void test_getsockname_client(cyg_addrword_t pnetdata)
{
int s, readlen;
struct sockaddr_in sa, r_sa;
struct hostent *hp;
int threadid;
int port = ((TEST_GETSOCKNAME_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_GETSOCKNAME_DATA_T*)pnetdata)->pbuf;
char *pgetsocknamebuf = ((TEST_GETSOCKNAME_DATA_T*)pnetdata)->pgetsocknamebuf;
threadid = cyg_thread_self();
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_getsockname_client");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
memcpy(&(sa.sin_addr), hp->h_addr_list0, hp->h_length);
sa.sin_family = AF_INET;
sa.sin_port = htons(IPPORT_USERRESERVED + port - TEST_GETSOCKNAME_SERVER_NUM);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_getsockname_client");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_getsockname_client");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
test_printf_error("test_getsockname_client");
cyg_thread_exit();
}
if(connect(s, (struct sockaddr*)&sa, sizeof(sa), pbuf, RNT_BUFFER_LEN) == -1)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
test_printf_error("test_getsockname_client");
cyg_thread_exit();
}
readlen = recv(s, pgetsocknamebuf, TEST_GETSOCKNAME_MSG_LEN, 0, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
void
sys_exit(void)
{
db_printf("%s called\n", __PRETTY_FUNCTION__);
phase = PHASE_DEAD;
while( ppp_tty.tx_thread_running )
{
db_printf("kick tx thread\n");
cyg_semaphore_post( &ppp_tty.tx_sem );
cyg_thread_delay(100);
}
ppp_tty.pppd_thread_running = false;
cyg_thread_exit();
}
static void Cyg_DOT1X(cyg_addrword_t param)
#endif //__ECOS//
{
int ret = 1, i;
pid_t auth_pid=1;
char prefix_name[IFNAMSIZ+1];
strcpy(prefix_name, "ra");
DBGPRINT(RT_DEBUG_ERROR,"Start DOT1X Thread....\n");
// set number of configuration file 1
interfaces.count = 1;
interfaces.rtapd = malloc(sizeof(rtapd *));
if (interfaces.rtapd == NULL)
{
DBGPRINT(RT_DEBUG_ERROR,"malloc failed\n");
exit(1);
}
eloop_init(&interfaces);
interfaces.rtapd[0] = Apd_init(prefix_name);
if (!interfaces.rtapd[0])
goto out;
if (Apd_setup_interface(interfaces.rtapd[0]))
goto out;
eloop_run();
Apd_free_stas(interfaces.rtapd[0]);
ret=0;
out:
for (i = 0; i < interfaces.count; i++)
{
if (!interfaces.rtapd[i])
continue;
Apd_cleanup(interfaces.rtapd[i]);
free(interfaces.rtapd[i]);
}
free(interfaces.rtapd);
interfaces.rtapd = NULL;
eloop_destroy();
DBGPRINT(RT_DEBUG_ERROR,"DOT1X_exit\n");
cyg_thread_exit();
return 0;
}
void
KernelLeaveTask
(
void
)
{
PKERNEL_TASK_MEM_BLOCK pMem = NULL;
KernelAcquireSpinLock(&gMemBlockPoolLock);
if ( TRUE )
{
pMem = gMemBlockPool.Next;
while ( pMem )
{
gMemBlockPool.Next = pMem->Next;
KernelFreeMemory(pMem);
pMem = gMemBlockPool.Next;
}
gMemBlockPool.Prev = NULL;
gMemBlockPool.Next = NULL;
}
if ( TRUE )
{
pMem = (PKERNEL_TASK_MEM_BLOCK)cyg_thread_get_data(0);
if ( pMem )
{
gMemBlockPool.Prev = pMem;
gMemBlockPool.Next = pMem;
}
}
KernelReleaseSpinLock(&gMemBlockPoolLock);
cyg_thread_exit();
return;
}
void simple_tcpserver(cyg_addrword_t pnetdata)
{
int s, new_s, i, len;
char *msg;
struct sockaddr_in sa, r_sa;
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
struct sockaddr_in peername;
int socklen;
int threadid;
int localcount = 0;
int port = ((NET_DATA_T*)pnetdata)->iport;
char *pbuf = ((NET_DATA_T*)pnetdata)->pbuf;
//s = ((NET_DATA_T*)pnetdata)->fd;
threadid = cyg_thread_self();
msg = malloc(BUFSIZE);
if(msg == NULL)
{
printf("simple_tcpserver(%d): malloc error\n", threadid);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): to gethostbyname\n", threadid);
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
printf("simple_tcpserver(%d): gethostbyname error!!!!!!\n", threadid);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): gethostbyname ok\n", threadid);
//memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_addr.s_addr = inet_addr("10.132.11.10", pbuf, RNT_BUFFER_LEN);
printf("simple_tcpserver(%d): final addr=%s\n", threadid, inet_ntoa(r_sa.sin_addr, pbuf, RNT_BUFFER_LEN));
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
printf("simple_tcpserver(%d): receive from port %d\n", threadid, ntohs(r_sa.sin_port));
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): socket error!!!!!!\n", threadid);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): create socket success...\n", threadid);
printf("simple_tcpserver(%d): socket=%d\n", threadid, s);
/* Test for netfcntl & setsockopt */
/*
{
int sock_opt = 1;
// server socket is nonblocking
if (netfcntl(s, F_SETFL, O_NONBLOCK, pbuf, RNT_BUFFER_LEN) == -1)
{
printf("netfcntl error\n");
netclose(s, pbuf, RNT_BUFFER_LEN);
return -1;
}
if ((setsockopt(s, SOL_SOCKET, SO_REUSEADDR, (void *) &sock_opt,
sizeof(sock_opt), pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("setsockopt error\n");
netclose(s, pbuf, RNT_BUFFER_LEN);
return -1;
}
}
*/
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
printf("simple_tcpserver(%d): bind error!!!!!!\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): bind success...\n", threadid);
