int main(int argc, char **argv)
{
int sock_maxdb, sock_shell;
struct hostent *hn;
banner();
if (argc < 2) usage(argv[0]);
memset(&host, 0, sizeof(host));
host.sin_family = AF_INET;
host.sin_port = (argc > 2) ? htons((u_short)atoi(argv[2])) : htons(9999);
if ( (hn = gethostbyname(argv[1])) == NULL)
errx(-1, "Unresolvable address\n");
memcpy(&host.sin_addr, hn->h_addr, hn->h_length);
printf("[*] Connecting to %s:%d... ",
inet_ntoa(host.sin_addr), ntohs(host.sin_port));
fflush(stdout);
sock_maxdb = connect_port(ntohs(host.sin_port));
if (!sock_maxdb)
{
printf("failure.\n\n");
exit(-1);
}
printf("success.\n");
printf("[*] Sending evil payload...\n");
exploit(sock_maxdb);
close(sock_maxdb);
fflush(stdout);
sleep(1);
printf("[*] Trying to connect to spawned shell... ");
sock_shell = connect_port(13370);
if (!sock_shell)
{
printf("failure.\n\n");
exit(-1);
}
printf("success!\n\nEnjoy :)\n\n");
shell(sock_shell);
return 0;
}
/* return -1 on failure */
int
connect_portrange(
sockaddr_union *addrp,
in_port_t first_port,
in_port_t last_port,
char * proto,
sockaddr_union *svaddr,
int nonblock)
{
int s;
in_port_t port;
static in_port_t port_in_use[1024];
static int nb_port_in_use = 0;
int i;
int save_errno = EAGAIN;
assert(first_port <= last_port);
/* Try a port already used */
for(i=0; i < nb_port_in_use; i++) {
port = port_in_use[i];
if(port >= first_port && port <= last_port) {
s = connect_port(addrp, port, proto, svaddr, nonblock);
if(s == -2) return -1;
if(s >= 0) {
return s;
}
if (errno != EAGAIN && errno != EBUSY)
save_errno = errno;
}
}
/* Try a port in the range */
for (port = first_port; port <= last_port; port++) {
s = connect_port(addrp, port, proto, svaddr, nonblock);
if(s == -2) return -1;
if(s >= 0) {
port_in_use[nb_port_in_use++] = port;
return s;
}
if (errno != EAGAIN && errno != EBUSY)
save_errno = errno;
}
dbprintf(_("connect_portrange: All ports between %d and %d are busy.\n"),
first_port,
last_port);
errno = save_errno;
return -1;
}
//connect to scheduler(host)
static void add_host(gpointer data){
int ihost=GPOINTER_TO_INT(data);
int todo=0;
LOCK(mhost);
if(hsock[ihost]==-1){
hsock[ihost]--;//make it -2 so no concurrent access.
todo=1;
}
UNLOCK(mhost);
if(todo){
int sock=connect_port(hosts[ihost], PORT, 0, 0);
if(sock>-1){
int cmd[2];
cmd[0]=CMD_MONITOR;
cmd[1]=scheduler_version;
if(stwriteintarr(sock, cmd, 2)){//write failed.
warning("Rare event: Failed to write to scheduler at %s\n", hosts[ihost]);
close(sock);
LOCK(mhost);
hsock[ihost]=-1;
UNLOCK(mhost);
}else{
host_added(ihost, sock);
}
}else{
LOCK(mhost);
hsock[ihost]=-1;
UNLOCK(mhost);
}
}
}
int client(const char *hostname, int port, int type){
int sock;
int nretry=10;
if(type==1){
sock=connect_port(hostname, port, 0, 0);
if(sock<0) exit(1);
for(long iN=1; iN<=N; iN++){
for(int i=0; i<nretry; i++){
double tim1=myclockd();
WRITE(sock, &iN, sizeof(long));
double tim2=myclockd();
READ(sock, temp, sizeof(double));
double tim3=myclockd();
WRITE(sock, temp, sizeof(double)*iN);
double tim4=myclockd();
READ(sock, temp, sizeof(double));
double tim5=myclockd();
dbg("N=%ld, send %5.1f, read %5.1f, send2 %5.1f read2 %5.1f\n", iN, (tim2-tim1)*1e6, (tim3-tim2)*1e6, (tim4-tim3)*1e6, (tim5-tim4)*1e6);
}
}
}else{
sock=socket(AF_INET, SOCK_DGRAM, 0);
}
return 0;
}
// SLOTS
void JVlibForm::on_System_OpenMidi_button_clicked()
{
disconnect_port();
// close_seq();
System_PlayMidi_button->setChecked(false);
System_PlayMidi_button->setEnabled(false);
System_PauseMidi_button->setEnabled(false);
SysFilePlaying->clear();
System_MIDI_Transpose->setValue(0);
System_MIDI_KeySig->clear();
MIDI_length_display->setText("00:00");
QString fn = QFileDialog::getOpenFileName(this,"Open MIDI File",MIDI_dir,"Midi files (*.mid, *.MID);;Any (*.*)");
if (fn.isEmpty())
return;
strcpy(playfile, fn.toAscii().data());
SysFilePlaying->setText(fn);
init_seq();
if (!queue) queue = snd_seq_alloc_named_queue(seq, "midi_play");
check_snd("create queue", queue);
connect_port();
all_events.clear();
if (!parseFile(playfile)) {
QMessageBox::critical(this, "MIDI Player", QString("Error parsing input file"));
return;
} // parseFile
System_MIDI_progressBar->setRange(0,all_events.back().tick);
System_MIDI_progressBar->setTickInterval(song_length_seconds<240? all_events.back().tick/song_length_seconds*10 : all_events.back().tick/song_length_seconds*30);
System_MIDI_progressBar->setTickPosition(QSlider::TicksAbove);
MIDI_length_display->setText(QString::number(static_cast<int>(song_length_seconds/60)).rightJustified(2,'0') + ":" + QString::number(static_cast<int>(song_length_seconds)%60).rightJustified(2,'0'));
System_PlayMidi_button->setEnabled(true);
System_MIDI_Transpose->setEnabled(true);
} // end on_System_OpenMidi_button_clicked
void JVlibForm::on_System_PauseMidi_button_toggled(bool checked)
{
unsigned int current_tick;
if (checked) {
stopPlayer();
if (seqTimer->isActive()) {
disconnect(JVlibForm::seqTimer, SIGNAL(timeout()), this, SLOT(tickDisplay()));
seqTimer->stop();
}
snd_seq_get_queue_status(seq, queue, status);
current_tick = snd_seq_queue_status_get_tick_time(status);
snd_seq_stop_queue(seq,queue,NULL);
snd_seq_drain_output(seq);
stop_sound();
disconnect_port();
System_PauseMidi_button->setText("Resume");
}
else {
connect_port();
snd_seq_continue_queue(seq, queue, NULL);
snd_seq_drain_output(seq);
snd_seq_get_queue_status(seq, queue, status);
current_tick = snd_seq_queue_status_get_tick_time(status);
System_PauseMidi_button->setText("Pause");
connect(JVlibForm::seqTimer, SIGNAL(timeout()), this, SLOT(tickDisplay()));
startPlayer(current_tick);
seqTimer->start(100);
}
} // end on_System_PauseMidi_button_toggled
static DBusMessage *port_connect(DBusConnection *conn,
DBusMessage *msg, void *user_data)
{
struct serial_device *device = user_data;
struct serial_port *port;
const char *pattern;
int err;
if (dbus_message_has_member(msg, "ConnectFD") && DBUS_TYPE_UNIX_FD < 0)
return btd_error_not_supported(msg);
if (dbus_message_get_args(msg, NULL, DBUS_TYPE_STRING, &pattern,
DBUS_TYPE_INVALID) == FALSE)
return NULL;
port = find_port(device->ports, pattern);
if (!port) {
char *endptr = NULL;
int channel;
channel = strtol(pattern, &endptr, 10);
if ((endptr && *endptr != '\0') || channel < 1 || channel > 30)
return btd_error_does_not_exist(msg);
port = create_port(device, NULL, channel);
}
if (port->listener_id)
return btd_error_failed(msg, "Port already in use");
port->listener_id = g_dbus_add_disconnect_watch(conn,
dbus_message_get_sender(msg),
port_owner_exited, port,
NULL);
port->msg = dbus_message_ref(msg);
err = connect_port(port);
if (err < 0) {
error("%s", strerror(-err));
g_dbus_remove_watch(conn, port->listener_id);
port->listener_id = 0;
return btd_error_failed(msg, strerror(-err));
}
return NULL;
}
int main (void) {
state = init;
SetupHardware();
LED(~GREEN);
//HMACInit(jig_key,20);
//switch_port(0);
for (;;) {
USB_USBTask(); // why not in ISR ?
