void DecodeRLE(const uint8_t* data, std::size_t size, Dump& result)
{
Dump tmp;
tmp.reserve(MAX_SECTOR_SIZE);
ByteStream stream(data, size);
while (!stream.Eof())
{
const uint_t len = 2 * stream.GetByte();
Require(!stream.Eof());
const uint_t count = stream.GetByte();
Require(count != 0);
const bool isRLE = len != 0;
const uint_t blockSize = isRLE ? len : count;
Require(stream.GetRestBytes() >= blockSize);
for (uint_t idx = 0; idx != blockSize; ++idx)
{
tmp.push_back(stream.GetByte());
}
if (isRLE)
{
Require(CopyFromBack(len, tmp, len * (count - 1)));
}
}
result.swap(tmp);
}
void ApplyInsertions(Dump& result) const
{
if (0 == SizeAddon)
{
return;
}
Dump tmp(result.size() + SizeAddon);
Dump::const_iterator src = result.begin();
const Dump::const_iterator srcEnd = result.end();
auto dst = tmp.begin();
std::size_t oldOffset = 0;
for (const auto& ins : Insertions)
{
if (const std::size_t toCopy = ins.first - oldOffset)
{
const Dump::const_iterator nextEnd = src + toCopy;
dst = std::copy(src, nextEnd, dst);
src = nextEnd;
oldOffset += toCopy;
}
dst = std::copy(ins.second.begin(), ins.second.end(), dst);
}
std::copy(src, srcEnd, dst);
result.swap(tmp);
}
void DisplayDevice::dump(Dump& d)
{
d.append("-------------------------------------------------------------\n");
d.append("Device Name: %s (%s)\n", mName,
mConnection ? "connected" : "disconnected");
d.append("Display configs (count = %d):\n", mDisplayConfigs.size());
d.append(" CONFIG | VSYNC_PERIOD | WIDTH | HEIGHT | DPI_X | DPI_Y \n");
d.append("--------+--------------+-------+--------+-------+-------\n");
for (size_t i = 0; i < mDisplayConfigs.size(); i++) {
DisplayConfig *config = mDisplayConfigs.itemAt(i);
if (config) {
d.append("%s %2d | %4d | %5d | %4d | %3d | %3d \n",
(i == (size_t)mActiveDisplayConfig) ? "* " : " ",
i,
config->getRefreshRate(),
config->getWidth(),
config->getHeight(),
config->getDpiX(),
config->getDpiY());
}
}
// dump layer list
if (mLayerList)
mLayerList->dump(d);
}
void dsp::SingleThread::insert_dump_point (const std::string& transform_name)
{
typedef HasInput<TimeSeries> Xform;
for (unsigned iop=0; iop < operations.size(); iop++)
{
if (operations[iop]->get_name() == transform_name)
{
Xform* xform = dynamic_cast<Xform*>( operations[iop].get() );
if (!xform)
throw Error (InvalidParam, "dsp::SingleThread::insert_dump_point",
transform_name + " does not have TimeSeries input");
string filename = "pre_" + transform_name;
if (config->get_total_nthread() > 1)
filename += "." + tostring (thread_id);
filename += ".dump";
cerr << "dspsr: dump output in " << filename << endl;
Dump* dump = new Dump;
dump->set_output( fopen(filename.c_str(), "w") );
dump->set_input( xform->get_input() ) ;
dump->set_output_binary (true);
operations.insert (operations.begin()+iop, dump);
iop++;
}
}
}
void GetResult(Dump& data) const override
{
Dump rawDump;
Delegate->GetResult(rawDump);
Require(0 == rawDump.size() % Registers::TOTAL);
const uint32_t framesCount = rawDump.size() / Registers::TOTAL;
const uint_t storedRegisters = Registers::TOTAL;
const String& title = Params->Title();
const String author = Params->Author();
const uint32_t headerSize = sizeof(FYMHeader) + (title.size() + 1) + (author.size() + 1);
