int
net_baseline_fsproto_recv (__sock pso, pmda base, pmda threadr, void *data)
{
mutex_lock (&pso->mutex);
if (pso->counters.b_read < pso->unit_size)
{
pthread_mutex_unlock (&pso->mutex);
return -2;
}
//size_t in_read, blk_sz;
__fs_sts psts = (__fs_sts ) pso->va_p1;
psts->data_in += (uint64_t) pso->counters.b_read;
SHA1_Update (&psts->sha_00.context, pso->buffer0,
(size_t) pso->counters.b_read);
if (time (NULL) - psts->l_stat >= 1)
{
uint64_t dpt = psts->data_in - psts->cyc_data_last;
uint32_t speed = dpt / (time (NULL) - psts->l_stat);
psts->cyc_data_last = psts->data_in;
psts->l_stat = time (NULL);
double p_done = (double) (((double) psts->data_in
/ (double) psts->hstat.file_size) * 100);
fprintf (stderr, "STATS: [%d]: recv: %llu/%llu [%.2f%%] [%u K/s] bytes\r",
pso->sock, (unsigned long long int) psts->data_in,
(unsigned long long int) psts->hstat.file_size, p_done,
(unsigned int) speed / 1024);
}
if (psts->data_in == psts->hstat.file_size)
{
net_proto_reset_to_baseline (pso);
psts->notify_cb = net_baseline_fsproto_xfer_validate;
psts->stage = FS_STSS_XFER_R_WSHA;
if (!SHA1_Final ((unsigned char*) psts->sha_00.value.data,
&psts->sha_00.context))
{
print_str (
"ERROR: net_baseline_fsproto_recv: [%d]: [%d]: SHA1_Final failed\n",
pso->sock, psts->handle);
net_baseline_fsproto_recv_validate (pso, F_RQH_OP_FAILED,
"XFER FAILED");
pthread_mutex_unlock (&pso->mutex);
return 1;
}
char buffer[128];
print_str (
"D4: net_baseline_fsproto_recv: [%d]: recieved %llu bytes [%s]\n",
pso->sock,
psts->data_in,
bb_to_ascii (psts->sha_00.value.data, sizeof(psts->sha_00.value.data),
buffer));
//pso->flags |= F_OPSOCK_TERM;
}
else if (psts->data_in > psts->hstat.file_size)
{
print_str (
"ERROR: net_baseline_fsproto_recv: [%d]: got too much data: %llu bytes\n",
pso->sock, psts->data_in);
net_proto_reset_to_baseline (pso);
net_baseline_fsproto_recv_validate (pso, F_RQH_OP_FAILED, "XFER FAILED");
}
else if (((uint64_t) psts->hstat.file_size - psts->data_in)
< (uint64_t) pso->unit_size)
{
pso->unit_size = (uint64_t) psts->hstat.file_size - psts->data_in;
print_str (
"D4: net_baseline_fsproto_recv: [%d]: scaling unit size to %llu\n",
pso->sock, (uint64_t) pso->unit_size);
}
pso->counters.b_read = 0;
/* }
else if (pso->counters.b_read > pso->unit_size)
{
print_str(
"ERROR: net_baseline_fsproto_recv: got too much data: %d bytes\n",
pso->counters.b_read);
net_proto_reset_to_baseline(pso);
pso->flags |= F_OPSOCK_TERM;
}*/
pthread_mutex_unlock (&pso->mutex);
return 0;
}
uint32_t TSS_GenPCRInfo(uint32_t pcrmap, unsigned char *pcrinfo, uint32_t *len)
{
struct pcrinfo
{
uint16_t selsize;
unsigned char select[TPM_PCR_MASK_SIZE];
unsigned char relhash[TPM_HASH_SIZE];
unsigned char crthash[TPM_HASH_SIZE];
} myinfo;
uint32_t i;
int j;
uint32_t work;
unsigned char *valarray;
uint32_t numregs;
uint32_t ret;
uint32_t valsize;
SHA_CTX sha;
/* check arguments */
if (pcrinfo == NULL || len == NULL) return ERR_NULL_ARG;
/* build pcr selection array */
work = pcrmap;
memset(myinfo.select,0,TPM_PCR_MASK_SIZE);
for (i = 0; i < TPM_PCR_MASK_SIZE; ++i)
{
myinfo.select[i] = work & 0x000000FF;
work = work >> 8;
}
/* calculate number of PCR registers requested */
numregs = 0;
work = pcrmap;
for (i = 0; i < (TPM_PCR_MASK_SIZE * 8); ++i)
{
if (work & 1) ++numregs;
work = work >> 1;
}
if (numregs == 0)
{
*len = 0;
return 0;
}
/* create the array of PCR values */
valarray = (unsigned char *)malloc(TPM_HASH_SIZE * numregs);
/* read the PCR values into the value array */
work = pcrmap;
j = 0;
for (i = 0; i < (TPM_PCR_MASK_SIZE * 8); ++i, work = work >> 1)
{
if ((work & 1) == 0) continue;
ret = TPM_PcrRead(i,&(valarray[(j*TPM_HASH_SIZE)]));
if (ret) return ret;
++j;
}
myinfo.selsize = ntohs(TPM_PCR_MASK_SIZE);
valsize = ntohl(numregs * TPM_HASH_SIZE);
/* calculate composite hash */
SHA1_Init(&sha);
SHA1_Update(&sha,&myinfo.selsize,TPM_U16_SIZE);
SHA1_Update(&sha,&myinfo.select,TPM_PCR_MASK_SIZE);
SHA1_Update(&sha,&valsize,TPM_U32_SIZE);
for (i = 0;i < numregs;++i)
{
SHA1_Update(&sha,&(valarray[(i*TPM_HASH_SIZE)]),TPM_HASH_SIZE);
}
SHA1_Final(myinfo.relhash,&sha);
memcpy(myinfo.crthash,myinfo.relhash,TPM_HASH_SIZE);
memcpy(pcrinfo,&myinfo,sizeof (struct pcrinfo));
*len = sizeof (struct pcrinfo);
return 0;
}
void
trap_init(const char *ver)
{
int r;
uint8_t digest[20];
struct sigaction sa, old;
char path[256];
SHA_CTX binsum;
int fd;
r = readlink("/proc/self/exe", self, sizeof(self) - 1);
if(r == -1)
self[0] = 0;
else
self[r] = 0;
memset(digest, 0, sizeof(digest));
if((fd = open("/proc/self/exe", O_RDONLY)) != -1) {
struct stat st;
if(!fstat(fd, &st)) {
char *m = malloc(st.st_size);
if(m != NULL) {
if(read(fd, m, st.st_size) == st.st_size) {
SHA1_Init(&binsum);
SHA1_Update(&binsum, (void *)m, st.st_size);
SHA1_Final(digest, &binsum);
}
free(m);
}
}
close(fd);
}
snprintf(line1, sizeof(line1),
"PRG: %s (%s) "
"[%02x%02x%02x%02x%02x%02x%02x%02x%02x%02x"
"%02x%02x%02x%02x%02x%02x%02x%02x%02x%02x] "
"CWD: %s ", ver, tvheadend_version,
digest[0],
digest[1],
digest[2],
digest[3],
digest[4],
digest[5],
digest[6],
digest[7],
digest[8],
digest[9],
digest[10],
digest[11],
digest[12],
digest[13],
digest[14],
digest[15],
digest[16],
digest[17],
digest[18],
digest[19],
getcwd(path, sizeof(path)));
memcpy(tvh_binshasum, digest, 20);
dl_iterate_phdr(callback, NULL);
memset(&sa, 0, sizeof(sa));
sigset_t m;
sigemptyset(&m);
sigaddset(&m, SIGSEGV);
sigaddset(&m, SIGBUS);
sigaddset(&m, SIGILL);
sigaddset(&m, SIGABRT);
sigaddset(&m, SIGFPE);
sa.sa_sigaction = traphandler;
sa.sa_flags = SA_SIGINFO | SA_RESETHAND;
sigaction(SIGSEGV, &sa, &old);
sigaction(SIGBUS, &sa, &old);
sigaction(SIGILL, &sa, &old);
sigaction(SIGABRT, &sa, &old);
sigaction(SIGFPE, &sa, &old);
sigprocmask(SIG_UNBLOCK, &m, NULL);
}
int ICACHE_FLASH_ATTR http_ws_handle_connect(http_connection *c) {
NODE_DBG("http_ws_handle_connect c =%p",c);
if(c->state == HTTPD_STATE_ON_URL){
http_set_save_header(c,HTTP_ORIGIN);
http_set_save_header(c,HTTP_CONNECTION);
http_set_save_header(c,HTTP_UPGRADE);
http_set_save_header(c,HTTP_SEC_WEBSOCKET_KEY);
http_set_save_header(c,HTTP_SEC_WEBSOCKET_PROTOCOL);
http_set_save_header(c,HTTP_SEC_WEBSOCKET_VERSION);
return HTTP_WS_CGI_MORE;
}
//wait handshake request complete
if(c->state != HTTPD_STATE_BODY_END)
return HTTP_WS_CGI_MORE;
header * upgrade_header = http_get_header(c,HTTP_UPGRADE);
header * connection_header = http_get_header(c,HTTP_CONNECTION);
header * origin_header = http_get_header(c,HTTP_ORIGIN);
header * key_header = http_get_header(c,HTTP_SEC_WEBSOCKET_KEY);
if(upgrade_header==NULL) goto badrequest;
if(connection_header==NULL) goto badrequest;
if(origin_header==NULL) goto badrequest;
if(key_header==NULL) goto badrequest;
NODE_DBG("headers ok");
if(os_strcasecmp(upgrade_header->value,"websocket")!=0) goto badrequest;
// Following (https://tools.ietf.org/html/draft-ietf-hybi-thewebsocketprotocol-17)
//calculate sha1 of concatenetion key+uuid
uint8_t digest[20]; //sha1 is always 20 byte long
SHA1_CTX ctx;
SHA1_Init(&ctx);
SHA1_Update(&ctx,key_header->value,os_strlen(key_header->value));
SHA1_Update(&ctx,ws_uuid,os_strlen(ws_uuid));
SHA1_Final(digest,&ctx);
char base64Digest[31]; //
Base64encode(base64Digest,(const char*)digest,20);
//accept the handshake