/*
{
struct sockaddr_in sockname;
int socklen;
if(getsockname(s, (struct sockaddr*)&sockname, &socklen, pbuf, RNT_BUFFER_LEN) != -1)
{
printf("simple_tcpserver(%d): getsockname:sin_family=%d sin_port=%d sin_addr=%s socklen=%d\n", threadid,
sockname.sin_family, sockname.sin_port, inet_ntoa(sockname.sin_addr, pbuf, RNT_BUFFER_LEN), socklen);
}
else
{
printf("simple_tcpserver(%d): getsockname error\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
}
*/
if(listen(s, 10, pbuf, RNT_BUFFER_LEN) == -1)
{
printf("simple_tcpserver(%d): listen error\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): listen success...\n", threadid);
while(1)
{
if((new_s = accept(s, (struct sockaddr*)&sa, (size_t*)&r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): accept error\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
printf("simple_tcpserver(%d): accept success...\n", threadid);
{
int val, vallen;
vallen = sizeof(val);
if(getsockopt(new_s, SOL_SOCKET, SO_RCVBUF, &val, &vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("get rcvbuf size error!!!!!!\n");
}
printf("recv window size = %d\n", val);
vallen = sizeof(val);
if(getsockopt(new_s, SOL_SOCKET, SO_SNDBUF, &val, &vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("get sndbuf size error!!!!!!\n");
}
printf("send window size = %d\n", val);
vallen = sizeof(val);
val = 50000;
if(setsockopt(new_s, SOL_SOCKET, SO_RCVBUF, &val, vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("set rcvbuf size error!!!!!!\n");
}
if(setsockopt(new_s, SOL_SOCKET, SO_SNDBUF, &val, vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("set sndbuf size error!!!!!!\n");
}
vallen = sizeof(val);
if(getsockopt(new_s, SOL_SOCKET, SO_RCVBUF, &val, &vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("get rcvbuf size error!!!!!!\n");
}
printf("new recv window size = %d\n", val);
vallen = sizeof(val);
if(getsockopt(new_s, SOL_SOCKET, SO_SNDBUF, &val, &vallen, pbuf, RNT_BUFFER_LEN) < 0)
{
printf("get sndbuf size error!!!!!!\n");
}
printf("new send window size = %d\n", val);
}
/*
{
if(getpeername(new_s, (struct sockaddr*)&peername, &socklen, pbuf, RNT_BUFFER_LEN) != -1)
{
printf("simple_tcpserver(%d): getpeername:sin_family=%d sin_port=%d sin_addr=%s socklen=%d\n", threadid,
peername.sin_family, peername.sin_port, inet_ntoa(peername.sin_addr, pbuf, RNT_BUFFER_LEN), socklen);
}
else
{
printf("simple_tcpserver(%d): getpeername error\n", threadid);
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
}
*/
i = 0;
while(1)
{
/* Test recvmsg & sendmsg method */
/*
{
struct msghdr msghdr_msg;
struct iovec *piov;
int j, n, copylen;
int perIov_len;
perIov_len = BUFSIZE/4;
piov = malloc(4*sizeof(struct iovec));
for(j = 0; j < 4; j++)
{
piov[j].iov_base = malloc(perIov_len);
piov[j].iov_len = perIov_len;
}
msghdr_msg.msg_name = NULL;
msghdr_msg.msg_namelen = 0;
msghdr_msg.msg_iov = piov;
msghdr_msg.msg_iovlen = 4;
msghdr_msg.msg_control = NULL;
msghdr_msg.msg_controllen = 0;
msghdr_msg.msg_flags = 0;
if((len = recvmsg(new_s, &msghdr_msg, 0, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): recvmsg error\n", threadid);
break;
}
if(len == 0)
{
printf("simple_tcpserver(%d): recvmsg 0, connection broken!!!!!\n", threadid);
break;
}
n = 0;
for(j = 0; j < 4; j++)
{
//printf("simple_tcpserver(%d): recvmsg piov[%d].iovlen=%d\n", threadid, j, piov[j].iov_len);
copylen = piov[j].iov_len < (len - n) ? piov[j].iov_len : (len - n);
memcpy(&msg[n], piov[j].iov_base, copylen);
n += copylen;
if(n >= len) break;
}
msg[len] = '\0';
//printf("simple_tcpserver(%d): recvmsg: %s\n", threadid, msg);
len = 17408;
memcpy(msg, g_LargeData, len);
//len = sprintf(msg, "ack%d", i);
n = 0;
for(j = 0; j < 4; j++)
{
copylen = piov[j].iov_len < (len - n) ? piov[j].iov_len : (len - n);
memcpy(piov[j].iov_base, &msg[n], copylen);
piov[j].iov_len = copylen;
//printf("simple_tcpserver(%d): sendmsg piov[%d].iov_len=%d\n", threadid, j, piov[j].iov_len);
n += copylen;
if(n >= len) break;
}
j++;
for(; j < 4; j++) piov[j].iov_len = 0;
if((len = sendmsg(new_s, &msghdr_msg, 0, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): sendmsg error\n", threadid);
break;
}
if(len == 0)
{
printf("simple_tcpserver(%d): sendmsg 0, connection broken!!!!!\n", threadid);
break;
}
for(j = 0; j < 4; j++)
{
free(piov[j].iov_base);
}
free(piov);
i++;
}
*/
/* Test recv & send method and fdset operation */
/*
{
fd_set readset, exceptset;
int maxfd;
int written_bytes;
int bytes_left;
int reconnect;
FD_ZERO(&readset);
FD_SET(new_s, &readset);
FD_ZERO(&exceptset);
FD_SET(new_s, &exceptset);
maxfd = new_s + 1;
if(netselect(maxfd, &readset, NULL, &exceptset, NULL, pbuf, RNT_BUFFER_LEN) == -1)
{
printf("simple_tcpserver(%d): netselect error\n", threadid);
continue;
}
if(FD_ISSET(new_s, &readset))
{
//printf("simple_tcpserver(%d): readset get\n", threadid);
}
else if(FD_ISSET(new_s, &exceptset))
{
printf("simple_tcpserver(%d): exceptset get\n", threadid);
