struct poolworker_state *poolworker_create(int numThreads) {
struct poolworker_state *pw;
int i;
pw = safe_calloc(1, sizeof *pw);
pw->p = safe_calloc(numThreads, sizeof *pw->p);
pw->jobs_req = NULL;
pw->jobs_active = NULL;
pthread_mutex_init(&pw->lock, NULL);
pthread_cond_init(&pw->cond_req, NULL);
pthread_cond_init(&pw->cond_cmp, NULL);
atomic_write(&pw->numRunning, 0);
atomic_write(&pw->exit, 0);
Log(LGPFX " creating %u threads\n", numThreads);
for (i = 0; i < numThreads; i++) {
pthread_create(&pw->p[i].tid, NULL, poolworker_main, pw);
while (atomic_read(&pw->numRunning) != i + 1) {
sched_yield();
}
}
return pw;
}
int *get_adrcmd_from_key(int cxt, struct key_entry *key, int create) {
flrn_assoc_key_cmd *pc;
unsigned char hash;
int i;
if (key==NULL) return NULL;
if (key->entry==ENTRY_ERROR_KEY) return NULL;
hash=get_hash_key(key);
pc=Flcmd_rev[hash];
if (pc==NULL) {
if (create)
pc=Flcmd_rev[hash]=safe_calloc(1,sizeof(flrn_assoc_key_cmd));
else return NULL;
} else {
while (pc->next) {
if (key_are_equal(&(pc->key),key)) break;
pc=pc->next;
}
if (key_are_equal(&(pc->key),key)) return &(pc->cmd[cxt]);
if (create==0) return NULL;
pc->next=safe_calloc(1,sizeof(flrn_assoc_key_cmd));
pc=pc->next;
}
/* create = 1 */
for (i=0;i<NUMBER_OF_CONTEXTS;i++) pc->cmd[i]=FLCMD_UNDEF;
memcpy(&(pc->key),key,sizeof(struct key_entry));
if (key->entry==ENTRY_ALLOCATED_STRING)
pc->key.value.allocstr=safe_flstrdup(key->value.allocstr);
return &(pc->cmd[cxt]);
}
/*
* -- init_map
*
* initializes global shared map.
*
*/
void
init_map(struct _como * m)
{
int i;
memset(m, 0, sizeof(struct _como));
m->whoami = SUPERVISOR;
m->running = NORMAL;
m->logflags = DEFAULT_LOGFLAGS;
m->mem_size = DEFAULT_MEMORY;
m->maxfilesize = DEFAULT_FILESIZE;
m->module_max = DEFAULT_MODULE_MAX;
m->module_last = -1;
m->modules = safe_calloc(m->module_max, sizeof(module_t));
for (i = 0; i < m->module_max; i++)
m->modules[i].status = MDL_UNUSED;
m->workdir = mkdtemp(strdup("/tmp/comoXXXXXX"));
m->basedir = strdup(DEFAULT_BASEDIR);
m->libdir = strdup(DEFAULT_LIBDIR);
m->node = safe_calloc(1, sizeof(node_t));
m->node->id = 0;
m->node->name = strdup("CoMo Node");
m->node->location = strdup("Unknown");
m->node->type = strdup("Unknown");
m->node->query_port = DEFAULT_QUERY_PORT;
m->node_count = 1;
}
/*
* Initialize a term, using a window of the given size.
