void wd33c9x_base_device::update_irq()
{
if (m_regs[AUXILIARY_STATUS] & AUXILIARY_STATUS_INT) {
m_regs[AUXILIARY_STATUS] &= ~AUXILIARY_STATUS_INT;
LOGMASKED(LOG_LINES, "%s: Clearing IRQ\n", shortname());
m_irq_cb(CLEAR_LINE);
}
if (!irq_fifo_empty()) {
m_regs[SCSI_STATUS] = irq_fifo_pop();
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_INT;
const uint8_t cc = (m_regs[COMMAND] & COMMAND_CC);
if (cc == COMMAND_CC_SELECT_TRANSFER || cc == COMMAND_CC_SELECT_ATN_TRANSFER) {
switch (m_regs[SCSI_STATUS]) {
case SCSI_STATUS_DISCONNECT:
if (!(m_regs[CONTROL] & CONTROL_IDI)) {
return;
}
break;
case SCSI_STATUS_SELECT_TRANSFER_SUCCESS:
if ((m_regs[CONTROL] & CONTROL_EDI) && m_mode != MODE_D) {
return;
}
break;
}
}
LOGMASKED(LOG_LINES, "%s: Asserting IRQ - SCSI Status (%02x)\n", shortname(), m_regs[SCSI_STATUS]);
m_irq_cb(ASSERT_LINE);
}
}
string Vehicle::fullname(bool halffull) const
{
string s;
int words = 0;
if (heat_>0)
{
s = "Stolen ";
words++;
}
if (displayscolor())
{
s += color_+" ";
words++;
}
if (myear_!=-1 && words<2)//don't print year if that will make the name too long.
{
s += tostring(myear_)+" ";
}
if (halffull)
s += shortname();
else
s += longname();
return s;
}
void a2232_device::autoconfig_base_address(offs_t address)
{
if (VERBOSE)
logerror("%s('%s'): autoconfig_base_address received: 0x%06x\n", shortname(), basetag(), address);
if (VERBOSE)
logerror("-> installing a2232\n");
// stop responding to default autoconfig
m_slot->m_space->unmap_readwrite(0xe80000, 0xe8007f);
m_slot->m_space->install_readwrite_handler(address, address + 0x3fff,
read16_delegate(FUNC(a2232_device::shared_ram_r), this),
write16_delegate(FUNC(a2232_device::shared_ram_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0x4000, address + 0x4001,
read16_delegate(FUNC(a2232_device::irq_ack_r), this),
write16_delegate(FUNC(a2232_device::irq_ack_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0x8000, address + 0x8001,
read16_delegate(FUNC(a2232_device::reset_low_r), this),
write16_delegate(FUNC(a2232_device::reset_low_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0xa000, address + 0xa001,
read16_delegate(FUNC(a2232_device::irq_r), this),
write16_delegate(FUNC(a2232_device::irq_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0xc000, address + 0xc001,
read16_delegate(FUNC(a2232_device::reset_high_r), this),
write16_delegate(FUNC(a2232_device::reset_high_w), this), 0xffff);
// we're done
m_slot->cfgout_w(0);
}
const char* MSVC_LocaleLookup(const char* raw_shortname) {
/* NULL is used to read locale only so we need to return it too */
if (raw_shortname == NULL) return NULL;
std::string shortname(raw_shortname);
if (shortname == "C") return "C";
if (shortname == "") return "";
static std::string last_raw_value = "";
static std::string last_full_name = "";
static bool first_use = true;
if (last_raw_value == shortname) {
return last_full_name.c_str();
}
if (first_use) {
EnumSystemLocalesA(UpdateLocaleCallback, LCID_SUPPORTED | LCID_ALTERNATE_SORTS);
first_use = false;
}
last_raw_value = shortname;
if (glb_supported_locales.find(utf8_to_wide(shortname)) != glb_supported_locales.end()) {
last_full_name = wide_to_utf8(
glb_supported_locales[utf8_to_wide(shortname)]);
return last_full_name.c_str();
}
/* empty string is system default */
errorstream << "MSVC_LocaleLookup: unsupported locale: \"" << shortname
<< "\" switching to system default!" << std::endl;
return "";
}
bool wd33c9x_base_device::set_command_length(const uint8_t cc)
{
const bool eaf = ((m_regs[OWN_ID] & OWN_ID_EAF) != 0);
bool ret;
if (eaf && (cc == COMMAND_CC_SELECT_TRANSFER || cc == COMMAND_CC_SELECT_ATN_TRANSFER)) {
m_command_length &= OWN_ID_CDB_SIZE;
ret = true;
}
else if (eaf && cc == COMMAND_CC_WAIT_SELECT_RECEIVE_DATA) {
m_command_length = 6;