break;
}
if((len = recv(new_s, msg, BUFSIZE, 0, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): recv error\n", threadid);
break;
}
if(len == 0)
{
printf("simple_tcpserver(%d): recv 0, connection broken!!!!!\n", threadid);
break;
}
//printf("simple_tcpserver(%d): recv: %s\n", threadid, msg);
//len = sprintf(msg, "ack%d", i);
len = 40000;
memcpy(msg, g_LargeData, len);
bytes_left = len;
reconnect = 0;
while(bytes_left > 0)
{
written_bytes = send(new_s, msg+(len-bytes_left), bytes_left, 0, pbuf, RNT_BUFFER_LEN);
if(written_bytes <= 0)
{
if(errno == EINTR)
{
written_bytes = 0;
}
else
{
printf("simple_tcpserver(%d): netwrite error, reconnect!!!!!\n", threadid);
reconnect = 1;
break;
}
}
bytes_left -= written_bytes;
}
if(reconnect == 1) break;
i++;
}
*/
/* Test for netread & netwrite method */
{
int written_bytes;
int bytes_left;
int reconnect;
if((len = netread(new_s, msg, BUFSIZE, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_tcpserver(%d): netread error %d\n", threadid, errno);
break;
}
if(len == 0)
{
printf("simple_tcpserver(%d): netread 0, connection broken, errno=%d!!!!!\n", threadid, errno);
break;
}
msg[len] = '\0';
//printf("simple_tcpserver(%d): len %d, netread %s\n", threadid, len, msg);
//printf("simple_tcpserver(%d): len %d\n", threadid, len);
//len = sprintf(msg, "ack%d", i);
len = 40000;
memcpy(msg, g_LargeData, len);
bytes_left = len;
reconnect = 0;
while(bytes_left > 0)
{
written_bytes = netwrite(new_s, msg+(len-bytes_left), bytes_left, pbuf, RNT_BUFFER_LEN);
if(written_bytes <= 0)
{
printf("errno=%d\n", errno);
if(errno == EINTR)
{
written_bytes = 0;
}
else
{
printf("simple_tcpserver(%d): netwrite error, reconnect!!!!!\n", threadid);
reconnect = 1;
break;
}
}
//printf("simple_tcpserver(%d): write %d\n", threadid, written_bytes);
bytes_left -= written_bytes;
if(bytes_left > 0)
{
printf("write %d < %d left %d\n", written_bytes, bytes_left+written_bytes, bytes_left);
}
}
if(reconnect == 1) break;
i++;
}
totallen += len;
icount++;
if((icount>=2000) && (icount%2000==0))
{
tend = cyg_current_time();
printf("rate=%d rate1=%03fk\n", (int)(icount/((tend-tbegin)/100)), (float)(totallen/((tend-tbegin)/100)/1024));
}
localcount++;
if(localcount > 100 && localcount % 100 == 0)
{
printf("simple_tcpserver: %d\n", port);
}
}
printf("simple_tcpserver(%d): to close %d with 0x%x\n", threadid, new_s, pbuf);
netclose(new_s, pbuf, RNT_BUFFER_LEN);
printf("simple_tcpserver(%d): close connection ok\n", threadid);
}
netclose(s, pbuf, RNT_BUFFER_LEN);
free(msg);
cyg_thread_exit();
}
void thread_read_audio(cyg_addrword_t data)
{
VP_BUFFER_TEST_AUDIO_BITSTREAM_T *ptestaudio;
int audiocount = 0;
cyg_tick_count_t timeBegin, timeEnd;
int iRt;
IO_THREAD_READ_T readarg;
int i = 0;
timeBegin = cyg_current_time();
while(1)
{
readarg.txlen = BUFFER_SIZE;
iRt = iothread_ReadAudio(&readarg);
if(iRt == -1)
{
diag_printf("Encode Core quit\n");
cyg_thread_exit();
}
else if(iRt == 0)
{
diag_printf("%d buffer too small\n", readarg.mediatype);
continue;
}
else
{
switch(readarg.mediatype)
{
case MEDIA_TYPE_AUDIO:
audiocount++;
cyg_semaphore_wait(&g_testaudio.pcAudio.producer);
ptestaudio = bufTestAudioNew();
if(ptestaudio == NULL)
{
diag_printf("No audio read buffer!!!\n");
while(1);
}
if( readarg.txlen <= sizeof(ptestaudio->aucAudio))
{
memcpy(ptestaudio->aucAudio, readarg.txbuf, readarg.txlen);
ptestaudio->iAudioLen = readarg.txlen;
listAttach(&g_testaudio.listAudio, &ptestaudio->list);
cyg_semaphore_post(&g_testaudio.pcAudio.consumer);
}
else
{
bufTestAudioDecRef(ptestaudio);
diag_printf("audio too large %d>%d\n", readarg.txlen, sizeof(ptestaudio->aucAudio));
cyg_semaphore_post(&g_testaudio.pcAudio.producer);
}
iothread_ReadAudio_Complete(&readarg);
//readarg.txbuf = (unsigned char*)g_mpDataBuffer;
#if 0
/* Decode law to pcm */
{
DecodeLAW_T decode_info;
decode_info.dfSrcFormat = DecodeLAW_FORMAT_ALAW;
decode_info.dfDstFormat = DecodeLAW_FORMAT_LINEAR;
decode_info.ucSrcData = g_mpDataBuffer;
decode_info.iSrcDataSize = readarg.txlen;
decode_info.ucDstData = g_mpAudioDataBuffer;
decode_info.iDstDataSize = sizeof(g_mpAudioDataBuffer);
readarg.txlen = DecodeLAW(&decode_info);
if(readarg.txlen == -1)
{
diag_printf("decode law failed\n");
continue;
}
readarg.mediatype = MEDIA_TYPE_AUDIO;
readarg.txbuf = g_mpAudioDataBuffer;
}
#endif
iothread_Write(&readarg);
//diag_printf("get audio, len=%d\n", readarg.txlen);
break;
default:
diag_printf("unknown type %d\n", readarg.mediatype);
break;
}
}
if(audiocount >= 500 && audiocount % 500 == 0)
{
int timeoffset;
timeEnd = cyg_current_time();
timeoffset = timeEnd-timeBegin;
diag_printf("audiocount=%d\n", audiocount);
if(timeoffset != 0 && timeoffset > 100) diag_printf("audiorate=%d\n", audiocount/(timeoffset/100));
}
}
cyg_thread_exit();
}
void listener( cyg_addrword_t which )
{
int s_s1 = -1, e_s1 = 0, s_s2 = -1, e_s2 = 0;
struct sockaddr_in e_s1_addr,e_s2_addr,local;
fd_set in_fds;
int len;
int num;
// do we select on multiple sources?