if (expire ==0){
switch (state) {
case start:
connect_port(5);
state = p5_wait_reset;
break;
case JIG_wait_reset:
switch_port(5);
state = p5_wait_enumerate;
break;
case JIG_do_answer:
JIG_Task();
break;
case JIG_responded:
disconnect_port(5);
state = p5_wait_disconnect;
break;
case JIG_wait_disconnect:
if (last_port_conn_clear == 5) {
state = p5_disconnected;
expire = 20;
}
break;
case JIG_disconnected:
LED(GREEN);
break;
default:
break;
}
}
}
}
void JVlibForm::on_System_PlayMidi_button_toggled(bool checked) {
if (checked) {
seqTimer = new QTimer(this);
System_PauseMidi_button->setEnabled(true);
System_OpenMidi_button->setEnabled(false);
System_PlayMidi_button->setText("Stop");
System_MIDI_progressBar->setEnabled(true);
connect_port();
// queue won't actually start until it is drained
int err = snd_seq_start_queue(seq, queue, NULL);
check_snd("start queue", err);
System_PlayMidi_status->on();
connect(JVlibForm::seqTimer, SIGNAL(timeout()), this, SLOT(tickDisplay()));
seqTimer->start(100);
startPlayer(0);
}
else {
if (seqTimer->isActive()) {
disconnect(JVlibForm::seqTimer, SIGNAL(timeout()), this, SLOT(tickDisplay()));
seqTimer->stop();
delete seqTimer;
}
snd_seq_stop_queue(seq,queue,NULL);
snd_seq_drain_output(seq);
stopPlayer();
stop_sound();
disconnect_port();
System_PlayMidi_status->off();
System_MIDI_progressBar->blockSignals(true);
System_MIDI_progressBar->setValue(0);
System_MIDI_progressBar->blockSignals(false);
MIDI_time_display->setText("00:00");
if (System_PauseMidi_button->isChecked()) {
System_PauseMidi_button->blockSignals(true);
System_PauseMidi_button->setChecked(false);
System_PauseMidi_button->blockSignals(false);
System_PauseMidi_button->setText("Pause");
}
System_PauseMidi_button->setEnabled(false);
System_PlayMidi_button->setText("Play");
System_OpenMidi_button->setEnabled(true);
System_MIDI_Transpose->setEnabled(true);
System_MIDI_progressBar->setEnabled(false);
event_num=0;
}
} // end on_System_PlayMidi_button_toggled
static void port_connection_open(PortServer * server, int fd) {
PortConnection * conn;
if (server->channel == NULL || is_channel_closed(server->channel)) {
closesocket(fd);
return;
}
conn = loc_alloc_zero(sizeof(PortConnection));
if (conn == NULL) {
closesocket(fd);
}
else {
int idx = 0;
conn->recv_req.client_data = conn;
conn->recv_req.done = done_recv_request;
conn->recv_req.type = server->is_udp ? AsyncReqRecvFrom : AsyncReqRecv;
conn->recv_req.u.sio.sock = fd;
conn->recv_req.u.sio.flags = 0;
conn->recv_req.u.sio.bufp = conn->inbuf;
conn->recv_req.u.sio.bufsz = IN_BUF_SIZE;
conn->recv_req.u.sio.addr = &server->client_addr;
conn->recv_req.u.sio.addrlen = sizeof(conn->server->client_addr);
conn->send_req.client_data = conn;
conn->send_req.done = done_send_request;
conn->send_req.type = server->is_udp ? AsyncReqSendTo : AsyncReqSend;
conn->send_req.u.sio.sock = fd;
conn->send_req.u.sio.flags = 0;
conn->send_in_progress = -1; /* no send request in progress */
for (idx = 0; idx < MAX_STREAM_READ; idx++) {
conn->read_info[idx].idx = idx;
conn->read_info[idx].conn = conn;
}
conn->fd = fd;
conn->server = server;
conn->next = server->list;
server->list = conn;
connect_port(conn);
}
}
int client(const char *hostname, int port, int nmin, int nmax, int nstep, int nrep){
int sock=connect_port(hostname, port, 0, 1);
if(sock<0 || stwriteint(sock, nstep)
|| stwriteint(sock, nmin)
|| stwriteint(sock, nmax)
|| stwriteint(sock, nrep)) {
warning("Unable to connecto to %s\n", hostname);
close(sock); return 1;
}
buf1=(char*)malloc(nmax*nstep);
for(int i=0;i<10;i++){//warm up
stwrite(sock, buf1, nmax);
stread(sock, buf1, 64);
usleep(500);
}
double tim1, tim2, tim3;
int nlen=(nmax-nmin+nstep)/nstep;
dmat *timing=dnew(nrep, nlen);
dmat *timing2=dnew(nrep, nlen);
int ilen=-1;
for(int len=nmin; len<=nmax; len+=nstep){
ilen++;
info("len=%d\n", len);
for(int irep=0; irep<nrep; irep++){
if(irep%800==0){
info("irep=%d of %d\n", irep, nrep);
}
usleep(500);
tim1=myclockd();
stwrite(sock, buf1, len);
tim2=myclockd();
stread(sock, buf1, 64);
tim3=myclockd();
timing->p[irep+ilen*nrep]=tim3-tim1;
timing2->p[irep+ilen*nrep]=tim2-tim1;
}
}
close(sock);
writebin(timing, "pix_timing_%s_%d_%d_%d", HOST, nmin, nmax, nstep);
writebin(timing2, "pix_timing2_%s_%d_%d_%d", HOST, nmin, nmax, nstep);
dbg("done\n");
return 0;
}
int YLH_Connector::Open_Connect( YLH_Connect_Info& connect_info )
{
connector_super::reactor(m_Owner_Reactor);
//YLH_Sock_Handler::addr_type connect_port(connect_info.connect_port);
ACE_INET_Addr connect_port(connect_info.connect_port, "127.0.0.1");