m_regs[COMMAND_PHASE] = COMMAND_PHASE_CP_BYTES_1;
irq_fifo_push(SCSI_STATUS_NEED_COMMAND_SIZE);
update_irq();
ret = false;
}
else {
switch (m_regs[CDB_1] >> 5) {
default:
case 0: m_command_length = 6; break;
case 1: m_command_length = 10; break;
case 5: m_command_length = 12; break;
}
ret = true;
}
LOGMASKED(LOG_COMMANDS, "%s: SCSI Command Length %d bytes\n", shortname(), m_command_length);
return ret;
}
void wd33c9x_base_device::clear_drq()
{
if (m_drq_state) {
LOGMASKED(LOG_LINES, "%s: Clearing DRQ\n", shortname());
m_drq_state = false;
m_drq_cb(CLEAR_LINE);
}
}
void wd33c9x_base_device::data_fifo_push(const uint8_t data)
{
if (data_fifo_full()) {
fatalerror("%s: Data FIFO overflow.\n", shortname());
}
m_data_fifo[(m_data_fifo_pos + m_data_fifo_size) % DATA_FIFO_SIZE] = data;
++m_data_fifo_size;
}
void wd33c9x_base_device::set_drq()
{
if (!m_drq_state) {
LOGMASKED(LOG_LINES, "%s: Asserting DRQ\n", shortname());
m_drq_state = true;
m_drq_cb(ASSERT_LINE);
}
}
static void onmreg(const void *c, upb_handlers *h) {
const upb_msgdef *m = upb_handlers_msgdef(h);
upb_msg_field_iter i;
UPB_UNUSED(c);
upb_handlers_setstartmsg(h, textprinter_startmsg, NULL);
upb_handlers_setendmsg(h, textprinter_endmsg, NULL);
for(upb_msg_field_begin(&i, m);
!upb_msg_field_done(&i);
upb_msg_field_next(&i)) {
upb_fielddef *f = upb_msg_iter_field(&i);
upb_handlerattr attr = UPB_HANDLERATTR_INITIALIZER;
upb_handlerattr_sethandlerdata(&attr, f);
switch (upb_fielddef_type(f)) {
case UPB_TYPE_INT32:
upb_handlers_setint32(h, f, textprinter_putint32, &attr);
break;
case UPB_TYPE_INT64:
upb_handlers_setint64(h, f, textprinter_putint64, &attr);
break;
case UPB_TYPE_UINT32:
upb_handlers_setuint32(h, f, textprinter_putuint32, &attr);
break;
case UPB_TYPE_UINT64:
upb_handlers_setuint64(h, f, textprinter_putuint64, &attr);
break;
case UPB_TYPE_FLOAT:
upb_handlers_setfloat(h, f, textprinter_putfloat, &attr);
break;
case UPB_TYPE_DOUBLE:
upb_handlers_setdouble(h, f, textprinter_putdouble, &attr);
break;
case UPB_TYPE_BOOL:
upb_handlers_setbool(h, f, textprinter_putbool, &attr);
break;
case UPB_TYPE_STRING:
case UPB_TYPE_BYTES:
upb_handlers_setstartstr(h, f, textprinter_startstr, &attr);
upb_handlers_setstring(h, f, textprinter_putstr, &attr);
upb_handlers_setendstr(h, f, textprinter_endstr, &attr);
break;
case UPB_TYPE_MESSAGE: {
const char *name =
upb_fielddef_istagdelim(f)
? shortname(upb_msgdef_fullname(upb_fielddef_msgsubdef(f)))
: upb_fielddef_name(f);
upb_handlerattr_sethandlerdata(&attr, name);
upb_handlers_setstartsubmsg(h, f, textprinter_startsubmsg, &attr);
upb_handlers_setendsubmsg(h, f, textprinter_endsubmsg, &attr);
break;
}
case UPB_TYPE_ENUM:
upb_handlers_setint32(h, f, textprinter_putenum, &attr);
break;
}
}
}
ExportFFmpeg::ExportFFmpeg()
: ExportPlugin()
{
mEncFormatCtx = NULL; // libavformat's context for our output file
mEncFormatDesc = NULL; // describes our output file to libavformat
mEncAudioStream = NULL; // the output audio stream (may remain NULL)
mEncAudioCodecCtx = NULL; // the encoder for the output audio stream
mEncAudioEncodedBuf = NULL; // buffer to hold frames encoded by the encoder
#define MAX_AUDIO_PACKET_SIZE (128 * 1024)
mEncAudioEncodedBufSiz = 4*MAX_AUDIO_PACKET_SIZE;
mEncAudioFifoOutBuf = NULL; // buffer to read _out_ of the FIFO into
mSampleRate = 0;
mSupportsUTF8 = true;
PickFFmpegLibs(); // DropFFmpegLibs() call is in ExportFFmpeg::Destroy()
int newfmt;
// Adds export types from the export type list
for (newfmt = 0; newfmt < FMT_LAST; newfmt++)
{
wxString shortname(ExportFFmpegOptions::fmts[newfmt].shortname);
//Don't hide export types when there's no av-libs, and don't hide FMT_OTHER
if (newfmt < FMT_OTHER && FFmpegLibsInst->ValidLibsLoaded())
{
// Format/Codec support is compiled in?