const std::size_t contentSize = framesCount * storedRegisters;
Binary::DataBuilder builder(headerSize + contentSize);
FYMHeader& header = builder.Add<FYMHeader>();
header.HeaderSize = fromLE(headerSize);
header.FramesCount = fromLE(framesCount);
header.LoopFrame = fromLE(static_cast<uint32_t>(Params->LoopFrame()));
header.PSGFreq = fromLE(static_cast<uint32_t>(Params->ClockFreq()));
header.IntFreq = fromLE(static_cast<uint32_t>(Time::GetFrequencyForPeriod(Params->FrameDuration())));
builder.AddCString(title);
builder.AddCString(author);
for (uint_t reg = 0; reg < storedRegisters; ++reg)
{
uint8_t* const result = static_cast<uint8_t*>(builder.Allocate(framesCount));
for (uint_t frm = 0, inOffset = reg; frm < framesCount; ++frm, inOffset += Registers::TOTAL)
{
result[frm] = rawDump[inOffset];
}
}
Dump result;
builder.CaptureResult(result);
Binary::Compression::Zlib::Compress(result, data);
}
bool DecodeData()
{
const uint8_t* const rawData = static_cast<const uint8_t*>(Header.ID);
const std::size_t dataOffset = fromLE(Header.DataOffset);
const uint_t cylinders = fromLE(Header.Cylinders);
const uint_t sides = fromLE(Header.Sides);
Dump result;
result.reserve(FDI_MAX_SIZE);
std::size_t trackInfoOffset = sizeof(Header) + fromLE(Header.InfoSize);
std::size_t rawSize = dataOffset;
for (uint_t cyl = 0; cyl != cylinders; ++cyl)
{
for (uint_t sid = 0; sid != sides; ++sid)
{
if (trackInfoOffset + sizeof(RawTrack) > Limit)
{
return false;
}
const RawTrack* const trackInfo = safe_ptr_cast<const RawTrack*>(rawData + trackInfoOffset);
typedef std::vector<SectorDescr> SectorDescrs;
//collect sectors reference
SectorDescrs sectors;
sectors.reserve(trackInfo->SectorsCount);
for (std::size_t secNum = 0; secNum != trackInfo->SectorsCount; ++secNum)
{
const RawTrack::Sector* const sector = trackInfo->Sectors + secNum;
const std::size_t secSize = 128 << sector->Size;
//since there's no information about head number (always 0), do not check it
//assert(sector->Head == sid);
if (sector->Cylinder != cyl)
{
return false;
}
const std::size_t offset = dataOffset + fromLE(sector->Offset) + fromLE(trackInfo->Offset);
if (offset + secSize > Limit)
{
return false;
}
sectors.push_back(SectorDescr(sector->Number, rawData + offset, rawData + offset + secSize));
rawSize = std::max(rawSize, offset + secSize);
}
//sort by number
std::sort(sectors.begin(), sectors.end());
//and gather data
for (SectorDescrs::const_iterator it = sectors.begin(), lim = sectors.end(); it != lim; ++it)
{
result.insert(result.end(), it->Begin, it->End);
}
//calculate next track by offset
trackInfoOffset += sizeof(*trackInfo) + (trackInfo->SectorsCount - 1) * sizeof(trackInfo->Sectors);
}
}
UsedSize = rawSize;
Decoded.swap(result);
return true;
}
bool IsInfoEmpty(const Dump& info)
{
assert(info.size() == 53);
//28 is fixed
//25 is title
const Dump::const_iterator titleStart = info.begin() + 28;
return info.end() == std::find_if(titleStart, info.end(), std::bind2nd(std::greater<Char>(), Char(' ')));
}
void WriteDump::command(int narg, char **arg)
{
if (narg < 3) error->all(FLERR,"Illegal write_dump command");
// modindex = index in args of "modify" keyword
// will be narg if "modify" is not present
int modindex;
