/*
* Get the check sum of password and verify code.
*
* First, compute check sum of password for three times.
* Then, join the result with the capitalizaion of the verify code.
* Compute the chekc sum of the new string.
*/
GString* get_pwvc_md5(const gchar *pwd, const gchar *vc, GError **err)
{
guint8 buf[100];
gsize bsize = 100;
GChecksum *cs = g_checksum_new(G_CHECKSUM_MD5);
g_checksum_update(cs, (const guchar*)pwd, strlen(pwd));
g_checksum_get_digest(cs, buf, &bsize);
g_checksum_free(cs);
cs = g_checksum_new(G_CHECKSUM_MD5);
g_checksum_update(cs, buf, bsize);
g_checksum_get_digest(cs, buf, &bsize);
g_checksum_free(cs);
cs = g_checksum_new(G_CHECKSUM_MD5);
g_checksum_update(cs, buf, bsize);
const gchar * md5_3 = g_checksum_get_string(cs);
md5_3 = g_ascii_strup(md5_3, strlen(md5_3));
gchar buf2[100];
g_sprintf(buf2, "%s%s", md5_3, vc);
g_checksum_free(cs);
gchar *tmp1;
tmp1 = g_ascii_strup(buf2, strlen(buf2));
tmp1 = g_compute_checksum_for_string(G_CHECKSUM_MD5
, tmp1, -1);
tmp1 = g_ascii_strup(tmp1, strlen(tmp1));
GString *re = g_string_new(tmp1);
g_free(tmp1);
return re;
}
void
hmac_sha1 ( guint8 *hmac, const guint8 *key, guint lk, const guint8 *data, guint ld )
{
GChecksum *sha1;
guint i;
gsize dl;
guint8 k_buf[SHA_DIGESTSIZE];
guint8 buf[SHA_BLOCKSIZE];
guint8 isha[SHA_DIGESTSIZE];
const guint8 *k;
sha1 = g_checksum_new ( G_CHECKSUM_SHA1 );
/* make sure key isn't too long */
if ( lk > SHA_BLOCKSIZE ) {
g_checksum_reset ( sha1 );
g_checksum_update ( sha1, key, lk );
dl = SHA_DIGESTSIZE;
g_checksum_get_digest ( sha1, k_buf, &dl);
lk = SHA_DIGESTSIZE;
k = k_buf;
} else {
k = key;
}
/**** Inner digest ****/
g_checksum_reset ( sha1 );
/* Pad the key for inner digest */
for ( i=0; i < lk; ++i ) buf[i] = k[i] ^ 0x36;
for ( i=lk; i < SHA_BLOCKSIZE; ++i ) buf[i] = 0x36;
g_checksum_update ( sha1, buf, SHA_BLOCKSIZE );
g_checksum_update ( sha1, data, ld );
dl = SHA_DIGESTSIZE;
g_checksum_get_digest ( sha1, isha, &dl);
/**** Outer digest ****/
g_checksum_reset ( sha1 );
/* Pad the key for outer digest */
for ( i=0; i < lk; ++i ) buf[i] = k[i] ^ 0x5C;
for ( i=lk; i < SHA_BLOCKSIZE; ++i ) buf[i] = 0x5C;
g_checksum_update ( sha1, buf, SHA_BLOCKSIZE );
g_checksum_update ( sha1, isha, SHA_DIGESTSIZE );
/* copy over the final result */
dl = SHA_DIGESTSIZE;
g_checksum_get_digest ( sha1, hmac, &dl);
/* cleanup */
g_checksum_free ( sha1 );
}
static void
_same_hash (const char *p0)
{
static gchar* memory[65536];
GString *prefix = g_string_new(p0);
gint64 counter;
GChecksum *c;
gchar num[64];
union {
guint8 b[32];
guint16 prefix;
} bin;
gsize binsize;
memset(&bin, 0, sizeof(bin));
counter = 0;
c = g_checksum_new(G_CHECKSUM_SHA256);
if (prefix && prefix->len > 0) {
/* pre-loads the memory with the prefix only */
g_checksum_update(c, (guint8*) prefix->str, prefix->len);
binsize = sizeof(bin.b);
g_checksum_get_digest(c, bin.b, &binsize);
memory[bin.prefix] = g_strdup(prefix->str);
}
for (;;) {
GString *gstr = g_string_new("");
if (prefix && prefix->len > 0)
g_string_append_len(gstr, prefix->str, prefix->len);
g_snprintf(num, sizeof(num), "%"G_GINT64_FORMAT, counter++);
g_string_append(gstr, num);
g_checksum_reset(c);