http_SET_HEADER(c,HTTP_UPGRADE,"websocket");
http_SET_HEADER(c,HTTP_CONNECTION,"Upgrade");
http_SET_HEADER(c,HTTP_WEBSOCKET_ACCEPT,base64Digest);
http_websocket_HANDSHAKE(c);
c->handshake_ok=1;
if(client_connected_callback!=NULL)
client_connected_callback(c);
return HTTP_WS_CGI_MORE;
badrequest:
http_response_BAD_REQUEST(c);
return HTTP_WS_CGI_DONE;
}
CFDictionaryRef APCreateDictionaryForLicenseData(CFDataRef data)
{
if (!rsaKey->n || !rsaKey->e)
return NULL;
// Make the property list from the data
CFStringRef errorString = NULL;
CFPropertyListRef propertyList;
propertyList = CFPropertyListCreateFromXMLData(kCFAllocatorDefault, data, kCFPropertyListMutableContainers, &errorString);
if (errorString || CFDictionaryGetTypeID() != CFGetTypeID(propertyList) || !CFPropertyListIsValid(propertyList, kCFPropertyListXMLFormat_v1_0)) {
if (propertyList)
CFRelease(propertyList);
return NULL;
}
// Load the signature
CFMutableDictionaryRef licenseDictionary = (CFMutableDictionaryRef)propertyList;
if (!CFDictionaryContainsKey(licenseDictionary, CFSTR("Signature"))) {
CFRelease(licenseDictionary);
return NULL;
}
CFDataRef sigData = CFDictionaryGetValue(licenseDictionary, CFSTR("Signature"));
CFIndex sigDataLength = CFDataGetLength(sigData);
UInt8 sigBytes[sigDataLength];
CFDataGetBytes(sigData, CFRangeMake(0, sigDataLength), sigBytes);
CFDictionaryRemoveValue(licenseDictionary, CFSTR("Signature"));
// Decrypt the signature
int checkDigestMaxSize = RSA_size(rsaKey)-11;
unsigned char checkDigest[checkDigestMaxSize];
if (sigDataLength < 0 || sigDataLength > INT_MAX ||
RSA_public_decrypt((int)sigDataLength, sigBytes, checkDigest, rsaKey, RSA_PKCS1_PADDING) != SHA_DIGEST_LENGTH) {
CFRelease(licenseDictionary);
return NULL;
}
// Get the license hash
CFMutableStringRef hashCheck = CFStringCreateMutable(kCFAllocatorDefault,0);
int hashIndex;
for (hashIndex = 0; hashIndex < SHA_DIGEST_LENGTH; hashIndex++)
CFStringAppendFormat(hashCheck, nil, CFSTR("%02x"), checkDigest[hashIndex]);
APSetHash(hashCheck);
CFRelease(hashCheck);
if (blacklist && (CFArrayContainsValue(blacklist, CFRangeMake(0, CFArrayGetCount(blacklist)), hash) == true))
return NULL;
// Get the number of elements
CFIndex count = CFDictionaryGetCount(licenseDictionary);
// Load the keys and build up the key array
CFMutableArrayRef keyArray = CFArrayCreateMutable(kCFAllocatorDefault, count, NULL);
CFStringRef keys[count];
CFDictionaryGetKeysAndValues(licenseDictionary, (const void**)&keys, NULL);
int i;
for (i = 0; i < count; i++)
CFArrayAppendValue(keyArray, keys[i]);
// Sort the array
int context = kCFCompareCaseInsensitive;
CFArraySortValues(keyArray, CFRangeMake(0, count), (CFComparatorFunction)CFStringCompare, &context);
// Setup up the hash context
SHA_CTX ctx;
SHA1_Init(&ctx);
// Convert into UTF8 strings
for (i = 0; i < count; i++)
{
char *valueBytes;
CFIndex valueLengthAsUTF8;
CFStringRef key = CFArrayGetValueAtIndex(keyArray, i);
CFStringRef value = CFDictionaryGetValue(licenseDictionary, key);
// Account for the null terminator
valueLengthAsUTF8 = CFStringGetMaximumSizeForEncoding(CFStringGetLength(value), kCFStringEncodingUTF8) + 1;
valueBytes = (char *)malloc(valueLengthAsUTF8);
CFStringGetCString(value, valueBytes, valueLengthAsUTF8, kCFStringEncodingUTF8);
SHA1_Update(&ctx, valueBytes, strlen(valueBytes));
free(valueBytes);
}
unsigned char digest[SHA_DIGEST_LENGTH];
SHA1_Final(digest, &ctx);
if (keyArray != NULL)
CFRelease(keyArray);
// Check if the signature is a match
for (i = 0; i < SHA_DIGEST_LENGTH; i++) {
if (checkDigest[i] ^ digest[i]) {
CFRelease(licenseDictionary);
return NULL;
}
}
// If it's a match, we return the dictionary; otherwise, we never reach this
return licenseDictionary;
}
void close8900(AbstractFile* file) {
unsigned char ivec[16];
SHA_CTX sha_ctx;
unsigned char md[20];
/*int align;*/
size_t origSize;
uint32_t cksum;
Info8900* info = (Info8900*) (file->data);
if(info->dirty) {
if(info->header.format == 3) {
/* we need to block-align our data, or AES will break */
origSize = info->header.sizeOfData;
/* gotta break abstraction here, because Apple is mean */
if(((Img2Header*)info->buffer)->signature == IMG2_SIGNATURE) {
((Img2Header*)info->buffer)->dataLenPadded = ((Img2Header*)info->buffer)->dataLenPadded % 16 == 0 ? ((Img2Header*)info->buffer)->dataLenPadded : ((((Img2Header*)info->buffer)->dataLenPadded/16) + 1) * 16;
info->header.sizeOfData = ((Img2Header*)info->buffer)->dataLenPadded + sizeof(Img2Header);
cksum = "";//crc32(0, (unsigned char *)info->buffer, 0x64);
FLIPENDIANLE(cksum);
((Img2Header*)info->buffer)->header_checksum = cksum;
}
info->header.sizeOfData = (info->header.sizeOfData) % 16 == 0 ? info->header.sizeOfData : ((info->header.sizeOfData/16) + 1) * 16;
if(info->header.sizeOfData != origSize) {
info->buffer = realloc(info->buffer, info->header.sizeOfData);
memset((void*)((uint8_t*)info->buffer + origSize), 0, info->header.sizeOfData - origSize);
}
}
info->header.footerSignatureOffset = info->header.sizeOfData;
info->header.footerCertOffset = info->header.footerSignatureOffset + 0x80;
if(info->header.format == 3) {
memset(ivec, 0, 16);
AES_cbc_encrypt(info->buffer, info->buffer, info->header.sizeOfData, &(info->encryptKey), ivec, AES_ENCRYPT);
}
info->file->seek(info->file, sizeof(info->header));
info->file->write(info->file, info->buffer, info->header.sizeOfData);
info->file->seek(info->file, sizeof(info->header) + info->header.footerSignatureOffset);
info->file->write(info->file, info->footerSignature, 0x80);
info->file->seek(info->file, sizeof(info->header) + info->header.footerCertOffset);
if(info->exploit) {
info->footerCertificate[0x8be] = 0x9F;
info->footerCertificate[0xb08] = 0x55;
}
info->file->write(info->file, info->footerCertificate, info->header.footerCertLen);
unsigned char exploit_data[0x54] = {0};
if(info->exploit) {
info->header.footerCertLen = 0xc5e;
exploit_data[0x30] = 0x01;
exploit_data[0x50] = 0xEC;
exploit_data[0x51] = 0x57;
exploit_data[0x53] = 0x20;
info->file->write(info->file, exploit_data, sizeof(exploit_data));
}
flipApple8900Header(&(info->header));
SHA1_Init(&sha_ctx);
SHA1_Update(&sha_ctx, &(info->header), 0x40);
SHA1_Final(md, &sha_ctx);
memset(ivec, 0, 16);
AES_cbc_encrypt(md, (unsigned char*)&(info->header.headerSignature), 0x10, &(info->encryptKey), ivec, AES_ENCRYPT);
info->file->seek(info->file, 0);
info->file->write(info->file, &(info->header), sizeof(info->header));
}
free(info->footerCertificate);
free(info->buffer);
info->file->close(info->file);
free(info);
free(file);
}
/* content-defined chunking */
int file_chunk_cdc(int fd_src,
CDCFileDescriptor *file_descr,
SeafileCrypt *crypt,
gboolean write_data)
{
char *buf;
uint32_t buf_sz;
SHA_CTX file_ctx;
CDCDescriptor chunk_descr;
SHA1_Init (&file_ctx);
SeafStat sb;
if (seaf_fstat (fd_src, &sb) < 0) {
return -1;
}
uint64_t expected_size = sb.st_size;
init_cdc_file_descriptor (fd_src, expected_size, file_descr);
uint32_t block_min_sz = file_descr->block_min_sz;
uint32_t block_mask = file_descr->block_sz - 1;
int fingerprint = 0;
int offset = 0;
int ret = 0;
int tail, cur, rsize;
buf_sz = file_descr->block_max_sz;
buf = chunk_descr.block_buf = malloc (buf_sz);
if (!buf)
return -1;
/* buf: a fix-sized buffer.
