int memcache_stats (struct connection *c) {
cmd_stats++;
int len = copyexec_results_prepare_stats (c);
write_out (&c->Out, stats_buff, len);
write_out (&c->Out, "END\r\n", 5);
return 0;
}
int memcache_stats (struct connection *c) {
int len = isearch_prepare_stats ();
int len2 = prepare_stats (c, stats_buff + len, STATS_BUFF_SIZE - len);
write_out (&c->Out, stats_buff, len + len2);
write_out (&c->Out, "END\r\n", 5);
return 0;
}
static int
write_stage1(ig_data_t *install)
{
ig_device_t *device = &install->device;
assert(install != NULL);
if (write_out(device->part_fd, install->stage1_buf,
sizeof (install->stage1_buf), 0) != BC_SUCCESS) {
(void) fprintf(stdout, WRITE_FAIL_PBOOT);
perror("write");
return (BC_ERROR);
}
/* Simulate "old" installgrub output. */
(void) fprintf(stdout, WRITE_PBOOT, device->partition,
device->start_sector);
if (write_mbr) {
if (write_out(device->disk_fd, install->stage1_buf,
sizeof (install->stage1_buf), 0) != BC_SUCCESS) {
(void) fprintf(stdout, WRITE_FAIL_BOOTSEC);
perror("write");
return (BC_ERROR);
}
/* Simulate "old" installgrub output. */
(void) fprintf(stdout, WRITE_MBOOT);
}
return (BC_SUCCESS);
}
int memcache_stats (struct connection *c) {
cmd_stats++;
int stats_len = filesys_prepare_stats (c);
write_out (&c->Out, value_buff, stats_len);
write_out (&c->Out, "END\r\n", 5);
return 0;
}
int accept_connection(int sockfd, struct sockaddr_storage* out_opt_client_addr)
{
struct sockaddr_storage client_addr;
struct sockaddr_storage* ptr_to_client_addr;
socklen_t addr_size;
int newfd;
char str_ip[INET6_ADDRSTRLEN]; //should fit ipv4 too
char str_port[MAXPORTLEN];
addr_size = sizeof(struct sockaddr_storage);
if (out_opt_client_addr)
ptr_to_client_addr = out_opt_client_addr;
else
ptr_to_client_addr = &client_addr;
newfd = accept(sockfd, (struct sockaddr*)ptr_to_client_addr, &addr_size);
if (newfd == -1)
write_out(PRINT_WARNING, "Unable to accept client connection: %s", strerror(errno));
else
{
getnameinfo((struct sockaddr*)ptr_to_client_addr, sizeof(struct sockaddr_storage), str_ip, sizeof(str_ip), str_port, sizeof(str_port), NI_NUMERICHOST | NI_NUMERICSERV);
write_out(PRINT_INFO, "Accepted connection from remote client %s on port %s", str_ip, str_port);
}
return newfd;
}
void display_row_transition(int factor) {
write_out(row_transition_start);
for(int i = 0; i < factor - 1; i++) {
write_out(row_transition_piece);
}
write_out(row_transition_end);
}
void Run() {
int tot_len=0;
bool valid=true;
while(true) {
file.seekg(file_position);
int length = file.readsome(buf,MAXBUF);
int i = length;
// count a line if line don't ends with newline
for(; i>0 && linecount>0; --i) {
if(buf[i]=='\n') {
--linecount;
}
}
++i;
tot_len+=(length-i);
if(linecount==0){
if(valid)
write_out(i, tot_len, valid);
else