* Also prepare the "input queue" for "k" keypresses
* By default, the cursor starts out "invisible"
* By default, we "erase" using "black spaces"
*/
errr term_init(term *t, int w, int h, int k)
{
int y;
/* Wipe it */
memset(t, 0, sizeof(term));
/* Prepare the input queue */
t->key_head = t->key_tail = 0;
/* Determine the input queue size */
t->key_size = k;
/* Allocate the input queue */
t->key_queue = safe_calloc(t->key_size, sizeof(char));
/* Save the size */
t->wid = w;
t->hgt = h;
/* Allocate change arrays */
t->x1 = safe_calloc(h, sizeof(byte));
t->x2 = safe_calloc(h, sizeof(byte));
/* Allocate "displayed" */
t->old = safe_calloc(1, sizeof(struct term_win));
/* Initialize "displayed" */
term_win_init(t->old, w, h);
/* Allocate "requested" */
t->scr = safe_calloc(1, sizeof(struct term_win));
/* Initialize "requested" */
term_win_init(t->scr, w, h);
/* Assume change */
for (y = 0; y < h; y++)
{
/* Assume change */
t->x1[y] = 0;
t->x2[y] = w - 1;
}
/* Assume change */
t->y1 = 0;
t->y2 = h - 1;
/* Force "total erase" */
t->total_erase = TRUE;
/* Success */
return (0);
}
/**
* For a given client, calculate the master key and do key expansion
* to determine the symmetric cypher key and IV salt, and hash key
*/
void calculate_client_keys(struct pr_group_list_t *group, int hostidx)
{
unsigned char *seed, *prf_buf;
int explen, len, seedlen;
struct pr_destinfo_t *dest;
dest = &group->destinfo[hostidx];
explen = group->keylen + group->ivlen +
group->hmaclen;
seedlen = sizeof(group->rand1) * 2;
seed = safe_calloc(seedlen, 1);
prf_buf = safe_calloc(MASTER_LEN + explen + group->hmaclen, 1);
memcpy(seed, group->rand1, sizeof(group->rand1));
memcpy(seed + sizeof(group->rand1), dest->rand2,
sizeof(dest->rand2));
PRF(group->hashtype, MASTER_LEN, dest->premaster, dest->premaster_len,
"master secret", seed, seedlen, prf_buf, &len);
memcpy(dest->master,prf_buf, sizeof(dest->master));
PRF(group->hashtype, explen, dest->master, sizeof(dest->master),
"key expansion", seed, seedlen, prf_buf, &len);
memcpy(dest->hmackey, prf_buf, group->hmaclen);
memcpy(dest->key, prf_buf + group->hmaclen, group->keylen);
memcpy(dest->salt, prf_buf + group->hmaclen + group->keylen, group->ivlen);
free(seed);
free(prf_buf);
}
/*
* -- init_map
*
* initializes global shared map.
*
*/
void
init_map(struct _como * m)
{
int i;
memset(m, 0, sizeof(struct _como));
m->whoami = SUPERVISOR;
m->runmode = RUNMODE_NORMAL;
m->logflags = DEFAULT_LOGFLAGS;
m->mem_size = DEFAULT_MEMORY;
m->maxfilesize = DEFAULT_FILESIZE;
m->module_max = DEFAULT_MODULE_MAX;
m->module_last = -1;
m->modules = safe_calloc(m->module_max, sizeof(module_t));
for (i = 0; i < m->module_max; i++)
m->modules[i].status = MDL_UNUSED;
m->workdir = mkdtemp(strdup("/tmp/comoXXXXXX"));
m->dbdir = strdup(DEFAULT_DBDIR);
m->libdir = strdup(DEFAULT_LIBDIR);
m->node = safe_calloc(1, sizeof(node_t));
m->node[0].name = strdup("CoMo Node");
m->node[0].location = strdup("Unknown");
m->node[0].type = strdup("Unknown");
m->node[0].query_port = DEFAULT_QUERY_PORT;
m->node_count = 1;
m->debug_sleep = 20;
m->asnfile = NULL;
m->live_thresh = TIME2TS(0, 10000); /* default 10 ms */
}
/**
* Sends a KEYINFO_ACK in response to a KEYINFO
*/
void send_keyinfo_ack(struct group_list_t *group)
{
unsigned char *buf, *encrypted;
struct uftp_h *header;
struct keyinfoack_h *keyinfo_ack;
unsigned char *verifydata, *verify_hash, *verify_val;
unsigned int payloadlen, hashlen;
int verifylen, enclen, len;