* cur: data behind (inclusive) this offset has been scanned.
* cur + 1 is the bytes that has been scanned.
* tail: length of data loaded into memory. buf[tail] is invalid.
*/
tail = cur = 0;
while (1) {
if (cur < block_min_sz) {
rsize = block_min_sz - cur + READ_SIZE;
} else {
rsize = (buf_sz - tail < READ_SIZE) ? (buf_sz - tail) : READ_SIZE;
}
ret = readn (fd_src, buf + tail, rsize);
if (ret < 0) {
free (buf);
return -1;
}
tail += ret;
file_descr->file_size += ret;
if (file_descr->file_size > expected_size) {
g_warning ("File size changed while chunking.\n");
free (buf);
return -1;
}
/* We've read all the data in this file. Output the block immediately
* in two cases:
* 1. The data left in the file is less than block_min_sz;
* 2. We cannot find the break value until the end of this file.
*/
if (tail < block_min_sz || cur >= tail) {
if (tail > 0) {
if (file_descr->block_nr == file_descr->max_block_nr) {
g_warning ("Block id array is not large enough, bail out.\n");
free (buf);
return -1;
}
WRITE_CDC_BLOCK (tail, write_data);
}
break;
}
/*
* A block is at least of size block_min_sz.
*/
if (cur < block_min_sz - 1)
cur = block_min_sz - 1;
while (cur < tail) {
fingerprint = (cur == block_min_sz - 1) ?
finger(buf + cur - BLOCK_WIN_SZ + 1, BLOCK_WIN_SZ) :
rolling_finger (fingerprint, BLOCK_WIN_SZ,
*(buf+cur-BLOCK_WIN_SZ), *(buf + cur));
/* get a chunk, write block info to chunk file */
if (((fingerprint & block_mask) == ((BREAK_VALUE & block_mask)))
|| cur + 1 >= file_descr->block_max_sz)
{
if (file_descr->block_nr == file_descr->max_block_nr) {
g_warning ("Block id array is not large enough, bail out.\n");
free (buf);
return -1;
}
WRITE_CDC_BLOCK (cur + 1, write_data);
break;
} else {
cur ++;
}
}
}
SHA1_Final (file_descr->file_sum, &file_ctx);
free (buf);
return 0;
}
JNIEXPORT jobjectArray JNICALL Java_org_exobel_routerkeygen_ThomsonKeygen_thirdDicNative
(JNIEnv * env, jobject obj , jbyteArray ess , jbyteArray ent, jint size)
{
int year = 4;
int week = 1;
int i = 0 , j = 0;
char debug[80];
char input[13];
char result[5][11];
int keys = 0;
unsigned int sequenceNumber;
unsigned int inc = 0;
uint8_t message_digest[20];
SHA_CTX sha1;
int a,b,c;
jclass cls = (*env)->GetObjectClass(env, obj);
jfieldID fid_s = (*env)->GetFieldID(env, cls, "stopRequested", "Z");
if ( fid_s == NULL ) {
return; /* exception already thrown */
}
unsigned char stop = (*env)->GetBooleanField(env, obj, fid_s);
int len = size;
jbyte *entry_native= (*env)->GetByteArrayElements(env, ent, 0);
uint8_t * entry = ( uint8_t * )malloc( len * sizeof(uint8_t) );
for( i = 0; i < len; ++i )
{
entry[i] = entry_native[i];
}
jbyte *e_native= (*env)->GetByteArrayElements(env, ess, 0);
uint8_t ssid[3];
ssid[0] = e_native[0];
ssid[1] = e_native[1];
ssid[2] = e_native[2];
input[0] = 'C';
input[1] = 'P';
input[2] = '0';
sequenceNumber = 0;
for( i = 0; i < len; i+=2 )
{
sequenceNumber += ( entry[i + 0 ]<<8 ) | entry[i + 1 ];
for ( j = 0 ; j < 18 ; ++j )
{
inc = j* ( 36*36*36*6*3);
year = ( (sequenceNumber+inc) / ( 36*36*36 )% 6) + 4 ;
week = (sequenceNumber+inc) / ( 36*36*36*6 ) + 1 ;
c = sequenceNumber % 36;
b = sequenceNumber/36 % 36;
a = sequenceNumber/(36*36) % 36;
input[3] = '0' + year % 10 ;
input[4] = '0' + week / 10;
input[5] = '0' + week % 10;
input[6] = charectbytes0[a];
input[7] = charectbytes1[a];
input[8] = charectbytes0[b];
input[9] = charectbytes1[b];
input[10] = charectbytes0[c];
input[11] = charectbytes1[c];
SHA1_Init(&sha1);
SHA1_Update(&sha1 ,(const void *) input , 12 );
SHA1_Final(message_digest , &sha1 );
if( ( memcmp(&message_digest[17],&ssid[0],3) == 0) ){
sprintf( result[keys++], "%02X%02X%02X%02X%02X\0" , message_digest[0], message_digest[1] ,
message_digest[2] , message_digest[3], message_digest[4] );
}
}
}
jobjectArray ret;
ret= (jobjectArray)(*env)->NewObjectArray(env,keys, (*env)->FindClass(env,"java/lang/String"),0);
for ( i = 0; i < keys ; ++i )
(*env)->SetObjectArrayElement(env,ret,i,(*env)->NewStringUTF(env, result[i]));
(*env)->ReleaseByteArrayElements(env, ess, e_native, 0);
return ret;
}
int asr_send_payload(asr_client_t asr, const char* filesystem) {
char data[ASR_PAYLOAD_PACKET_SIZE];
FILE* file = NULL;
off_t i, length, bytes = 0;
double progress = 0;
file = fopen(filesystem, "rb");
if (file == NULL) {
error("ERROR: Unable to open filesystem image %s: %s\n",
filesystem, strerror(errno));
return -1;
}
fseeko(file, 0, SEEK_END);
length = ftello(file);
fseeko(file, 0, SEEK_SET);
int chunk = 0;
int add_checksum = 0;
SHA_CTX sha1;
if (asr->checksum_chunks) {
SHA1_Init(&sha1);
}
int size = 0;
for (i = length; i > 0; i -= size) {
size = ASR_PAYLOAD_PACKET_SIZE;
if (i < ASR_PAYLOAD_PACKET_SIZE) {
size = i;
}
if (add_checksum) {
add_checksum = 0;
}
if (asr->checksum_chunks && ((chunk + size) >= ASR_CHECKSUM_CHUNK_SIZE)) {
// reduce packet size to match checksum chunk size
size -= ((chunk + size) - ASR_CHECKSUM_CHUNK_SIZE);
add_checksum = 1;
}
if (fread(data, 1, size, file) != (unsigned int) size) {
error("Error reading filesystem\n");
fclose(file);
return -1;
}
if (asr_send_buffer(asr, data, size) < 0) {
error("ERROR: Unable to send filesystem payload\n");
fclose(file);
return -1;
}
if (asr->checksum_chunks) {
SHA1_Update(&sha1, data, size);
chunk += size;
if (add_checksum) {
// get sha1 of last chunk
SHA1_Final((unsigned char*)data, &sha1);
// send checksum
if (asr_send_buffer(asr, data, 20) < 0) {
error("ERROR: Unable to send chunk checksum\n");
fclose(file);
return -1;
}
// reset SHA1 context
SHA1_Init(&sha1);
// reset chunk byte counter
chunk = 0;
}
}
bytes += size;
progress = ((double)bytes / (double)length);
if (asr->progress_cb && ((int)(progress*100) > asr->lastprogress)) {
asr->progress_cb(progress, asr->progress_cb_data);
asr->lastprogress = (int)(progress*100);
}
}
// if last chunk wasn't terminated with a checksum we do it here
if (asr->checksum_chunks && !add_checksum) {
// get sha1 of last chunk
SHA1_Final((unsigned char*)data, &sha1);
// send checksum
if (asr_send_buffer(asr, data, 20) < 0) {
error("ERROR: Unable to send chunk checksum\n");
fclose(file);
return -1;
}
}
fclose(file);
return 0;
}
// don't forward the first argument
void CL_ForwardToServer_f (void) {
// Added by VVD {
char *server_string, client_time_str[9];
int i, server_string_len;
extern cvar_t cl_crypt_rcon;
time_t client_time;
// Added by VVD }
if (cls.mvdplayback == QTV_PLAYBACK) {
QTV_Cl_ForwardToServer_f();
return;
}
if (cls.state == ca_disconnected) {
Com_Printf ("Can't \"%s\", not connected\n", Cmd_Argv(0));
return;
}
if (cls.demoplayback)
return; // not really connected
if (Cmd_Argc() > 1) {
if (strcasecmp(Cmd_Argv(1), "snap") == 0) {
SCR_RSShot_f ();
return;
}
//bliP ->
if (strcasecmp(Cmd_Argv(1), "fileul") == 0) {
CL_StartFileUpload ();
return;
}
//<-
MSG_WriteByte (&cls.netchan.message, clc_stringcmd);
/* johnnycz: disabled due to security reasons -- fixme
if (strcasecmp(Cmd_Argv(1), "download") == 0 && Cmd_Argc() > 2)
{
strlcpy(cls.downloadname, Cmd_Argv(2), sizeof(cls.downloadname));
COM_StripExtension(cls.downloadname, cls.downloadtempname);
strlcat(cls.downloadtempname, ".tmp", sizeof(cls.downloadtempname));
cls.downloadtype = dl_single;
//snprintf (cls.downloadname, sizeof(cls.downloadname), "%s", Cmd_Argv(2));