for (modindex = 0; modindex < narg; modindex++)
if (strcmp(arg[modindex],"modify") == 0) break;
// create the Dump instance
// create dump command line with extra required args
Dump *dump;
char **dumpargs = new char*[modindex+2];
dumpargs[0] = (char *) "WRITE_DUMP"; // dump id
dumpargs[1] = arg[0]; // group
dumpargs[2] = arg[1]; // dump style
dumpargs[3] = (char *) "0"; // dump frequency
for (int i = 2; i < modindex; ++i)
dumpargs[i+2] = arg[i];
if (0) return; // dummy line to enable else-if macro expansion
#define DUMP_CLASS
#define DumpStyle(key,Class) \
else if (strcmp(arg[1],#key) == 0) dump = new Class(lmp,modindex+2,dumpargs);
#include "style_dump.h"
#undef DUMP_CLASS
else error->all(FLERR,"Unknown dump style");
if (modindex < narg) dump->modify_params(narg-modindex-1,&arg[modindex+1]);
// write out one frame and then delete the dump again
// set multifile_override for DumpImage so that filename needs no "*"
if (strcmp(arg[1],"image") == 0)
((DumpImage *) dump)->multifile_override = 1;
if (strcmp(arg[1],"cfg") == 0)
((DumpCFG *) dump)->multifile_override = 1;
dump->init();
dump->write();
// delete the Dump instance and local storage
delete dump;
delete [] dumpargs;
}
void DecodeR2P(const uint8_t* data, std::size_t size, Dump& result)
{
Require(size % sizeof(R2PEntry) == 0);
Dump tmp;
tmp.reserve(MAX_SECTOR_SIZE);
for (const R2PEntry* it = safe_ptr_cast<const R2PEntry*>(data), *lim = it + size / sizeof(*it); it != lim; ++it)
{
const uint_t count = fromLE(it->Count);
Require(count != 0);
tmp.push_back(it->Data[0]);
tmp.push_back(it->Data[1]);
Require(CopyFromBack(sizeof(it->Data), tmp, sizeof(it->Data) * (count - 1)));
}
result.swap(tmp);
}
void BufferManager::dump(Dump& d)
{
d.append("Buffer Manager status: pool size %d\n", mBufferPool->getCacheSize());
d.append("-------------------------------------------------------------\n");
for (size_t i = 0; i < mBufferPool->getCacheSize(); i++) {
BufferMapper *mapper = mBufferPool->getMapper(i);
d.append("Buffer %d: handle %#x, (%dx%d), format %d, refCount %d\n",
i,
mapper->getHandle(),
mapper->getWidth(),
mapper->getHeight(),
mapper->getFormat(),
mapper->getRef());
}
return;
}
void ApplyOverwrites(Dump& result) const
{
for (const auto& over : Overwrites)
{
std::copy(over.second.begin(), over.second.end(), result.begin() + over.first);
}
}
void DecodeBlock(Binary::InputStream& stream, std::size_t srcSize, Dump& dst)
{
const std::size_t LOOKUP = 1;
const uint8_t* const src = stream.ReadData(LOOKUP);
const std::size_t used = DecodeBlock(src, srcSize, &dst[0], dst.size());
stream.ReadData(used - LOOKUP);
}
void OnSector(const Formats::CHS& loc, const uint8_t* rawData, std::size_t rawSize, SectorDataType type, std::size_t targetSize) override
{
Dump result;
switch (type)
{
case RAW_SECTOR:
result.assign(rawData, rawData + rawSize);
break;
case R2P_SECTOR:
DecodeR2P(rawData, rawSize, result);
break;
case RLE_SECTOR:
DecodeRLE(rawData, rawSize, result);
break;
}
Require(result.size() == targetSize);
Builder->SetSector(loc, result);
}
Container::Ptr Decode(const Binary::Container& rawData) const override
{
using namespace CompiledSTP;
if (!Player->Match(rawData))
{
return Container::Ptr();
}