g_checksum_update(c, (guint8*) gstr->str, gstr->len);
binsize = sizeof(bin.b);
g_checksum_get_digest(c, bin.b, &binsize);
if (memory[bin.prefix]) {
g_print("%02X%02X %s %s\n", bin.b[0], bin.b[1],
memory[bin.prefix], gstr->str);
g_free(memory[bin.prefix]);
}
memory[bin.prefix] = g_string_free(gstr, FALSE);
}
g_checksum_free(c);
}
static void
_same_hash (const char *acct, const char *p0)
{
static gchar* memory[65536];
gint64 counter = 0;
union {
guint8 b[32];
guint16 prefix;
} bin;
memset(&bin, 0, sizeof(bin));
GChecksum *c = g_checksum_new(G_CHECKSUM_SHA256);
if (*p0) {
/* pre-loads the memory with the prefix only */
g_checksum_update(c, (guint8*) acct, strlen(acct));
g_checksum_update(c, (guint8*)"", 1);
g_checksum_update(c, (guint8*) p0, strlen(p0));
gsize binsize = sizeof(bin.b);
g_checksum_get_digest(c, bin.b, &binsize);
memory[bin.prefix] = g_strdup(p0);
}
for (;;) {
GString *gstr = g_string_new (p0);
g_string_append_printf (gstr, "%"G_GINT64_FORMAT, counter++);
g_checksum_reset(c);
g_checksum_update(c, (guint8*) acct, strlen(acct));
g_checksum_update(c, (guint8*)"", 1);
g_checksum_update(c, (guint8*) gstr->str, gstr->len);
gsize binsize = sizeof(bin.b);
g_checksum_get_digest(c, bin.b, &binsize);
if (memory[bin.prefix]) {
g_print("%02X%02X %s %s\n", bin.b[0], bin.b[1],
memory[bin.prefix], gstr->str);
g_free(memory[bin.prefix]);
}
memory[bin.prefix] = g_string_free(gstr, FALSE);
}
g_checksum_free(c);
}
static void
do_md5sum (SoupMessage *msg, SoupXMLRPCParams *params)
{
GVariant *args;
GVariant *child;
GChecksum *checksum;
GByteArray *digest;
gsize digest_len = 16;
if (!(args = parse_params (msg, params, "(ay)")))
return;
child = g_variant_get_child_value (args, 0);
checksum = g_checksum_new (G_CHECKSUM_MD5);
g_checksum_update (checksum,
g_variant_get_data (child),
g_variant_get_size (child));
digest = g_byte_array_new ();
g_byte_array_set_size (digest, digest_len);
g_checksum_get_digest (checksum, digest->data, &digest_len);
g_checksum_free (checksum);
soup_xmlrpc_message_set_response (msg,
g_variant_new_from_data (G_VARIANT_TYPE_BYTESTRING,
digest->data, digest_len,
TRUE, NULL, NULL),
NULL);
g_byte_array_free (digest, TRUE);
g_variant_unref (child);
g_variant_unref (args);
}
static void saveconfig(void)
{
const char *uid = gtk_entry_get_text(GTK_ENTRY(entry1));
const char *url = gtk_entry_get_text(GTK_ENTRY(entry3));
unsigned char md5pword[16];
gsize md5len = 16;
if (pwd != NULL && pwd[0] != '\0') {
GChecksum * state = g_checksum_new (G_CHECKSUM_MD5);
g_checksum_update (state, (unsigned char *) pwd, strlen (pwd));
g_checksum_get_digest (state, md5pword, & md5len);
g_checksum_free (state);
aud_set_string ("audioscrobbler", "password",
hexify ((gchar *) md5pword, sizeof md5pword));
}
if (uid != NULL && uid[0] != '\0') {
aud_set_string ("audioscrobbler", "username", uid);
} else {
aud_set_string ("audioscrobbler", "username", "");
aud_set_string ("audioscrobbler", "password", "");
}
if (url != NULL && url[0] != '\0')
aud_set_string ("audioscrobbler", "sc_url", url);
else
aud_set_string ("audioscrobbler", "sc_url", LASTFM_HS_URL);
}
static gchar *
calc_websocket_challenge_reply (const gchar * key)
{