//strlcpy (cls.downloadtempname, cls.downloadname, sizeof(cls.downloadtempname));
}
*/
// Added by VVD {
if (cl_crypt_rcon.value && strcasecmp(Cmd_Argv(1), "techlogin") == 0 && Cmd_Argc() > 2)
{
time(&client_time);
for (client_time_str[0] = i = 0; i < sizeof(client_time); i++) {
char tmp[3];
snprintf(tmp, sizeof(tmp), "%02X", (unsigned int)((client_time >> (i * 8)) & 0xFF));
strlcat(client_time_str, tmp, sizeof(client_time_str));
}
server_string_len = Cmd_Argc() + strlen(Cmd_Argv(1)) + DIGEST_SIZE * 2 + 16;
for (i = 3; i < Cmd_Argc(); ++i)
server_string_len += strlen(Cmd_Argv(i));
server_string = (char *) Q_malloc(server_string_len);
SHA1_Init();
SHA1_Update((unsigned char *)Cmd_Argv(1));
SHA1_Update((unsigned char *)" ");
SHA1_Update((unsigned char *)Cmd_Argv(2));
SHA1_Update((unsigned char *)client_time_str);
SHA1_Update((unsigned char *)" ");
for (i = 3; i < Cmd_Argc(); ++i)
{
SHA1_Update((unsigned char *)Cmd_Argv(i));
SHA1_Update((unsigned char *)" ");
}
snprintf(server_string, server_string_len, "%s %s%s ",
Cmd_Argv(1), SHA1_Final(), client_time_str);
for (i = 3; i < Cmd_Argc(); ++i)
{
strlcat(server_string, Cmd_Argv(i), server_string_len);
strlcat(server_string, " ", server_string_len);
}
SZ_Print (&cls.netchan.message, server_string);
Q_free(server_string);
}
else
int
main(int argc, char *argv[])
{
#if HAVE_OPENSSL_SHA_H
unsigned char boot_aggregate[SHA_DIGEST_LENGTH];
struct {
struct {
u_int32_t pcr;
int type;
unsigned char digest[SHA_DIGEST_LENGTH];
u_int16_t len;
} header;
unsigned char data[MAX_EVENT_DATA_SIZE];
} event;
struct {
unsigned char digest[SHA_DIGEST_LENGTH];
} pcr[NUM_PCRS];
FILE *fp;
int i;
int debug = 0;
SHA_CTX c;
if (argc != 2) {
printf("format: %s binary_bios_measurement file\n", argv[0]);
return 1;
}
fp = fopen(argv[1], "r");
if (!fp) {
perror("unable to open pcr file\n");
return 1;
}
/* Initialize psuedo PCR registers 0 - 7 */
for ( i = 0; i < NUM_PCRS; i++)
memset(&pcr[i].digest, 0, SHA_DIGEST_LENGTH);
/* Extend the pseudo PCRs with the event digest */
while (fread(&event, sizeof(event.header), 1, fp)) {
if (debug) {
printf("%03u ", event.header.pcr);
display_sha1_digest(event.header.digest);
}
SHA1_Init(&c);
SHA1_Update(&c, pcr[event.header.pcr].digest, 20);
SHA1_Update(&c, event.header.digest, 20);
SHA1_Final(pcr[event.header.pcr].digest, &c);
if (event.header.len > MAX_EVENT_DATA_SIZE) {
printf("Error event too long");
break;
}
fread(event.data, event.header.len, 1, fp);
}
fclose(fp);
/* Extend the boot aggregate with the pseudo PCR digest values */
memset(&boot_aggregate, 0, SHA_DIGEST_LENGTH);
SHA1_Init(&c);
for (i = 0; i < NUM_PCRS; i++) {
if (debug) {
printf("PCR-%2.2x: ", i);
display_sha1_digest(pcr[i].digest);
}
SHA1_Update(&c, pcr[i].digest, 20);
}
SHA1_Final(boot_aggregate, &c);
printf("boot_aggregate:");
display_sha1_digest(boot_aggregate);
#else
tst_resm(TCONF, "System doesn't have openssl/sha.h");
#endif
tst_exit();
}
/**
* Construct a new x509 object.
* @return 0 if ok. < 0 if there was a problem.
*/
int x509_new(const uint8_t *cert, int *len, X509_CTX **ctx)
{
int begin_tbs, end_tbs, begin_spki, end_spki;
int ret = X509_NOT_OK, offset = 0, cert_size = 0;
int version = 0;
X509_CTX *x509_ctx;
#ifdef CONFIG_SSL_CERT_VERIFICATION /* only care if doing verification */
BI_CTX *bi_ctx;
#endif
*ctx = (X509_CTX *)calloc(1, sizeof(X509_CTX));
x509_ctx = *ctx;
/* get the certificate size */
asn1_skip_obj(cert, &cert_size, ASN1_SEQUENCE);
if (asn1_next_obj(cert, &offset, ASN1_SEQUENCE) < 0)
goto end_cert;
begin_tbs = offset; /* start of the tbs */
end_tbs = begin_tbs; /* work out the end of the tbs */
asn1_skip_obj(cert, &end_tbs, ASN1_SEQUENCE);
if (asn1_next_obj(cert, &offset, ASN1_SEQUENCE) < 0)
goto end_cert;
/* optional version */
if (cert[offset] == ASN1_EXPLICIT_TAG &&
asn1_version(cert, &offset, &version) == X509_NOT_OK)
goto end_cert;
if (asn1_skip_obj(cert, &offset, ASN1_INTEGER) || /* serial number */
asn1_next_obj(cert, &offset, ASN1_SEQUENCE) < 0)
goto end_cert;
/* make sure the signature is ok */
if (asn1_signature_type(cert, &offset, x509_ctx))
{
ret = X509_VFY_ERROR_UNSUPPORTED_DIGEST;
goto end_cert;
}
if (asn1_name(cert, &offset, x509_ctx->ca_cert_dn) ||
asn1_validity(cert, &offset, x509_ctx) ||
asn1_name(cert, &offset, x509_ctx->cert_dn))
{
goto end_cert;
}
begin_spki = offset;
if (asn1_public_key(cert, &offset, x509_ctx))
goto end_cert;
end_spki = offset;
x509_ctx->fingerprint = malloc(SHA1_SIZE);
SHA1_CTX sha_fp_ctx;
SHA1_Init(&sha_fp_ctx);
SHA1_Update(&sha_fp_ctx, &cert[0], cert_size);
SHA1_Final(x509_ctx->fingerprint, &sha_fp_ctx);
x509_ctx->spki_sha256 = malloc(SHA256_SIZE);
SHA256_CTX spki_hash_ctx;
SHA256_Init(&spki_hash_ctx);
SHA256_Update(&spki_hash_ctx, &cert[begin_spki], end_spki-begin_spki);
SHA256_Final(x509_ctx->spki_sha256, &spki_hash_ctx);
#ifdef CONFIG_SSL_CERT_VERIFICATION /* only care if doing verification */
bi_ctx = x509_ctx->rsa_ctx->bi_ctx;
/* use the appropriate signature algorithm */
switch (x509_ctx->sig_type)
{
case SIG_TYPE_MD5:
{
MD5_CTX md5_ctx;
uint8_t md5_dgst[MD5_SIZE];
MD5_Init(&md5_ctx);
MD5_Update(&md5_ctx, &cert[begin_tbs], end_tbs-begin_tbs);
MD5_Final(md5_dgst, &md5_ctx);
x509_ctx->digest = bi_import(bi_ctx, md5_dgst, MD5_SIZE);
}
break;
case SIG_TYPE_SHA1:
{
SHA1_CTX sha_ctx;
uint8_t sha_dgst[SHA1_SIZE];
SHA1_Init(&sha_ctx);
SHA1_Update(&sha_ctx, &cert[begin_tbs], end_tbs-begin_tbs);
SHA1_Final(sha_dgst, &sha_ctx);
x509_ctx->digest = bi_import(bi_ctx, sha_dgst, SHA1_SIZE);
}
break;
case SIG_TYPE_SHA256:
{
SHA256_CTX sha256_ctx;
uint8_t sha256_dgst[SHA256_SIZE];
SHA256_Init(&sha256_ctx);
SHA256_Update(&sha256_ctx, &cert[begin_tbs], end_tbs-begin_tbs);
SHA256_Final(sha256_dgst, &sha256_ctx);
x509_ctx->digest = bi_import(bi_ctx, sha256_dgst, SHA256_SIZE);
}
break;
case SIG_TYPE_SHA384:
{
SHA384_CTX sha384_ctx;
uint8_t sha384_dgst[SHA384_SIZE];
SHA384_Init(&sha384_ctx);
SHA384_Update(&sha384_ctx, &cert[begin_tbs], end_tbs-begin_tbs);
SHA384_Final(sha384_dgst, &sha384_ctx);
x509_ctx->digest = bi_import(bi_ctx, sha384_dgst, SHA384_SIZE);
}
break;
case SIG_TYPE_SHA512:
{
SHA512_CTX sha512_ctx;
uint8_t sha512_dgst[SHA512_SIZE];
SHA512_Init(&sha512_ctx);
SHA512_Update(&sha512_ctx, &cert[begin_tbs], end_tbs-begin_tbs);
SHA512_Final(sha512_dgst, &sha512_ctx);
x509_ctx->digest = bi_import(bi_ctx, sha512_dgst, SHA512_SIZE);
}
break;
}
if (version == 2 && asn1_next_obj(cert, &offset, ASN1_V3_DATA) > 0)
{
x509_v3_subject_alt_name(cert, offset, x509_ctx);
x509_v3_basic_constraints(cert, offset, x509_ctx);
x509_v3_key_usage(cert, offset, x509_ctx);
}
offset = end_tbs; /* skip the rest of v3 data */
if (asn1_skip_obj(cert, &offset, ASN1_SEQUENCE) ||
asn1_signature(cert, &offset, x509_ctx))
goto end_cert;
/* Saves a few bytes of memory */
bi_clear_cache(bi_ctx);
#endif
ret = X509_OK;
end_cert:
if (len)
{
*len = cert_size;
}
if (ret)
{
#ifdef CONFIG_SSL_FULL_MODE
char buff[64];
printf("Error: Invalid X509 ASN.1 file (%s)\n",
x509_display_error(ret, buff));
#endif
x509_free(x509_ctx);
*ctx = NULL;
}
return ret;
}
void binary_scan(char* binary){
printf("Scanning %s ...\n", binary);
char *bin_arr = NULL;
unsigned int bin_sz = 0;
int ret = read_binary(binary, &bin_arr, &bin_sz);
if (ret < 0)
return;
//Printing Signature of binary. Random 20 bytes inside binary.
