq = gv_target->collseq;
gv_target->collseq = extr_collseq;
} else
transform = FALSE;
/* convert the subscript to string format */
end_buff = gvsub2str(src_buff, dest_buff, FALSE);
/* transform the string to the current subsc format */
transform = TRUE;
tmp_mval.mvtype = MV_STR;
tmp_mval.str.addr = (char *)dest_buff;
tmp_mval.str.len = INTCAST(end_buff - dest_buff);
tmp_gvkey->prev = 0;
tmp_gvkey->end = 0;
if (extr_collseq)
gv_target->collseq = save_gv_target_collseq;
mval2subsc(&tmp_mval, tmp_gvkey);
/* we now have the correctly transformed subscript */
tmp_key_ptr = gv_currkey->base + gv_currkey->end;
memcpy(tmp_key_ptr, tmp_gvkey->base, tmp_gvkey->end + 1);
gv_currkey->prev = gv_currkey->end;
gv_currkey->end += tmp_gvkey->end;
gvkey_char_ptr++;
}
if ( gv_cur_region->std_null_coll != extr_std_null_coll && gv_currkey->prev)
{
if (extr_std_null_coll == 0)
{
GTM2STDNULLCOLL(gv_currkey->base, gv_currkey->end);
} else
{
STD2GTMNULLCOLL(gv_currkey->base, gv_currkey->end);
}
}
}
if (gv_currkey->end >= max_key)
{
bin_call_db(ERR_COR, rec_count, global_key_count);
mu_gvis();
util_out_print(0, TRUE);
continue;
}
if (max_subsc_len < (gv_currkey->end + 1))
max_subsc_len = gv_currkey->end + 1;
v.str.addr = (char*)cp1;
v.str.len =INTCAST(rec_len - (cp1 - (unsigned char *)rp) );
if (max_data_len < v.str.len)
max_data_len = v.str.len;
bin_call_db(BIN_PUT, (INTPTR_T)&v, 0);
if (mupip_error_occurred)
{
if (!mupip_DB_full)
{
bin_call_db(ERR_COR, rec_count, global_key_count);
util_out_print(0, TRUE);
}
break;
}
key_count++;
global_key_count++;
}
}
free(tmp_gvkey);
mu_load_close();
util_out_print("LOAD TOTAL!_!_Key Cnt: !UL Max Subsc Len: !UL Max Data Len: !UL", TRUE, key_count, max_subsc_len,
max_data_len);
util_out_print("Last LOAD record number: !UL\n", TRUE, key_count ? (rec_count - 1) : 0);
if (mu_ctrly_occurred)
{
gtm_putmsg(VARLSTCNT(1) ERR_LOADCTRLY);
mupip_exit(ERR_MUNOFINISH);
}
}
/*
* This is the engine called by jobq.c:jobq_add() when we were pulled
* from the work queue.
* At this point, we are running in our own thread and all
* necessary resources are allocated -- see jobq.c
*/
static void *job_thread(void *arg)
{
JCR *jcr = (JCR *)arg;
pthread_detach(pthread_self());
Dsm_check(100);
Dmsg0(200, "=====Start Job=========\n");
jcr->setJobStatus(JS_Running); /* this will be set only if no error */
jcr->start_time = time(NULL); /* set the real start time */
jcr->jr.StartTime = jcr->start_time;
if (jcr->res.job->MaxStartDelay != 0 && jcr->res.job->MaxStartDelay <
(utime_t)(jcr->start_time - jcr->sched_time)) {
jcr->setJobStatus(JS_Canceled);
Jmsg(jcr, M_FATAL, 0, _("Job canceled because max start delay time exceeded.\n"));
}
if (job_check_maxrunschedtime(jcr)) {
jcr->setJobStatus(JS_Canceled);
Jmsg(jcr, M_FATAL, 0, _("Job canceled because max run sched time exceeded.\n"));
}
/* TODO : check if it is used somewhere */
if (jcr->res.job->RunScripts == NULL) {
Dmsg0(200, "Warning, job->RunScripts is empty\n");
jcr->res.job->RunScripts = New(alist(10, not_owned_by_alist));
}
if (!db_update_job_start_record(jcr, jcr->db, &jcr->jr)) {
Jmsg(jcr, M_FATAL, 0, "%s", db_strerror(jcr->db));
}
/* Run any script BeforeJob on dird */
run_scripts(jcr, jcr->res.job->RunScripts, "BeforeJob");
/*
* We re-update the job start record so that the start
* time is set after the run before job. This avoids
* that any files created by the run before job will
* be saved twice. They will be backed up in the current
* job, but not in the next one unless they are changed.
* Without this, they will be backed up in this job and
* in the next job run because in that case, their date
* is after the start of this run.
*/
jcr->start_time = time(NULL);
jcr->jr.StartTime = jcr->start_time;
if (!db_update_job_start_record(jcr, jcr->db, &jcr->jr)) {
Jmsg(jcr, M_FATAL, 0, "%s", db_strerror(jcr->db));
}
generate_plugin_event(jcr, bDirEventJobRun);
switch (jcr->getJobType()) {
case JT_BACKUP:
switch (jcr->getJobProtocol()) {
case PT_NDMP:
if (!job_canceled(jcr)) {
if (do_ndmp_backup(jcr)) {
do_autoprune(jcr);
} else {
ndmp_backup_cleanup(jcr, JS_ErrorTerminated);
}
} else {
ndmp_backup_cleanup(jcr, JS_Canceled);
}
break;
default:
if (!job_canceled(jcr)) {
if (jcr->is_JobLevel(L_VIRTUAL_FULL)) {
if (do_native_vbackup(jcr)) {
do_autoprune(jcr);
} else {
native_vbackup_cleanup(jcr, JS_ErrorTerminated);
}
} else {
if (do_native_backup(jcr)) {
do_autoprune(jcr);
} else {
native_backup_cleanup(jcr, JS_ErrorTerminated);
}
}
} else {
if (jcr->is_JobLevel(L_VIRTUAL_FULL)) {
native_vbackup_cleanup(jcr, JS_Canceled);
} else {
native_backup_cleanup(jcr, JS_Canceled);
}
}
break;
}
break;
case JT_VERIFY:
if (!job_canceled(jcr)) {
if (do_verify(jcr)) {
do_autoprune(jcr);
} else {
verify_cleanup(jcr, JS_ErrorTerminated);
}
} else {
verify_cleanup(jcr, JS_Canceled);
}
break;
case JT_RESTORE:
switch (jcr->getJobProtocol()) {
case PT_NDMP:
if (!job_canceled(jcr)) {
if (do_ndmp_restore(jcr)) {
do_autoprune(jcr);
} else {
ndmp_restore_cleanup(jcr, JS_ErrorTerminated);
}
} else {
ndmp_restore_cleanup(jcr, JS_Canceled);
}
break;
default:
if (!job_canceled(jcr)) {
if (do_native_restore(jcr)) {
do_autoprune(jcr);
} else {
native_restore_cleanup(jcr, JS_ErrorTerminated);
}
} else {
native_restore_cleanup(jcr, JS_Canceled);
}
break;
}
break;
case JT_ADMIN:
if (!job_canceled(jcr)) {
if (do_admin(jcr)) {
do_autoprune(jcr);
} else {
admin_cleanup(jcr, JS_ErrorTerminated);
}
} else {
admin_cleanup(jcr, JS_Canceled);
}
break;
case JT_COPY:
case JT_MIGRATE:
if (!job_canceled(jcr)) {
if (do_migration(jcr)) {
do_autoprune(jcr);
} else {
migration_cleanup(jcr, JS_ErrorTerminated);
}
} else {
migration_cleanup(jcr, JS_Canceled);
}
break;
default:
Pmsg1(0, _("Unimplemented job type: %d\n"), jcr->getJobType());
break;
}
run_scripts(jcr, jcr->res.job->RunScripts, "AfterJob");
/* Send off any queued messages */
if (jcr->msg_queue && jcr->msg_queue->size() > 0) {