buf = safe_calloc(MAXMTU, 1);
header = (struct uftp_h *)buf;
keyinfo_ack = (struct keyinfoack_h *)(buf + sizeof(struct uftp_h));
set_uftp_header(header, KEYINFO_ACK, group);
keyinfo_ack->func = KEYINFO_ACK;
keyinfo_ack->hlen = sizeof(struct keyinfoack_h) / 4;
verifydata = build_verify_data(group, &verifylen);
if (!verifydata) {
glog0(group, "Error getting verify data");
send_abort(group, "Error getting verify data");
free(buf);
return;
}
verify_hash = safe_calloc(group->hmaclen, 1);
verify_val = safe_calloc(VERIFY_LEN + group->hmaclen, 1);
hash(group->hashtype, verifydata, verifylen, verify_hash, &hashlen);
PRF(group->hashtype, VERIFY_LEN, group->groupmaster,
sizeof(group->groupmaster), "client finished",
verify_hash, hashlen, verify_val, &len);
memcpy(keyinfo_ack->verify_data, verify_val, VERIFY_LEN);
free(verifydata);
free(verify_hash);
free(verify_val);
payloadlen = sizeof(struct keyinfoack_h);
encrypted = NULL;
if (!encrypt_and_sign(buf, &encrypted, payloadlen, &enclen, group->keytype,
group->groupkey, group->groupsalt, &group->ivctr, group->ivlen,
group->hashtype, group->grouphmackey, group->hmaclen,group->sigtype,
group->keyextype, group->client_privkey,group->client_privkeylen)) {
glog0(group, "Error encrypting KEYINFO_ACK");
free(buf);
return;
}
payloadlen = enclen + sizeof(struct uftp_h);
if (nb_sendto(listener, encrypted, payloadlen, 0,
(struct sockaddr *)&(group->replyaddr),
family_len(group->replyaddr)) == SOCKET_ERROR) {
gsockerror(group, "Error sending KEYINFO_ACK");
} else {
glog2(group, "KEYINFO_ACK sent");
}
free(encrypted);
free(buf);
}
// crate a stack of <no_element> size
nodes_stack * Create_Stack(int no_elements) {
nodes_stack * s = (nodes_stack *)safe_calloc(1, sizeof(nodes_stack));
assert(no_elements);
s->top = 0;
s->max_size = no_elements;
s->nodes = (int *)safe_calloc(no_elements, sizeof(int));
return s;
}
static QUERY *run_query (char *s, int quiet)
{
FILE *fp;
QUERY *first = NULL;
QUERY *cur = NULL;
char cmd[_POSIX_PATH_MAX];
char *buf = NULL;
size_t buflen;
int dummy = 0;
char msg[STRING];
char *p;
pid_t thepid;
mutt_expand_file_fmt (cmd, sizeof(cmd), QueryCmd, s);
if ((thepid = mutt_create_filter (cmd, NULL, &fp, NULL)) < 0) {
dprint (1, (debugfile, "unable to fork command: %s", cmd));
return 0;
}
if (!quiet)
mutt_message _("Waiting for response...");
fgets (msg, sizeof (msg), fp);
if ((p = strrchr (msg, '\n')))
*p = '\0';
while ((buf = mutt_read_line (buf, &buflen, fp, &dummy, 0)) != NULL) {
if ((p = strtok(buf, "\t\n"))) {
if (first == NULL) {
first = (QUERY *) safe_calloc (1, sizeof (QUERY));
cur = first;
}
else {
cur->next = (QUERY *) safe_calloc (1, sizeof (QUERY));
cur = cur->next;
}
cur->addr = rfc822_parse_adrlist (cur->addr, p);
p = strtok(NULL, "\t\n");
if (p) {
cur->name = safe_strdup (p);
p = strtok(NULL, "\t\n");
if (p)
cur->other = safe_strdup (p);
}
}
}
FREE (&buf);
safe_fclose (&fp);
if (mutt_wait_filter (thepid)) {
dprint (1, (debugfile, "Error: %s\n", msg));
if (!quiet) mutt_error ("%s", msg);
}
else {
if (!quiet)
mutt_message ("%s", msg);
}
return first;
}
/**
* Handles an incoming KEYINFO_ACK message from a client
*/
void handle_keyinfo_ack(struct pr_group_list_t *group, int hostidx,
const unsigned char *message, unsigned meslen)
{
const struct keyinfoack_h *keyinfoack;
unsigned char *verifydata, *verify_hash, *verify_test;
int verifylen, len, dupmsg;
unsigned int hashlen;
struct pr_destinfo_t *dest;
keyinfoack = (const struct keyinfoack_h *)message;