write_out(file_size-tot_len, tot_len, valid);
break;
} else if(length>=file_size) {
write_out(0,file_size, valid);
break;
}
file_position-=MAXBUF;
valid=false;
}
};
int main(int argc, char ** argv)
{
double ** A, ** B, ** C;
double ** control_matrix;
long long mul_time;
int a_dim1, a_dim2, b_dim1, b_dim2;
struct timeval start_time;
struct timeval stop_time;
if ( argc != 5 ) {
fprintf(stderr, "Usage: matmul-harness <A nrows> <A ncols> <B nrows> <B ncols>\n");
exit(1);
}
else {
a_dim1 = atoi(argv[1]);
a_dim2 = atoi(argv[2]);
b_dim1 = atoi(argv[3]);
b_dim2 = atoi(argv[4]);
}
/* check the matrix sizes are compatible */
if ( a_dim2 != b_dim1 ) {
fprintf(stderr,
"FATAL number of columns of A (%d) does not match number of rows of B (%d)\n",
a_dim2, b_dim1);
exit(1);
}
/* allocate the matrices */
A = gen_random_matrix(a_dim1, a_dim2);
B = gen_random_matrix(b_dim1, b_dim2);
C = new_empty_matrix(a_dim1, b_dim2);
control_matrix = new_empty_matrix(a_dim1, b_dim2);
DEBUGGING(write_out(A, a_dim1, a_dim2));
/* use a simple matmul routine to produce control result */
matmul(A, B, control_matrix, a_dim1, a_dim2, b_dim2);
/* record starting time */
gettimeofday(&start_time, NULL);
/* perform matrix multiplication */
team_matmul(A, B, C, a_dim1, a_dim2, b_dim2);
/* record finishing time */
gettimeofday(&stop_time, NULL);
mul_time = (stop_time.tv_sec - start_time.tv_sec) * 1000000L +
(stop_time.tv_usec - start_time.tv_usec);
printf("Matmul time: %lld microseconds\n", mul_time);
DEBUGGING(write_out(C, a_dim1, b_dim2));
/* now check that the team's matmul routine gives the same answer
as the known working version */
check_result(C, control_matrix, a_dim1, b_dim2);
return 0;
}
static int
write_stage2(ig_data_t *install)
{
ig_device_t *device = &install->device;
ig_stage2_t *stage2 = &install->stage2;
off_t offset;
assert(install != NULL);
if (is_bootpar(device->type)) {
/*
* stage2 is already on the filesystem, we only need to update
* the first two blocks (that we have modified during
* prepare_stage2())
*/
if (write_out(device->part_fd, stage2->file, SECTOR_SIZE,
stage2->pcfs_first_sectors[0] * SECTOR_SIZE)
!= BC_SUCCESS ||
write_out(device->part_fd, stage2->file + SECTOR_SIZE,
SECTOR_SIZE, stage2->pcfs_first_sectors[1] * SECTOR_SIZE)
!= BC_SUCCESS) {
(void) fprintf(stderr, WRITE_FAIL_STAGE2);
return (BC_ERROR);
}
(void) fprintf(stdout, WRITE_STAGE2_PCFS);
return (BC_SUCCESS);
}
/*
* For disk, write stage2 starting at STAGE2_BLKOFF sector.
* Note that we use stage2->buf rather than stage2->file, because we
* may have extended information after the latter.
*
* If we're writing to an EFI-labeled disk where stage2 lives in the
* 3.5MB boot loader gap following the ZFS vdev labels, make sure the
* size of the buffer doesn't exceed the size of the gap.