dequeue_messages(jcr);
}
generate_plugin_event(jcr, bDirEventJobEnd);
Dmsg1(50, "======== End Job stat=%c ==========\n", jcr->JobStatus);
Dsm_check(100);
return NULL;
}
int main(int argc, char **argv)
{
sc_context_t *ctx = NULL;
sc_context_param_t ctx_param;
sc_card_t *card = NULL;
int r;
int argind = 0;
int exit_status = EXIT_SUCCESS;
/* decode options */
argind = decode_options(argc, argv);
/* connect to the card */
memset(&ctx_param, 0, sizeof(ctx_param));
ctx_param.ver = 0;
ctx_param.app_name = app_name;
r = sc_context_create(&ctx, &ctx_param);
if (r) {
util_fatal("failed to establish context: %s\n",
sc_strerror(r));
return EXIT_FAILURE;
}
if (verbose > 1) {
ctx->debug = verbose;
sc_ctx_log_to_file(ctx, "stderr");
}
r = util_connect_card(ctx, &card, opt_reader, opt_wait, verbose);
if (r) {
util_fatal("failed to connect to card: %s\n",
sc_strerror(r));
return EXIT_FAILURE;
}
/* check card type */
if ((card->type != SC_CARD_TYPE_OPENPGP_V1) &&
(card->type != SC_CARD_TYPE_OPENPGP_V2)) {
util_error("not an OpenPGP card");
exit_status = EXIT_FAILURE;
goto out;
}
/* fail on too many arguments */
if (argind > argc)
util_print_usage_and_die(app_name, options, option_help, NULL);
/* set default action */
if (!actions)
opt_userinfo = 1;
if (opt_userinfo)
exit_status |= do_userinfo(card);
if (opt_verify && opt_pin) {
exit_status |= do_verify(card, verifytype, pin);
}
if (opt_dump_do) {
exit_status |= do_dump_do(card, 0x0100 + do_dump_idx);
}
if (opt_genkey)
exit_status |= do_genkey(card, key_id, key_len);
if (exec_program) {
char *const largv[] = {exec_program, NULL};
sc_unlock(card);
sc_disconnect_card(card);
sc_release_context(ctx);
execv(exec_program, largv);
/* we should not get here */
perror("execv()");
exit(EXIT_FAILURE);
}
out:
sc_unlock(card);
sc_disconnect_card(card);
sc_release_context(ctx);
exit(exit_status);
}
static void test_servername(void *_)
{
str_check(do_verify("localhost", NULL, NULL), "FAIL");
str_check(do_verify("www.foo.com", "foo.com", "dns:foo.com", "dns:www.foo.com", NULL), "OK");
str_check(do_verify("foo.com", "foo.com", "dns:foo.com", "dns:www.foo.com", NULL), "OK");
str_check(do_verify("faa.com", "foo.com", "dns:foo.com", "dns:www.foo.com", NULL), "FAIL");
str_check(do_verify("www.foo.com", "*.foo.com", NULL), "OK");
str_check(do_verify("foo.com", "*.foo.com", NULL), "FAIL");
str_check(do_verify("foo.com", ".foo.com", NULL), "FAIL");
str_check(do_verify("foo.co.uk", "*.co.uk", NULL), "OK");
str_check(do_verify("www.foo.com", "w*.foo.com", NULL), "FAIL");
str_check(do_verify("www.foo.com", "www.*.com", NULL), "FAIL");
str_check(do_verify("www.foo.com", "*", NULL), "FAIL");
str_check(do_verify("www.foo.com", "*.*.*", NULL), "FAIL");
str_check(do_verify("foo.com", "*.com", NULL), "FAIL");
str_check(do_verify("foo.com", "*.org", NULL), "FAIL");
str_check(do_verify("localhost", "*", NULL), "FAIL");
str_check(do_verify("foo.com", "foox.com", "ip4:11.11.11.11", "ip6:fefe::efef", "dns:foo.com", NULL), "OK");
str_check(do_verify("11.11.11.11", "foo.com", "ip4:11.11.11.11", "ip6:fefe::efef", NULL), "OK");
str_check(do_verify("11.11.11.12", "foo.com", "ip4:11.11.11.11", "ip6:fefe::efef", NULL), "FAIL");
str_check(do_verify("fefe::efef", "foo.com", "ip4:11.11.11.11", "ip6:fefe::efef", NULL), "OK");
str_check(do_verify("fefe::efff", "foo.com", "ip4:11.11.11.11", "ip6:fefe::efef", NULL), "FAIL");
str_check(do_verify("127.0.0.1", "foo.com", "ip4:127.0.0.1", NULL), "OK");
str_check(do_verify("127.0.0.1", "*.0.0.1", NULL), "FAIL");
str_check(do_verify("127.0.0.1", "127.0.0.*", NULL), "FAIL");
str_check(do_verify("fefe::efef", "*.efef", NULL), "FAIL");
str_check(do_verify("fefe::efef", "fefe::efef", NULL), "OK");
str_check(do_verify("fefe::efef", "foo", "dns:fefe::efef", NULL), "FAIL");
str_check(do_verify("1.1.1.1", "1.1.1.1", NULL), "OK");
str_check(do_verify("1.1.1.1", NULL, "dns:1.1.1.1", NULL), "FAIL");
end:;
}
int main(int argc, char *argv[])
{
const struct flashchip *chip = NULL;
/* Probe for up to eight flash chips. */
struct flashctx flashes[8] = {{0}};
struct flashctx *fill_flash;
const char *name;
int namelen, opt, i, j;
int startchip = -1, chipcount = 0, option_index = 0, force = 0, ifd = 0, fmap = 0;
#if CONFIG_PRINT_WIKI == 1
int list_supported_wiki = 0;
#endif
int read_it = 0, write_it = 0, erase_it = 0, verify_it = 0;
int dont_verify_it = 0, dont_verify_all = 0, list_supported = 0, operation_specified = 0;
struct flashrom_layout *layout = NULL;
enum programmer prog = PROGRAMMER_INVALID;
enum {
OPTION_IFD = 0x0100,
OPTION_FMAP,
OPTION_FMAP_FILE,
OPTION_FLASH_CONTENTS,
};
int ret = 0;
static const char optstring[] = "r:Rw:v:nNVEfc:l:i:p:Lzho:";
static const struct option long_options[] = {
{"read", 1, NULL, 'r'},
{"write", 1, NULL, 'w'},
{"erase", 0, NULL, 'E'},
{"verify", 1, NULL, 'v'},
{"noverify", 0, NULL, 'n'},
{"noverify-all", 0, NULL, 'N'},
{"chip", 1, NULL, 'c'},
{"verbose", 0, NULL, 'V'},
{"force", 0, NULL, 'f'},
{"layout", 1, NULL, 'l'},
{"ifd", 0, NULL, OPTION_IFD},
{"fmap", 0, NULL, OPTION_FMAP},
{"fmap-file", 1, NULL, OPTION_FMAP_FILE},
{"image", 1, NULL, 'i'},
{"flash-contents", 1, NULL, OPTION_FLASH_CONTENTS},
{"list-supported", 0, NULL, 'L'},
{"list-supported-wiki", 0, NULL, 'z'},
{"programmer", 1, NULL, 'p'},
{"help", 0, NULL, 'h'},
{"version", 0, NULL, 'R'},
{"output", 1, NULL, 'o'},
{NULL, 0, NULL, 0},
};
char *filename = NULL;
char *referencefile = NULL;
char *layoutfile = NULL;
char *fmapfile = NULL;
#ifndef STANDALONE
char *logfile = NULL;
#endif /* !STANDALONE */
char *tempstr = NULL;
char *pparam = NULL;
flashrom_set_log_callback((flashrom_log_callback *)&flashrom_print_cb);
print_version();
print_banner();
if (selfcheck())
exit(1);
setbuf(stdout, NULL);
/* FIXME: Delay all operation_specified checks until after command
* line parsing to allow --help overriding everything else.