const Binary::TypedContainer typedData(rawData);
const std::size_t availSize = rawData.Size();
const typename Version::RawPlayer& rawPlayer = *typedData.GetField<typename Version::RawPlayer>(0);
const std::size_t playerSize = rawPlayer.GetSize();
if (playerSize >= std::min(availSize, CompiledSTP::MAX_PLAYER_SIZE))
{
Dbg("Invalid player");
return Container::Ptr();
}
Dbg("Detected player in first %1% bytes", playerSize);
const std::size_t modDataSize = std::min(CompiledSTP::MAX_MODULE_SIZE, availSize - playerSize);
const Binary::Container::Ptr modData = rawData.GetSubcontainer(playerSize, modDataSize);
const Dump metainfo = rawPlayer.GetInfo();
if (CompiledSTP::IsInfoEmpty(metainfo))
{
Dbg("Player has empty metainfo");
if (const Binary::Container::Ptr originalModule = Formats::Chiptune::SoundTrackerPro::ParseCompiled(*modData, Formats::Chiptune::SoundTrackerPro::GetStubBuilder()))
{
const std::size_t originalSize = originalModule->Size();
return CreateContainer(originalModule, playerSize + originalSize);
}
}
else if (const Binary::Container::Ptr fixedModule = Formats::Chiptune::SoundTrackerPro::InsertMetaInformation(*modData, metainfo))
{
if (Formats::Chiptune::SoundTrackerPro::ParseCompiled(*fixedModule, Formats::Chiptune::SoundTrackerPro::GetStubBuilder()))
{
const std::size_t originalSize = fixedModule->Size() - metainfo.size();
return CreateContainer(fixedModule, playerSize + originalSize);
}
Dbg("Failed to parse fixed module");
}
Dbg("Failed to find module after player");
return Container::Ptr();
}
void AddData(const Dump& registers) override
{
Devices::AYM::Registers& data = Data->Allocate();
const uint_t availRegs = std::min<uint_t>(registers.size(), Devices::AYM::Registers::ENV + 1);
for (uint_t reg = 0, mask = 1; reg != availRegs; ++reg, mask <<= 1)
{
const uint8_t val = registers[reg];
if (reg != Devices::AYM::Registers::ENV || val != 0xff)
{
data[static_cast<Devices::AYM::Registers::Index>(reg)] = val;
}
}
}
void HwcLayerList::dump(Dump& d)
{
d.append("Layer list: (number of layers %d):\n", mLayers.size());
d.append(" LAYER | TYPE | PLANE INDEX \n");
d.append("-------+------------+----------------\n");
for (size_t i = 0; i < mLayers.size(); i++) {
HwcLayer *hwcLayer = mLayers.itemAt(i);
IDisplayPlane *plane;
int planeIndex = -1;
const char *type;
if (hwcLayer) {
switch (hwcLayer->getType()) {
case HwcLayer::LAYER_FB:
type = "FB";
break;
case HwcLayer::LAYER_SPRITE:
type = "Sprite";
break;
case HwcLayer::LAYER_OVERLAY:
type = "Overlay";
break;
case HwcLayer::LAYER_PRIMARY:
type = "Primary";
break;
default:
type = "Unknown";
}
plane = hwcLayer->getPlane();
if (plane)
planeIndex = plane->getIndex();
d.append(" %2d | %8s |%10D \n", i, type, planeIndex);
}
}
}
void DisplayPlaneManager::dump(Dump& d)
{
d.append("Display Plane Manager state:\n");
d.append("-------------------------------------------------------------\n");
d.append(" PLANE TYPE | COUNT | FREE | RECLAIMED \n");
d.append("------------+-------+----------+-----------\n");
d.append(" SPRITE | %2d | %08x | %08x\n",
mPlaneCount[DisplayPlane::PLANE_SPRITE],
mFreePlanes[DisplayPlane::PLANE_SPRITE],
mReclaimedPlanes[DisplayPlane::PLANE_SPRITE]);
d.append(" OVERLAY | %2d | %08x | %08x\n",
mPlaneCount[DisplayPlane::PLANE_OVERLAY],