int dual = (3 == (which & 3)) || (2 == (which & 3));
// then which is 2,3,6,7 so set up a 2nd listener
CYG_TEST_CHECK( 0 <= which, "which under" );
CYG_TEST_CHECK( NLISTENERS > which, "which over" );
diag_printf( "Listener %d alive [%s]\n", which, dual ? "dual" : "single" );
s_s1 = socket(AF_INET, SOCK_STREAM, 0);
if (s_s1 < 0) {
pexit("stream socket 1");
}
memset(&local, 0, sizeof(local));
local.sin_family = AF_INET;
local.sin_len = sizeof(local);
local.sin_port = ntohs(SOURCE_PORT1 + which);
local.sin_addr.s_addr = htonl(INADDR_LOOPBACK);
if(bind(s_s1, (struct sockaddr *) &local, sizeof(local)) < 0) {
pexit("bind /source_1/ error");
}
listen(s_s1, SOMAXCONN);
if ( dual ) {
s_s2 = socket(AF_INET, SOCK_STREAM, 0);
if (s_s2 < 0) {
pexit("stream socket 2");
}
memset(&local, 0, sizeof(local));
local.sin_family = AF_INET;
local.sin_len = sizeof(local);
local.sin_port = ntohs(SOURCE_PORT2 + which);
local.sin_addr.s_addr = htonl(INADDR_LOOPBACK);
if(bind(s_s2, (struct sockaddr *) &local, sizeof(local)) < 0) {
pexit("bind /source_2/ error");
}
listen(s_s2, SOMAXCONN);
}
while (true) {
FD_ZERO(&in_fds);
FD_SET(s_s1, &in_fds);
if ( dual )
FD_SET(s_s2, &in_fds);
num = select ( max(s_s1,s_s2)+1, &in_fds,0,0,0);
if (FD_ISSET(s_s1,&in_fds)) {
len = sizeof(e_s1_addr);
if ((e_s1 = accept(s_s1,(struct sockaddr *)&e_s1_addr,&len))<0) {
pexit("accept /source_1/");
}
diag_printf("TCP SERVER connection from %s: %d\n",
inet_ntoa(e_s1_addr.sin_addr),ntohs(e_s1_addr.sin_port));
}
if ( dual ) {
if (FD_ISSET(s_s2,&in_fds)) {
len = sizeof(e_s2_addr);
if ((e_s2 = accept(s_s2,(struct sockaddr *)&e_s2_addr,&len))<0) {
pexit("accept /source_2/");
}
diag_printf("TCP SERVER connection from %s: %d\n",
inet_ntoa(e_s2_addr.sin_addr), ntohs(e_s2_addr.sin_port));
}
}
if ((e_s1 != 0) || ( e_s2 != 0)) {
break;
}
} /* while (true) */
CYG_TEST_CHECK( 0 != e_s1, "No connection made on s1!" );
if ((len = read(e_s1, data_buf1[which], MAX_BUF)) < 0 ) {
perror("I/O error s1");
CYG_TEST_FAIL( "Read s1 failed" );
}
diag_printf("Listener %d: %s\n", which, data_buf1[which]);
close( s_s1 );
if ( dual )
close( s_s2 );
if ( 0 != e_s1 )
close ( e_s1 );
if ( 0 != e_s2 )
close ( e_s2 );
cyg_semaphore_post( &listen_sema[which] ); // Verify that I was here
cyg_semaphore_post( &recv_sema ); // Count receptions
cyg_thread_exit(); // explicitly
}
void test_tcp_socket_server(cyg_addrword_t pnetdata)
{
int s, new_s, i;
struct sockaddr_in sa, r_sa;
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
int threadid;
int port = ((TEST_TCP_SOCKET_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_TCP_SOCKET_DATA_T*)pnetdata)->pbuf;
threadid = cyg_thread_self();
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_tcp_socket_server");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_tcp_socket_server");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_tcp_socket_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_tcp_socket_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(listen(s, 10, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_tcp_socket_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
for(i = 0; i < TEST_TCP_ACCEPT_SOCKET_TIMES; i++)
{
if((new_s = accept(s, (struct sockaddr*)&sa, (size_t*)&r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_tcp_socket_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
netclose(new_s, pbuf, RNT_BUFFER_LEN);
}
test_printf_success("test_tcp_socket_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
/****************************************************************************
Function: disktest
Description: This example program streams data to a single SCSI disks,
reads it back, and verifies it.
Calling Sequence:
Inputs:
fd - This parameter contains the open file diescriptor.
Outputs:
Returns:
Notes:
Example:
****************************************************************************/
static void disktest (CYG_ADDRWORD fd)
{
int i;
int numSects;
int numWrites;
int seed = rand();
char *buffer;
char *abuffer;
int status = 0;
unsigned int count;
unsigned long long *bufP;
unsigned long long nextRead = seed;
unsigned long long nextWrite = seed;
/* Perform any initialization prior to start of test.
This example allocates a data buffer for each disk
being read/written.
*/
/* Allocate Data Buffer - This example uses malloc to
allocate data buffers.
*/
buffer = (char *) malloc (BLOCK_SIZE + HAL_DCACHE_LINE_SIZE);
if (buffer == NULL)
{
printf ("malloc: Error allocating buffer space\n");
close(fd);
goto exit;
}
/* Align data buffer on a cache line
*/
abuffer = (char *)roundup(buffer, HAL_DCACHE_LINE_SIZE);
numSects = BLOCK_SIZE / SECTOR_SIZE;
numWrites = TOTAL / BLOCK_SIZE;
// Set file offset to beginning of disk
lseek(fd, 0, SEEK_SET);
for (count = 0; count < numWrites; count+=1)
{
#ifdef VERIFY_ALL
/* Initialize buffer with incrementing data */
bufP = (unsigned long long *)abuffer;
for (i = 0; i < BLOCK_SIZE / sizeof(unsigned long long); ++i)
*bufP++ = nextWrite++;
#endif
#ifdef VERIFY_FIRST
/* Initialize first location in buffer with incrementing data */
bufP = (unsigned long long *)abuffer;
*bufP = nextWrite;
nextWrite += BLOCK_SIZE;
#endif
/* Write buffer data to disk
*/
if ((status = write(fd, abuffer, BLOCK_SIZE)) != BLOCK_SIZE)
{
if (status == -1)
{
perror("write");
}
else
printf("write: Only %d bytes written should be %d\n",
status, BLOCK_SIZE);
/* Free data buffer */
free(buffer);
goto exit;
}
}
/* Set file offset to beginning of disk */
lseek(fd, 0, SEEK_SET);
for (count = 0; count < numWrites; count+= 1)
{
/* Read buffer data from disk.