YLH_Sock_Handler* p = NULL;// = new YLH_Sock_Handler();
//p->reactor(m_Owner_Reactor);
//p->m_Connect_info = connect_info;
//p->open();
if (-1 == connector_super::connect(p, connect_port))
{
return -1;
}
p->set_owner_sever(m_owner_server);
p->set_port(connect_info.connect_port);
add_connect_handler(p->get_handle(), p);
return 0;
}
/**
called by monitor to let a MAOS job remotely draw on this computer
*/
int scheduler_display(int ihost, int pid){
/*connect to scheduler with a new port. The schedule pass the other
end of the port to drawdaemon so we can communicate with it.*/
int sock=connect_port(hosts[ihost], PORT, 0, 0);
int ans=1;
int cmd[2]={CMD_DISPLAY, pid};
if(stwriteintarr(sock, cmd, 2)){
warning("Failed to communicate to scheduler\n");
close(sock);
}
if(streadintarr(sock, cmd, 1)){
warning("Read response failed\n");
}else if(cmd[0]){
warning("The scheduler failed to talk to maos\n");
}else{
if(spawn_drawdaemon(sock)){
warning("spwn drawdaemon failed\n");
}else{
ans=0;
}
close(sock);
}
return ans;
}
int main(int argc, char *argv[]){
enum{
P_EXE,
P_FRAC,
P_NSTEP,
P_TOT,
};
if(argc!=P_TOT){
info2("Usage: \n\tenv MVM_CLIENT=hostname MVM_PORT=port MVM_SASTEP=sastep ./mvm_cpu fraction nstep\n");
_Exit(0);
}
int fraction=strtol(argv[P_FRAC], NULL, 10);
int nstep=strtol(argv[P_NSTEP], NULL, 10);
int nstep0=nstep>1?20:0;//warm up
dmat *d_saind=dread("NFIRAOS_saind");
const int nsa=(d_saind->nx-1)/fraction;
int *saind=mymalloc((1+nsa),int);
for(int i=0; i<nsa+1; i++){
saind[i]=(int)d_saind->p[i];
}
dfree(d_saind);
const int totpix=saind[nsa];
const int nact=6981;//active subapertures.
int ng=nsa*2;
float FSMdelta=-0.2;
smat *dm=snew(nact,1);
smat *mvm=snew(nact, ng);
smat *mtch=snew(totpix*2,1);
smat *grad=snew(ng,1);
smat *im0=snew(totpix,3);
short *pix=mymalloc(totpix,short);
short *pixbias=mymalloc(totpix,short);
{
rand_t rseed;
seed_rand(&rseed, 1);
srandu(mvm, 1e-7, &rseed);
srandu(mtch, 1, &rseed);
for(int i=0; i<totpix; i++){
pix[i]=(short)(randu(&rseed)*25565);
pixbias[i]=(short)(randu(&rseed)*1000);
}
}
smat *mvmt=strans(mvm);
int sastep=200;//how many subapertures each time
int nrep=1;
if(getenv("MVM_NREP")){
nrep=strtol(getenv("MVM_NREP"), NULL, 10);
}
if(getenv("MVM_SECT")){
sastep=nsa/strtol(getenv("MVM_SECT"), NULL, 10);
}
if(getenv("MVM_TRANS")){
use_trans=strtol(getenv("MVM_TRANS"), NULL, 10);
}
if(getenv("MVM_SASTEP")){
sastep=strtol(getenv("MVM_SASTEP"), NULL, 10);
}
info2("use_trans=%d, nrep=%d, sastep=%d\n", use_trans, nrep, sastep);
int sock=-1;
char* MVM_CLIENT=getenv("MVM_CLIENT");
if(MVM_CLIENT){
short port=(short)strtol(getenv("MVM_PORT"), NULL, 10);
sock=connect_port(MVM_CLIENT, port, 0 ,1);
if(sock!=-1) {
info2("Connected\n");
int cmd[7];
cmd[0]=nact;
cmd[1]=nsa;
cmd[2]=sastep;
cmd[3]=totpix;
cmd[4]=nstep;
cmd[5]=nstep0;
cmd[6]=2;
if(stwriteintarr(sock, cmd, 7)
|| stwriteintarr(sock, saind, nsa+1)
|| stwrite(sock, pix, sizeof(short)*totpix)){
close(sock); sock=-1;
warning("Failed: %s\n", strerror(errno));
}
}
}
int ready=0;
if(sock!=-1 && stwriteint(sock, ready)){
warning("error send ready signal: %s\n", strerror(errno));
close(sock); sock=-1;
}
smat *timing=snew(nstep, 1);
TIC;
float timtot=0, timmax=0, timmin=INFINITY;
set_realtime(-1, -20);
for(int jstep=-nstep0; jstep<nstep; jstep++){
int istep=jstep<0?0:jstep;
tic;
double theta=M_PI*0.5*istep+FSMdelta;
float cd=cos(theta);
float sd=cos(theta);
szero(dm);
for(int isa=0; isa<nsa; isa+=sastep){
int npixleft;
int nsaleft;
if(nsa<isa+sastep){//terminate
npixleft=totpix-saind[isa];
nsaleft=nsa-isa;
}else{
npixleft=saind[isa+sastep]-saind[isa];
nsaleft=sastep;
}
short *pcur=pix+saind[isa];
if(sock!=-1){
if(stread(sock, pcur, sizeof(short)*npixleft)){
warning("failed: %s\n", strerror(errno));
close(sock); sock=-1;
_Exit(1);
}
if(isa==0) tic;
}
//Matched filter
mtch_do(mtch->p, pix, pixbias,
grad->p+isa*2, im0->p, im0->p+totpix, im0->p+totpix*2,
saind+isa, nsaleft, cd, sd);
//MVM
for(int irep=0; irep<nrep; irep++){
if(use_trans){
mvmt_do(mvmt->p+isa*2, grad->p+isa*2,dm->p, nact, nsaleft*2, ng);
}else{
mvm_do(mvm->p+isa*2*nact, grad->p+isa*2, dm->p, nact, nsaleft*2);
}
}
}//for isa
if(sock!=-1){
if(stwrite(sock, dm->p, sizeof(float)*nact)){
warning("error write dmres: %s\n", strerror(errno));
close(sock); sock=-1;
_Exit(1);
}
if(streadint(sock, &ready)){//acknowledgement.
warning("error read ack failed: %s\n", strerror(errno));
close(sock), sock=-1;
_Exit(1);
}
timing->p[istep]=ready*1.e-6;
}else{
timing->p[istep]=toc3;//do not tic.