*/
while ((opt = getopt_long(argc, argv, optstring,
long_options, &option_index)) != EOF) {
switch (opt) {
case 'r':
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
filename = strdup(optarg);
read_it = 1;
break;
case 'w':
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
filename = strdup(optarg);
write_it = 1;
break;
case 'v':
//FIXME: gracefully handle superfluous -v
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
if (dont_verify_it) {
fprintf(stderr, "--verify and --noverify are mutually exclusive. Aborting.\n");
cli_classic_abort_usage();
}
filename = strdup(optarg);
verify_it = 1;
break;
case 'n':
if (verify_it) {
fprintf(stderr, "--verify and --noverify are mutually exclusive. Aborting.\n");
cli_classic_abort_usage();
}
dont_verify_it = 1;
break;
case 'N':
dont_verify_all = 1;
break;
case 'c':
chip_to_probe = strdup(optarg);
break;
case 'V':
verbose_screen++;
if (verbose_screen > FLASHROM_MSG_DEBUG2)
verbose_logfile = verbose_screen;
break;
case 'E':
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
erase_it = 1;
break;
case 'f':
force = 1;
break;
case 'l':
if (layoutfile) {
fprintf(stderr, "Error: --layout specified "
"more than once. Aborting.\n");
cli_classic_abort_usage();
}
if (ifd) {
fprintf(stderr, "Error: --layout and --ifd both specified. Aborting.\n");
cli_classic_abort_usage();
}
if (fmap) {
fprintf(stderr, "Error: --layout and --fmap-file both specified. Aborting.\n");
cli_classic_abort_usage();
}
layoutfile = strdup(optarg);
break;
case OPTION_IFD:
if (layoutfile) {
fprintf(stderr, "Error: --layout and --ifd both specified. Aborting.\n");
cli_classic_abort_usage();
}
if (fmap) {
fprintf(stderr, "Error: --fmap-file and --ifd both specified. Aborting.\n");
cli_classic_abort_usage();
}
ifd = 1;
break;
case OPTION_FMAP_FILE:
if (fmap) {
fprintf(stderr, "Error: --fmap or --fmap-file specified "
"more than once. Aborting.\n");
cli_classic_abort_usage();
}
if (ifd) {
fprintf(stderr, "Error: --fmap-file and --ifd both specified. Aborting.\n");
cli_classic_abort_usage();
}
if (layoutfile) {
fprintf(stderr, "Error: --fmap-file and --layout both specified. Aborting.\n");
cli_classic_abort_usage();
}
fmapfile = strdup(optarg);
fmap = 1;
break;
case OPTION_FMAP:
if (fmap) {
fprintf(stderr, "Error: --fmap or --fmap-file specified "
"more than once. Aborting.\n");
cli_classic_abort_usage();
}
if (ifd) {
fprintf(stderr, "Error: --fmap and --ifd both specified. Aborting.\n");
cli_classic_abort_usage();
}
if (layoutfile) {
fprintf(stderr, "Error: --layout and --fmap both specified. Aborting.\n");
cli_classic_abort_usage();
}
fmap = 1;
break;
case 'i':
tempstr = strdup(optarg);
if (register_include_arg(tempstr)) {
free(tempstr);
cli_classic_abort_usage();
}
break;
case OPTION_FLASH_CONTENTS:
referencefile = strdup(optarg);
break;
case 'L':
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
list_supported = 1;
break;
case 'z':
#if CONFIG_PRINT_WIKI == 1
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
list_supported_wiki = 1;
#else
fprintf(stderr, "Error: Wiki output was not compiled "
"in. Aborting.\n");
cli_classic_abort_usage();
#endif
break;
case 'p':
if (prog != PROGRAMMER_INVALID) {
fprintf(stderr, "Error: --programmer specified "
"more than once. You can separate "
"multiple\nparameters for a programmer "
"with \",\". Please see the man page "
"for details.\n");
cli_classic_abort_usage();
}
for (prog = 0; prog < PROGRAMMER_INVALID; prog++) {
name = programmer_table[prog].name;
namelen = strlen(name);
if (strncmp(optarg, name, namelen) == 0) {
switch (optarg[namelen]) {
case ':':
pparam = strdup(optarg + namelen + 1);
if (!strlen(pparam)) {
free(pparam);
pparam = NULL;
}
break;
case '\0':
break;
default:
/* The continue refers to the
* for loop. It is here to be
* able to differentiate between
* foo and foobar.
*/
continue;
}
break;
}
}
if (prog == PROGRAMMER_INVALID) {
fprintf(stderr, "Error: Unknown programmer \"%s\". Valid choices are:\n",
optarg);
list_programmers_linebreak(0, 80, 0);
msg_ginfo(".\n");
cli_classic_abort_usage();
}
break;
case 'R':
/* print_version() is always called during startup. */
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
exit(0);
break;
case 'h':
if (++operation_specified > 1) {
fprintf(stderr, "More than one operation "
"specified. Aborting.\n");
cli_classic_abort_usage();
}
cli_classic_usage(argv[0]);
exit(0);
break;
case 'o':
#ifdef STANDALONE
fprintf(stderr, "Log file not supported in standalone mode. Aborting.\n");
cli_classic_abort_usage();
#else /* STANDALONE */
logfile = strdup(optarg);
if (logfile[0] == '\0') {
fprintf(stderr, "No log filename specified.\n");
cli_classic_abort_usage();
}
#endif /* STANDALONE */
break;
default:
cli_classic_abort_usage();
break;
}
}
if (optind < argc) {
fprintf(stderr, "Error: Extra parameter found.\n");
cli_classic_abort_usage();
}
if ((read_it | write_it | verify_it) && check_filename(filename, "image")) {
cli_classic_abort_usage();
}
if (layoutfile && check_filename(layoutfile, "layout")) {
cli_classic_abort_usage();
}
if (fmapfile && check_filename(fmapfile, "fmap")) {
cli_classic_abort_usage();
}
if (referencefile && check_filename(referencefile, "reference")) {
cli_classic_abort_usage();
}
#ifndef STANDALONE
if (logfile && check_filename(logfile, "log"))
cli_classic_abort_usage();
if (logfile && open_logfile(logfile))
cli_classic_abort_usage();
#endif /* !STANDALONE */
#if CONFIG_PRINT_WIKI == 1
if (list_supported_wiki) {
print_supported_wiki();
goto out;
}
#endif
if (list_supported) {
if (print_supported())
ret = 1;
goto out;
}
#ifndef STANDALONE
start_logging();
#endif /* !STANDALONE */
print_buildinfo();
msg_gdbg("Command line (%i args):", argc - 1);
for (i = 0; i < argc; i++) {
msg_gdbg(" %s", argv[i]);
}
msg_gdbg("\n");
if (layoutfile && read_romlayout(layoutfile)) {
ret = 1;
goto out;
}
if (!ifd && !fmap && process_include_args(get_global_layout())) {
ret = 1;
goto out;
}
/* Does a chip with the requested name exist in the flashchips array? */
if (chip_to_probe) {
for (chip = flashchips; chip && chip->name; chip++)
if (!strcmp(chip->name, chip_to_probe))
break;
if (!chip || !chip->name) {