*/
if ((status = read(fd, abuffer, BLOCK_SIZE)) != BLOCK_SIZE)
{
if (status == -1)
perror("read");
else
printf("read: Only %d bytes read should be %d\n",
status, BLOCK_SIZE);
/* Free data buffer */
free(buffer);
goto exit;
}
#ifdef VERIFY_ALL
bufP = (unsigned long long *)abuffer;
for (i = 0; i < BLOCK_SIZE / sizeof(unsigned long long); ++i)
{
if (*bufP != nextRead)
printf("%d Buffer mismatch sb %llx is %llx\n", i,
nextRead, *bufP);
++bufP;
++nextRead;
}
#endif
#ifdef VERIFY_FIRST
bufP = (unsigned long long *)abuffer;
if (*bufP != nextRead)
printf("Buffer mismatch sb %llx is %llx\n", nextRead, *bufP);
nextRead += BLOCK_SIZE;
#endif
}
/* Free data buffers */
free (buffer);
exit:
/* Notify caller that test has completed */
cyg_semaphore_post(&test_cmpl_sema);
/* Exit thread */
cyg_thread_exit();
}
int main(int argc, char *argv[])
{
int i;
int disk;
int fd[NUM_DISKS];
// Initialize the ISP Fibre Channel Controller
isp_controller_init(0);
// Create test complete semaphore
cyg_semaphore_init(&test_cmpl_sema, 0);
/* Open a connection to the first NUM_DISKS found.
*/
for (i = 0, disk = 0; (disk < NUM_DISKS) && (i < MAX_NUM_DISKS); ++i)
{
cyg_io_handle_t handle;
Cyg_ErrNo status;
char device[10];
sprintf(device, "/dev/sd%d", i);
/* See if this device is present */
status = cyg_io_lookup(device, &handle);
if (status == ENOERR)
{
fd[disk] = open(device, O_RDWR, 0);
if (fd[disk] == -1)
{
printf ("disktest: open() failed for %s - ", device);
perror("open");
return(-1);
}
++disk;
}
}
printf("\nPerforming disktest on %d disk(s)\n", disk);
// Create tasks to perform disk testing. Each task tests one disk.
for (i = 0; i < disk; ++i)
{
cyg_thread_create(15, &disktest, fd[i], "disktest", &stack[i][0],
CYGNUM_HAL_STACK_SIZE_TYPICAL,
&disktest_handle[i], &disktest_thread[i]);
cyg_thread_resume(disktest_handle[i]);
}
// Wait for test to complete
for (i = 0; i < disk; ++i)
cyg_semaphore_wait(&test_cmpl_sema);
// Close all the files
for (i = 0; i < disk; ++i)
close(fd[i]);
// Delete semaphore
cyg_semaphore_destroy(&test_cmpl_sema);
printf("disktest completed.\n");
cyg_thread_exit();
// Should never get here
return(0);
}
void test_sendmsg_server(cyg_addrword_t pnetdata)
{
int s, i, sendmsglen;
struct sockaddr_in sa, r_sa;
struct hostent *hp;
struct msghdr msghdr_msg;
struct iovec *piov;
int j;
int perIov_len;
char tmp[TEST_SENDMSG_MSG_LEN];
int threadid;
int port = ((TEST_SENDMSG_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_SENDMSG_DATA_T*)pnetdata)->pbuf;
threadid = port;
if(inet_aton(TEST_SENDMSG_SERVER_ADDR, &sa.sin_addr, pbuf, RNT_BUFFER_LEN) == 0)
{
test_printf_error("test_sendmsg_server");
cyg_thread_exit();
}
sa.sin_family = AF_INET;
sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_sendmsg_server");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_sendmsg_server");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_sendmsg_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_sendmsg_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(connect(s, (struct sockaddr*)&sa, sizeof(sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_sendmsg_server");
cyg_thread_exit();
}
for(i = 0; i < TEST_SENDMSG_WRITE_TIMES; i++)
{
strcpy(tmp, TEST_SENDMSG_MSG);
perIov_len = TEST_SENDMSG_MSG_PART_LEN;
piov = malloc(TEST_SENDMSG_MSG_PARTS*sizeof(struct iovec));
if(piov == NULL)
{
test_printf_error("test_sendmsg_server");
goto fail;
}
memset(piov, 0, TEST_SENDMSG_MSG_PARTS*sizeof(struct iovec));
for(j = 0; j < TEST_SENDMSG_MSG_PARTS; j++)
{
piov[j].iov_base = malloc(perIov_len);
if(piov[j].iov_base == NULL)
{
test_printf_error("test_sendmsg_server");
for(i = 0; i < j; i++) free(piov[j].iov_base);
if(piov != NULL) free(piov);
goto fail;
}
piov[j].iov_len = perIov_len;
memcpy(piov[j].iov_base, tmp + j * TEST_SENDMSG_MSG_PART_LEN, TEST_SENDMSG_MSG_PART_LEN);
}
msghdr_msg.msg_name = NULL;
msghdr_msg.msg_namelen = 0;
msghdr_msg.msg_iov = piov;
msghdr_msg.msg_iovlen = TEST_SENDMSG_MSG_PARTS;
msghdr_msg.msg_control = NULL;
msghdr_msg.msg_controllen = 0;
msghdr_msg.msg_flags = 0;
sendmsglen = sendmsg(s, &msghdr_msg, 0, pbuf, RNT_BUFFER_LEN);
if(sendmsglen < 0)
{
test_printf_error("test_sendmsg_server");
for(j = 0; j < TEST_SENDMSG_MSG_PARTS; j++)
{
if(piov[j].iov_base != NULL) free(piov[j].iov_base);
}
if(piov != NULL) free(piov);
break;
}
for(j = 0; j < TEST_SENDMSG_MSG_PARTS; j++)
{
if(piov[j].iov_base != NULL) free(piov[j].iov_base);
}
if(piov != NULL) free(piov);
}
test_printf_success("test_sendmsg_server");
fail:
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
void test_getsockname_server(cyg_addrword_t pnetdata)
{
int s, new_s;
struct sockaddr_in sa, r_sa;
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
int port = ((TEST_GETSOCKNAME_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_GETSOCKNAME_DATA_T*)pnetdata)->pbuf;