#if 0
int i;
for(i=bin_sz-20;i<bin_sz-0;i++){
printf("%02x ", bin_arr[i]&0xff);
}
printf("\n");
printf("Size of %s: %d bytes.\n", binary, bin_sz);
#endif
unsigned char sha1[SHA_DIGEST_LENGTH];
SHA_CTX ctx;
SHA1_Init(&ctx);
SHA1_Update(&ctx, bin_arr, bin_sz);
SHA1_Final(sha1, &ctx);
#if 0
printf("SHA1 of %s: ", binary);
for (i = 0; i < SHA_DIGEST_LENGTH; i++) {
printf("%02x", sha1[i]);
}
printf("\n");
#endif
char* details;
ret = check_in_whitelist(sha1);
if (ret < 0) {
printf("Failed to check whitelist\n");
sprintf(msg,"[%s] failed to check whitelist\n",binary);
log_to_file(msg);
} else if (ret == 0) {
printf("Present in Whitelist. Binary is safe to execute.\n");
sprintf(msg,"[%s]Present in Whitelist. Binary is safe to execute.\n",binary);
log_to_file(msg);
return;
}
ret = check_in_blacklist(binary, &details);
if (ret < 0) {
printf("Failed to check blacklist. Antivirus check failed.\n");
sprintf(msg,"[%s] failed to check blacklist. Antivirus check failed\n",binary);
log_to_file(msg);
return;
} else if (ret == 0) {
printf("Virus Found! Details:%s", details);
/* DO NOT CHANGE BELOW LINE WITHOUT WRITTEN PERMISSION*/
sprintf(msg,"[%s]Virus Found! Details:%s\n",binary, details);
log_to_file(msg);
return;
}
printf("File didn't match with any of virus database. Not likely a virus.\n");
printf(msg,"[%s] File didn't match with any of virus database. Not likely a virus.\n",binary);
log_to_file(msg);
}
//--------------------------------------------------
// Calculates files SHA1 digest
// szFileName - file name
// nDigestType - digest type. Supports only SHA1 (0)
// pDigestBuf - buffer to store the digest
// nDigestLen - buffer size, must be at least 20
// will be updated by actual digest length
// lFileLen - pointer to a buffer where to store the file length
// returns error code or ERR_OK for success
//--------------------------------------------------
EXP_OPTION int calculateFileDigest(const char* szFileName, int nDigestType,
byte* pDigestBuf, int* nDigestLen, long* lFileLen)
{
int err = ERR_OK;
byte buf[FILE_BUFSIZE];
int i;
FILE *f = NULL;
RETURN_IF_NULL_PARAM(szFileName);
RETURN_IF_NULL_PARAM(pDigestBuf);
RETURN_IF_NULL_PARAM(nDigestLen);
RETURN_IF_NULL_PARAM(lFileLen);
memset(pDigestBuf, 0, *nDigestLen);
if(nDigestType == DIGEST_SHA1) {
if(*nDigestLen >= SHA_DIGEST_LENGTH) {
SHA_CTX ctx;
*nDigestLen = SHA_DIGEST_LENGTH;
if((f = fopen(szFileName,"rb")) != NULL) {
//byte *data,*temp_data;
SHA1_Init(&ctx);
*lFileLen = 0;
for (;;) {
i = fread(buf, sizeof(char), FILE_BUFSIZE, f);
if (i <= 0) break;
*lFileLen += i;
SHA1_Update(&ctx, buf, (unsigned long)i);
}
SHA1_Final(pDigestBuf,&ctx);
fclose(f);
} // if - fopen
else
err = ERR_FILE_READ;
}
else
err = ERR_DIGEST_LEN;
} //AM 22.04.08
else if(nDigestType == DIGEST_SHA256){
if(*nDigestLen >= SHA_DIGEST_LENGTH) {
SHA256_CTX ctx;
*nDigestLen = SHA256_DIGEST_LENGTH;
if((f = fopen(szFileName,"rb")) != NULL) {
//byte *data,*temp_data;
SHA256_Init(&ctx);
*lFileLen = 0;
for (;;) {
i = fread(buf, sizeof(char), FILE_BUFSIZE, f);
if (i <= 0) break;
*lFileLen += i;
SHA256_Update(&ctx, buf, (unsigned long)i);
}
SHA256_Final(pDigestBuf,&ctx);
fclose(f);
} // if - fopen
else
err = ERR_FILE_READ;
}
else
err = ERR_DIGEST_LEN;
}
else
err = ERR_UNSUPPORTED_DIGEST;
if (err != ERR_OK) SET_LAST_ERROR(err);
return err;
}
static tr_bool
verifyTorrent( tr_torrent * tor, tr_bool * stopFlag )
{
time_t end;
SHA_CTX sha;
int fd = -1;
int64_t filePos = 0;
tr_bool changed = 0;
tr_bool hadPiece = 0;
time_t lastSleptAt = 0;
uint32_t piecePos = 0;
tr_file_index_t fileIndex = 0;
tr_file_index_t prevFileIndex = !fileIndex;
tr_piece_index_t pieceIndex = 0;
const time_t begin = tr_time( );
const size_t buflen = 1024 * 128; /* 128 KiB buffer */
uint8_t * buffer = tr_valloc( buflen );
SHA1_Init( &sha );
tr_tordbg( tor, "%s", "verifying torrent..." );
tr_torrentSetChecked( tor, 0 );
while( !*stopFlag && ( pieceIndex < tor->info.pieceCount ) )
{
uint32_t leftInPiece;
uint32_t bytesThisPass;
uint64_t leftInFile;
const tr_file * file = &tor->info.files[fileIndex];
/* if we're starting a new piece... */
if( piecePos == 0 )
hadPiece = tr_cpPieceIsComplete( &tor->completion, pieceIndex );
/* if we're starting a new file... */
if( !filePos && (fd<0) && (fileIndex!=prevFileIndex) )
{
char * filename = tr_torrentFindFile( tor, fileIndex );
fd = filename == NULL ? -1 : tr_open_file_for_scanning( filename );
tr_free( filename );
prevFileIndex = fileIndex;
}
/* figure out how much we can read this pass */
leftInPiece = tr_torPieceCountBytes( tor, pieceIndex ) - piecePos;
leftInFile = file->length - filePos;
bytesThisPass = MIN( leftInFile, leftInPiece );
bytesThisPass = MIN( bytesThisPass, buflen );
/* read a bit */
if( fd >= 0 ) {
const ssize_t numRead = tr_pread( fd, buffer, bytesThisPass, filePos );
if( numRead > 0 ) {
bytesThisPass = (uint32_t)numRead;
SHA1_Update( &sha, buffer, bytesThisPass );
#if defined HAVE_POSIX_FADVISE && defined POSIX_FADV_DONTNEED
posix_fadvise( fd, filePos, bytesThisPass, POSIX_FADV_DONTNEED );
#endif
}
}
/* move our offsets */
leftInPiece -= bytesThisPass;
leftInFile -= bytesThisPass;
piecePos += bytesThisPass;
filePos += bytesThisPass;
/* if we're finishing a piece... */
if( leftInPiece == 0 )
{
time_t now;
tr_bool hasPiece;
uint8_t hash[SHA_DIGEST_LENGTH];
SHA1_Final( hash, &sha );
hasPiece = !memcmp( hash, tor->info.pieces[pieceIndex].hash, SHA_DIGEST_LENGTH );
if( hasPiece || hadPiece ) {
tr_torrentSetHasPiece( tor, pieceIndex, hasPiece );
changed |= hasPiece != hadPiece;
}
tr_torrentSetPieceChecked( tor, pieceIndex );
now = tr_time( );
tor->anyDate = now;
/* sleeping even just a few msec per second goes a long
* way towards reducing IO load... */
if( lastSleptAt != now ) {
lastSleptAt = now;
tr_wait_msec( MSEC_TO_SLEEP_PER_SECOND_DURING_VERIFY );
}
SHA1_Init( &sha );
++pieceIndex;
piecePos = 0;
}
/* if we're finishing a file... */
if( leftInFile == 0 )
{
if( fd >= 0 ) { tr_close_file( fd ); fd = -1; }
++fileIndex;
filePos = 0;
}
}
/* cleanup */
if( fd >= 0 )
tr_close_file( fd );
free( buffer );
/* stopwatch */
end = tr_time( );
tr_tordbg( tor, "Verification is done. It took %d seconds to verify %"PRIu64" bytes (%"PRIu64" bytes per second)",
(int)(end-begin), tor->info.totalSize,
(uint64_t)(tor->info.totalSize/(1+(end-begin))) );
return changed;
}
void Sha1Hash::Finalize(void)
{
SHA1_Final(mDigest, &mC);
}
_SCAPI_NOT_CONFIGURED
#endif /* */
/*
* sc_hash(): a generic wrapper around whatever hashing package we are using.