const gchar *guid = "258EAFA5-E914-47DA-95CA-C5AB0DC85B11";
gchar *ret = NULL;
gchar *concat = g_strconcat (key, guid, NULL);
GChecksum *checksum = g_checksum_new (G_CHECKSUM_SHA1);
guint8 sha1[20];
gsize len = 20;
//g_print ("challenge: %s\n", key);
g_checksum_update (checksum, (guchar *) (concat), -1);
g_checksum_get_digest (checksum, sha1, &len);
g_free (concat);
ret = g_base64_encode (sha1, len);
g_checksum_free (checksum);
//g_print ("reply: %s\n", ret);
return ret;
}
static char *
compute_accept_key (const char *key)
{
gsize digest_len = FIXED_DIGEST_LEN;
guchar digest[FIXED_DIGEST_LEN];
GChecksum *checksum;
if (!key)
return NULL;
checksum = g_checksum_new (G_CHECKSUM_SHA1);
g_return_val_if_fail (checksum != NULL, NULL);
g_checksum_update (checksum, (guchar *)key, -1);
/* magic from: http://tools.ietf.org/html/draft-ietf-hybi-thewebsocketprotocol-17 */
g_checksum_update (checksum, (guchar *)"258EAFA5-E914-47DA-95CA-C5AB0DC85B11", -1);
g_checksum_get_digest (checksum, digest, &digest_len);
g_checksum_free (checksum);
g_assert (digest_len == FIXED_DIGEST_LEN);
return g_base64_encode (digest, digest_len);
}
/**
* gcr_fingerprint_from_subject_public_key_info:
* @key_info: (array length=n_key_info): DER encoded subjectPublicKeyInfo structure
* @n_key_info: length of DER encoded structure
* @checksum_type: the type of fingerprint to create
* @n_fingerprint: the length of fingerprint returned
*
* Create a key fingerprint for a DER encoded subjectPublicKeyInfo.
*
* Returns: (transfer full) (allow-none) (array length=n_fingerprint): the
* fingerprint or %NULL if the input was invalid.
*/
guchar *
gcr_fingerprint_from_subject_public_key_info (const guchar *key_info,
gsize n_key_info,
GChecksumType checksum_type,
gsize *n_fingerprint)
{
GChecksum *check;
guint8 *fingerprint;
g_return_val_if_fail (key_info, NULL);
g_return_val_if_fail (n_key_info, NULL);
g_return_val_if_fail (n_fingerprint, NULL);
check = g_checksum_new (checksum_type);
g_return_val_if_fail (check, NULL);
g_checksum_update (check, key_info, n_key_info);
*n_fingerprint = g_checksum_type_get_length (checksum_type);
fingerprint = g_malloc (*n_fingerprint);
g_checksum_get_digest (check, fingerprint, n_fingerprint);
g_checksum_free (check);
return fingerprint;
}
static void
append_fingerprint (GcrCertificateDetailsWidget *self, const guchar *data,
gsize n_data, const gchar *name, GChecksumType type)
{
GChecksum *checksum;
guint8 *buffer;
gsize n_buffer;
gchar *display;
checksum = g_checksum_new (type);
g_return_if_fail (checksum);
g_checksum_update (checksum, data, n_data);
n_buffer = g_checksum_type_get_length (type);
g_return_if_fail (n_buffer);
buffer = g_malloc0 (n_buffer);
g_checksum_get_digest (checksum, buffer, &n_buffer);
g_checksum_free (checksum);
display = egg_hex_encode_full (buffer, n_buffer, TRUE, ' ', 1);
append_field_and_value (self, name, display, TRUE);
g_free (display);
g_free (buffer);
}
/**
* Generate a UUID from an SMS PDU List
*
* @param pdu Pointer to array of PDUs data to generate the ID from
* @param pdus Number of entries in the \e pdu array
* @return 0 in error (no memory or serious code inconsistency in the
* input data structures), otherwise the SMS UUID.