*/
if (is_efi(device->type) && stage2->buf_size > STAGE2_MAXSIZE) {
(void) fprintf(stderr, WRITE_FAIL_STAGE2);
return (BC_ERROR);
}
offset = STAGE2_BLKOFF(device->type) * SECTOR_SIZE;
if (write_out(device->part_fd, stage2->buf, stage2->buf_size,
offset) != BC_SUCCESS) {
perror("write");
return (BC_ERROR);
}
/* Simulate the "old" installgrub output. */
(void) fprintf(stdout, WRITE_STAGE2_DISK, device->partition,
(stage2->buf_size / SECTOR_SIZE) + 1, STAGE2_BLKOFF(device->type),
stage2->first_sector);
return (BC_SUCCESS);
}
int memcache_delete (struct connection *c, const char *key, int key_len) {
int user_id, arg = 0;
privacy_key_t privacy_key;
if (verbosity > 0) {
fprintf (stderr, "delete \"%s\"\n", key);
}
int res = -1;
if (binlog_disabled == 2 || reverse_friends_mode) {
write_out (&c->Out, "NOT_FOUND\r\n", 11);
return 0;
}
switch (*key) {
case 'u':
if (sscanf (key, "user%d ", &user_id) == 1) {
res = do_delete_user (user_id);
}
break;
case 'f':
if (sscanf (key, "friend_cat%d_%d ", &user_id, &arg) == 2) {
res = do_delete_friend_category (user_id, arg);
}
if (sscanf (key, "friendreq%d_%d ", &user_id, &arg) == 2) {
res = do_delete_friend_request (user_id, arg);
}
if (sscanf (key, "friend%d_%d ", &user_id, &arg) == 2) {
res = do_delete_friend (user_id, arg);
}
break;
case 'p':
if (sscanf (key, "privacy%d_%n", &user_id, &arg) >= 1 && parse_privacy_key (key+arg, &privacy_key, 1) > 0) {
res = do_delete_privacy (user_id, privacy_key);
}
break;
case 'r':
if (sscanf (key, "requests%d ", &user_id) == 1) {
res = do_delete_all_friend_requests (user_id);
}
break;
}
if (res > 0) {
write_out (&c->Out, "DELETED\r\n", 9);
} else {
write_out (&c->Out, "NOT_FOUND\r\n", 11);
}
return 0;
}
void show_board(Board* board) {
reset_screen();
int size = get_size(board);
int factor = get_factor(board);
for(int i = 0; i < size; i++) {
display_space(get_space(board, i), i);
if (is_row_transition(i, factor, size)) {
display_row_transition(factor);
}
if (is_cell_transition(i, factor)) {
write_out(cell_transition_message);
}
}
write_out(end_board_message);
}
int kmain()
{
fb_write_cell(0, 'A', FB_GREEN, FB_DARK_GRAY);
char *hello = "Hello, World!";
write_out(hello, 13);
return 0xDEADBABE;
}
int rpcc_init_crypto (struct connection *c) {
if (!(RPCC_DATA(c)->crypto_flags & 2)) {
return rpcc_init_fake_crypto (c);
}
RPCC_DATA(c)->nonce_time = time (0);
aes_generate_nonce (RPCC_DATA(c)->nonce);
static struct rpc_nonce_packet buf;
memset (&buf, 0, sizeof (buf));
memcpy (buf.crypto_nonce, RPCC_DATA(c)->nonce, 16);
buf.crypto_ts = RPCC_DATA(c)->nonce_time;
buf.len = sizeof (buf);
buf.seq_num = -2;
buf.type = RPC_NONCE;
buf.key_select = get_crypto_key_id ();
buf.crypto_schema = RPC_CRYPTO_AES;
buf.crc32 = compute_crc32 (&buf, sizeof (buf) - 4);
write_out (&c->Out, &buf, sizeof (buf));
assert ((RPCC_DATA(c)->crypto_flags & 14) == 2);
RPCC_DATA(c)->crypto_flags |= 4;
mark_all_processed (&c->Out);
return 1;
}