*
* IN:
* hashtype - oid pointer to a hash type
* hashtypelen - length of oid pointer
* buf - u_char buffer to be hashed
* buf_len - integer length of buf data
* MAC_len - length of the passed MAC buffer size.
*
* OUT:
* MAC - pre-malloced space to store hash output.
* MAC_len - length of MAC output to the MAC buffer.
*
* Returns:
* SNMPERR_SUCCESS Success.
* SNMP_SC_GENERAL_FAILURE Any error.
*/
int
sc_hash(const oid * hashtype, size_t hashtypelen, const u_char * buf,
size_t buf_len, u_char * MAC, size_t * MAC_len)
#if defined(NETSNMP_USE_INTERNAL_MD5) || defined(NETSNMP_USE_OPENSSL) || defined(NETSNMP_USE_PKCS11) || defined(NETSNMP_USE_INTERNAL_CRYPTO)
{
#if defined(NETSNMP_USE_OPENSSL) || defined(NETSNMP_USE_PKCS11) || defined(NETSNMP_USE_INTERNAL_CRYPTO)
int rval = SNMPERR_SUCCESS;
unsigned int tmp_len;
#endif
int ret;
#ifdef NETSNMP_USE_OPENSSL
const EVP_MD *hashfn;
EVP_MD_CTX ctx, *cptr;
#endif
#ifdef NETSNMP_USE_INTERNAL_CRYPTO
MD5_CTX cmd5;
SHA_CTX csha1;
#endif
DEBUGTRACE;
if (hashtype == NULL || buf == NULL || buf_len <= 0 ||
MAC == NULL || MAC_len == NULL )
return (SNMPERR_GENERR);
ret = sc_get_properlength(hashtype, hashtypelen);
if (( ret < 0 ) || (*MAC_len < (size_t)ret ))
return (SNMPERR_GENERR);
#ifdef NETSNMP_USE_OPENSSL
/*
* Determine transform type.
*/
#ifndef NETSNMP_DISABLE_MD5
if (ISTRANSFORM(hashtype, HMACMD5Auth)) {
hashfn = (const EVP_MD *) EVP_md5();
} else
#endif
if (ISTRANSFORM(hashtype, HMACSHA1Auth)) {
hashfn = (const EVP_MD *) EVP_sha1();
} else {
return (SNMPERR_GENERR);
}
/** initialize the pointer */
memset(&ctx, 0, sizeof(ctx));
cptr = &ctx;
#if defined(OLD_DES)
EVP_DigestInit(cptr, hashfn);
#else /* !OLD_DES */
/* this is needed if the runtime library is different than the compiled
library since the openssl versions are very different. */
if (SSLeay() < 0x907000) {
/* the old version of the struct was bigger and thus more
memory is needed. should be 152, but we use 256 for safety. */
cptr = (EVP_MD_CTX *)malloc(256);
EVP_DigestInit(cptr, hashfn);
} else {
EVP_MD_CTX_init(cptr);
EVP_DigestInit(cptr, hashfn);
}
#endif
/** pass the data */
EVP_DigestUpdate(cptr, buf, buf_len);
/** do the final pass */
#if defined(OLD_DES)
EVP_DigestFinal(cptr, MAC, &tmp_len);
*MAC_len = tmp_len;
#else /* !OLD_DES */
if (SSLeay() < 0x907000) {
EVP_DigestFinal(cptr, MAC, &tmp_len);
*MAC_len = tmp_len;
free(cptr);
} else {
EVP_DigestFinal_ex(cptr, MAC, &tmp_len);
*MAC_len = tmp_len;
EVP_MD_CTX_cleanup(cptr);
}
#endif /* OLD_DES */
return (rval);
#elif NETSNMP_USE_INTERNAL_CRYPTO
#ifndef NETSNMP_DISABLE_MD5
if (ISTRANSFORM(hashtype, HMACMD5Auth)) {
if (*MAC_len < MD5_DIGEST_LENGTH)
return (SNMPERR_GENERR); /* the buffer isn't big enough */
MD5_Init(&cmd5);
MD5_Update(&cmd5, buf, buf_len);
MD5_Final(MAC, &cmd5);
*MAC_len = MD5_DIGEST_LENGTH;
} else
#endif
if (ISTRANSFORM(hashtype, HMACSHA1Auth)) {
if (*MAC_len < SHA_DIGEST_LENGTH)
return (SNMPERR_GENERR); /* the buffer isn't big enough */
SHA1_Init(&csha1);
SHA1_Update(&csha1, buf, buf_len);
SHA1_Final(MAC, &csha1);
*MAC_len = SHA_DIGEST_LENGTH;
} else {
return (SNMPERR_GENERR);
}
return (rval);
#elif NETSNMP_USE_PKCS11 /* NETSNMP_USE_PKCS11 */
#ifndef NETSNMP_DISABLE_MD5
if (ISTRANSFORM(hashtype, HMACMD5Auth)) {
rval = pkcs_digest(CKM_MD5, buf, buf_len, MAC, &tmp_len);
*MAC_len = tmp_len;
} else
#endif
if (ISTRANSFORM(hashtype, HMACSHA1Auth)) {
rval = pkcs_digest(CKM_SHA_1, buf, buf_len, MAC, &tmp_len);
*MAC_len = tmp_len;
} else {
return (SNMPERR_GENERR);
}
return (rval);
#else /* NETSNMP_USE_INTERNAL_MD5 */
if (MDchecksum(buf, buf_len, MAC, *MAC_len)) {
return SNMPERR_GENERR;
}
if (*MAC_len > 16)
*MAC_len = 16;
return SNMPERR_SUCCESS;
#endif /* NETSNMP_USE_OPENSSL */
}
void crypto_sha1_final(CryptoSha1 sha1, BYTE* out_data)
{
SHA1_Final(out_data, &sha1->sha_ctx);
free(sha1);
}
int ssl_test_rc4(int argc, char *argv[])
{
int i,err=0;
int j;
unsigned char *p;
RC4_KEY key;
unsigned char obuf[512];
for (i=0; i<6; i++)
{
RC4_set_key(&key,keys[i][0],&(keys[i][1]));
TINYCLR_SSL_MEMSET(obuf,0x00,sizeof(obuf));
RC4(&key,data_len[i],&(data[i][0]),obuf);
if (TINYCLR_SSL_MEMCMP(obuf,output[i],data_len[i]+1) != 0)
{
TINYCLR_SSL_PRINTF("error calculating RC4\n");
TINYCLR_SSL_PRINTF("output:");
for (j=0; j<data_len[i]+1; j++)
TINYCLR_SSL_PRINTF(" %02x",obuf[j]);
TINYCLR_SSL_PRINTF("\n");
TINYCLR_SSL_PRINTF("expect:");
p= &(output[i][0]);
for (j=0; j<data_len[i]+1; j++)
TINYCLR_SSL_PRINTF(" %02x",*(p++));
TINYCLR_SSL_PRINTF("\n");
err++;
}
else
TINYCLR_SSL_PRINTF("test %d ok\n",i);
}
TINYCLR_SSL_PRINTF("test end processing ");
for (i=0; i<data_len[3]; i++)
{
RC4_set_key(&key,keys[3][0],&(keys[3][1]));
TINYCLR_SSL_MEMSET(obuf,0x00,sizeof(obuf));
RC4(&key,i,&(data[3][0]),obuf);
if ((TINYCLR_SSL_MEMCMP(obuf,output[3],i) != 0) || (obuf[i] != 0))
{
TINYCLR_SSL_PRINTF("error in RC4 length processing\n");
TINYCLR_SSL_PRINTF("output:");
for (j=0; j<i+1; j++)
TINYCLR_SSL_PRINTF(" %02x",obuf[j]);
TINYCLR_SSL_PRINTF("\n");
TINYCLR_SSL_PRINTF("expect:");
p= &(output[3][0]);
for (j=0; j<i; j++)
TINYCLR_SSL_PRINTF(" %02x",*(p++));
TINYCLR_SSL_PRINTF(" 00\n");
err++;
}
else
{
TINYCLR_SSL_PRINTF(".");
TINYCLR_SSL_FFLUSH(OPENSSL_TYPE__FILE_STDOUT);
}
}
TINYCLR_SSL_PRINTF("done\n");
TINYCLR_SSL_PRINTF("test multi-call ");
for (i=0; i<data_len[3]; i++)
{
RC4_set_key(&key,keys[3][0],&(keys[3][1]));
TINYCLR_SSL_MEMSET(obuf,0x00,sizeof(obuf));
RC4(&key,i,&(data[3][0]),obuf);
RC4(&key,data_len[3]-i,&(data[3][i]),&(obuf[i]));