msg_cerr("Error: Unknown chip '%s' specified.\n", chip_to_probe);
msg_gerr("Run flashrom -L to view the hardware supported in this flashrom version.\n");
ret = 1;
goto out;
}
/* Keep chip around for later usage in case a forced read is requested. */
}
if (prog == PROGRAMMER_INVALID) {
if (CONFIG_DEFAULT_PROGRAMMER != PROGRAMMER_INVALID) {
prog = CONFIG_DEFAULT_PROGRAMMER;
/* We need to strdup here because we free(pparam) unconditionally later. */
pparam = strdup(CONFIG_DEFAULT_PROGRAMMER_ARGS);
msg_pinfo("Using default programmer \"%s\" with arguments \"%s\".\n",
programmer_table[CONFIG_DEFAULT_PROGRAMMER].name, pparam);
} else {
msg_perr("Please select a programmer with the --programmer parameter.\n"
"Previously this was not necessary because there was a default set.\n"
#if CONFIG_INTERNAL == 1
"To choose the mainboard of this computer use 'internal'. "
#endif
"Valid choices are:\n");
list_programmers_linebreak(0, 80, 0);
msg_ginfo(".\n");
ret = 1;
goto out;
}
}
/* FIXME: Delay calibration should happen in programmer code. */
myusec_calibrate_delay();
if (programmer_init(prog, pparam)) {
msg_perr("Error: Programmer initialization failed.\n");
ret = 1;
goto out_shutdown;
}
tempstr = flashbuses_to_text(get_buses_supported());
msg_pdbg("The following protocols are supported: %s.\n", tempstr);
free(tempstr);
for (j = 0; j < registered_master_count; j++) {
startchip = 0;
while (chipcount < ARRAY_SIZE(flashes)) {
startchip = probe_flash(®istered_masters[j], startchip, &flashes[chipcount], 0);
if (startchip == -1)
break;
chipcount++;
startchip++;
}
}
if (chipcount > 1) {
msg_cinfo("Multiple flash chip definitions match the detected chip(s): \"%s\"",
flashes[0].chip->name);
for (i = 1; i < chipcount; i++)
msg_cinfo(", \"%s\"", flashes[i].chip->name);
msg_cinfo("\nPlease specify which chip definition to use with the -c <chipname> option.\n");
ret = 1;
goto out_shutdown;
} else if (!chipcount) {
msg_cinfo("No EEPROM/flash device found.\n");
if (!force || !chip_to_probe) {
msg_cinfo("Note: flashrom can never write if the flash chip isn't found "
"automatically.\n");
}
if (force && read_it && chip_to_probe) {
struct registered_master *mst;
int compatible_masters = 0;
msg_cinfo("Force read (-f -r -c) requested, pretending the chip is there:\n");
/* This loop just counts compatible controllers. */
for (j = 0; j < registered_master_count; j++) {
mst = ®istered_masters[j];
/* chip is still set from the chip_to_probe earlier in this function. */
if (mst->buses_supported & chip->bustype)
compatible_masters++;
}
if (!compatible_masters) {
msg_cinfo("No compatible controller found for the requested flash chip.\n");
ret = 1;
goto out_shutdown;
}
if (compatible_masters > 1)
msg_cinfo("More than one compatible controller found for the requested flash "
"chip, using the first one.\n");
for (j = 0; j < registered_master_count; j++) {
mst = ®istered_masters[j];
startchip = probe_flash(mst, 0, &flashes[0], 1);
if (startchip != -1)
break;
}
if (startchip == -1) {
// FIXME: This should never happen! Ask for a bug report?
msg_cinfo("Probing for flash chip '%s' failed.\n", chip_to_probe);
ret = 1;
goto out_shutdown;
}
if (map_flash(&flashes[0]) != 0) {
free(flashes[0].chip);
ret = 1;
goto out_shutdown;
}
msg_cinfo("Please note that forced reads most likely contain garbage.\n");
ret = read_flash_to_file(&flashes[0], filename);
unmap_flash(&flashes[0]);
free(flashes[0].chip);
goto out_shutdown;
}
ret = 1;
goto out_shutdown;
} else if (!chip_to_probe) {
/* repeat for convenience when looking at foreign logs */
tempstr = flashbuses_to_text(flashes[0].chip->bustype);
msg_gdbg("Found %s flash chip \"%s\" (%d kB, %s).\n",
flashes[0].chip->vendor, flashes[0].chip->name, flashes[0].chip->total_size, tempstr);
free(tempstr);
}
fill_flash = &flashes[0];
print_chip_support_status(fill_flash->chip);
unsigned int limitexceeded = count_max_decode_exceedings(fill_flash);
if (limitexceeded > 0 && !force) {
enum chipbustype commonbuses = fill_flash->mst->buses_supported & fill_flash->chip->bustype;
/* Sometimes chip and programmer have more than one bus in common,
* and the limit is not exceeded on all buses. Tell the user. */
if ((bitcount(commonbuses) > limitexceeded)) {
msg_pdbg("There is at least one interface available which could support the size of\n"
"the selected flash chip.\n");
}
msg_cerr("This flash chip is too big for this programmer (--verbose/-V gives details).\n"
"Use --force/-f to override at your own risk.\n");
ret = 1;
goto out_shutdown;
}
if (!(read_it | write_it | verify_it | erase_it)) {
msg_ginfo("No operations were specified.\n");
goto out_shutdown;
}
if (layoutfile) {
layout = get_global_layout();
} else if (ifd && (flashrom_layout_read_from_ifd(&layout, fill_flash, NULL, 0) ||
process_include_args(layout))) {
ret = 1;
goto out_shutdown;
} else if (fmap && fmapfile) {
struct stat s;
if (stat(fmapfile, &s) != 0) {
msg_gerr("Failed to stat fmapfile \"%s\"\n", fmapfile);
ret = 1;
goto out_shutdown;
}
size_t fmapfile_size = s.st_size;
uint8_t *fmapfile_buffer = malloc(fmapfile_size);
if (!fmapfile_buffer) {
ret = 1;
goto out_shutdown;
}
if (read_buf_from_file(fmapfile_buffer, fmapfile_size, fmapfile)) {
ret = 1;
free(fmapfile_buffer);
goto out_shutdown;
}
if (flashrom_layout_read_fmap_from_buffer(&layout, fill_flash, fmapfile_buffer, fmapfile_size) ||
process_include_args(layout)) {
ret = 1;
free(fmapfile_buffer);
goto out_shutdown;
}
free(fmapfile_buffer);
} else if (fmap && (flashrom_layout_read_fmap_from_rom(&layout, fill_flash, 0,
fill_flash->chip->total_size * 1024) || process_include_args(layout))) {
ret = 1;
goto out_shutdown;
}
flashrom_layout_set(fill_flash, layout);
flashrom_flag_set(fill_flash, FLASHROM_FLAG_FORCE, !!force);
#if CONFIG_INTERNAL == 1
flashrom_flag_set(fill_flash, FLASHROM_FLAG_FORCE_BOARDMISMATCH, !!force_boardmismatch);
#endif
flashrom_flag_set(fill_flash, FLASHROM_FLAG_VERIFY_AFTER_WRITE, !dont_verify_it);
flashrom_flag_set(fill_flash, FLASHROM_FLAG_VERIFY_WHOLE_CHIP, !dont_verify_all);
/* FIXME: We should issue an unconditional chip reset here. This can be
* done once we have a .reset function in struct flashchip.