}
if(jstep==istep){
timtot+=timing->p[istep];
if(timmax<timing->p[istep]){
timmax=timing->p[istep];
}
if(timmin>timing->p[istep]){
timmin=timing->p[istep];
}
}
}//for istep
float timmean=timtot/nstep;
info2("Timing is mean %.3f, max %.3f min %.3f. BW is %.1f of 51.2GB/s\n",
timmean*1e3, timmax*1e3, timmin*1e3, nrep*(nact*ng+nact+ng)*sizeof(float)/timmean/(1024*1024*1024));
writebin(timing, "cpu_timing_%s", HOST);
if(nstep==1){
writearr("cpu_pix", 1, sizeof(short), M_INT16, NULL, pix, totpix, 1);
writearr("cpu_pixbias", 1, sizeof(short), M_INT16, NULL, pixbias, totpix, 1);
writebin(dm, "cpu_dm");
writebin(grad, "cpu_grad");
writebin(mvm, "cpu_mvm");
writebin(mtch, "cpu_mtch");
}
}
/**
* ags_recall_dssi_run_load_ports:
* @recall_dssi_run: the #AgsRecallDssiRun
*
* Set up DSSI ports.
*
* Since: 2.0.0
*/
void
ags_recall_dssi_run_load_ports(AgsRecallDssiRun *recall_dssi_run)
{
AgsRecallDssi *recall_dssi;
AgsRecallChannelRun *recall_channel_run;
AgsRecallRecycling *recall_recycling;
AgsPort *current_port;
AgsDssiPlugin *dssi_plugin;
GList *list_start, *list;
gchar *specifier, *current_specifier;
guint output_lines, input_lines;
guint port_count;
guint i, j, j_stop;
DSSI_Descriptor *plugin_descriptor;
LADSPA_PortDescriptor *port_descriptor;
LADSPA_PortDescriptor current_port_descriptor;
void (*connect_port)(LADSPA_Handle Instance,
unsigned long Port,
LADSPA_Data * DataLocation);
pthread_mutex_t *recall_dssi_mutex;
pthread_mutex_t *base_plugin_mutex;
pthread_mutex_t *port_mutex;
if(!AGS_IS_RECALL_DSSI_RUN(recall_dssi_run)){
return;
}
g_object_get(recall_dssi_run,
"parent", &recall_recycling,
NULL);
g_object_get(recall_recycling,
"parent", &recall_channel_run,
NULL);
g_object_get(recall_channel_run,
"recall-channel", &recall_dssi,
NULL);
/* get recall dssi mutex */
pthread_mutex_lock(ags_recall_get_class_mutex());
recall_dssi_mutex = AGS_RECALL(recall_dssi)->obj_mutex;
pthread_mutex_unlock(ags_recall_get_class_mutex());
/* get some fields */
pthread_mutex_lock(recall_dssi_mutex);
output_lines = recall_dssi->output_lines;
input_lines = recall_dssi->input_lines;
list_start = g_list_copy(AGS_RECALL(recall_dssi)->port);
dssi_plugin = recall_dssi->plugin;
plugin_descriptor = recall_dssi->plugin_descriptor;
pthread_mutex_unlock(recall_dssi_mutex);
/* base plugin mutex */
pthread_mutex_lock(ags_base_plugin_get_class_mutex());
base_plugin_mutex = AGS_BASE_PLUGIN(dssi_plugin)->obj_mutex;
pthread_mutex_unlock(ags_base_plugin_get_class_mutex());
/* get some fields */
pthread_mutex_lock(base_plugin_mutex);
port_count = plugin_descriptor->LADSPA_Plugin->PortCount;
port_descriptor = plugin_descriptor->LADSPA_Plugin->PortDescriptors;
connect_port = plugin_descriptor->LADSPA_Plugin->connect_port;
pthread_mutex_unlock(base_plugin_mutex);
/* match port */
if(input_lines < output_lines){
j_stop = output_lines;
}else{
j_stop = input_lines;
}
for(i = 0; i < port_count; i++){
pthread_mutex_lock(base_plugin_mutex);
current_port_descriptor = port_descriptor[i];
pthread_mutex_unlock(base_plugin_mutex);
if(LADSPA_IS_PORT_CONTROL(current_port_descriptor)){
if(LADSPA_IS_PORT_INPUT(current_port_descriptor) ||
LADSPA_IS_PORT_OUTPUT(current_port_descriptor)){
LADSPA_Data *port_pointer;
pthread_mutex_lock(base_plugin_mutex);
specifier = g_strdup(plugin_descriptor->LADSPA_Plugin->PortNames[i]);
pthread_mutex_unlock(base_plugin_mutex);
list = ags_port_find_specifier(list_start, specifier);
g_free(specifier);
if(list != NULL){
current_port = list->data;
/* get port mutex */
pthread_mutex_lock(ags_port_get_class_mutex());
port_mutex = current_port->obj_mutex;
pthread_mutex_unlock(ags_port_get_class_mutex());
/* get port pointer */
pthread_mutex_lock(port_mutex);
port_pointer = (LADSPA_Data *) &(current_port->port_value.ags_port_ladspa);
pthread_mutex_unlock(port_mutex);
for(j = 0; j < j_stop; j++){
#ifdef AGS_DEBUG
g_message("connecting port[%d]: %d/%d - %f", j, i, port_count, current->port_value.ags_port_ladspa);
#endif
connect_port(recall_dssi_run->ladspa_handle[j],
(unsigned long) i,
port_pointer);
}
}
}
}
}
g_list_free(list_start);
/* connect audio port */
for(j = 0; j < input_lines; j++){
connect_port(recall_dssi_run->ladspa_handle[j],
(unsigned long) (recall_dssi->input_port[j]),
&(recall_dssi_run->input[j]));
}
for(j = 0; j < recall_dssi->output_lines; j++){
connect_port(recall_dssi_run->ladspa_handle[j],
(unsigned long) (recall_dssi->output_port[j]),
&(recall_dssi_run->output[j]));
}
g_object_unref(recall_recycling);
g_object_unref(recall_channel_run);
g_object_unref(recall_dssi);
}
int YLH_Connector::do_connect(YLH_Sock_Handler* connect_handler, YLH_Connect_Info connect_info)
{
ACE_INET_Addr connect_port(connect_info.connect_port, "192.168.1.224");
return connector_super::connect(connect_handler, connect_port);
}
int main(void)
{
SetupHardware();
setLed(RED);
state = init;
switch_port(0);
DBGMSG1("Ready.");
// Copy the hub descriptor into ram, vusb's
// usbFunctionSetup() callback can't handle stuff
// from FLASH
memcpy_P(HUB_Hub_Descriptor_ram, HUB_Hub_Descriptor, sizeof(HUB_Hub_Descriptor));