*
* @internal
*
* The current time is added to avoid the UUID being the same when the
* same message is sent to the same destination repeatedly. Note we
* need a high resolution time (not just seconds), otherwise resending
* in the same second (not that rare) could yield the same UUID.
*/
static gboolean sms_uuid_from_pdus(const struct pending_pdu *pdu,
unsigned char pdus,
struct ofono_uuid *uuid)
{
GChecksum *checksum;
gsize uuid_size = sizeof(uuid->uuid);
unsigned int cnt;
struct timeval now;
checksum = g_checksum_new(G_CHECKSUM_SHA1);
if (checksum == NULL)
return FALSE;
for (cnt = 0; cnt < pdus; cnt++)
g_checksum_update(checksum, pdu[cnt].pdu, pdu[cnt].pdu_len);
gettimeofday(&now, NULL);
g_checksum_update(checksum, (void *) &now, sizeof(now));
g_checksum_get_digest(checksum, uuid->uuid, &uuid_size);
g_checksum_free(checksum);
return TRUE;
}
void
_gcr_display_view_append_fingerprint (GcrDisplayView *self, GcrRenderer *renderer, const guchar *data,
gsize n_data, const gchar *name, GChecksumType type)
{
GChecksum *checksum;
guint8 *buffer;
gsize n_buffer;
gchar *display;
g_return_if_fail (GCR_IS_DISPLAY_VIEW (self));
checksum = g_checksum_new (type);
g_return_if_fail (checksum);
g_checksum_update (checksum, data, n_data);
n_buffer = g_checksum_type_get_length (type);
g_return_if_fail (n_buffer);
buffer = g_malloc0 (n_buffer);
g_checksum_get_digest (checksum, buffer, &n_buffer);
g_checksum_free (checksum);
display = egg_hex_encode_full (buffer, n_buffer, TRUE, ' ', 1);
_gcr_display_view_append_value (self, renderer, name, display, TRUE);
g_free (display);
g_free (buffer);
}
static void chap_process_challenge(struct ppp_chap *chap, const guint8 *packet)
{
const struct chap_header *header = (const struct chap_header *) packet;
struct chap_header *response;
GChecksum *checksum;
const char *secret = g_at_ppp_get_password(chap->ppp);
const char *username = g_at_ppp_get_username(chap->ppp);
guint16 response_length;
struct ppp_header *ppp_packet;
gsize digest_len;
/* create a checksum over id, secret, and challenge */
checksum = g_checksum_new(chap->method);
if (checksum == NULL)
return;
g_checksum_update(checksum, &header->identifier, 1);
if (secret)
g_checksum_update(checksum, (guchar *) secret, strlen(secret));
g_checksum_update(checksum, &header->data[1], header->data[0]);
/* transmit a response packet */
/*
* allocate space for the header, the checksum, and the ppp header,
* and the value size byte
*/
digest_len = g_checksum_type_get_length(chap->method);
response_length = digest_len + sizeof(*header) + 1;
if (username != NULL)
response_length += strlen(username);
ppp_packet = ppp_packet_new(response_length, CHAP_PROTOCOL);
if (ppp_packet == NULL)
goto challenge_out;
response = (struct chap_header *) &ppp_packet->info;
if (response) {
response->code = RESPONSE;
response->identifier = header->identifier;
response->length = htons(response_length);
g_checksum_get_digest(checksum, response->data + 1,
&digest_len);
response->data[0] = digest_len;
/* leave the name empty? */
}
if (username != NULL)
memcpy(response->data + digest_len + 1, username,
strlen(username));
/* transmit the packet */
ppp_transmit(chap->ppp, (guint8 *) ppp_packet, response_length);
g_free(ppp_packet);
challenge_out:
g_checksum_free(checksum);
}
/**
* CacheUtilHashPassword:
* @algorithm: Hash algorithm.
* @salt: Random data, usually stored with the hash.
* @password: Secret value to hash.
*
* Returns: (allow-none): Hash value of concatenated @salt and @password, or
* #NULL if an argument was invalid.