dest = &group->destinfo[hostidx];
if ((meslen < (keyinfoack->hlen * 4U)) ||
((keyinfoack->hlen * 4U) < sizeof(struct keyinfoack_h))) {
glog1(group, "Rejecting KEYINFO_ACK from %s: invalid message size",
dest->name);
send_downstream_abort(group, dest->id, "Invalid message size", 0);
return;
}
if (!(verifydata = build_verify_data(group, hostidx, &verifylen,1))) {
glog1(group, "Rejecting KEYINFO_ACK from %s: "
"error exporting client public key", dest->name);
return;
}
verify_hash = safe_calloc(group->hmaclen, 1);
verify_test = safe_calloc(VERIFY_LEN + group->hmaclen, 1);
hash(group->hashtype, verifydata, verifylen, verify_hash, &hashlen);
PRF(group->hashtype, VERIFY_LEN, group->groupmaster,
sizeof(group->groupmaster), "client finished",
verify_hash, hashlen, verify_test, &len);
if (memcmp(keyinfoack->verify_data, verify_test, VERIFY_LEN)) {
glog1(group, "Rejecting KEYINFO_ACK from %s: verify data mismatch",
dest->name);
free(verifydata);
free(verify_hash);
free(verify_test);
return;
}
free(verifydata);
free(verify_hash);
free(verify_test);
dupmsg = (dest->state == PR_CLIENT_READY);
glog2(group, "Received KEYINFO_ACK%s from %s", dupmsg ? "+" : "",
dest->name);
dest->state = PR_CLIENT_READY;
if (!check_unfinished_clients(group, 0)) {
group->phase = PR_PHASE_RECEIVING;
}
}
struct bitfield *
make_bitfield(const UChar *word, const UChar *alphabet)
{
int alphabetlength = u_strlen(alphabet);
int *freqs = safe_calloc(alphabetlength, sizeof(int));
struct bitfield *bf;
int maxfreq = 0;
int index;
if (freqs == NULL)
return NULL;
while (*word) {
const UChar *p = alphabet;
for (index = 0; *p && (*p != *word); p++, index++) {
}
if (*p) {
freqs[index]++;
if (freqs[index] > maxfreq) {
maxfreq = freqs[index];
}
} else {
/* character not in alphabet */
free(freqs);
return NULL;
}
word++;
}
bf = safe_calloc(1, sizeof(struct bitfield));
if (bf != NULL) {
bitpattern thisbit;
bf->depth = maxfreq;
bf->bits = safe_calloc(sizeof(bitpattern), maxfreq);
thisbit = 1;
for (index = 0; index <alphabetlength; index++) {
bitpattern *bits = bf->bits;
while (freqs[index] > 0) {
*bits |= thisbit;
bits++;
freqs[index]--;
}
thisbit <<= 1;
}
}
free(freqs);
return bf;
}
static int ssl_socket_open (CONNECTION * conn)
{
sslsockdata *data;
int maxbits;
if (raw_socket_open (conn) < 0)
return -1;
data = (sslsockdata *) safe_calloc (1, sizeof (sslsockdata));
conn->sockdata = data;
data->ctx = SSL_CTX_new (SSLv23_client_method ());
/* disable SSL protocols as needed */
if (!option(OPTTLSV1))
{
SSL_CTX_set_options(data->ctx, SSL_OP_NO_TLSv1);
}
/* TLSv1.1/1.2 support was added in OpenSSL 1.0.1, but some OS distros such
* as Fedora 17 are on OpenSSL 1.0.0.
*/
#ifdef SSL_OP_NO_TLSv1_1
if (!option(OPTTLSV1_1))
{
SSL_CTX_set_options(data->ctx, SSL_OP_NO_TLSv1_1);
}
#endif
#ifdef SSL_OP_NO_TLSv1_2
if (!option(OPTTLSV1_2))
{
SSL_CTX_set_options(data->ctx, SSL_OP_NO_TLSv1_2);
}
#endif
if (!option(OPTSSLV2))
{
SSL_CTX_set_options(data->ctx, SSL_OP_NO_SSLv2);
}
if (!option(OPTSSLV3))
{
SSL_CTX_set_options(data->ctx, SSL_OP_NO_SSLv3);
}
ssl_get_client_cert(data, conn);
data->ssl = SSL_new (data->ctx);
SSL_set_fd (data->ssl, conn->fd);
if (ssl_negotiate(conn, data))
{
mutt_socket_close (conn);
return -1;
}
data->isopen = 1;
conn->ssf = SSL_CIPHER_get_bits (SSL_get_current_cipher (data->ssl),
&maxbits);
return 0;
}
/**
* Encrypts a small block of data with an RSA public key.
* Output buffer must be at least the key size.