for (;;)
{
if (port_cur == 0)
HUB_Task();
if (port_cur == 5)
JIG_Task();
usbPoll();
// connect 1
if (state == hub_ready && expire == 0)
{
DBG1(0x00, "\x1", 1);
setLed(NONE);
connect_port(1);
state = p1_wait_reset;
}
if (state == p1_wait_reset && last_port_reset_clear == 1)
{
DBG1(0x00, "\x2", 1);
setLed(RED);
switch_port(1);
state = p1_wait_enumerate;
}
// connect 2
if (state == p1_ready && expire == 0)
{
DBG1(0x00, "\x3", 1);
setLed(NONE);
switch_port(0);
connect_port(2);
state = p2_wait_reset;
}
if (state == p2_wait_reset && last_port_reset_clear == 2)
{
DBG1(0x00, "\x4", 1);
setLed(RED);
switch_port(2);
state = p2_wait_enumerate;
}
// connect 3
if (state == p2_ready && expire == 0)
{
DBG1(0x00, "\x5", 1);
setLed(NONE);
switch_port(0);
connect_port(3);
state = p3_wait_reset;
}
if (state == p3_wait_reset && last_port_reset_clear == 3)
{
DBG1(0x00, "\x6", 1);
setLed(RED);
switch_port(3);
state = p3_wait_enumerate;
}
// disconnect 2
if (state == p3_ready && expire == 0)
{
DBG1(0x00, "\x7", 1);
setLed(NONE);
switch_port(0);
disconnect_port(2);
state = p2_wait_disconnect;
}
if (state == p2_wait_disconnect && last_port_conn_clear == 2)
{
DBG1(0x00, "\x8", 1);
setLed(RED);
state = p4_wait_connect;
expire = 15;
}
// connect 4
if (state == p4_wait_connect && expire == 0)
{
DBG1(0x00, "\x9", 1);
setLed(NONE);
connect_port(4);
state = p4_wait_reset;
}
if (state == p4_wait_reset && last_port_reset_clear == 4)
{
DBG1(0x00, "\x10", 1);
setLed(RED);
switch_port(4);
state = p4_wait_enumerate;
}
// connect 5
if (state == p4_ready && expire == 0)
{
DBG1(0x00, "\x11", 1);
setLed(NONE);
switch_port(0);
/* When first connecting port 5, we need to
have the wrong data toggle for the PS3 to
respond */
hub_int_force_data0 = 1;
connect_port(5);
state = p5_wait_reset;
}
if (state == p5_wait_reset && last_port_reset_clear == 5)
{
DBG1(0x00, "\x12", 1);
setLed(RED);
switch_port(5);
state = p5_wait_enumerate;
}
// disconnect 3
if (state == p5_responded && expire == 0)
{
DBG1(0x00, "\x13", 1);
setLed(NONE);
switch_port(0);
/* Need wrong data toggle again */
hub_int_force_data0 = 1;
disconnect_port(3);
state = p3_wait_disconnect;
}
if (state == p3_wait_disconnect && last_port_conn_clear == 3)
{
DBG1(0x00, "\x14", 1);
setLed(RED);
state = p3_disconnected;
expire = 45;
}
// disconnect 5
if (state == p3_disconnected && expire == 0)
{
DBG1(0x00, "\x15", 1);
setLed(NONE);
switch_port(0);
disconnect_port(5);
state = p5_wait_disconnect;
}
if (state == p5_wait_disconnect && last_port_conn_clear == 5)
{
DBG1(0x00, "\x16", 1);
setLed(RED);
state = p5_disconnected;
expire = 20;
}
// disconnect 4
if (state == p5_disconnected && expire == 0)
{
DBG1(0x00, "\x17", 1);
setLed(NONE);
switch_port(0);
disconnect_port(4);
state = p4_wait_disconnect;
}
if (state == p4_wait_disconnect && last_port_conn_clear == 4)
{
DBG1(0x00, "\x18", 1);
setLed(RED);
state = p4_disconnected;
expire = 20;
}
// disconnect 1
if (state == p4_disconnected && expire == 0)
{
DBG1(0x00, "\x19", 1);
setLed(NONE);
switch_port(0);
disconnect_port(1);
state = p1_wait_disconnect;
}
if (state == p1_wait_disconnect && last_port_conn_clear == 1)
{
DBG1(0x00, "\x20", 1);
setLed(RED);
state = p1_disconnected;
expire = 20;
}
// connect 6
if (state == p1_disconnected && expire == 0)
{
DBG1(0x00, "\x21", 1);
setLed(NONE);
switch_port(0);
connect_port(6);
state = p6_wait_reset;
}
if (state == p6_wait_reset && last_port_reset_clear == 6)
{
DBG1(0x00, "\x22", 1);
setLed(RED);
switch_port(6);
state = p6_wait_enumerate;
}
// done
if (state == done)
{
setLed(GREEN);
}
}
}
static
void run_send()
{
int sock;
int ret;
int conid;
char *buf;
int i;
printf("Start client from port %d to port %d\n",
arg_clientport, arg_serverport);
sock = socket( PF_P4S , 0, 0 );
if (!sock) goto err_socket;
ret = bind_port(sock, arg_clientport);
if (ret) goto err_bind;
buf = (char*)malloc(arg_size);
if (!buf) goto err_malloc;
for (i = 0; i < arg_size; i++) {
buf[i] = i;
}
for (i = 0; i < arg_size; i++) {
buf[i] = (i & ~3) >> (8*(3-(i & 3)));
}
// memset(buf, 0x42, arg_size);
conid = connect_port(sock, arg_servernode, arg_serverport);
if (conid < 0) goto err_connect;
if (arg_verbose > 0) {
printf("Connect to %08x:%d with id %d\n",
arg_servernode, arg_serverport, conid);
printf("Send %d bytes\n",arg_size);
if ((arg_verbose > 1) && (arg_size > 0)) {
if (arg_verbose > 2) {
dump(buf, 0, arg_size, 0, 16, "send");
} else {
printf(":%s:\n", dumpstr(buf, MIN(arg_size,32)));
}
}
}
{
uint16_t dest = conid;
int len;
int offset = 0;
while (offset < arg_size) {
len = sock_send(sock, dest, buf + offset, arg_size - offset);
if (len < 0) {
perror("send");
} else {
if (arg_verbose > 1) {
printf("Send bytes %d - %d.\n",
offset, offset + len - 1);
}
offset += len;
}
}
}
// sleep(10);
free(buf);
return;
err_socket:
perror("socket()");
exit(1);
err_bind:
perror("bind()");
exit(1);
err_malloc:
perror("malloc()");
exit(1);
err_connect:
perror("connect()");
exit(1);
}
/**
* ags_recall_lv2_run_load_ports:
* @recall_lv2_run: the #AgsRecallLv2Run
*
* Set up LV2 ports.