static int rpcc_send_handshake_packet (struct connection *c) {
struct rpcc_data *D = RPCC_DATA (c);
static struct rpc_handshake_packet P;
if (!PID.ip) {
init_client_PID (c->our_ip);
if (!PID.ip) {
PID.ip = get_my_ipv4 ();
}
}
memset (&P, 0, sizeof (P));
P.len = sizeof (P);
P.seq_num = -1;
P.type = RPC_HANDSHAKE;
P.flags = 0;
if (!D->remote_pid.port) {
D->remote_pid.ip = (c->remote_ip == 0x7f000001 ? 0 : c->remote_ip);
D->remote_pid.port = c->remote_port;
}
memcpy (&P.sender_pid, &PID, sizeof (struct process_id));
memcpy (&P.peer_pid, &D->remote_pid, sizeof (struct process_id));
P.crc32 = compute_crc32 (&P, sizeof (P) - 4);
write_out (&c->Out, &P, sizeof (P));
RPCC_FUNC(c)->flush_packet (c);
return 0;
}
int nbit_copy_through_nondestruct (netbuffer_t *XD, nb_iterator_t *I, int len) {
netbuffer_t *H = I->head, *X = I->cur;
int s, w = 0;
char *p = I->cptr;
assert (X->rptr <= p && p <= X->wptr);
assert (!X->pptr || p <= X->pptr);
while (len > 0) {
s = (X->pptr ? X->pptr : X->wptr) - p;
assert ((unsigned) s <= NET_BUFFER_SIZE);
if (s > len) { s = len; }
if (s > 0) {
write_out (XD, p, s);
w += s;
p += s;
len -= s;
}
if (!len || p != X->wptr || X->next == H) {
break;
}
X = X->next;
p = X->rptr;
}
return w;
}
int rpc_send_query (void *_R, struct connection *c) {
int *R = _R;
if (verbosity >= 4) {
fprintf (stderr, "sending query... len = %d, op = %x\n", R[0], R[2]);
}
if (verbosity >= 6) {
fprintf (stderr, "c = %p, server_check_ready = %d (cr_ok = %d)\n", c, server_check_ready (c), cr_ok);
}
assert (c && server_check_ready(c) == cr_ok);
assert (R[0] <= MAX_PACKET_LEN && R[0] >= 16 && R[0] % 4 == 0);
if (verbosity >= 10) {
fprintf (stderr, "LINE %d:", __LINE__);
}
rpc_set_crc32 (R);
if (verbosity >= 10) {
fprintf (stderr, "LINE %d:", __LINE__);
}
write_out (&c->Out, R, R[0]);
if (verbosity >= 10) {
fprintf (stderr, "LINE %d:", __LINE__);
fprintf (stderr, "%p %p %p\n", c->extra, RPCS_FUNC(c)->flush_packet, rpcc_flush_packet);
}
RPCS_FUNC(c)->flush_packet(c);
if (verbosity >= 4) {
fprintf (stderr, "message_sent\n");
}
return 0;
}
int copy_through_nondestruct (netbuffer_t *HD, netbuffer_t *H, int len) {
netbuffer_t *X = H;
int s, w = 0;
char *rptr;
if (X->wptr == X->rptr) {
X = X->next;
}
rptr = X->rptr;
while (len > 0) {
s = (X->pptr ? X->pptr : X->wptr) - rptr;
if (s > len) { s = len; }
if (s > 0) {
w += write_out (HD, rptr, s);
rptr += s;
len -= s;
}
if (rptr == X->wptr) {
X = X->next;
rptr = X->rptr;
if (X == H) { break; }
} else if (rptr == X->pptr) {
break;
}
}
return w;
}
int put_bio_data(int sockfd, BIO* rbio, MUTATOR mutate, void* state)
{
int n;
int mn;
unsigned char buf[BUFFER_SIZE];
unsigned char* mbuf;
n = recv(sockfd, buf, BUFFER_SIZE, 0);
if (n < 0)
{
write_out(PRINT_ERROR, "Socket recv error: %s", strerror(errno));
return n;
}
if (n == 0)
return n;
if (mutate)
{
mbuf = mutate(state, buf, n, &mn);
BIO_write(rbio, mbuf, mn);
free(mbuf);
}
else
BIO_write(rbio, buf, n);
return n;
}