if (TINYCLR_SSL_MEMCMP(obuf,output[3],data_len[3]+1) != 0)
{
TINYCLR_SSL_PRINTF("error in RC4 multi-call processing\n");
TINYCLR_SSL_PRINTF("output:");
for (j=0; j<data_len[3]+1; j++)
TINYCLR_SSL_PRINTF(" %02x",obuf[j]);
TINYCLR_SSL_PRINTF("\n");
TINYCLR_SSL_PRINTF("expect:");
p= &(output[3][0]);
for (j=0; j<data_len[3]+1; j++)
TINYCLR_SSL_PRINTF(" %02x",*(p++));
err++;
}
else
{
TINYCLR_SSL_PRINTF(".");
TINYCLR_SSL_FFLUSH(OPENSSL_TYPE__FILE_STDOUT);
}
}
TINYCLR_SSL_PRINTF("done\n");
TINYCLR_SSL_PRINTF("bulk test ");
{ unsigned char buf[513];
SHA_CTX c;
unsigned char md[SHA_DIGEST_LENGTH];
static unsigned char expected[]={
0xa4,0x7b,0xcc,0x00,0x3d,0xd0,0xbd,0xe1,0xac,0x5f,
0x12,0x1e,0x45,0xbc,0xfb,0x1a,0xa1,0xf2,0x7f,0xc5 };
RC4_set_key(&key,keys[0][0],&(keys[3][1]));
TINYCLR_SSL_MEMSET(buf,'\0',sizeof(buf));
SHA1_Init(&c);
for (i=0;i<2571;i++) {
RC4(&key,sizeof(buf),buf,buf);
SHA1_Update(&c,buf,sizeof(buf));
}
SHA1_Final(md,&c);
if (TINYCLR_SSL_MEMCMP(md,expected,sizeof(md))) {
TINYCLR_SSL_PRINTF("error in RC4 bulk test\n");
TINYCLR_SSL_PRINTF("output:");
for (j=0; j<(int)sizeof(md); j++)
TINYCLR_SSL_PRINTF(" %02x",md[j]);
TINYCLR_SSL_PRINTF("\n");
TINYCLR_SSL_PRINTF("expect:");
for (j=0; j<(int)sizeof(md); j++)
TINYCLR_SSL_PRINTF(" %02x",expected[j]);
TINYCLR_SSL_PRINTF("\n");
err++;
}
else TINYCLR_SSL_PRINTF("ok\n");
}
#ifdef OPENSSL_SYS_NETWARE
if (err) TINYCLR_SSL_PRINTF("ERROR: %d\n", err);
#endif
return(err);
}
void crypto_sha1_final(CryptoSha1 sha1, uint8* out_data)
{
SHA1_Final(out_data, &sha1->sha_ctx);
xfree(sha1);
}
int OS_MD5_SHA1_File(const char *fname, const char *prefilter_cmd, os_md5 md5output, os_sha1 sha1output, int mode)
{
size_t n;
FILE *fp;
unsigned char buf[2048 + 2];
unsigned char sha1_digest[SHA_DIGEST_LENGTH];
unsigned char md5_digest[16];
SHA_CTX sha1_ctx;
MD5_CTX md5_ctx;
/* Clear the memory */
md5output[0] = '\0';
sha1output[0] = '\0';
buf[2048 + 1] = '\0';
/* Use prefilter_cmd if set */
if (prefilter_cmd == NULL) {
fp = fopen(fname, mode == OS_BINARY ? "rb" : "r");
if (!fp) {
return (-1);
}
} else {
char cmd[OS_MAXSTR];
size_t target_length = strlen(prefilter_cmd) + 1 + strlen(fname);
int res = snprintf(cmd, sizeof(cmd), "%s %s", prefilter_cmd, fname);
if (res < 0 || (unsigned int)res != target_length) {
return (-1);
}
fp = popen(cmd, "r");
if (!fp) {
return (-1);
}
}
/* Initialize both hashes */
MD5Init(&md5_ctx);
SHA1_Init(&sha1_ctx);
/* Update for each one */
while ((n = fread(buf, 1, 2048, fp)) > 0) {
buf[n] = '\0';
SHA1_Update(&sha1_ctx, buf, n);
MD5Update(&md5_ctx, buf, (unsigned)n);
}
SHA1_Final(&(sha1_digest[0]), &sha1_ctx);
MD5Final(md5_digest, &md5_ctx);
/* Set output for MD5 */
for (n = 0; n < 16; n++) {
snprintf(md5output, 3, "%02x", md5_digest[n]);
md5output += 2;
}
/* Set output for SHA-1 */
for (n = 0; n < SHA_DIGEST_LENGTH; n++) {
snprintf(sha1output, 3, "%02x", sha1_digest[n]);
sha1output += 2;
}
/* Close it */
if (prefilter_cmd == NULL) {
fclose(fp);
} else {
pclose(fp);
}
return (0);
}
unsigned char *computeKey(struct NSSPKCS5PBEParameter * pbe_param, const unsigned char *pwdHash, SECItem *pkcs5_pfxpbe, SECItem *secPreHash)
{
SECItem *ret_bits = pkcs5_pfxpbe;
SHA_CTX ctx;
unsigned char state[256];
unsigned int state_len;
unsigned char *saltData = pbe_param->salt.data;
unsigned int saltLen = pbe_param->salt.len;
SHA_CTX *fctx;
struct HMACContext cx;
SHA_CTX lctx;
SHA_CTX ctx1, ctx2, ctx3;
unsigned char *ret_data;
int k;
// First compute pkcs5 hash
unsigned char firstHash[SHA1_LENGTH];
SECItem *preHash = secPreHash;
// copy password hash .....
memcpy(preHash->data, pwdHash, SHA1_LENGTH);
fctx = &ctx;
SHA1_Init(fctx);
SHA1_Update(fctx, preHash->data, preHash->len);
SHA1_Final(firstHash, fctx);
// Next compute pkcs5 extended hash
ret_bits->len = SHA1_LENGTH << 1; // (hash_iter * hash_size);
state_len = SHA1_LENGTH;
// this is important...you have to zero the contents before using it
memset(state, 0, state_len);
memcpy(state, saltData, saltLen);
memset(cx.ipad, 0x36, HMAC_PAD_SIZE);
memset(cx.opad, 0x5c, HMAC_PAD_SIZE);
/* fold secret into padding */
for (k = 0; k < SHA1_LENGTH; k++) {
cx.ipad[k] ^= firstHash[k];
cx.opad[k] ^= firstHash[k];
}
// Unrolled looop...........twice
SHA1_Init(&lctx);
SHA1_Update(&lctx, cx.ipad, HMAC_PAD_SIZE);
// Stage1 : Store the current context for future use
memcpy(&ctx1, &lctx, sizeof(SHA_CTX));
SHA1_Update(&lctx, state, state_len);
// Stage2 : Store this calculated data to avoid repeated copy....
memcpy(&ctx2, &lctx, sizeof(SHA_CTX));
SHA1_Update(&lctx, saltData, saltLen);
ret_data = ret_bits->data;
SHA1_Final(ret_data, &lctx);
SHA1_Init(&lctx);
SHA1_Update(&lctx, cx.opad, HMAC_PAD_SIZE);
// Stage3 : Store this calculated data to avoid repeated copy....
memcpy(&ctx3, &lctx, sizeof(SHA_CTX));
SHA1_Update(&lctx, ret_data, SHA1_LENGTH);
SHA1_Final(ret_data, &lctx);
// generate new state
// Just restore previous context from already calculated data..
memcpy(&lctx, &ctx2, sizeof(SHA_CTX));
SHA1_Final(state, &lctx);
// Just restore previous context from already calculated data..
memcpy(&lctx, &ctx3, sizeof(SHA_CTX));
SHA1_Update(&lctx, state, state_len);
SHA1_Final(state, &lctx);
// Second loop....
// Copy the previously stored data...
memcpy(&lctx, &ctx1, sizeof(SHA_CTX));
SHA1_Update(&lctx, state, state_len);
SHA1_Update(&lctx, saltData, saltLen);
SHA1_Final(ret_data + SHA1_LENGTH, &lctx);
// Just restore previous context from already calculated data..