*/
GBytes *CacheUtilHashPassword(GChecksumType algorithm, GBytes *salt,
const char *password) {
GChecksum *checksum = NULL;
gssize checksum_len = -1;
guint8 *result = NULL;
gsize result_len = 0;
if (!salt || !password)
return NULL;
checksum_len = g_checksum_type_get_length(algorithm);
if (checksum_len <= 0)
return NULL;
checksum = g_checksum_new(algorithm);
if (!checksum)
return NULL;
g_checksum_update(
checksum, g_bytes_get_data(salt, NULL), g_bytes_get_size(salt));
g_checksum_update(checksum, (guint8 *) password, strlen(password));
result = g_malloc(checksum_len);
result_len = checksum_len;
g_checksum_get_digest(checksum, result, &result_len);
g_assert(checksum_len == result_len);
g_checksum_free(checksum);
return g_bytes_new_take(result, result_len);
}
static gboolean compute_incoming_msgid(GSList *sms_list,
struct ofono_uuid *uuid)
{
GChecksum *checksum;
GSList *l;
const struct sms *s;
unsigned char buf[176];
gsize uuid_size = sizeof(uuid->uuid);
int len;
checksum = g_checksum_new(G_CHECKSUM_SHA1);
if (checksum == NULL)
return FALSE;
for (l = sms_list; l; l = l->next) {
s = l->data;
if (sms_encode(s, &len, NULL, buf) == FALSE) {
g_checksum_free(checksum);
return FALSE;
}
g_checksum_update(checksum, buf, len);
}
g_checksum_get_digest(checksum, uuid->uuid, &uuid_size);
g_checksum_free(checksum);
return TRUE;
}
static uint8_t *digest_cert(const char *cert, int length)
{
GChecksum *checksum;
uint8_t *hash;
gsize digest_len;
if (cert == NULL || length < 0)
return NULL;
digest_len = g_checksum_type_get_length(G_CHECKSUM_SHA1);
hash = g_try_malloc(digest_len);
if (hash == NULL)
return NULL;
checksum = g_checksum_new(G_CHECKSUM_SHA1);
if (checksum == NULL) {
g_free(hash);
return NULL;
}
g_checksum_update(checksum, cert, length);
g_checksum_get_digest(checksum, hash, &digest_len);
DBG("Digest is: ");
__seel_apdu_dump(hash, digest_len);
g_checksum_free(checksum);
return hash;
}
const char *
oio_str_autocontainer_name (const char *path, gchar *dst,
const struct oio_str_autocontainer_config_s *cfg)
{
guint8 bin[64];
g_assert (path != NULL);
g_assert (dst != NULL);
g_assert (cfg != NULL);
gsize len = strlen (path);
gsize src_offset = cfg->src_offset;
gsize src_size = cfg->src_size;
if (src_offset + src_size > len)
return NULL;
/* TODO check the sum doesn't cause an overflow... */
if (!src_size)
src_size = len - src_offset;
GChecksum *checksum = g_checksum_new (G_CHECKSUM_SHA256);
g_checksum_update (checksum, (guint8*)(path+src_offset), src_size);
len = sizeof(bin);
g_checksum_get_digest (checksum, bin, &len);
g_checksum_free (checksum);
return oio_str_autocontainer_hash (bin, 64, dst, cfg);
}
void SHA1SKey(char *x)
{
GChecksum *checksum;
guint8 digest[20];
gsize digest_len = sizeof (digest);
guint32 *results;
checksum = g_checksum_new (G_CHECKSUM_SHA1);
g_checksum_update (checksum, (const guchar *) x, SKEY_SIZE);
g_checksum_get_digest (checksum, digest, &digest_len);
g_assert (digest_len == 20);
results = (guint32 *) digest;
#ifndef WORDS_BIGENDIAN
HTONDIGEST(results);
#else
byteReverse((unsigned char *)digest, 5);
#endif
results[0] ^= results[2];
results[1] ^= results[3];
results[0] ^= results[4];
memcpy((void *)x, (void *)results, SKEY_SIZE);
g_checksum_free (checksum);
}
static void
do_md5sum (SoupMessage *msg, GValueArray *params)
{
GChecksum *checksum;
GByteArray *data, *digest;
gsize digest_len = 16;
if (params->n_values != 1) {
args_error (msg, params, 1);
return;
}
if (!soup_value_array_get_nth (params, 0, SOUP_TYPE_BYTE_ARRAY, &data)) {
type_error (msg, SOUP_TYPE_BYTE_ARRAY, params, 0);
return;
}