void encode_silent_samples(int n_samples)
{
float **buffer;
int i;
/* generate a silent buffer */
buffer = vorbis_analysis_buffer(&vd, n_samples);
for (i = 0; i < vi.channels; i++)
memset(buffer[i], 0, n_samples * sizeof (float));
vorbis_analysis_wrote(&vd, n_samples);
/* encode it */
while (vorbis_analysis_blockout(&vd, &vb) == 1)
{
vorbis_analysis(&vb, NULL);
vorbis_bitrate_addblock(&vb);
while (vorbis_bitrate_flushpacket(&vd, &op))
{
ogg_stream_packetin(&os, &op);
while (ogg_stream_pageout(&os, &og))
{
write_out(&og);
if (ogg_page_eos(&og))
break;
}
}
}
}
int get_ssl_record(SSL* ssl, int sockfd, BIO* rbio, unsigned char* buf, unsigned int len)
{
int n;
int err;
for (;;)
{
n = SSL_read(ssl, buf, len);
if (n == 0)
return -1;
else if (n < 0)
{
err = SSL_get_error(ssl, n);
if (err == SSL_ERROR_WANT_READ)
if ((n = put_bio_data(sockfd, rbio, 0, 0)) <= 0)
return n;
else;
else
{
write_out(PRINT_ERROR, "TLS Error: %d", err);
return -1;
}
}
else
return n;
}
}
void print_ssl_error_stack(int level)
{
unsigned long err_num;
while ((err_num = ERR_get_error()))
write_out(level, "%s", ERR_error_string(err_num, 0));
}
void btn2btn::process(struct mg_ev ev, output_slot* out) {
struct input_event out_ev;
memset(&out_ev, 0, sizeof(out_ev));
out_ev.type = EV_KEY;
out_ev.code = out_button;
out_ev.value = ev.value;
write_out(out_ev, out);
}
void add_hash(chordID h) {
hs.push_back(h);
if(full()) {
// write out indirect block
write_out();
}
}
void write_device_callback(ToxAv* av, int32_t call_index, int16_t* data, int size, void* userdata)
{
(void)userdata;
if (call_index >= 0 && ASettins.calls[call_index].ttas) {
ToxAvCSettings csettings = ASettins.cs;
toxav_get_peer_csettings(av, call_index, 0, &csettings);
write_out(ASettins.calls[call_index].out_idx, data, size, csettings.audio_channels);
}
}
int friends_data_store (struct connection *c, int op, const char *key, int len, int flags, int expire, int bytes)
{
int user_id = 0;
struct keep_mc_store *Data = 0;
//key[len] = 0;
if (verbosity > 0) {
fprintf (stderr, "mc_store: op=%d, key=\"%s\", flags=%d, expire=%d, bytes=%d, noreply=%d\n", op, key, flags, expire, bytes, 0);
}
if (bytes >= 0 && bytes < 1048576) {
if (sscanf (key, "userlist%d", &user_id) == 1 && user_id < 0) {
if (!c->Tmp) {
c->Tmp = alloc_head_buffer();
assert (c->Tmp);
}
Data = (struct keep_mc_store *) c->Tmp->start;
Data->magic = FRIENDS_STORE_MAGIC;
Data->list_id = user_id;
Data->num = np_news_parse_list (userlist, MAX_USERLIST_NUM, 1, &c->In, bytes);
advance_write_ptr (c->Tmp, sizeof (struct keep_mc_store));
if (Data->num > 0 && user_id < 0) {
write_out (c->Tmp, userlist, Data->num * 4);
}
} else {
advance_skip_read_ptr (&c->In, bytes);
}
} else {
advance_skip_read_ptr (&c->In, bytes);
}
if (!Data || Data->num <= 0 || user_id >= 0) {
write_out (&c->Out, "NOT_STORED\r\n", 12);
flush_output (c);
free_tmp_buffers (c);
} else {
write_out (&c->Out, "STORED\r\n", 8);
flush_output (c);
}
return bytes;
}