mFreePlanes[DisplayPlane::PLANE_OVERLAY],
mReclaimedPlanes[DisplayPlane::PLANE_OVERLAY]);
d.append(" PRIMARY | %2d | %08x | %08x\n",
mPlaneCount[DisplayPlane::PLANE_PRIMARY],
mFreePlanes[DisplayPlane::PLANE_PRIMARY],
mReclaimedPlanes[DisplayPlane::PLANE_PRIMARY]);
d.append(" CURSOR | %2d | %08x | %08x\n",
mPlaneCount[DisplayPlane::PLANE_CURSOR],
mFreePlanes[DisplayPlane::PLANE_CURSOR],
mReclaimedPlanes[DisplayPlane::PLANE_CURSOR]);
}
int main( int argc , char ** argv ) {
Dump d;
return d.main( argc , argv );
}
int main( int argc , char ** argv, char ** envp ) {
mongo::runGlobalInitializersOrDie(argc, argv, envp);
Dump d;
return d.main( argc , argv );
}
void OverwriteData(std::size_t offset, const Dump& data) override
{
Require(offset + data.size() <= Source.Size());
Require(Overwrites.insert(BlobsMap::value_type(offset, data)).second);
}
void InsertData(std::size_t offset, const Dump& data) override
{
Require(Insertions.insert(BlobsMap::value_type(offset, data)).second);
SizeAddon += data.size();
}
void AddData(const Dump& str)
{
std::copy(str.begin(), str.end(), std::back_inserter(Data));
}
int main(int argc, char *argv[])
{
synth = new SYNTH_T;
config.init();
dump.startnow();
int noui = 0;
cerr
<< "\nZynAddSubFX - Copyright (c) 2002-2011 Nasca Octavian Paul and others"
<< endl;
cerr << "Compiled: " << __DATE__ << " " << __TIME__ << endl;
cerr << "This program is free software (GNU GPL v.2 or later) and \n";
cerr << "it comes with ABSOLUTELY NO WARRANTY.\n" << endl;
if(argc == 1)
cerr << "Try 'zynaddsubfx --help' for command-line options." << endl;
/* Get the settings from the Config*/
synth->samplerate = config.cfg.SampleRate;
synth->buffersize = config.cfg.SoundBufferSize;
synth->oscilsize = config.cfg.OscilSize;
swaplr = config.cfg.SwapStereo;
Nio::preferedSampleRate(synth->samplerate);
synth->alias(); //build aliases
sprng(time(NULL));
/* Parse command-line options */
struct option opts[] = {
{
"load", 2, NULL, 'l'
},
{
"load-instrument", 2, NULL, 'L'
},
{
"sample-rate", 2, NULL, 'r'
},
{
"buffer-size", 2, NULL, 'b'
},
{
"oscil-size", 2, NULL, 'o'
},
{
"dump", 2, NULL, 'D'
},
{
"swap", 2, NULL, 'S'
},
{
"no-gui", 2, NULL, 'U'
},
{
"dummy", 2, NULL, 'Y'
},
{
"help", 2, NULL, 'h'
},
{
"version", 2, NULL, 'v'
},
{
"named", 1, NULL, 'N'
},
{
"auto-connect", 0, NULL, 'a'
},
{
"output", 1, NULL, 'O'
},
{
"input", 1, NULL, 'I'
},
{
"exec-after-init", 1, NULL, 'e'
},
{
0, 0, 0, 0
}
};
opterr = 0;
int option_index = 0, opt, exitwithhelp = 0, exitwithversion = 0;
string loadfile, loadinstrument, execAfterInit;
while(1) {
int tmp = 0;
/**\todo check this process for a small memory leak*/
opt = getopt_long(argc,
argv,
"l:L:r:b:o:I:O:N:e:hvaSDUY",
opts,
&option_index);
char *optarguments = optarg;
#define GETOP(x) if(optarguments) \
x = optarguments
#define GETOPNUM(x) if(optarguments) \
x = atoi(optarguments)
if(opt == -1)
break;
switch(opt) {
case 'h':
exitwithhelp = 1;
break;
case 'v':
exitwithversion = 1;
break;
case 'Y': /* this command a dummy command (has NO effect)
and is used because I need for NSIS installer
(NSIS sometimes forces a command line for a
program, even if I don't need that; eg. when
I want to add a icon to a shortcut.