*
* Since: 2.0.0
*/
void
ags_recall_lv2_run_load_ports(AgsRecallLv2Run *recall_lv2_run)
{
AgsRecallLv2 *recall_lv2;
AgsRecallChannelRun *recall_channel_run;
AgsRecallRecycling *recall_recycling;
AgsPort *current_port;
AgsLv2Plugin *lv2_plugin;
GList *plugin_port_start, *plugin_port;
GList *port;
GList *list;
gchar *filename, *effect;
gchar *specifier, *current_specifier;
guint port_count;
guint i, j;
void (*connect_port)(LV2_Handle instance,
uint32_t port,
void *data_location);
pthread_mutex_t *recall_mutex;
pthread_mutex_t *recall_lv2_mutex;
pthread_mutex_t *port_mutex;
if(!AGS_IS_RECALL_LV2_RUN(recall_lv2_run)){
return;
}
/* get recall mutex */
pthread_mutex_lock(ags_recall_get_class_mutex());
recall_mutex = AGS_RECALL(recall_lv2_run)->obj_mutex;
pthread_mutex_unlock(ags_recall_get_class_mutex());
g_object_get(recall_lv2_run,
"parent", &recall_recycling,
NULL);
g_object_get(recall_recycling,
"parent", &recall_channel_run,
NULL);
g_object_get(recall_channel_run,
"recall-channel", &recall_lv2,
NULL);
/* get recall lv2 mutex */
pthread_mutex_lock(ags_recall_get_class_mutex());
recall_lv2_mutex = AGS_RECALL(recall_lv2)->obj_mutex;
pthread_mutex_unlock(ags_recall_get_class_mutex());
/* get some fields */
pthread_mutex_lock(recall_mutex);
filename = g_strdup(AGS_RECALL(recall_lv2)->filename);
effect = g_strdup(AGS_RECALL(recall_lv2)->effect);
port = g_list_copy(AGS_RECALL(recall_lv2)->port);
connect_port = recall_lv2->plugin_descriptor->connect_port;
pthread_mutex_unlock(recall_mutex);
lv2_plugin = ags_lv2_manager_find_lv2_plugin(ags_lv2_manager_get_instance(),
filename, effect);
g_free(filename);
g_free(effect);
g_object_get(lv2_plugin,
"plugin-port", &plugin_port_start,
NULL);
if(plugin_port_start != NULL){
plugin_port = plugin_port_start;
for(i = 0; plugin_port != NULL; i++){
AgsPluginPort *current_plugin_port;
pthread_mutex_t *plugin_port_mutex;
current_plugin_port = AGS_PLUGIN_PORT(plugin_port->data);
/* get plugin port mutex */
pthread_mutex_lock(ags_plugin_port_get_class_mutex());
plugin_port_mutex = current_plugin_port->obj_mutex;
pthread_mutex_unlock(ags_plugin_port_get_class_mutex());
if(ags_plugin_port_test_flags(current_plugin_port,
AGS_PLUGIN_PORT_CONTROL)){
pthread_mutex_lock(plugin_port_mutex);
specifier = g_strdup(current_plugin_port->port_name);
pthread_mutex_unlock(plugin_port_mutex);
list = ags_port_find_specifier(port, specifier);
g_free(specifier);
if(list != NULL){
float *port_pointer;
guint port_index;
current_port = list->data;
/* get port mutex */
pthread_mutex_lock(ags_port_get_class_mutex());
port_mutex = current_port->obj_mutex;
pthread_mutex_unlock(ags_port_get_class_mutex());
/* get port pointer */
pthread_mutex_lock(port_mutex);
port_pointer = (float *) &(current_port->port_value.ags_port_float);
pthread_mutex_unlock(port_mutex);
g_object_get(current_plugin_port,
"port-index", &port_index,
NULL);
connect_port(recall_lv2_run->lv2_handle[0],
(uint32_t) port_index,
(float *) port_pointer);
#ifdef AGS_DEBUG
g_message("connect port: %d", port_index);
#endif
}
}
/* iterate plugin port */
plugin_port = plugin_port->next;
}
}
g_list_free(port);
g_list_free_full(plugin_port_start,
g_object_unref);
g_object_unref(recall_recycling);
g_object_unref(recall_channel_run);
g_object_unref(recall_lv2);
}
int main(void)
{
SetupHardware();
LED(RED);
state = init;
switch_port(0);
for (;;)
{
if (port_cur == 0)
HUB_Task();
if (port_cur == 5)
JIG_Task();
USB_USBTask();
// connect 1
if (state == hub_ready && expire == 0)
{
LED(GREEN);
expire_led = 10;
connect_port(1);
state = p1_wait_reset;
}
if (state == p1_wait_reset && last_port_reset_clear == 1)
{
LED(GREEN);
expire_led = 10;
switch_port(1);
state = p1_wait_enumerate;
}
// connect 2
if (state == p1_ready && expire == 0)
{
switch_port(0);
connect_port(2);
state = p2_wait_reset;
}
if (state == p2_wait_reset && last_port_reset_clear == 2)
{
LED(GREEN);
expire_led = 10;
switch_port(2);
state = p2_wait_enumerate;
}
// connect 3
if (state == p2_ready && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
connect_port(3);
state = p3_wait_reset;
}
if (state == p3_wait_reset && last_port_reset_clear == 3)
{
LED(GREEN);
expire_led = 10;
switch_port(3);
state = p3_wait_enumerate;
}
// disconnect 2
if (state == p3_ready && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
disconnect_port(2);
state = p2_wait_disconnect;
}
if (state == p2_wait_disconnect && last_port_conn_clear == 2)
{
LED(GREEN);
expire_led = 10;
state = p4_wait_connect;
expire = 15;
}
// connect 4
if (state == p4_wait_connect && expire == 0)
{
LED(GREEN);
expire_led = 10;
connect_port(4);
state = p4_wait_reset;
}
if (state == p4_wait_reset && last_port_reset_clear == 4)
{
LED(GREEN);
expire_led = 10;
switch_port(4);
state = p4_wait_enumerate;
}
// connect 5
if (state == p4_ready && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
/* When first connecting port 5, we need to
have the wrong data toggle for the PS3 to
respond */
hub_int_force_data0 = 1;
connect_port(5);
state = p5_wait_reset;
}
if (state == p5_wait_reset && last_port_reset_clear == 5)
{
LED(GREEN);
expire_led = 10;
switch_port(5);
state = p5_wait_enumerate;
}
// disconnect 3
if (state == p5_responded && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
/* Need wrong data toggle again */
hub_int_force_data0 = 1;
disconnect_port(3);
state = p3_wait_disconnect;
}
if (state == p3_wait_disconnect && last_port_conn_clear == 3)
{
LED(GREEN);
expire_led = 10;
state = p3_disconnected;
expire = 45;
}
// disconnect 5
if (state == p3_disconnected && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