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_getsockname_entry");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_getsockname_entry");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_getsockname_entry");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_getsockname_entry");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getsockname(-1, (struct sockaddr*)&sa, &r_sa_l, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getsockname(s, NULL, &r_sa_l, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getsockname(s, (struct sockaddr*)&sa, NULL, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
r_sa_l = 0;
if(getsockname(s, (struct sockaddr*)&sa, &r_sa_l, pbuf, RNT_BUFFER_LEN) != 0)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
r_sa_l = sizeof(r_sa);
if(getsockname(s, (struct sockaddr*)&sa, &r_sa_l, NULL, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getsockname(s, (struct sockaddr*)&sa, &r_sa_l, pbuf, 0) != -1)
{
test_printf_error("getsockname");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(listen(s, 10, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_getsockname_entry");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if((new_s = accept(s, (struct sockaddr*)&sa, (size_t*)&r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_getsockname_entry");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getpeername(-1, (struct sockaddr*)&sa, &r_sa_l, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getpeername(new_s, NULL, &r_sa_l, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getpeername(new_s, (struct sockaddr*)&sa, NULL, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
r_sa_l = 0;
if(getpeername(new_s, (struct sockaddr*)&sa, &r_sa_l, pbuf, RNT_BUFFER_LEN) != 0)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
r_sa_l = sizeof(r_sa);
if(getpeername(new_s, (struct sockaddr*)&sa, &r_sa_l, NULL, RNT_BUFFER_LEN) != -1)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(getpeername(new_s, (struct sockaddr*)&sa, &r_sa_l, pbuf, 0) != -1)
{
test_printf_error("getpeername");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
test_printf_success("test_getsockname_entry");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
void test_netselect_server(cyg_addrword_t pnetdata)
{
int s, new_s, readlen;
struct sockaddr_in sa, r_sa;
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
int ierr = 0;
fd_set readset;
int threadid;
int port = ((TEST_NETSELECT_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_NETSELECT_DATA_T*)pnetdata)->pbuf;
char *preadbuf = ((TEST_NETSELECT_DATA_T*)pnetdata)->pnetselectbuf;
threadid = cyg_thread_self();
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_netselect_server");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_netselect_server");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_netselect_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_netselect_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(listen(s, 10, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_netselect_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if((new_s = accept(s, (struct sockaddr*)&sa, (size_t*)&r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_netselect_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
while(1)
{
FD_ZERO(&readset);
FD_SET(new_s, &readset);
if(netselect(new_s + 1, &readset, NULL, NULL, NULL, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_netselect_server");
ierr = 1;
break;
}
if(FD_ISSET(new_s, &readset))
{
readlen = netread(new_s, preadbuf, TEST_NETSELECT_MSG_LEN, pbuf, RNT_BUFFER_LEN);
if(readlen < 0)
{
test_printf_error("test_netselect_server");
ierr = 1;
break;
}
if(readlen == 0)
{
break;
}
if(readlen > 0)
{
if(strcmp(preadbuf, TEST_NETSELECT_MSG) != 0)
{
ierr = 1;
test_printf_error("test_netselect_server");
break;
}
}
}
}
if(ierr == 0)
test_printf_success("test_netselect_server");
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
void simple_udpserver(cyg_addrword_t pnetdata)
{
int s, new_s, i, len;
char *msg;
struct sockaddr_in sa = {0}, r_sa = {0};
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
int threadid;
int port = ((NET_DATA_T*)pnetdata)->iport;
char *pbuf = ((NET_DATA_T*)pnetdata)->pbuf;
threadid = cyg_thread_self();
msg = malloc(BUFSIZE);
if(msg == NULL)
{
printf("simple_udpserver(%d): malloc error\n", threadid);
cyg_thread_exit();
}
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
printf("simple_udpserver(%d): gethostbyname error\n", threadid);
cyg_thread_exit();
}
printf("simple_udpserver(%d): gethostbyname ok\n", threadid);
//memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_addr.s_addr = htonl(INADDR_ANY);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
printf("simple_udpserver(%d): final addr=%s\n", threadid, inet_ntoa(r_sa.sin_addr, pbuf, RNT_BUFFER_LEN));
printf("simple_udpserver(%d): receive from port %d\n", threadid, ntohs(r_sa.sin_port));
if((s = socket(AF_INET, SOCK_DGRAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_udpserver(%d): socket error\n", threadid);
cyg_thread_exit();
}
printf("simple_udpserver(%d): create socket success...\n", threadid);
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
printf("simple_udpserver(%d): bind error\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
printf("simple_udpserver(%d): bind success...\n", threadid);
{
struct sockaddr_in sockname;