* Give the chip time to settle.
*/
programmer_delay(100000);
if (read_it)
ret = do_read(fill_flash, filename);
else if (erase_it)
ret = do_erase(fill_flash);
else if (write_it)
ret = do_write(fill_flash, filename, referencefile);
else if (verify_it)
ret = do_verify(fill_flash, filename);
flashrom_layout_release(layout);
out_shutdown:
programmer_shutdown();
out:
for (i = 0; i < chipcount; i++)
free(flashes[i].chip);
layout_cleanup();
free(filename);
free(fmapfile);
free(referencefile);
free(layoutfile);
free(pparam);
/* clean up global variables */
free((char *)chip_to_probe); /* Silence! Freeing is not modifying contents. */
chip_to_probe = NULL;
#ifndef STANDALONE
free(logfile);
ret |= close_logfile();
#endif /* !STANDALONE */
return ret;
}
void mucregini(int4 blk_init_size)
{
int4 status;
int4 i;
th_index_ptr_t th;
collseq *csp;
uint4 ustatus;
mstr jnlfile, jnldef, tmpjnlfile;
time_t ctime;
MEMCPY_LIT(cs_data->label, GDS_LABEL);
cs_data->desired_db_format = GDSVCURR;
cs_data->fully_upgraded = TRUE;
cs_data->db_got_to_v5_once = TRUE; /* no V4 format blocks that are non-upgradeable */
cs_data->minor_dbver = GDSMVCURR;
cs_data->certified_for_upgrade_to = GDSVCURR;
cs_data->creation_db_ver = GDSVCURR;
cs_data->creation_mdb_ver = GDSMVCURR;
cs_data->master_map_len = MASTER_MAP_SIZE_DFLT;
cs_data->bplmap = BLKS_PER_LMAP;
assert(BLK_SIZE <= MAX_DB_BLK_SIZE);
cs_data->blk_size = BLK_SIZE;
i = cs_data->trans_hist.total_blks;
cs_data->trans_hist.free_blocks = i - DIVIDE_ROUND_UP(i, BLKS_PER_LMAP) - 2;
cs_data->max_rec_size = gv_cur_region->max_rec_size;
cs_data->max_key_size = gv_cur_region->max_key_size;
cs_data->null_subs = gv_cur_region->null_subs;
cs_data->std_null_coll = gv_cur_region->std_null_coll;
#ifdef UNIX
cs_data->freeze_on_fail = gv_cur_region->freeze_on_fail;
cs_data->mumps_can_bypass = gv_cur_region->mumps_can_bypass;
#endif
cs_data->reserved_bytes = gv_cur_region->dyn.addr->reserved_bytes;
cs_data->clustered = FALSE;
cs_data->file_corrupt = 0;
if (gv_cur_region->dyn.addr->lock_space)
cs_data->lock_space_size = gv_cur_region->dyn.addr->lock_space * OS_PAGELET_SIZE;
else
cs_data->lock_space_size = DEF_LOCK_SIZE;
cs_data->staleness[0] = -300000000; /* staleness timer = 30 seconds */
cs_data->staleness[1] = -1;
cs_data->ccp_quantum_interval[0] = -20000000; /* 2 sec */
cs_data->ccp_quantum_interval[1] = -1;
cs_data->ccp_response_interval[0] = -600000000; /* 1 min */
cs_data->ccp_response_interval[1] = -1;
cs_data->ccp_tick_interval[0] = -1000000; /* 1/10 sec */
cs_data->ccp_tick_interval[1] = -1;
cs_data->last_com_backup = 1;
cs_data->last_inc_backup = 1;
cs_data->last_rec_backup = 1;
cs_data->defer_time = gv_cur_region->dyn.addr->defer_time;
cs_data->jnl_alq = gv_cur_region->jnl_alq;
if (cs_data->jnl_state && !cs_data->jnl_alq)
cs_data->jnl_alq = JNL_ALLOC_DEF;
cs_data->jnl_deq = gv_cur_region->jnl_deq;
cs_data->jnl_before_image = gv_cur_region->jnl_before_image;
cs_data->jnl_state = gv_cur_region->jnl_state;
cs_data->epoch_interval = JNL_ALLOWED(cs_data) ? DEFAULT_EPOCH_INTERVAL : 0;
cs_data->alignsize = JNL_ALLOWED(cs_data) ? (DISK_BLOCK_SIZE * JNL_DEF_ALIGNSIZE) : 0;
ROUND_UP_JNL_BUFF_SIZE(cs_data->jnl_buffer_size, gv_cur_region->jnl_buffer_size, cs_data);
#ifdef UNIX
if (JNL_ALLOWED(cs_data))
{
if (cs_data->jnl_alq + cs_data->jnl_deq > gv_cur_region->jnl_autoswitchlimit)
{
cs_data->autoswitchlimit = gv_cur_region->jnl_autoswitchlimit;
cs_data->jnl_alq = cs_data->autoswitchlimit;
} else
cs_data->autoswitchlimit = ALIGNED_ROUND_DOWN(gv_cur_region->jnl_autoswitchlimit,
cs_data->jnl_alq, cs_data->jnl_deq);
}
else
cs_data->autoswitchlimit = 0;
assert(!(MAX_IO_BLOCK_SIZE % DISK_BLOCK_SIZE));
if (cs_data->jnl_alq + cs_data->jnl_deq > cs_data->autoswitchlimit)
cs_data->jnl_alq = cs_data->autoswitchlimit;
#else
cs_data->autoswitchlimit = JNL_ALLOWED(cs_data) ? ALIGNED_ROUND_DOWN(JNL_ALLOC_MAX, cs_data->jnl_alq, cs_data->jnl_deq) : 0;
#endif
if (!cs_data->jnl_buffer_size)
ROUND_UP_JNL_BUFF_SIZE(cs_data->jnl_buffer_size, JNL_BUFFER_DEF, cs_data);
if (JNL_ALLOWED(cs_data))
if (cs_data->jnl_buffer_size < JNL_BUFF_PORT_MIN(cs_data))
{
ROUND_UP_MIN_JNL_BUFF_SIZE(cs_data->jnl_buffer_size, cs_data);
} else if (cs_data->jnl_buffer_size > JNL_BUFFER_MAX)
{
ROUND_DOWN_MAX_JNL_BUFF_SIZE(cs_data->jnl_buffer_size, cs_data);
}
cs_data->def_coll = gv_cur_region->def_coll;
if (cs_data->def_coll)
{
if (csp = ready_collseq((int)(cs_data->def_coll)))
{
cs_data->def_coll_ver = (csp->version)(cs_data->def_coll);
if (!do_verify(csp, cs_data->def_coll, cs_data->def_coll_ver))
{
gtm_putmsg(VARLSTCNT(4) ERR_COLLTYPVERSION, 2, cs_data->def_coll, cs_data->def_coll_ver);
mupip_exit(ERR_MUNOACTION);
}
} else
{
gtm_putmsg(VARLSTCNT(3) ERR_COLLATIONUNDEF, 1, cs_data->def_coll);
mupip_exit(ERR_MUNOACTION);
}
}
/* mupip_set_journal() relies on cs_data->jnl_file_len being 0 if cs_data->jnl_state is jnl_notallowed.