*/
int RSA_encrypt(RSA_key_t rsa, const unsigned char *from, unsigned int fromlen,
unsigned char *to, unsigned int *tolen)
{
DWORD _tolen;
int flags;
unsigned int i;
unsigned char *outbuf;
if (RSA_keylen(rsa) * 8 < 768) {
flags = 0;
} else {
flags = CRYPT_OAEP;
}
outbuf = safe_calloc(RSA_keylen(rsa), 1);
memcpy(outbuf, from, fromlen);
_tolen = fromlen;
if (!CryptEncrypt(rsa, 0, 1, flags, outbuf, &_tolen, RSA_keylen(rsa))) {
mserror("CryptEncrypt failed");
free(outbuf);
return 0;
}
*tolen = _tolen;
// CryptoAPI returns ciphertext in little endian, so reverse the bytes
for (i = 0; i < _tolen; i++) {
to[i] = outbuf[_tolen - i - 1];
}
free(outbuf);
return 1;
}
/*
* -- sniffer_init
*
*/
static sniffer_t *
sniffer_init(const char * device, const char * args)
{
struct bpf_me *me;
me = safe_calloc(1, sizeof(struct bpf_me));
me->sniff.max_pkts = 8192;
me->sniff.flags = SNIFF_SELECT | SNIFF_SHBUF;
me->device = device;
/* create the capture buffer */
if (capbuf_init(&me->capbuf, args, NULL, BPF_MIN_BUFSIZE,
BPF_MAX_BUFSIZE) < 0)
goto error;
/* create the pkt_t buffer */
if (capbuf_init(&me->pktbuf, args, "pktbuf=", BPF_MIN_PKTBUFSIZE,
BPF_MAX_PKTBUFSIZE) < 0)
goto error;
me->read_size = me->capbuf.size / 2;
me->min_proc_size = BPF_DEFAULT_MIN_PROC_SIZE;
return (sniffer_t *) me;
error:
free(me);
return NULL;
}
/*
* Restore the "requested" contents (see above).
*
* Every "Term_save()" should match exactly one "Term_load()"
*/
errr Term_load(void)
{
int y;
int w = Term->wid;
int h = Term->hgt;
/* Create */
if (!Term->mem)
{
/* Allocate window */
Term->mem = safe_calloc(1, sizeof(struct term_win));
/* Initialize window */
term_win_init(Term->mem, w, h);
}
/* Load */
term_win_copy(Term->scr, Term->mem, w, h);
/* Assume change */
for (y = 0; y < h; y++)
{
/* Assume change */
Term->x1[y] = 0;
Term->x2[y] = w - 1;
}
/* Assume change */
Term->y1 = 0;
Term->y2 = h - 1;
/* Success */
return (0);
}
static void SCEDA_hashmap_resize(SCEDA_HashMap *hmap, int buckets) {
if((buckets <= 1) || (buckets == hmap->buckets)) {
return;
}
SCEDA_ListMap (*new_table)[] = safe_calloc(buckets, sizeof(SCEDA_ListMap));
int i;
for(i = 0; i < buckets; i++) {
SCEDA_listmap_init(nth_map(new_table, i), hmap->delete_key,
hmap->delete_value, hmap->match_key);
}
for(i = 0; i < hmap->buckets; i++) {
SCEDA_ListMap *map = SCEDA_hashmap_nth_map(hmap, i);
while(SCEDA_listmap_size(map) > 0) {
void *key;
void *value;
SCEDA_listmap_remove_head(map, &key, &value);
int j = new_hash_code(hmap, key, buckets);
SCEDA_listmap_add_tail(nth_map(new_table, j), key, value);
}
SCEDA_listmap_cleanup(map);
}
free(hmap->table);
hmap->table = new_table;
hmap->buckets = buckets;
}
bool key_sign(struct key *k, const void *data, size_t datalen, uint8 **sig,
size_t *siglen)
{
unsigned int len;
uint8 *sig0;
int res;
ASSERT(sig);
ASSERT(siglen);
len = ECDSA_size(k->key);
sig0 = safe_calloc(1, len);
res = ECDSA_sign(0, data, datalen, sig0, &len, k->key);
if (res != 1) {
NOT_TESTED();
free(sig0);
return 0;
}
*sig = sig0;
*siglen = len;
return 1;
}
int deserialize_str_alloc(struct buff *buf, char **str, size_t *len) {
uint64 length;
int res;
*str = NULL;
if (len) {
*len = 0;
}
res = deserialize_varint(buf, &length);
if (res) {
return res;
}
if (length == 0) {