int socklen;
if(getsockname(s, (struct sockaddr*)&sockname, &socklen, pbuf, RNT_BUFFER_LEN) != -1)
{
printf("simple_udpserver(%d): getsockname sin_family=%d sin_port=%d sin_addr=%s socklen=%d\n", threadid,
sockname.sin_family, ntohs(sockname.sin_port), inet_ntoa(sockname.sin_addr, pbuf, RNT_BUFFER_LEN), socklen);
}
else
{
printf("simple_udpserver(%d): getsockname error\n", threadid);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
}
i = 0;
while(1)
{
if((len = recvfrom(s, msg, BUFSIZE, 0, (struct sockaddr*)&sa, &r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
printf("simple_udpserver(%d): recvfrom error\n", threadid);
continue;
}
if(len == 0)
{
printf("simple_udpserver(%d): recvfrom 0, connection broken!!!!!\n", threadid);
continue;
}
msg[len] = '\0';
//printf("simple_udpserver(%d): recvfrom(%s:%d): %s\n", threadid, inet_ntoa(sa.sin_addr, pbuf, RNT_BUFFER_LEN), ntohs(sa.sin_port), msg);
//len = sprintf(msg, "ack%d", i);
len = 40000;
memcpy(msg, g_LargeData, len);
if(sendto(s, msg, len, 0, (struct sockaddr*)&sa, r_sa_l, pbuf, RNT_BUFFER_LEN) == -1)
{
printf("simple_udpserver(%d): sendto error\n", threadid);
continue;
}
if(len == 0)
{
printf("simple_udpserver(%d): sendto 0, connection broken!!!!!\n", threadid);
continue;
}
i++;
}
netclose(s, pbuf, RNT_BUFFER_LEN);
free(msg);
cyg_thread_exit();
}
void test_send_server(cyg_addrword_t pnetdata)
{
int s, i, len, sendlen;
struct sockaddr_in sa, r_sa;
struct hostent *hp;
int threadid;
int port = ((TEST_SEND_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_SEND_DATA_T*)pnetdata)->pbuf;
char *psendbuf = ((TEST_SEND_DATA_T*)pnetdata)->psendbuf;
threadid = port;
if(inet_aton(TEST_SEND_SERVER_ADDR, &sa.sin_addr, pbuf, RNT_BUFFER_LEN) == 0)
{
test_printf_error("test_send_server");
cyg_thread_exit();
}
sa.sin_family = AF_INET;
sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_send_server");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_send_server");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_send_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_send_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_send_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(connect(s, (struct sockaddr*)&sa, sizeof(sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_send_server");
cyg_thread_exit();
}
for(i = 0; i < TEST_SEND_WRITE_TIMES; i++)
{
len = sprintf(psendbuf, "%s", TEST_SEND_MSG);
len++;
sendlen = send(s, psendbuf, len, 0, pbuf, RNT_BUFFER_LEN);
if(sendlen < 0)
{
test_printf_error("test_send_server");
break;
}
}
if(i == TEST_SEND_WRITE_TIMES)
test_printf_success("test_send_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
void test_recv_server(cyg_addrword_t pnetdata)
{
int s, new_s;
struct sockaddr_in sa, r_sa;
int r_sa_l = sizeof(r_sa);
struct hostent *hp;
int threadid;
int port = ((TEST_RECV_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_RECV_DATA_T*)pnetdata)->pbuf;
char *precvbuf = ((TEST_RECV_DATA_T*)pnetdata)->precvbuf;
threadid = cyg_thread_self();
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_recv_server");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_recv_server");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_recv_server");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
test_printf_error("test_recv_server");
cyg_thread_exit();
}
if(listen(s, 10, pbuf, RNT_BUFFER_LEN) == -1)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
test_printf_error("test_recv_server");
cyg_thread_exit();
}
if((new_s = accept(s, (struct sockaddr*)&sa, (size_t*)&r_sa_l, pbuf, RNT_BUFFER_LEN)) == -1)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
test_printf_error("test_recv_server");
cyg_thread_exit();
}
if(recv(-1, precvbuf, TEST_RECV_MSG_LEN, 0, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
if(recv(new_s, NULL, TEST_RECV_MSG_LEN, 0, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
// recv 0 will block and wait for client's write. (But netread wouldn't)
/*
if(recv(new_s, precvbuf, 0, 0, pbuf, RNT_BUFFER_LEN) != 0)
{
test_printf_error("test_recv_server");
goto fail;
}
*/
if(recv(new_s, precvbuf, -1, 0, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
if(recv(new_s, precvbuf, TEST_RECV_MSG_LEN, -1, pbuf, RNT_BUFFER_LEN) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
if(recv(new_s, precvbuf, TEST_RECV_MSG_LEN, 0, NULL, RNT_BUFFER_LEN) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
if(recv(new_s, precvbuf, TEST_RECV_MSG_LEN, 0, pbuf, 0) != -1)
{
test_printf_error("test_recv_server");
goto fail;
}
test_printf_success("test_recv_server");
fail:
netclose(new_s, pbuf, RNT_BUFFER_LEN);
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
/* --------------------------------------------------------------------------
* start_thread
*
* ARM start thread function
*
* @param : cyg_addrword_t data
* @return : void
* @see : fpga, parse, create_structure, exti_thread, led_thread
*
* Process:
* 01. Refresh FPGA;
* 02. Configure GPIO register;
* 03. Configure EXTI register;
* 04. Parse binary file;
* 05. Create data structure;
* 06. Attach interrupt;
* 07. Report device address and data.