*/
break;
case 'U':
noui = 1;
break;
case 'l':
GETOP(loadfile);
break;
case 'L':
GETOP(loadinstrument);
break;
case 'r':
GETOPNUM(synth->samplerate);
if(synth->samplerate < 4000) {
cerr << "ERROR:Incorrect sample rate: " << optarguments
<< endl;
exit(1);
}
break;
case 'b':
GETOPNUM(synth->buffersize);
if(synth->buffersize < 2) {
cerr << "ERROR:Incorrect buffer size: " << optarguments
<< endl;
exit(1);
}
break;
case 'o':
if(optarguments)
synth->oscilsize = tmp = atoi(optarguments);
if(synth->oscilsize < MAX_AD_HARMONICS * 2)
synth->oscilsize = MAX_AD_HARMONICS * 2;
synth->oscilsize =
(int) powf(2,
ceil(logf(synth->oscilsize - 1.0f) / logf(2.0f)));
if(tmp != synth->oscilsize)
cerr
<<
"synth->oscilsize is wrong (must be 2^n) or too small. Adjusting to "
<< synth->oscilsize << "." << endl;
break;
case 'S':
swaplr = 1;
break;
case 'D':
dump.startnow();
break;
case 'N':
Nio::setPostfix(optarguments);
break;
case 'I':
if(optarguments)
Nio::setDefaultSource(optarguments);
break;
case 'O':
if(optarguments)
Nio::setDefaultSink(optarguments);
break;
case 'a':
Nio::autoConnect = true;
break;
case 'e':
GETOP(execAfterInit);
break;
case '?':
cerr << "ERROR:Bad option or parameter.\n" << endl;
exitwithhelp = 1;
break;
}
}
synth->alias();
if(exitwithversion) {
cout << "Version: " << VERSION << endl;
return 0;
}
if(exitwithhelp != 0) {
cout << "Usage: zynaddsubfx [OPTION]\n\n"
<< " -h , --help \t\t\t\t Display command-line help and exit\n"
<< " -v , --version \t\t\t Display version and exit\n"
<< " -l file, --load=FILE\t\t\t Loads a .xmz file\n"
<< " -L file, --load-instrument=FILE\t Loads a .xiz file\n"
<< " -r SR, --sample-rate=SR\t\t Set the sample rate SR\n"
<<
" -b BS, --buffer-size=SR\t\t Set the buffer size (granularity)\n"
<< " -o OS, --oscil-size=OS\t\t Set the ADsynth oscil. size\n"
<< " -S , --swap\t\t\t\t Swap Left <--> Right\n"
<< " -D , --dump\t\t\t\t Dumps midi note ON/OFF commands\n"
<<
" -U , --no-gui\t\t\t\t Run ZynAddSubFX without user interface\n"
<< " -N , --named\t\t\t\t Postfix IO Name when possible\n"
<< " -a , --auto-connect\t\t\t AutoConnect when using JACK\n"
<< " -O , --output\t\t\t\t Set Output Engine\n"
<< " -I , --input\t\t\t\t Set Input Engine\n"
<< " -e , --exec-after-init\t\t Run post-initialization script\n"
<< endl;
return 0;
}
//produce denormal buf
denormalkillbuf = new float [synth->buffersize];
for(int i = 0; i < synth->buffersize; ++i)
denormalkillbuf[i] = (RND - 0.5f) * 1e-16;
initprogram();
if(!loadfile.empty()) {
int tmp = master->loadXML(loadfile.c_str());
if(tmp < 0) {
cerr << "ERROR: Could not load master file " << loadfile
<< "." << endl;
exit(1);
}
else {
master->applyparameters();