return 0;
}
*str = safe_calloc(1, length + 1);
if (len) {
*len = length;
}
if (deserialize_bytes(buf, *str, length)) {
free(*str);
*str = NULL;
if (len) {
*len = 0;
}
return 1;
}
return 0;
}
static void add_to_list (LIST **list, const char *str)
{
LIST *t, *last = NULL;
/* check to make sure the item is not already on this list */
for (last = *list; last; last = last->next)
{
if (mutt_strcasecmp (str, last->data) == 0)
{
/* already on the list, so just ignore it */
last = NULL;
break;
}
if (!last->next)
break;
}
if (!*list || last)
{
t = (LIST *) safe_calloc (1, sizeof (LIST));
t->data = safe_strdup (str);
if (last)
{
last->next = t;
last = last->next;
}
else
*list = last = t;
}
}
smap *smap_new() {
smap *ret = safe_malloc(sizeof(smap));
ret->num_buckets = INIT_CAPACITY;
ret->num_pairs = 0;
ret->buckets = safe_calloc(ret->num_buckets * sizeof(bucket));
return ret;
}
/**
* Sends an ABORT message downstream to clients
*/
void send_downstream_abort(struct pr_group_list_t *group, uint32_t dest_id,
const char *message, int current)
{
unsigned char *buf;
struct uftp_h *header;
struct abort_h *abort_hdr;
int payloadlen;
buf = safe_calloc(MAXMTU, 1);
header = (struct uftp_h *)buf;
abort_hdr = (struct abort_h *)(buf + sizeof(struct uftp_h));
set_uftp_header(header, ABORT, group);
header->seq = group->send_seq_down++;
header->src_id = uid;
abort_hdr->func = ABORT;
abort_hdr->hlen = sizeof(struct abort_h) / 4;
if ((dest_id == 0) && current) {
abort_hdr->flags |= FLAG_CURRENT_FILE;
}
abort_hdr->host = dest_id;
strncpy(abort_hdr->message, message, sizeof(abort_hdr->message) - 1);
payloadlen = sizeof(struct uftp_h) + sizeof(struct abort_h);
// Proxies should never need to send an encrypted ABORT
if (nb_sendto(listener, buf, payloadlen, 0,
(struct sockaddr *)&group->privatemcast,
family_len(group->privatemcast)) == SOCKET_ERROR) {
gsockerror(group, "Error sending ABORT");
}
free(buf);
}
void
txdb_export_tx_info(struct txdb *txdb)
{
struct bitcui_tx *tx_info;
struct bitcui_tx *ti;
int tx_num;
if (btcui->inuse == 0) {
return;
}
/*
* We may have in hash_tx some entries that are not relevant to our wallet
* but whose presence is still useful for performance reasons. It's possible
* we allocate too much memory for tx_info but that's fine for now.
*/
tx_num = hashtable_getnumentries(txdb->hash_tx);
tx_info = safe_calloc(tx_num, sizeof *tx_info);
ti = tx_info;
hashtable_for_each(txdb->hash_tx, txdb_export_tx_cb, &ti);
ASSERT(ti <= tx_info + tx_num);
tx_num = ti - tx_info;
qsort(tx_info, tx_num, sizeof *tx_info, txdb_bitcui_tx_entry_compare_cb);
bitcui_set_tx_info(tx_num, tx_info);
}
void
str_to_bytes(const char *str,
uint8 **bytes,
size_t *bytes_len)
{
uint8 *buf;
size_t len;
size_t i;
*bytes = NULL;
*bytes_len = 0;
if (str == NULL) {
return;
}
len = strlen(str);
buf = safe_calloc(1, len / 2 + 1);
for (i = 0; i < len / 2; i++) {
uint32 x;
sscanf(str + i * 2, "%02x", &x);
ASSERT(x <= 255);
buf[i] = x;
}
*bytes = buf;
*bytes_len = len / 2;
}
struct bitfield *
bf_normalize(struct bitfield *bf)
{
/* pack down the bits depthwise*/
if (bf != NULL) {
int i,j;
bitpattern *tbits = safe_calloc(sizeof(bitpattern), bf->depth);
bitpattern t;
for (i = 0; i < bf->depth; i++) {
t = 0;
for (j = 0; j < bf->depth; j++) {