disconnect_port(5);
state = p5_wait_disconnect;
}
if (state == p5_wait_disconnect && last_port_conn_clear == 5)
{
LED(GREEN);
expire_led = 10;
state = p5_disconnected;
expire = 20;
}
// disconnect 4
if (state == p5_disconnected && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
disconnect_port(4);
state = p4_wait_disconnect;
}
if (state == p4_wait_disconnect && last_port_conn_clear == 4)
{
LED(GREEN);
expire_led = 10;
state = p4_disconnected;
expire = 20;
}
// disconnect 1
if (state == p4_disconnected && expire == 0)
{
LED(GREEN);
expire_led = 10;
switch_port(0);
disconnect_port(1);
state = p1_wait_disconnect;
}
if (state == p1_wait_disconnect && last_port_conn_clear == 1)
{
state = p1_disconnected;
expire = 20;
}
// connect 6
if (state == p1_disconnected && expire == 0)
{
switch_port(0);
connect_port(6);
state = p6_wait_reset;
//expire = 0; // nuevo
}
if (state == p6_wait_reset && last_port_reset_clear == 6 /*&& expire == 0*/)
{
switch_port(6); // esto es por que ya no tenemos respuesta
state = p6_wait_enumerate;
//disconnect_port(6);
//state = done;
}
// done
if (state == done)
{
LED(GREEN);
}
}
}
static void h_xstor(struct context *ctx, char *arg, int flags)
{
char *t;
int f = -1;
struct stat st;
int stou = 0;
char tbuf[PATH_MAX + 1];
DebugIn(DEBUG_COMMAND);
if (ctx->transfer_in_progress) {
reply(ctx, MSG_501_Transfer_in_progress);
DebugOut(DEBUG_COMMAND);
return;
}
ctx->outgoing_data = 0;
if (ctx->dfn > -1 && io_get_cb_i(ctx->io, ctx->dfn) == (void *) accept_data) {
io_set_i(ctx->io, ctx->dfn);
io_clr_o(ctx->io, ctx->dfn);
io_set_cb_e(ctx->io, ctx->dfn, (void *) cleanup_data);
io_set_cb_h(ctx->io, ctx->dfn, (void *) cleanup_data);
}
quota_add(ctx, 0);
if (ctx->quota_path && (ctx->quota_ondisk >= ctx->quota_limit)) {
reply(ctx, MSG_451_quota_exceeded);
logmsg("%s: quota limit reached", ctx->user);
DebugOut(DEBUG_COMMAND);
return;
}
if (!arg) {
stou = -1;
snprintf(tbuf, sizeof(tbuf), "%s/stou.XXXXXX", ctx->cwd);
arg = tbuf;
t = buildpath(ctx, arg);
} else if (acl_binary_only(ctx, arg, (t = buildpath(ctx, arg)))) {
reply(ctx, MSG_504_no_ascii);
cleanup_data_reuse(ctx, ctx->dfn);
DebugOut(DEBUG_COMMAND);
return;
}
st.st_size = 0;
if (t)
acl_set_umask(ctx, arg, t);
if (ctx->anonymous || stou)
flags |= O_EXCL;
if (t && (!ctx->anonymous || check_incoming(ctx, t, 077)) &&
!pickystat_path(ctx, &st, t) &&
(stat(t, &st), (f = myopen(t, O_RDWR | O_CREAT | O_LARGEFILE | O_NOFOLLOW | flags, ctx->chmod_filemask | (0644 & ~ctx->umask), stou)) > -1)) {
fcntl(f, F_SETFD, FD_CLOEXEC);
ctx->quota_filesize_before_stor = st.st_size;
ctx->quota_update_on_close = 1;
if (ctx->dfn < 0)
connect_port(ctx);
if (ctx->dfn < 0) {
reply(ctx, MSG_431_Opening_datacon_failed);
close(f);
ctx->dbuf = buffer_free_all(ctx->dbuf);
DebugOut(DEBUG_COMMAND);
return;
}
ctx->ffn = f;
if (strlen(t) >= sizeof(ctx->filename)) {
logerr("buffer too small in %s:%d (%s/%s)", __FILE__, __LINE__, ctx->user, t);
reply(ctx, MSG_551_Internal_error);
close(f);
cleanup(ctx, ctx->dfn);
ctx->dbuf = buffer_free_all(ctx->dbuf);
DebugOut(DEBUG_COMMAND);
return;
}
strcpy(ctx->filename, t);
ctx->filesize = 0;
ctx->bytecount = 0;
if (io_get_cb_i(ctx->io, ctx->dfn) == (void *) socket2buffer || is_connected(ctx->dfn)) {
if (stou)
replyf(ctx, "125 FILE: %s\r\n", ctx->filename + ctx->rootlen);
else
replyf(ctx, MSG_125_Starting_dc, ctx->use_ascii ? "ASCII" : "BINARY", ctx->use_tls_d ? "TLS " : "");
} else {
if (stou)
replyf(ctx, "150 FILE: %s\r\n", ctx->filename + ctx->rootlen);
else
replyf(ctx, MSG_150_Opening_dc, ctx->use_ascii ? "ASCII" : "BINARY", ctx->use_tls_d ? "TLS " : "");
}
ctx->transfer_in_progress = 1;
if (ctx->io_offset) {
if (ctx->use_ascii) {
ctx->offset = 0;
ctx->remaining = st.st_size;
io_sched_add(ctx->io, ctx, (void *) skipbytes, 0, 0);
#ifdef WITH_MMAP
if (use_mmap)
ctx->iomode = IOMODE_mmap;
else
#endif
ctx->iomode = IOMODE_read, ctx->iomode_fixed = 1;
} else {
lseek(f, ctx->io_offset, SEEK_SET);
ctx->io_offset = 0;
}
}
if (io_get_cb_i(ctx->io, ctx->dfn) == (void *) socket2buffer) {
/* already connected */
io_clr_o(ctx->io, ctx->dfn);
io_set_i(ctx->io, ctx->dfn);
}
ctx->transferstart = io_now.tv_sec;
ctx->count_files++;
} else {
if (stou && errno == EEXIST)
reply(ctx, MSG_451_unique_file_failure);
else
reply(ctx, MSG_550_Permission_denied);
cleanup_data_reuse(ctx, ctx->dfn);
}
DebugOut(DEBUG_COMMAND);
}
void
ags_recall_lv2_run_run_init_pre(AgsRecall *recall)
{
AgsRecallLv2 *recall_lv2;
AgsRecallChannelRun *recall_channel_run;
AgsRecallRecycling *recall_recycling;
AgsRecallLv2Run *recall_lv2_run;
AgsAudioSignal *audio_signal;
AgsLv2Plugin *lv2_plugin;
AgsConfig *config;
LV2_Handle *lv2_handle;
float *output, *input;
guint output_lines, input_lines;
guint samplerate;
guint buffer_size;
guint port_count;
guint i, i_stop;
void (*parent_class_run_init_pre)(AgsRecall *recall);
void (*connect_port)(LV2_Handle instance,
uint32_t port,
void *data_location);
void (*activate)(LV2_Handle instance);
pthread_mutex_t *recall_lv2_mutex;
/* get recall mutex */
pthread_mutex_lock(ags_recall_get_class_mutex());
parent_class_run_init_pre = AGS_RECALL_CLASS(ags_recall_lv2_run_parent_class)->run_init_pre;
pthread_mutex_unlock(ags_recall_get_class_mutex());
/* call parent */
parent_class_run_init_pre(recall);
recall_lv2_run = AGS_RECALL_LV2_RUN(recall);
g_object_get(recall,
"parent", &recall_recycling,
NULL);
g_object_get(recall_recycling,
"parent", &recall_channel_run,
NULL);
g_object_get(recall_channel_run,
"recall-channel", &recall_lv2,
NULL);
/* set up buffer */
g_object_get(recall_lv2_run,
"source", &audio_signal,
NULL);
g_object_get(audio_signal,