* Note that even though gv_cur_region->jnl_state is jnl_notallowed, gv_cur_region->jnl_file_len can be non-zero
*/
cs_data->jnl_file_len = JNL_ALLOWED(cs_data) ? gv_cur_region->jnl_file_len : 0;
cs_data->reg_seqno = 1;
VMS_ONLY(
cs_data->resync_seqno = 1;
cs_data->old_resync_seqno = 1;
cs_data->resync_tn = 1;
)
Bool
heap_verify (Heap *h)
{
return do_verify (h, 0);
}
void bin_load(uint4 begin, uint4 end)
{
unsigned char *ptr, *cp1, *cp2, *btop, *gvkey_char_ptr, *tmp_ptr, *tmp_key_ptr, *c, *ctop;
unsigned char hdr_lvl, src_buff[MAX_KEY_SZ + 1], dest_buff[MAX_ZWR_KEY_SZ],
cmpc_str[MAX_KEY_SZ + 1], dup_key_str[MAX_KEY_SZ + 1];
unsigned char *end_buff;
unsigned short rec_len, next_cmpc;
int len;
int current, last, length, max_blk_siz, max_key, status;
uint4 iter, max_data_len, max_subsc_len, key_count;
ssize_t rec_count, global_key_count, subsc_len,extr_std_null_coll;
boolean_t need_xlation, new_gvn, utf8_extract;
rec_hdr *rp, *next_rp;
mval v, tmp_mval;
mstr mstr_src, mstr_dest;
collseq *extr_collseq, *db_collseq, *save_gv_target_collseq;
coll_hdr extr_collhdr, db_collhdr;
gv_key *tmp_gvkey = NULL; /* null-initialize at start, will be malloced later */
char std_null_coll[BIN_HEADER_NUMSZ + 1];
# ifdef GTM_CRYPT
gtmcrypt_key_t *encr_key_handles;
char *inbuf;
int4 index;
int req_dec_blk_size, init_status, crypt_status;
muext_hash_hdr_ptr_t hash_array = NULL;
# endif
DCL_THREADGBL_ACCESS;
SETUP_THREADGBL_ACCESS;
assert(4 == SIZEOF(coll_hdr));
gvinit();
v.mvtype = MV_STR;
len = file_input_bin_get((char **)&ptr);
hdr_lvl = EXTR_HEADER_LEVEL(ptr);
if (!(((('4' == hdr_lvl) || ('5' == hdr_lvl)) && (BIN_HEADER_SZ == len)) || (('4' > hdr_lvl) && (V3_BIN_HEADER_SZ == len))))
{
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* expecting the level in a single character */
assert(' ' == *(ptr + SIZEOF(BIN_HEADER_LABEL) - 3));
if (0 != memcmp(ptr, BIN_HEADER_LABEL, SIZEOF(BIN_HEADER_LABEL) - 2) || ('2' > hdr_lvl) || *(BIN_HEADER_VERSION) < hdr_lvl)
{ /* ignore the level check */
rts_error(VARLSTCNT(1) ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
/* check if extract was generated in UTF-8 mode */
utf8_extract = (0 == MEMCMP_LIT(&ptr[len - BIN_HEADER_LABELSZ], UTF8_NAME)) ? TRUE : FALSE;
if ((utf8_extract && !gtm_utf8_mode) || (!utf8_extract && gtm_utf8_mode))
{ /* extract CHSET doesn't match $ZCHSET */
if (utf8_extract)
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("UTF-8"));
else
rts_error(VARLSTCNT(4) ERR_LOADINVCHSET, 2, LEN_AND_LIT("M"));
mupip_exit(ERR_LDBINFMT);
}
if ('4' >= hdr_lvl)
{ /* Binary extracts in V50000-to-V52000 (label=4) and pre-V50000 (label=3) could have a '\0' byte (NULL byte)
* in the middle of the string. Replace it with ' ' (space) like it would be in V52000 binary extracts and above.
*/
for (c = ptr, ctop = c + len; c < ctop; c++)
{
if ('\0' == *c)
*c = ' ';
}
}
util_out_print("Label = !AD\n", TRUE, len, ptr);
new_gvn = FALSE;
if (hdr_lvl > '3')
{
memcpy(std_null_coll, ptr + BIN_HEADER_NULLCOLLOFFSET, BIN_HEADER_NUMSZ);
std_null_coll[BIN_HEADER_NUMSZ] = '\0';
extr_std_null_coll = STRTOUL(std_null_coll, NULL, 10);
if (0 != extr_std_null_coll && 1!= extr_std_null_coll)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupted null collation field in header"),
ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
} else
extr_std_null_coll = 0;
# ifdef GTM_CRYPT
if ('5' <= hdr_lvl)
{
int i, num_indexes;
len = file_input_bin_get((char **)&ptr);
hash_array = (muext_hash_hdr *)malloc(len);
/* store hashes of all the files used during extract into muext_hash_hdr structure */
memcpy((char *)hash_array, ptr, len);
num_indexes = len / GTMCRYPT_HASH_LEN;
encr_key_handles = (gtmcrypt_key_t *)malloc(SIZEOF(gtmcrypt_key_t) * num_indexes);
INIT_PROC_ENCRYPTION(crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
for (index = 0; index < num_indexes; index++)
{
if (0 == memcmp(hash_array[index].gtmcrypt_hash, EMPTY_GTMCRYPT_HASH, GTMCRYPT_HASH_LEN))
continue;
GTMCRYPT_GETKEY(hash_array[index].gtmcrypt_hash, encr_key_handles[index], crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
}
}
# endif
if ('2' < hdr_lvl)
{
len = file_input_bin_get((char **)&ptr);
if (SIZEOF(coll_hdr) != len)
{
rts_error(VARLSTCNT(5) ERR_TEXT, 2, RTS_ERROR_TEXT("Corrupt collation header"), ERR_LDBINFMT);
mupip_exit(ERR_LDBINFMT);
}
extr_collhdr = *((coll_hdr *)(ptr));
new_gvn = TRUE;
} else
gtm_putmsg(VARLSTCNT(3) ERR_OLDBINEXTRACT, 1, hdr_lvl - '0');
if (begin < 2)
begin = 2;
for (iter = 2; iter < begin; iter++)
{
if (!(len = file_input_bin_get((char **)&ptr)))
{
gtm_putmsg(VARLSTCNT(3) ERR_LOADEOF, 1, begin);
util_out_print("Error reading record number: !UL\n", TRUE, iter);
mupip_error_occurred = TRUE;
return;
} else if (len == SIZEOF(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
iter--;
}
}
assert(iter == begin);
util_out_print("Beginning LOAD at record number: !UL\n", TRUE, begin);
max_data_len = 0;
max_subsc_len = 0;
global_key_count = key_count = 0;
rec_count = begin - 1;
extr_collseq = db_collseq = NULL;
need_xlation = FALSE;
assert(NULL == tmp_gvkey); /* GVKEY_INIT macro relies on this */
GVKEY_INIT(tmp_gvkey, DBKEYSIZE(MAX_KEY_SZ)); /* tmp_gvkey will point to malloced memory after this */
for (; !mupip_DB_full ;)
{
if (++rec_count > end)
break;
next_cmpc = 0;
mupip_error_occurred = FALSE;
if (mu_ctrly_occurred)
break;
if (mu_ctrlc_occurred)
{
util_out_print("!AD:!_ Key cnt: !UL max subsc len: !UL max data len: !UL", TRUE,
LEN_AND_LIT(gt_lit), key_count, max_subsc_len, max_data_len);
util_out_print("Last LOAD record number: !UL", TRUE, key_count ? (rec_count - 1) : 0);
mu_gvis();
util_out_print(0, TRUE);
mu_ctrlc_occurred = FALSE;
}
/* reset the stringpool for every record in order to avoid garbage collection */
stringpool.free = stringpool.base;
if (!(len = file_input_bin_get((char **)&ptr)) || mupip_error_occurred)
break;
else if (len == SIZEOF(coll_hdr))
{
extr_collhdr = *((coll_hdr *)(ptr));