cout << "Master file loaded." << endl;
}
}
if(!loadinstrument.empty()) {
int loadtopart = 0;
int tmp = master->part[loadtopart]->loadXMLinstrument(
loadinstrument.c_str());
if(tmp < 0) {
cerr << "ERROR: Could not load instrument file "
<< loadinstrument << '.' << endl;
exit(1);
}
else {
master->part[loadtopart]->applyparameters();
cout << "Instrument file loaded." << endl;
}
}
//Run the Nio system
bool ioGood = Nio::start();
if(!execAfterInit.empty()) {
cout << "Executing user supplied command: " << execAfterInit << endl;
if(system(execAfterInit.c_str()) == -1)
cerr << "Command Failed..." << endl;
}
#ifndef DISABLE_GUI
#ifdef NTK_GUI
fl_register_images();
Fl_Tooltip::textcolor(0x0);
Fl_Dial::default_style(Fl_Dial::PIXMAP_DIAL);
if(Fl_Shared_Image *img = Fl_Shared_Image::get(PIXMAP_PATH "/knob.png"))
Fl_Dial::default_image(img);
else
Fl_Dial::default_image(Fl_Shared_Image::get(SOURCE_DIR "/../pixmaps/knob.png"));
if(Fl_Shared_Image *img = Fl_Shared_Image::get(PIXMAP_PATH "/window_backdrop.png"))
Fl::scheme_bg(new Fl_Tiled_Image(img));
else
Fl::scheme_bg(new Fl_Tiled_Image(Fl_Shared_Image::get(SOURCE_DIR "/../pixmaps/window_backdrop.png")));
if(Fl_Shared_Image *img = Fl_Shared_Image::get(PIXMAP_PATH "/module_backdrop.png"))
module_backdrop = new Fl_Tiled_Image(img);
else
module_backdrop = new Fl_Tiled_Image(Fl_Shared_Image::get(SOURCE_DIR "/../pixmaps/module_backdrop.png"));
Fl::background( 50, 50, 50 );
Fl::background2( 70, 70, 70 );
Fl::foreground( 255,255,255 );
#endif
ui = new MasterUI(master, &Pexitprogram);
if ( !noui)
{
ui->showUI();
if(!ioGood)
fl_alert(
"Default IO did not initialize.\nDefaulting to NULL backend.");
}
#endif
#ifndef DISABLE_GUI
#if USE_NSM
char *nsm_url = getenv("NSM_URL");
if(nsm_url) {
nsm = new NSM_Client;
if(!nsm->init(nsm_url))
nsm->announce("ZynAddSubFX", ":switch:", argv[0]);
else {
delete nsm;
nsm = NULL;
}
}
#endif
#endif
#if USE_NSM
if(!nsm)
#endif
{
#if LASH
lash = new LASHClient(&argc, &argv);
#ifndef DISABLE_GUI
ui->sm_indicator1->value(1);
ui->sm_indicator2->value(1);
ui->sm_indicator1->tooltip("LASH");
ui->sm_indicator2->tooltip("LASH");
#endif
#endif
}
while(Pexitprogram == 0) {
#ifndef DISABLE_GUI
#if USE_NSM
if(nsm) {
nsm->check();
goto done;
}
#endif
#if LASH
{
string filename;
switch(lash->checkevents(filename)) {
case LASHClient::Save:
ui->do_save_master(filename.c_str());
lash->confirmevent(LASHClient::Save);
break;
case LASHClient::Restore:
ui->do_load_master(filename.c_str());
lash->confirmevent(LASHClient::Restore);
break;
case LASHClient::Quit:
Pexitprogram = 1;
default:
break;
}
}
#endif //LASH
#if USE_NSM
done:
#endif
Fl::wait(0.02f);
#else
usleep(100000);
#endif
}
exitprogram();
return 0;
}