SSL* init_ssl_with_cipher(SSL_CTX* ssl_ctx, const char* cipher_name)
{
SSL* ssl;
ssl = SSL_new(ssl_ctx);
if (!SSL_set_cipher_list(ssl, cipher_name))
{
write_out(PRINT_ERROR, "Unable to initialize SSL with %s.", cipher_name);
write_raise_level();
write_out(PRINT_ERROR, "Your version of OpenSSL may be outdated. Update OpenSSL and try again.");
write_out(PRINT_ERROR, "If your version of OpenSSL is current, then %s cipher may have been disabled at compile time.", cipher_name);
write_lower_level();
if (ssl)
SSL_free(ssl);
return 0;
}
return ssl;
}
int memcache_incr (struct connection *c, int op, const char *key, int len, long long arg) {
int user_id, friend_id;
if (len >= 7 && !memcmp (key, "friend", 6) && !reverse_friends_mode) {
int res = -1;
if (binlog_disabled != 2 && sscanf (key, "friend%d_%d", &user_id, &friend_id) >= 2) {
res = do_add_friend (user_id, friend_id, op ? 0 : arg, ~arg, 0);
}
if (res > 0) {
write_out (&c->Out, stats_buff, sprintf(stats_buff, "%d\r\n", res));
} else {
write_out (&c->Out, "NOT_FOUND\r\n", 11);
}
return 0;
}
write_out (&c->Out, "NOT_FOUND\r\n", 11);
return 0;
}
void write_device_callback(void *agent, int32_t call_index, const int16_t* PCM, uint16_t size, void* arg)
{
(void)arg;
(void)agent;
if (call_index >= 0 && ASettins.calls[call_index].ttas) {
ToxAvCSettings csettings = ASettins.cs;
toxav_get_peer_csettings(ASettins.av, call_index, 0, &csettings);
write_out(ASettins.calls[call_index].out_idx, PCM, size, csettings.audio_channels);
}
}
void axis2btns::process(struct mg_ev ev, output_slot* out) {
struct input_event out_ev;
memset(&out_ev, 0, sizeof(out_ev));
out_ev.type = EV_KEY;
out_ev.code = neg_btn;
out_ev.value = ev.value < -.5 * ABS_RANGE;
if (out_ev.value != neg_cache) {
write_out(out_ev, out);
neg_cache = out_ev.value;
}
out_ev.type = EV_KEY;
out_ev.code = pos_btn;
out_ev.value = ev.value > .5 * ABS_RANGE;
if (out_ev.value != pos_cache) {
write_out(out_ev, out);
pos_cache = out_ev.value;
}
}
int main(int argc, char ** argv)
{
struct complex ** A, ** B, ** C;
struct complex ** control_matrix;
long long control_time, mul_time;
double speedup;
int a_dim1, a_dim2, b_dim1, b_dim2, errs;
struct timeval pre_time, start_time, stop_time;
if ( argc != 5 ) {
fprintf(stderr, "Usage: matmul-harness <A nrows> <A ncols> <B nrows> <B ncols>\n");
exit(1);
}
else {
a_dim1 = atoi(argv[1]);
a_dim2 = atoi(argv[2]);
b_dim1 = atoi(argv[3]);
b_dim2 = atoi(argv[4]);
}
/* check the matrix sizes are compatible */
if ( a_dim2 != b_dim1 ) {
fprintf(stderr,
"FATAL number of columns of A (%d) does not match number of rows of B (%d)\n",
a_dim2, b_dim1);
exit(1);
}
/* allocate the matrices */
A = gen_random_matrix(a_dim1, a_dim2);
B = gen_random_matrix(b_dim1, b_dim2);
C = new_empty_matrix(a_dim1, b_dim2);
control_matrix = new_empty_matrix(a_dim1, b_dim2);
DEBUGGING( {
printf("matrix A:\n");
write_out(A, a_dim1, a_dim2);
printf("\nmatrix B:\n");
write_out(A, a_dim1, a_dim2);
printf("\n");
} )