"samplerate", &samplerate,
"buffer-size", &buffer_size,
NULL);
/* get recall lv2 mutex */
pthread_mutex_lock(ags_recall_get_class_mutex());
recall_lv2_mutex = AGS_RECALL(recall_lv2)->obj_mutex;
pthread_mutex_unlock(ags_recall_get_class_mutex());
/* get some fields */
pthread_mutex_lock(recall_lv2_mutex);
lv2_plugin = recall_lv2->plugin;
output_lines = recall_lv2->output_lines;
input_lines = recall_lv2->input_lines;
connect_port = recall_lv2->plugin_descriptor->connect_port;
activate = recall_lv2->plugin_descriptor->activate;
pthread_mutex_unlock(recall_lv2_mutex);
/* set up buffer */
input = NULL;
output = NULL;
if(input_lines > 0){
input = (float *) malloc(input_lines *
buffer_size *
sizeof(float));
}
output = (float *) malloc(output_lines *
buffer_size *
sizeof(float));
recall_lv2_run->output = output;
recall_lv2_run->input = input;
/* instantiate lv2 */
lv2_handle = (LV2_Handle *) ags_base_plugin_instantiate((AgsBasePlugin *) lv2_plugin,
samplerate, buffer_size);
recall_lv2_run->lv2_handle = lv2_handle;
#ifdef AGS_DEBUG
g_message("instantiate LV2 handle");
#endif
ags_recall_lv2_run_load_ports(recall_lv2_run);
/* can't be done in ags_recall_lv2_run_run_init_inter since possebility of overlapping buffers */
pthread_mutex_lock(recall_lv2_mutex);
/* connect audio port */
for(i = 0; i < input_lines; i++){
#ifdef AGS_DEBUG
g_message("connect in port: %d", recall_lv2->input_port[i]);
#endif
connect_port(recall_lv2_run->lv2_handle[0],
recall_lv2->input_port[i],
recall_lv2_run->input);
}
for(i = 0; i < output_lines; i++){
#ifdef AGS_DEBUG
g_message("connect out port: %d", recall_lv2->output_port[i]);
#endif
connect_port(recall_lv2_run->lv2_handle[0],
recall_lv2->output_port[i],
recall_lv2_run->output);
}
/* connect event port */
if(ags_recall_lv2_test_flags(recall_lv2, AGS_RECALL_LV2_HAS_EVENT_PORT)){
recall_lv2_run->event_port = ags_lv2_plugin_alloc_event_buffer(AGS_RECALL_LV2_DEFAULT_MIDI_LENGHT);
connect_port(recall_lv2_run->lv2_handle[0],
recall_lv2->event_port,
recall_lv2_run->event_port);
}
/* connect atom port */
if(ags_recall_lv2_test_flags(recall_lv2, AGS_RECALL_LV2_HAS_ATOM_PORT)){
recall_lv2_run->atom_port = ags_lv2_plugin_alloc_atom_sequence(AGS_RECALL_LV2_DEFAULT_MIDI_LENGHT);
connect_port(recall_lv2_run->lv2_handle[0],
recall_lv2->atom_port,
recall_lv2_run->atom_port);
}
/* activate */
if(activate != NULL){
activate(recall_lv2_run->lv2_handle[0]);
}
pthread_mutex_unlock(recall_lv2_mutex);
/* set program */
if(ags_lv2_plugin_test_flags(lv2_plugin, AGS_LV2_PLUGIN_HAS_PROGRAM_INTERFACE)){
AgsPort *current_port;
GList *plugin_port_start, *plugin_port;
GList *port;
GList *list;
gchar *specifier, *current_specifier;
float *port_data;
guint bank, program;
guint port_count;
pthread_mutex_t *base_plugin_mutex;
pthread_mutex_lock(recall_lv2_mutex);
port = g_list_copy(AGS_RECALL(recall_lv2)->port);
bank = recall_lv2->bank;
program = recall_lv2->program;
pthread_mutex_unlock(recall_lv2_mutex);
/* get base plugin mutex */
pthread_mutex_lock(ags_base_plugin_get_class_mutex());
base_plugin_mutex = AGS_BASE_PLUGIN(lv2_plugin)->obj_mutex;
pthread_mutex_unlock(ags_base_plugin_get_class_mutex());
/* get plugin port */
pthread_mutex_lock(base_plugin_mutex);
plugin_port_start = g_list_copy(AGS_BASE_PLUGIN(lv2_plugin)->plugin_port);
pthread_mutex_unlock(base_plugin_mutex);
/* create port data */
port_count = g_list_length(plugin_port_start);
port_data = (float *) malloc(port_count * sizeof(float));
plugin_port = plugin_port_start;
for(i = 0; i < port_count && plugin_port != NULL; ){
AgsPluginPort *current_plugin_port;
pthread_mutex_t *plugin_port_mutex;
current_plugin_port = AGS_PLUGIN_PORT(plugin_port->data);
/* get plugin port mutex */
pthread_mutex_lock(ags_plugin_port_get_class_mutex());
plugin_port_mutex = current_plugin_port->obj_mutex;
pthread_mutex_unlock(ags_plugin_port_get_class_mutex());
/* get specifier */
pthread_mutex_lock(plugin_port_mutex);
specifier = g_strdup(current_plugin_port->port_name);
pthread_mutex_unlock(plugin_port_mutex);
list = ags_port_find_specifier(port, specifier);
if(list != NULL){
GValue value = {0,};
current_port = list->data;
g_value_init(&value,
G_TYPE_FLOAT);
ags_port_safe_read(current_port,
&value);
port_data[i] = g_value_get_float(&value);
g_value_unset(&value);
}else{
port_data[i] = 0.0;
}
g_free(specifier);
/* iterate plugin port */
plugin_port = plugin_port->next;
}
ags_lv2_plugin_change_program(lv2_plugin,
recall_lv2_run->lv2_handle[0],
bank,
program);
/* reset port data */
plugin_port = plugin_port_start;
for(i = 0; i < port_count && plugin_port != NULL;){
AgsPluginPort *current_plugin_port;
pthread_mutex_t *plugin_port_mutex;
current_plugin_port = AGS_PLUGIN_PORT(plugin_port->data);
/* get plugin port mutex */
pthread_mutex_lock(ags_plugin_port_get_class_mutex());
plugin_port_mutex = current_plugin_port->obj_mutex;
pthread_mutex_unlock(ags_plugin_port_get_class_mutex());
/* get specifier */
pthread_mutex_lock(plugin_port_mutex);
specifier = g_strdup(current_plugin_port->port_name);
pthread_mutex_unlock(plugin_port_mutex);
list = ags_port_find_specifier(port, specifier);
if(list != NULL){
GValue value = {0,};
current_port = list->data;
g_value_init(&value,
G_TYPE_FLOAT);
g_value_set_float(&value, port_data[i]);
ags_port_safe_write_raw(current_port,
&value);
g_value_unset(&value);
}
/* iterate plugin port */
plugin_port = plugin_port->next;
}
g_free(port_data);
g_list_free(port);
g_list_free(plugin_port_start);
}
g_object_unref(recall_recycling);
g_object_unref(recall_channel_run);
g_object_unref(recall_lv2);
g_object_unref(audio_signal);
}