memcpy(&lctx, &ctx3, sizeof(SHA_CTX));
SHA1_Update(&lctx, ret_data + SHA1_LENGTH, SHA1_LENGTH);
SHA1_Final(ret_data + SHA1_LENGTH, &lctx);
return ret_bits->data;
}
int
net_baseline_fsproto_send (__sock pso, pmda base, pmda threadr, void *data)
{
mutex_lock (&pso->mutex);
size_t in_read, blk_sz;
__fs_sts psts = (__fs_sts ) pso->va_p1;
if (psts->hstat.file_size < (uint64_t) pso->unit_size)
{
blk_sz = (size_t) psts->hstat.file_size;
}
else if ((uint64_t) psts->hstat.file_size - psts->data_out
< (uint64_t) pso->unit_size)
{
blk_sz = (size_t) (psts->hstat.file_size - psts->data_out);
}
else
{
blk_sz = (size_t) pso->unit_size;
}
int ret = 0;
in_read = read (psts->handle, pso->buffer0, blk_sz);
if ((in_read) > 0)
{
SHA1_Update (&psts->sha_00.context, pso->buffer0, blk_sz);
psts->data_out += (uint64_t) in_read;
if (net_send_direct (pso, pso->buffer0, in_read))
{
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
print_str ("STATS: [%d]: send: %llu/%llu \r", pso->sock,
psts->data_out, psts->hstat.size);
pso->timers.last_act = time (NULL);
}
else if (in_read == -1)
{
char err_buf[1024];
print_str (
"ERROR: net_baseline_fsproto_send: [%d]: [%d]: read failed: [%d] [%s]\n",
pso->sock, psts->handle, errno,
strerror_r (errno, err_buf, sizeof(err_buf)));
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
else if (in_read < blk_sz)
{
print_str (
"ERROR: net_baseline_fsproto_send: [%d]: [%d]: partial read occured on file handle\n",
pso->sock, psts->handle);
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
if (psts->data_out == psts->hstat.file_size)
{
if (pso->flags & F_OPSOCK_HALT_RECV)
{
pso->flags ^= F_OPSOCK_HALT_RECV;
}
net_proto_reset_to_baseline (pso);
if (!SHA1_Final ((unsigned char*) psts->sha_00.value.data,
&psts->sha_00.context))
{
print_str (
"ERROR: net_baseline_fsproto_send: [%d]: [%d]: SHA1_Final failed\n",
pso->sock, psts->handle);
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
__fs_rh_enc packet;
packet = net_fs_compile_breq (CODE_FS_RESP_NOTIFY,
(unsigned char*) &psts->sha_00.value,
sizeof(_pid_sha1),
NULL);
if ( NULL == packet)
{
print_str (
"ERROR: net_baseline_fsproto_send: [%d]: [%d]: net_fs_compile_breq failed\n",
pso->sock, psts->handle);
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
if (net_send_direct (pso, (const void*) packet,
(size_t) packet->head.content_length))
{
NET_BASELINE_FSPROTO_SEND_CLBAD()
;
}
char buffer[128];
print_str (
"DEBUG: net_baseline_fsproto_send: [%d]: all data sent [%s]\n",
pso->sock,
bb_to_ascii (psts->sha_00.value.data, sizeof(psts->sha_00.value.data),
buffer));
//memset(psts, 0x0, sizeof(_fs_sts));
}
else if (psts->data_out > psts->hstat.file_size)
{
print_str (
"ERROR: net_baseline_fsproto_send: [%d]: too much data sent (report this)\n",
pso->sock);
abort ();
}
_finish: ;
pthread_mutex_unlock (&pso->mutex);
return ret;
}
int main(int argc, char *argv[])
{
int i, err = 0;
int j;
unsigned char *p;
RC4_KEY key;
unsigned char obuf[512];
# if !defined(OPENSSL_PIC)
void OPENSSL_cpuid_setup(void);
OPENSSL_cpuid_setup();
# endif
for (i = 0; i < 6; i++) {
RC4_set_key(&key, keys[i][0], &(keys[i][1]));
sgx_memset(obuf, 0x00, sizeof(obuf));
RC4(&key, data_len[i], &(data[i][0]), obuf);
if (sgx_memcmp(obuf, output[i], data_len[i] + 1) != 0) {
printf("error calculating RC4\n");
printf("output:");
for (j = 0; j < data_len[i] + 1; j++)
printf(" %02x", obuf[j]);
printf("\n");
printf("expect:");
p = &(output[i][0]);
for (j = 0; j < data_len[i] + 1; j++)
printf(" %02x", *(p++));
printf("\n");
err++;
} else
printf("test %d ok\n", i);
}
printf("test end processing ");
for (i = 0; i < data_len[3]; i++) {
RC4_set_key(&key, keys[3][0], &(keys[3][1]));
sgx_memset(obuf, 0x00, sizeof(obuf));
RC4(&key, i, &(data[3][0]), obuf);
if ((sgx_memcmp(obuf, output[3], i) != 0) || (obuf[i] != 0)) {
printf("error in RC4 length processing\n");
printf("output:");
for (j = 0; j < i + 1; j++)
printf(" %02x", obuf[j]);
printf("\n");
printf("expect:");
p = &(output[3][0]);
for (j = 0; j < i; j++)
printf(" %02x", *(p++));
printf(" 00\n");
err++;
} else {
printf(".");
fflush(stdout);
}
}
printf("done\n");
printf("test multi-call ");
for (i = 0; i < data_len[3]; i++) {
RC4_set_key(&key, keys[3][0], &(keys[3][1]));
sgx_memset(obuf, 0x00, sizeof(obuf));
RC4(&key, i, &(data[3][0]), obuf);
RC4(&key, data_len[3] - i, &(data[3][i]), &(obuf[i]));
if (sgx_memcmp(obuf, output[3], data_len[3] + 1) != 0) {
printf("error in RC4 multi-call processing\n");
printf("output:");
for (j = 0; j < data_len[3] + 1; j++)
printf(" %02x", obuf[j]);
printf("\n");
printf("expect:");
p = &(output[3][0]);
for (j = 0; j < data_len[3] + 1; j++)
printf(" %02x", *(p++));
err++;
} else {
printf(".");
fflush(stdout);
}
}
printf("done\n");
printf("bulk test ");
{
unsigned char buf[513];
SHA_CTX c;
unsigned char md[SHA_DIGEST_LENGTH];
static unsigned char expected[] = {
0xa4, 0x7b, 0xcc, 0x00, 0x3d, 0xd0, 0xbd, 0xe1, 0xac, 0x5f,
0x12, 0x1e, 0x45, 0xbc, 0xfb, 0x1a, 0xa1, 0xf2, 0x7f, 0xc5
};
RC4_set_key(&key, keys[0][0], &(keys[3][1]));
sgx_memset(buf, '\0', sizeof(buf));
SHA1_Init(&c);
for (i = 0; i < 2571; i++) {
RC4(&key, sizeof(buf), buf, buf);
SHA1_Update(&c, buf, sizeof(buf));
}
SHA1_Final(md, &c);
if (sgx_memcmp(md, expected, sizeof(md))) {
printf("error in RC4 bulk test\n");
printf("output:");
for (j = 0; j < (int)sizeof(md); j++)
printf(" %02x", md[j]);
printf("\n");
printf("expect:");
for (j = 0; j < (int)sizeof(md); j++)
printf(" %02x", expected[j]);
printf("\n");
err++;
} else
printf("ok\n");
}
# ifdef OPENSSL_SYS_NETWARE
if (err)
printf("ERROR: %d\n", err);
# endif
EXIT(err);
return (0);
}
///////////////////////////////////////////////////////////////////////////////
// Connect to a server.
// Return
// 0: no error
int cc_connect_srv(struct cs_server_data *srv, int fd)
{
int n;
uint8 data[20];
uint8 hash[SHA_DIGEST_LENGTH];
uint8 buf[CC_MAXMSGSIZE];
char pwd[64];
//
if (fd < 0) return -1;
// INIT
srv->progname = NULL;
memset( srv->version, 0, sizeof(srv->version) );
// get init seed(random) from server
if((n = recv_nonb(fd, data, 16,3000)) != 16) {
static char msg[]= "Server does not return init sequence";
srv->statmsg = msg;
//debugf("Client: Server (%s:%d) does not return 16 bytes\n", srv->host->name,srv->port);
close(fd);
return -2;
}
if (flag_debugnet) {
debugf(" CCcam: receive server init seed (%d)\n",n);
debughex(data,n);
}
// Check Multics
int ismultics = 0;
uchar a = (data[0]^'M') + data[1] + data[2];
uchar b = data[4] + (data[5]^'C') + data[6];
uchar c = data[8] + data[9] + (data[10]^'S');
if ( (a==data[3])&&(b==data[7])&&(c==data[11]) ) ismultics = 1;
cc_crypt_xor(data); // XOR init bytes with 'CCcam'
SHA_CTX ctx;
SHA1_Init(&ctx);
SHA1_Update(&ctx, data, 16);
SHA1_Final(hash, &ctx);
//debugdump(hash, sizeof(hash), "CCcam: sha1 hash:");
//initialisate crypto states
cc_crypt_init(&srv->recvblock, hash, 20);
cc_decrypt(&srv->recvblock, data, 16);
cc_crypt_init(&srv->sendblock, data, 16);
cc_decrypt(&srv->sendblock, hash, 20);
cc_msg_send( fd, &srv->sendblock, CC_MSG_NO_HEADER, 20,hash); // send crypted hash to server
memset(buf, 0, sizeof(buf));
memcpy(buf, srv->user, 20);
//debugf(" CCcam: username '%s'\n",srv->username);
cc_msg_send( fd, &srv->sendblock, CC_MSG_NO_HEADER, 20, buf); // send usr '0' padded -> 20 bytes
memset(buf, 0, sizeof(buf));
memset(pwd, 0, sizeof(pwd));
//debugf("CCcam: 'CCcam' xor\n");
memcpy(buf, "CCcam", 5);
strncpy(pwd, srv->pass, 63);
cc_encrypt(&srv->sendblock, (uint8 *)pwd, strlen(pwd));
cc_msg_send( fd, &srv->sendblock, CC_MSG_NO_HEADER, 6, buf); // send 'CCcam' xor w/ pwd
if ((n = recv_nonb(fd, data, 20,3000)) != 20) {
static char msg[]= "Password ACK not received";
srv->statmsg = msg;
debugf(" CCcam: login failed to Server (%s:%d), pwd ack not received (n = %d)\n",srv->host->name,srv->port, n);
return -2;
}
cc_decrypt(&srv->recvblock, data, 20);
//hexdump(data, 20, "CCcam: pwd ack received:");
if (memcmp(data, buf, 5)) { // check server response
static char msg[]= "Invalid user/pass";
srv->statmsg = msg;
debugf(" CCcam: login failed to Server (%s:%d), usr/pwd invalid\n",srv->host->name,srv->port);
return -2;
}// else debugf(" CCcam: login succeeded to Server (%s:%d)\n",srv->host->name,srv->port);
srv->handle = fd;
if (!cc_sendinfo_srv(srv,ismultics)) {
srv->handle = -1;
static char msg[]= "Error sending client data";
srv->statmsg = msg;
debugf(" CCcam: login failed to Server (%s:%d), could not send client data\n",srv->host->name,srv->port);
return -3;
}
static char msg[]= "Connected";
srv->statmsg = msg;
srv->keepalivesent = 0;
srv->keepalivetime = GetTickCount();
srv->connected = GetTickCount();
srv->busy = 0;
srv->lastecmoktime = 0;
srv->lastecmtime = 0;
srv->lastdcwtime = 0;
srv->chkrecvtime = 0;
memset(srv->version,0,32);
pipe_wakeup( srvsocks[1] );
return 0;
}