checksum = g_checksum_new (G_CHECKSUM_MD5);
g_checksum_update (checksum, data->data, data->len);
digest = g_byte_array_new ();
g_byte_array_set_size (digest, digest_len);
g_checksum_get_digest (checksum, digest->data, &digest_len);
g_checksum_free (checksum);
soup_xmlrpc_set_response (msg, SOUP_TYPE_BYTE_ARRAY, digest);
g_byte_array_free (digest, TRUE);
}
static void
wep128_passphrase_hash (const char *input,
size_t input_len,
guint8 *out_digest,
size_t *out_digest_len)
{
GChecksum *sum;
guint8 data[64];
int i;
g_return_if_fail (out_digest != NULL);
g_return_if_fail (out_digest_len != NULL);
g_return_if_fail (*out_digest_len >= 16);
/* Get at least 64 bytes by repeating the passphrase into the buffer */
for (i = 0; i < sizeof (data); i++)
data[i] = input[i % input_len];
sum = g_checksum_new (G_CHECKSUM_MD5);
g_assert (sum);
g_checksum_update (sum, data, sizeof (data));
g_checksum_get_digest (sum, out_digest, out_digest_len);
g_checksum_free (sum);
g_assert (*out_digest_len == 16);
/* WEP104 keys are 13 bytes in length (26 hex characters) */
*out_digest_len = 13;
}
char* bg_blur_pict_get_dest_path (const char* src_uri)
{
g_debug ("[%s] bg_blur_pict_get_dest_path: src_uri=%s", __func__, src_uri);
g_return_val_if_fail (src_uri != NULL, NULL);
//1. calculate original picture md5
GChecksum* checksum;
checksum = g_checksum_new (G_CHECKSUM_MD5);
g_checksum_update (checksum, (const guchar *) src_uri, strlen (src_uri));
guint8 digest[16];
gsize digest_len = sizeof (digest);
g_checksum_get_digest (checksum, digest, &digest_len);
g_assert (digest_len == 16);
//2. build blurred picture path
char* file;
file = g_strconcat (g_checksum_get_string (checksum), ".png", NULL);
g_checksum_free (checksum);
char* path;
path = g_build_filename (g_get_user_cache_dir (),
BG_BLUR_PICT_CACHE_DIR,
file,
NULL);
g_free (file);
return path;
}
static GByteArray *
generate_duid_from_machine_id (void)
{
GByteArray *duid;
char *contents = NULL;
GChecksum *sum;
guint8 buffer[32]; /* SHA256 digest size */
gsize sumlen = sizeof (buffer);
const guint16 duid_type = g_htons (4);
uuid_t uuid;
GRand *generator;
guint i;
gboolean success = FALSE;
/* Get the machine ID from /etc/machine-id; it's always in /etc no matter
* where our configured SYSCONFDIR is. Alternatively, it might be in
* LOCALSTATEDIR /lib/dbus/machine-id.
*/
if ( g_file_get_contents ("/etc/machine-id", &contents, NULL, NULL)
|| g_file_get_contents (LOCALSTATEDIR "/lib/dbus/machine-id", &contents, NULL, NULL)) {
contents = g_strstrip (contents);
success = machine_id_parse (contents, uuid);
if (success) {
/* Hash the machine ID so it's not leaked to the network */
sum = g_checksum_new (G_CHECKSUM_SHA256);
g_checksum_update (sum, (const guchar *) &uuid, sizeof (uuid));
g_checksum_get_digest (sum, buffer, &sumlen);
g_checksum_free (sum);
}
g_free (contents);
}
if (!success) {
nm_log_warn (LOGD_DHCP6, "Failed to read " SYSCONFDIR "/machine-id "
"or " LOCALSTATEDIR "/lib/dbus/machine-id to generate "
"DHCPv6 DUID; creating non-persistent random DUID.");
generator = g_rand_new ();
for (i = 0; i < sizeof (buffer) / sizeof (guint32); i++)
((guint32 *) buffer)[i] = g_rand_int (generator);
g_rand_free (generator);
}
/* Generate a DHCP Unique Identifier for DHCPv6 using the
* DUID-UUID method (see RFC 6355 section 4). Format is:
*
* u16: type (DUID-UUID = 4)
* u8[16]: UUID bytes
*/
duid = g_byte_array_sized_new (18);
g_byte_array_append (duid, (guint8 *) &duid_type, sizeof (duid_type));
/* Since SHA256 is 256 bits, but UUID is 128 bits, we just take the first
* 128 bits of the SHA256 as the DUID-UUID.