assert(hdr_lvl > '2');
new_gvn = TRUE; /* next record will contain a new gvn */
rec_count--; /* Decrement as this record does not count as a record for loading purposes */
continue;
}
rp = (rec_hdr*)(ptr);
# ifdef GTM_CRYPT
if ('5' <= hdr_lvl)
{ /* Getting index value from the extracted file. It indicates which database file this record belongs to */
GET_LONG(index, ptr);
if (-1 != index) /* Indicates that the record is encrypted. */
{
req_dec_blk_size = len - SIZEOF(int4);
inbuf = (char *)(ptr + SIZEOF(int4));
GTMCRYPT_DECODE_FAST(encr_key_handles[index], inbuf, req_dec_blk_size, NULL, crypt_status);
GC_BIN_LOAD_ERR(crypt_status);
}
rp = (rec_hdr*)(ptr + SIZEOF(int4));
}
# endif
btop = ptr + len;
cp1 = (unsigned char*)(rp + 1);
v.str.addr = (char*)cp1;
while (*cp1++)
;
v.str.len =INTCAST((char*)cp1 - v.str.addr - 1);
if (('2' >= hdr_lvl) || new_gvn)
{
if ((HASHT_GBLNAME_LEN == v.str.len) && (0 == memcmp(v.str.addr, HASHT_GBLNAME, HASHT_GBLNAME_LEN)))
continue;
bin_call_db(BIN_BIND, (INTPTR_T)gd_header, (INTPTR_T)&v.str);
max_key = gv_cur_region->max_key_size;
db_collhdr.act = gv_target->act;
db_collhdr.ver = gv_target->ver;
db_collhdr.nct = gv_target->nct;
}
GET_USHORT(rec_len, &rp->rsiz);
if (rp->cmpc != 0 || v.str.len > rec_len || mupip_error_occurred)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
util_out_print(0, TRUE);
continue;
}
if (new_gvn)
{
global_key_count = 1;
if ((db_collhdr.act != extr_collhdr.act || db_collhdr.ver != extr_collhdr.ver
|| db_collhdr.nct != extr_collhdr.nct
|| gv_cur_region->std_null_coll != extr_std_null_coll))
{
if (extr_collhdr.act)
{
if (extr_collseq = ready_collseq((int)extr_collhdr.act))
{
if (!do_verify(extr_collseq, extr_collhdr.act, extr_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, extr_collhdr.act,
extr_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, extr_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
if (db_collhdr.act)
{
if (db_collseq = ready_collseq((int)db_collhdr.act))
{
if (!do_verify(db_collseq, db_collhdr.act, db_collhdr.ver))
{
gtm_putmsg(VARLSTCNT(8) ERR_COLLTYPVERSION, 2, db_collhdr.act,
db_collhdr.ver, ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLTYPVERSION);
}
} else
{
gtm_putmsg(VARLSTCNT(7) ERR_COLLATIONUNDEF, 1, db_collhdr.act,
ERR_GVIS, 2, gv_altkey->end - 1, gv_altkey->base);
mupip_exit(ERR_COLLATIONUNDEF);
}
}
need_xlation = TRUE;
} else
need_xlation = FALSE;
}
new_gvn = FALSE;
for (; rp < (rec_hdr*)btop; rp = (rec_hdr*)((unsigned char *)rp + rec_len))
{
GET_USHORT(rec_len, &rp->rsiz);
if (rec_len + (unsigned char *)rp > btop)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
util_out_print(0, TRUE);
break;
}
cp1 = (unsigned char*)(rp + 1);
cp2 = gv_currkey->base + rp->cmpc;
current = 1;
for (;;)
{
last = current;
current = *cp2++ = *cp1++;
if (0 == last && 0 == current)
break;
if (cp1 > (unsigned char *)rp + rec_len ||
cp2 > (unsigned char *)gv_currkey + gv_currkey->top)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
util_out_print(0, TRUE);
break;
}
}
if (mupip_error_occurred)
break;
gv_currkey->end = cp2 - gv_currkey->base - 1;
if (need_xlation)
{
assert(hdr_lvl >= '3');
assert(extr_collhdr.act || db_collhdr.act || extr_collhdr.nct || db_collhdr.nct ||
extr_std_null_coll != gv_cur_region->std_null_coll);
/* gv_currkey would have been modified/translated in the earlier put */
memcpy(gv_currkey->base, cmpc_str, next_cmpc);
next_rp = (rec_hdr *)((unsigned char*)rp + rec_len);
if ((unsigned char*)next_rp < btop)
{
next_cmpc = next_rp->cmpc;
assert(next_cmpc <= gv_currkey->end);
memcpy(cmpc_str, gv_currkey->base, next_cmpc);
} else
next_cmpc = 0;
/* length of the key might change (due to nct variation),
* so get a copy of the original key from the extract */
memcpy(dup_key_str, gv_currkey->base, gv_currkey->end + 1);
gvkey_char_ptr = dup_key_str;
while (*gvkey_char_ptr++)
;
gv_currkey->prev = 0;
gv_currkey->end = gvkey_char_ptr - dup_key_str;
assert(gv_keysize <= tmp_gvkey->top);
while (*gvkey_char_ptr)
{
/* get next subscript (in GT.M internal subsc format) */
subsc_len = 0;
tmp_ptr = src_buff;
while (*gvkey_char_ptr)
*tmp_ptr++ = *gvkey_char_ptr++;
subsc_len = tmp_ptr - src_buff;
src_buff[subsc_len] = '\0';
if (extr_collseq)
{
/* undo the extract time collation */
TREF(transform) = TRUE;
save_gv_target_collseq = gv_target->collseq;
gv_target->collseq = extr_collseq;
} else
TREF(transform) = FALSE;
/* convert the subscript to string format */
end_buff = gvsub2str(src_buff, dest_buff, FALSE);
/* transform the string to the current subsc format */
TREF(transform) = TRUE;
tmp_mval.mvtype = MV_STR;
tmp_mval.str.addr = (char *)dest_buff;
tmp_mval.str.len = INTCAST(end_buff - dest_buff);
tmp_gvkey->prev = 0;
tmp_gvkey->end = 0;
if (extr_collseq)
gv_target->collseq = save_gv_target_collseq;
mval2subsc(&tmp_mval, tmp_gvkey);
/* we now have the correctly transformed subscript */
tmp_key_ptr = gv_currkey->base + gv_currkey->end;
memcpy(tmp_key_ptr, tmp_gvkey->base, tmp_gvkey->end + 1);
gv_currkey->prev = gv_currkey->end;
gv_currkey->end += tmp_gvkey->end;
gvkey_char_ptr++;
}
if ( gv_cur_region->std_null_coll != extr_std_null_coll && gv_currkey->prev)
{
if (extr_std_null_coll == 0)
{
GTM2STDNULLCOLL(gv_currkey->base, gv_currkey->end);
} else
{
STD2GTMNULLCOLL(gv_currkey->base, gv_currkey->end);
}
}
}
if (gv_currkey->end >= max_key)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
mu_gvis();
util_out_print(0, TRUE);
continue;
}
if (max_subsc_len < (gv_currkey->end + 1))
max_subsc_len = gv_currkey->end + 1;
v.str.addr = (char*)cp1;
v.str.len =INTCAST(rec_len - (cp1 - (unsigned char *)rp));
if (max_data_len < v.str.len)
max_data_len = v.str.len;
bin_call_db(BIN_PUT, (INTPTR_T)&v, 0);
if (mupip_error_occurred)
{
if (!mupip_DB_full)
{
bin_call_db(ERR_COR, (INTPTR_T)rec_count, (INTPTR_T)global_key_count);
util_out_print(0, TRUE);
}
break;
}
key_count++;
global_key_count++;
}
}
GTMCRYPT_ONLY(