* --------------------------------------------------------------------------
*/
void start_thread(cyg_addrword_t data)
{
HAL_WRITE_UINT32(CYGARC_REG_SYSTICK_BASE+CYGARC_REG_SYSTICK_RELOAD, 2099 );
cyg_tick_count_t aticks = cyg_current_time();
if (fpga() == 0)
{
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("FPGA init :: ERROR :: ARM STOP\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
cyg_thread_exit();
}
cyg_tick_count_t bticks = cyg_current_time();
UNSIGNED32 time = ((UNSIGNED32)bticks - (UNSIGNED32)aticks) / 10;
printf("FPGA init :: PROGRAMMING TIME :: %d ms\n", time);
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("...configuring GPIO...\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
mvb_arm_init_all_gpio();
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("...configuring EXTI...\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
mvb_arm_init_exti();
cyg_thread_create(EXTI_WORKTHREAD_PRI, exti_thread, 0, "EXTI CONFIGURATION", &exti_stack, STACK_SIZE, &exti_thread_handle, &exti_thread_data);
aticks = cyg_current_time();
if (parse() == 0)
{
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("Binary init :: ERROR :: Parsing error, no config data.\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
}
bticks = cyg_current_time();
time = ((UNSIGNED32)bticks - (UNSIGNED32)aticks) / 10;
printf("Binary init :: ELAPSED TIME :: %d ms\n", time);
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("...creating data structure...\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
create_structure();
#ifdef MVBPROJ_BASIC_INFO_SUPPORT
printf("...attaching interrupt...\n");
#endif // ifdef MVBPROJ_BASIC_INFO_SUPPORT
#ifdef MVBPROJ_LED_SUPPORT
cyg_thread_create(LED_WORKTHREAD_PRI, led_thread, 0, "LED SUPPORT", &led_stack, STACK_SIZE, &led_thread_handle, &led_thread_data);
#endif // ifdef MVBPROJ_LED_SUPPORT
cyg_thread_resume(exti_thread_handle); // Start it
#ifdef MVBPROJ_LED_SUPPORT
cyg_thread_resume(led_thread_handle);
#endif // ifdef MVBPROJ_LED_SUPPORT
cyg_thread_exit();
}
void test_tcp_socket_client(cyg_addrword_t pnetdata)
{
int s, i, len;
char msg;
struct sockaddr_in sa, r_sa;
struct hostent *hp;
int threadid;
int port = ((TEST_TCP_SOCKET_DATA_T*)pnetdata)->iport;
char *pbuf = ((TEST_TCP_SOCKET_DATA_T*)pnetdata)->pbuf;
threadid = cyg_thread_self();
if((hp = gethostbyname(TEST_REMOTEFUNC_HOSTNAME, pbuf, RNT_BUFFER_LEN)) == NULL)
{
test_printf_error("test_tcp_socket_client");
cyg_thread_exit();
}
memcpy(&(r_sa.sin_addr), hp->h_addr_list0, hp->h_length);
r_sa.sin_family = AF_INET;
r_sa.sin_port = htons(IPPORT_USERRESERVED + port);
memcpy(&(sa.sin_addr), hp->h_addr_list0, hp->h_length);
sa.sin_family = AF_INET;
sa.sin_port = htons(IPPORT_USERRESERVED + port - TEST_TCP_SOCKET_SERVER_NUM);
for(i = 0; i < TEST_TCP_ACCEPT_SOCKET_TIMES; i++)
{
if((s = socket(AF_INET, SOCK_STREAM, PF_UNSPEC, pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_tcp_socket_client");
cyg_thread_exit();
}
if(set_reuseaddr(s, pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_tcp_socket_client");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
if(bind(s, (struct sockaddr*)&r_sa, sizeof(r_sa), pbuf, RNT_BUFFER_LEN) == -1)
{
test_printf_error("test_tcp_socket_client");
netclose(s, pbuf, RNT_BUFFER_LEN);
cyg_thread_exit();
}
while(connect(s, (struct sockaddr*)&sa, sizeof(sa), pbuf, RNT_BUFFER_LEN) == -1) NULL;
if((len = netread(s, &msg, sizeof(msg), pbuf, RNT_BUFFER_LEN)) == -1)
{
test_printf_error("test_tcp_socket_client");
break;
}
if(len == 0)
{
netclose(s, pbuf, RNT_BUFFER_LEN);
continue;
}
}
test_printf_success("test_tcp_socket_client");
cyg_thread_exit();
}
//os void smbd_process(int ProcSockID, void *nouse1, void *nouse2)
void smbd_process (cyg_addrword_t data)
{
int ProcSockID = data;
//0704 extern int smb_echo_count;
//0705 time_t last_timeout_processing_time = time(NULL);
/* 0416 from global variable */
//char __inbuf[SMB_BUFFER_SIZE + SAFETY_MARGIN];
//0621char __oubuf[SMB_BUFFER_SIZE + SAFETY_MARGIN];
//Jesse char __inbuf[SMB_BUFFER_SIZE];
//Jesse char __oubuf[MAX_SEND_SIZE];
char __inbuf[SMB_BUFFER_SIZE + 16];
char __oubuf[MAX_SEND_SIZE + 16];
char *InBuffer = __inbuf;
char *OutBuffer = __oubuf;
int i, threadid=0;
int testInbufsize=0, testOutbufsize=0;
testInbufsize = sizeof(__inbuf);
testOutbufsize = sizeof(__oubuf);
// InBuffer += SMB_ALIGNMENT; // ??? why ??? 7/18/2001 by ron
// OutBuffer += SMB_ALIGNMENT;
/* re-initialise the timezone */
//0302 TimeInit();
for (i =0; i < NUM_SMBTHREAD; i++){
if (smbthread[i] == ProcSockID){
threadid =i;
break;
}
}
if (threadid >= NUM_SMBTHREAD)
threadid = -1;
thread_isused[threadid]++; //for debug
while (True)
{
// int change_notify_timeout = 1 * 1000;
int got_smb = False;
//0705 int select_timeout = SMBD_SELECT_TIMEOUT*1000;//setup_select_timeout();
check_idle_conn(RELEASE_RESOURCE_TIMEOUT, threadid); // check Idle Connection ....Ron Add 3/8/2002
while(!receive_message_or_smb(InBuffer,SMB_BUFFER_SIZE, &got_smb
,ProcSockID ,threadid) || _forceclosethread[threadid] ==1)
{
if(!timeout_processing(SET_SMBD_TIMEOUT, threadid)){
conn_close_all(threadid);
pipe_close_all(threadid); //7/19/2001 by ron
reset_global_variables(threadid);
//Jesse close_s(ProcSockID); //close socket 6/29/2001 by ron
close(ProcSockID); //close socket
cyg_thread_exit();
return;
}
//0418 num_smbs = 0; /* Reset smb counter. */
//os kwait(NULL);
cyg_thread_yield();
} //while
if (threadid < 0 ||ProcSockID < 0)
{
cyg_thread_exit();
return;
}
if(got_smb) {
/*
* Ensure we do timeout processing if the SMB we just got was
* only an echo request. This allows us to set the select
* timeout in 'receive_message_or_smb()' to any value we like
* without worrying that the client will send echo requests
* faster than the select timeout, thus starving out the
* essential processing (change notify, blocking locks) that
* the timeout code does. JRA.
*/
//0704 int num_echos = smb_echo_count;
process_smb(InBuffer, OutBuffer, ProcSockID, threadid);
} //if
//os kwait(NULL);
cyg_thread_yield();
} //while
}