*/
g_byte_array_append (duid, buffer, 16);
return duid;
}
/**
* g_hmac_get_digest:
* @hmac: a #GHmac
* @buffer: (array length=digest_len): output buffer
* @digest_len: (inout): an inout parameter. The caller initializes it to the
* size of @buffer. After the call it contains the length of the digest
*
* Gets the digest from @checksum as a raw binary array and places it
* into @buffer. The size of the digest depends on the type of checksum.
*
* Once this function has been called, the #GHmac is closed and can
* no longer be updated with g_checksum_update().
*
* Since: 2.30
*/
void
g_hmac_get_digest (GHmac *hmac,
guint8 *buffer,
gsize *digest_len)
{
gsize len;
g_return_if_fail (hmac != NULL);
len = g_checksum_type_get_length (hmac->digest_type);
g_return_if_fail (*digest_len >= len);
/* Use the same buffer, because we can :) */
g_checksum_get_digest (hmac->digesti, buffer, &len);
g_checksum_update (hmac->digesto, buffer, len);
g_checksum_get_digest (hmac->digesto, buffer, digest_len);
}
char *jabber_sasl_cram_md5_response(session_t *s, char *challenge, const char *username, const char *password) {
char *digstr, *tmp, *retval;
gsize i, len, block_size = 64;
GChecksum *idigest = g_checksum_new(G_CHECKSUM_MD5);
GChecksum *odigest = g_checksum_new(G_CHECKSUM_MD5);
guchar *buf = g_malloc0(block_size);
guchar *pad = g_malloc0(block_size);
if (xstrlen(password) > block_size) {
gsize len = block_size;
g_checksum_update(idigest, (const guchar *)password, xstrlen(password));
g_checksum_get_digest(idigest, buf, &len);
g_checksum_reset(idigest);
} else
memcpy(buf, password, xstrlen(password));
/* ipad */
for (i = 0; i < block_size; i++)
pad[i] = 0x36 ^ buf[i];
g_checksum_update(idigest, pad, block_size);
/* opad */
for (i = 0; i < block_size; i++)
pad[i] = 0x5c ^ buf[i];
g_checksum_update(odigest, pad, block_size);
g_checksum_update(idigest, (const guchar *)challenge, xstrlen(challenge));
g_checksum_get_digest(idigest, buf, &len);
g_checksum_update(odigest, buf, len);
g_checksum_get_digest(odigest, buf, &len);
digstr = g_strdup(g_checksum_get_string(odigest));
g_checksum_free(idigest);
g_checksum_free(odigest);
g_free(buf);
g_free(pad);
tmp = g_strdup_printf("%s %s", username, digstr);
retval = base64_encode(tmp, xstrlen(tmp));
g_free(tmp);
g_free(digstr);
return retval;
}
gchar *
kms_utils_generate_fingerprint_from_pem (const gchar * pem)
{
guint i;
gchar *line;
guchar *der, *tmp;
gchar **lines;
gint state = 0;
guint save = 0;
gsize der_length = 0;
GChecksum *checksum;
guint8 *digest;
gsize digest_length;
GString *fingerprint;
gchar *ret;
if (pem == NULL) {
GST_ERROR ("Pem certificate is null");
return NULL;
}
der = tmp = g_new0 (guchar, (strlen (pem) / 4) * 3 + 3);
lines = g_strsplit (pem, "\n", 0);
for (i = 0, line = lines[i]; line; line = lines[++i]) {
if (line[0] && g_str_has_prefix (line, BEGIN_CERTIFICATE)) {
i++;
break;
}
}
for (line = lines[i]; line; line = lines[++i]) {
if (line[0] && g_str_has_prefix (line, END_CERTIFICATE)) {
break;
}
tmp += g_base64_decode_step (line, strlen (line), tmp, &state, &save);