if (NULL != hash_array)
free(hash_array);
)
void
verify_next_assertion(val_context_t * ctx,
struct val_digested_auth_chain *as,
struct val_digested_auth_chain *the_trust,
u_int32_t flags)
{
struct rrset_rec *the_set;
struct rrset_rr *the_sig;
u_char *signby_name_n;
u_int16_t signby_footprint_n;
val_dnskey_rdata_t dnskey;
int is_a_wildcard;
struct rrset_rr *nextrr;
struct rrset_rr *keyrr;
u_int16_t tag_h;
char name_p[NS_MAXDNAME];
if ((as == NULL) || (as->val_ac_rrset.ac_data == NULL) || (the_trust == NULL)) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): Cannot verify assertion - no data");
return;
}
the_set = as->val_ac_rrset.ac_data;
dnskey.public_key = NULL;
if (-1 == ns_name_ntop(the_set->rrs_name_n, name_p, sizeof(name_p)))
snprintf(name_p, sizeof(name_p), "unknown/error");
if (the_set->rrs_sig == NULL) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): RRSIG is missing");
as->val_ac_status = VAL_AC_RRSIG_MISSING;
return;
}
if (the_set->rrs_type_h != ns_t_dnskey) {
/*
* trust path contains the key
*/
if (the_trust->val_ac_rrset.ac_data == NULL) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): Key is empty");
as->val_ac_status = VAL_AC_DNSKEY_MISSING;
return;
}
keyrr = the_trust->val_ac_rrset.ac_data->rrs_data;
} else {
/*
* data itself contains the key
*/
if (the_set->rrs_data == NULL) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): Key is empty");
as->val_ac_status = VAL_AC_DNSKEY_MISSING;
return;
}
keyrr = the_set->rrs_data;
}
for (the_sig = the_set->rrs_sig;
the_sig; the_sig = the_sig->rr_next) {
/*
* do wildcard processing
*/
if (!check_label_count(the_set, the_sig, &is_a_wildcard)) {
SET_STATUS(as->val_ac_status, the_sig,
VAL_AC_WRONG_LABEL_COUNT);
val_log(ctx, LOG_INFO, "verify_next_assertion(): Incorrect RRSIG label count");
continue;
}
/*
* for each sig, identify key,
*/
if (VAL_NO_ERROR != identify_key_from_sig(the_sig, &signby_name_n,
&signby_footprint_n)) {
SET_STATUS(as->val_ac_status, the_sig,
VAL_AC_INVALID_RRSIG);
val_log(ctx, LOG_INFO, "verify_next_assertion(): Cannot extract key footprint from RRSIG");
continue;
}
tag_h = ntohs(signby_footprint_n);
for (nextrr = keyrr; nextrr; nextrr = nextrr->rr_next) {
int is_verified = 0;
if (VAL_NO_ERROR != val_parse_dnskey_rdata(nextrr->rr_rdata,
nextrr->rr_rdata_length,
&dnskey)) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): Cannot parse DNSKEY data");
nextrr->rr_status = VAL_AC_INVALID_KEY;
continue;
}
dnskey.next = NULL;
if (dnskey.key_tag != tag_h) {
if (dnskey.public_key != NULL) {
FREE(dnskey.public_key);
dnskey.public_key = NULL;
}
continue;
}
val_log(ctx, LOG_DEBUG, "verify_next_assertion(): Found potential matching DNSKEY for RRSIG");
/*
* check the signature
*/
is_verified = do_verify(ctx, signby_name_n,
&nextrr->rr_status,
&the_sig->rr_status,
the_set, the_sig, &dnskey, is_a_wildcard, flags);
/*
* There might be multiple keys with the same key tag; set this as
* the signing key only if we dont have other status for this key
*/
SET_STATUS(as->val_ac_status, the_sig, the_sig->rr_status);
if (nextrr->rr_status == VAL_AC_UNSET) {
nextrr->rr_status = VAL_AC_SIGNING_KEY;
}
if (is_verified) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): Verified a RRSIG for %s (%s) using a DNSKEY (%d)",
name_p, p_type(the_set->rrs_type_h),
dnskey.key_tag);
if ( as->val_ac_status == VAL_AC_TRUST ||
nextrr->rr_status == VAL_AC_TRUST_POINT) {
/* we've verified a trust anchor */
as->val_ac_status = VAL_AC_TRUST;
val_log(ctx, LOG_INFO, "verify_next_assertion(): verification traces back to trust anchor");
if (dnskey.public_key != NULL) {
FREE(dnskey.public_key);
dnskey.public_key = NULL;
}
return;
}
/* Check if we're trying to verify some key in the authentication chain */
if ( the_set->rrs_type_h == ns_t_dnskey &&
as != the_trust) {
/* Check if we have reached our trust key */
/*
* If this record contains a DNSKEY, check if the DS record contains this key
* DNSKEYs cannot be wildcard expanded, so VAL_AC_WCARD_VERIFIED does not
* count as a good sig
* Create the link even if the DNSKEY algorithm is unknown since this
* may be the provably insecure case
*/
/*
* follow the trust path
*/
struct rrset_rr *dsrec =
the_trust->val_ac_rrset.ac_data->rrs_data;
while (dsrec) {
val_ds_rdata_t ds;
ds.d_hash = NULL;
int retval = val_parse_ds_rdata(dsrec->rr_rdata,
dsrec->rr_rdata_length, &ds);
if(retval == VAL_NOT_IMPLEMENTED) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): DS hash not supported");
dsrec->rr_status = VAL_AC_ALGORITHM_NOT_SUPPORTED;
} else if (retval != VAL_NO_ERROR) {
val_log(ctx, LOG_INFO, "verify_next_assertion(): DS parse error");
dsrec->rr_status = VAL_AC_INVALID_DS;
} else if (DNSKEY_MATCHES_DS(ctx, &dnskey, &ds,
the_set->rrs_name_n, nextrr,
&dsrec->rr_status)) {
val_log(ctx, LOG_DEBUG,
"verify_next_assertion(): DNSKEY tag (%d) matches DS tag (%d)",
(&dnskey)->key_tag,
(&ds)->d_keytag);
/*
* the first match is enough
*/
nextrr->rr_status = VAL_AC_VERIFIED_LINK;
FREE(ds.d_hash);
ds.d_hash = NULL;
if (dnskey.public_key) {
FREE(dnskey.public_key);
dnskey.public_key = NULL;
}
val_log(ctx, LOG_INFO, "verify_next_assertion(): Key links upward");
return;
} else {
/*
* Didn't find a valid entry in the DS record set
* Not necessarily a problem, since there is no requirement that a DS be present
* If none match, then we set the status accordingly. See below.
*/
nextrr->rr_status = VAL_AC_DS_NOMATCH;
}
if (ds.d_hash != NULL)
FREE(ds.d_hash);
dsrec = dsrec->rr_next;
}
}
}
if (dnskey.public_key != NULL) {
FREE(dnskey.public_key);
}
dnskey.public_key = NULL;
}
val_log(ctx, LOG_INFO, "verify_next_assertion(): Could not link this RRSIG to a DNSKEY");
SET_STATUS(as->val_ac_status, the_sig, VAL_AC_DNSKEY_NOMATCH);
}
/*
* If we reach here and we're a keyset, we either didn't verify the keyset or
* didn't verify the link from the key to the DS
*/
if (the_set->rrs_type_h == ns_t_dnskey){
as->val_ac_status = VAL_AC_NO_LINK;
}
}