t |= bf->bits[j];
}
tbits[i] = t;
if (t != 0) {
for (j = 0; (t != 0) && (j < bf->depth); j++) {
bitpattern p;
p = ~(t & bf->bits[j]);
t &= p;
bf->bits[j] &= p;
}
} else {
/* we have less depth than we started with */
bf->depth = i;
break;
}
}
free(bf->bits);
bf->bits = tbits;
}
return bf;
}
UChar *
make_alphabet(const UChar *source)
{
UChar *dest;
int sourcelen = u_strlen(source);
int x, y;
dest = safe_calloc(sourcelen + 1, sizeof(UChar));
u_strcpy(dest, source);
/* Very simple ripple sort as these are very short strings */
/* No advantage in using qsort() or similar */
for (x = 0; x < sourcelen - 1; x++) {
for (y = x + 1; y < sourcelen ; y++) {
if (dest[x] > dest[y]) {
UChar temp;
temp = dest[x];
dest[x] = dest[y];
dest[y] = temp;
}
}
}
x = y = 0;
while (dest[x]) {
if (dest[x] != dest[y])
dest[++y] = dest[x];
x++;
}
dest[++y] = dest[x];
return dest;
}
static int init_header(HEADER *h, const char *path, notmuch_message_t *msg)
{
const char *id;
if (h->data)
return 0;
id = notmuch_message_get_message_id(msg);
h->data = safe_calloc(1, sizeof(struct nm_hdrdata));
h->free_cb = deinit_header;
/*
* Notmuch ensures that message Id exists (if not notmuch Notmuch will
* generate an ID), so it's more safe than use mutt HEADER->env->id
*/
((struct nm_hdrdata *) h->data)->virtual_id = safe_strdup( id );
dprint(2, (debugfile, "nm: initialize header data: [hdr=%p, data=%p] (%s)\n",
h, h->data, id));
if (!h->env->message_id)
h->env->message_id = nm2mutt_message_id( id );
if (update_message_path(h, path))
return -1;
update_header_tags(h, msg);
return 0;
}
static COLOR_LINE *mutt_new_color_line (void)
{
COLOR_LINE *p = safe_calloc (1, sizeof (COLOR_LINE));
p->fg = p->bg = -1;
return (p);
}
BODY *mutt_new_body (void)
{
BODY *p = (BODY *) safe_calloc (1, sizeof (BODY));
p->disposition = DISPATTACH;
p->use_disp = 1;
return (p);
}
NEVER_INLINE
void* MemoryManager::smartCallocBig(size_t totalbytes) {
assert(totalbytes > 0);
auto const n = static_cast<BigNode*>(
safe_calloc(totalbytes + sizeof(BigNode), 1)
);
return smartEnlist(n);
}
/* this bit is based on read_ca_file() in gnutls */
static int tls_compare_certificates (const gnutls_datum *peercert)
{
gnutls_datum cert;
unsigned char *ptr;
FILE *fd1;
int ret;
gnutls_datum b64_data;
unsigned char *b64_data_data;
struct stat filestat;
if (stat(SslCertFile, &filestat) == -1)
return 0;
b64_data.size = filestat.st_size+1;
b64_data_data = (unsigned char *) safe_calloc (1, b64_data.size);
b64_data_data[b64_data.size-1] = '\0';
b64_data.data = b64_data_data;
fd1 = fopen(SslCertFile, "r");
if (fd1 == NULL) {
return 0;
}
b64_data.size = fread(b64_data.data, 1, b64_data.size, fd1);
fclose(fd1);
do {
ret = gnutls_pem_base64_decode_alloc(NULL, &b64_data, &cert);
if (ret != 0)
{
FREE (&b64_data_data);
return 0;
}
ptr = (unsigned char *)strstr((char*)b64_data.data, CERT_SEP) + 1;
ptr = (unsigned char *)strstr((char*)ptr, CERT_SEP);
b64_data.size = b64_data.size - (ptr - b64_data.data);
b64_data.data = ptr;
if (cert.size == peercert->size)
{
if (memcmp (cert.data, peercert->data, cert.size) == 0)
{
/* match found */
gnutls_free(cert.data);
FREE (&b64_data_data);
return 1;
}
}
gnutls_free(cert.data);
} while (ptr != NULL);
/* no match found */
FREE (&b64_data_data);
return 0;
}