}
der_length = tmp - der;
checksum = g_checksum_new (G_CHECKSUM_SHA256);
digest_length = g_checksum_type_get_length (G_CHECKSUM_SHA256);
digest = g_new (guint8, digest_length);
g_checksum_update (checksum, der, der_length);
g_checksum_get_digest (checksum, digest, &digest_length);
fingerprint = g_string_new (NULL);
for (i = 0; i < digest_length; i++) {
if (i)
g_string_append (fingerprint, ":");
g_string_append_printf (fingerprint, "%02X", digest[i]);
}
ret = g_string_free (fingerprint, FALSE);
g_free (digest);
g_checksum_free (checksum);
g_free (der);
g_strfreev (lines);
return ret;
}
void md5(gchar *prehash, guint8 *hash) {
GChecksum *checksum;
gsize size = cipher->hash_len;
checksum = g_checksum_new(G_CHECKSUM_MD5);
g_checksum_update(checksum, (guchar *)prehash, strlen(prehash));
g_checksum_get_digest(checksum, hash, &size);
g_checksum_free(checksum);
}
guchar *
ot_csum_from_gchecksum (GChecksum *checksum)
{
guchar *ret = g_malloc (32);
gsize len = 32;
g_checksum_get_digest (checksum, ret, &len);
g_assert (len == 32);
return ret;
}
static uint8_t *hash (const void *buffer, size_t size, uint8_t *out, GChecksumType type) {
GChecksum *s = g_checksum_new(type);
gsize digest_size = g_checksum_type_get_length(type);
g_checksum_update(s, buffer, size);
g_checksum_get_digest(s, out, &digest_size);
g_checksum_free(s);
return out;
}
void fs_emu_netplay_init() {
const char *value;
g_send_mutex = fs_mutex_create();
g_connection_mutex = fs_mutex_create();
g_input_event_mutex = fs_mutex_create();
g_input_event_queue = g_queue_new();
g_wait_for_frame_cond = fs_condition_create();
g_wait_for_frame_mutex = fs_mutex_create();
value = fs_config_get_const_string("netplay_server");
if (value) {
g_fs_emu_netplay_server = g_strdup(value);
}
if (!fs_emu_netplay_enabled()) {
return;
}
value = fs_config_get_const_string("netplay_tag");
if (value) {
strncpy(g_fs_emu_netplay_tag, value, 4);
}
else {
g_fs_emu_netplay_tag[0] = 'U';
g_fs_emu_netplay_tag[1] = 'N';
g_fs_emu_netplay_tag[2] = 'K';
}
g_fs_emu_netplay_tag[3] = '\0';
value = fs_config_get_const_string("netplay_port");
if (value) {
g_fs_emu_netplay_port = g_strdup(value);
}
char *password_value = fs_config_get_string("netplay_password");
if (password_value) {
GChecksum *cs = g_checksum_new(G_CHECKSUM_SHA1);
g_checksum_update(cs, (unsigned char *) "FSNP", 4);
int len = strlen(password_value);
for (int i = 0; i < len; i++) {
unsigned char c = password_value[i];
// only include ASCII characters
if (c < 128) {
g_checksum_update(cs, &c, 1);
}
}
gsize digest_len = 20;
g_checksum_get_digest(cs, g_fs_emu_netplay_password, &digest_len);
free(password_value);
g_checksum_free(cs);
}
}
static GBytes *
dfu_patch_calculate_checksum (GBytes *blob)
{
const guchar *data;
gsize digest_len = 20;
gsize sz = 0;
guint8 *buf = g_malloc0 (digest_len);
g_autoptr(GChecksum) csum = NULL;
csum = g_checksum_new (G_CHECKSUM_SHA1);
data = g_bytes_get_data (blob, &sz);
g_checksum_update (csum, data, (gssize) sz);
g_checksum_get_digest (csum, buf, &digest_len);
return g_bytes_new_take (buf, digest_len);
}