AVOutputFormat *avoformat = FFmpegLibsInst->guess_format(shortname.mb_str(), NULL, NULL);
AVCodec *avcodec = FFmpegLibsInst->avcodec_find_encoder(ExportFFmpegOptions::fmts[newfmt].codecid);
if (avoformat == NULL || avcodec == NULL)
{
ExportFFmpegOptions::fmts[newfmt].compiledIn = false;
continue;
}
}
int fmtindex = AddFormat() - 1;
SetFormat(ExportFFmpegOptions::fmts[newfmt].name,fmtindex);
AddExtension(ExportFFmpegOptions::fmts[newfmt].extension,fmtindex);
// For some types add other extensions
switch(newfmt)
{
case FMT_M4A:
AddExtension(wxString(wxT("3gp")),fmtindex);
AddExtension(wxString(wxT("m4r")),fmtindex);
AddExtension(wxString(wxT("mp4")),fmtindex);
break;
case FMT_WMA2:
AddExtension(wxString(wxT("asf")),fmtindex);
AddExtension(wxString(wxT("wmv")),fmtindex);
break;
default:
break;
}
SetMaxChannels(ExportFFmpegOptions::fmts[newfmt].maxchannels,fmtindex);
SetCanMetaData(ExportFFmpegOptions::fmts[newfmt].canmetadata,fmtindex);
SetDescription(ExportFFmpegOptions::fmts[newfmt].description,fmtindex);
}
}
uint8_t wd33c9x_base_device::irq_fifo_pop()
{
if (irq_fifo_empty()) {
fatalerror("%s: IRQ FIFO underflow.\n", shortname());
}
--m_irq_fifo_size;
uint8_t ret = m_irq_fifo[m_irq_fifo_pos];
m_irq_fifo_pos = (m_irq_fifo_pos + 1) % IRQ_FIFO_SIZE;
return ret;
}
uint8_t wd33c9x_base_device::data_fifo_pop()
{
if (data_fifo_empty()) {
fatalerror("%s: Data FIFO underflow.\n", shortname());
}
--m_data_fifo_size;
uint8_t ret = m_data_fifo[m_data_fifo_pos];
m_data_fifo_pos = (m_data_fifo_pos + 1) % DATA_FIFO_SIZE;
return ret;
}
void
readmach(Machine *m, int init)
{
int n, i;
uint64_t a[nelem(m->devsysstat)];
char buf[32];
if(m->remote && (m->disable || setjmp(catchalarm))){
if (m->disable++ >= 5)
m->disable = 0; /* give it another chance */
memmove(m->devsysstat, m->prevsysstat, sizeof m->devsysstat);
memmove(m->netetherstats, m->prevetherstats, sizeof m->netetherstats);
return;
}
snprint(buf, sizeof buf, "%s", m->name);
if (strcmp(m->name, buf) != 0){
free(m->name);
m->name = estrdup(buf);
free(m->shortname);
m->shortname = shortname(buf);
if(display != nil) /* else we're still initializing */
eresized(0);
}
if(m->remote){
notify(alarmed);
alarm(5000);
}
if(needswap(init) && loadbuf(m, &m->swapfd) && readswap(m, a))
memmove(m->devswap, a, sizeof m->devswap);
if(needstat(init) && loadbuf(m, &m->statsfd)){
memmove(m->prevsysstat, m->devsysstat, sizeof m->devsysstat);
memset(m->devsysstat, 0, sizeof m->devsysstat);
for(n=0; n<m->nproc && readnums(m, nelem(m->devsysstat), a, 0); n++)
for(i=0; i<nelem(m->devsysstat); i++)
m->devsysstat[i] += a[i];
}
if(needether(init) && loadbuf(m, &m->etherfd) && readnums(m, nelem(m->netetherstats), a, 1)){
memmove(m->prevetherstats, m->netetherstats, sizeof m->netetherstats);
memmove(m->netetherstats, a, sizeof m->netetherstats);
}
if(needsignal(init) && loadbuf(m, &m->ifstatsfd) && strncmp(m->buf, "Signal: ", 8)==0 && readnums(m, nelem(m->netetherifstats), a, 1)){
memmove(m->netetherifstats, a, sizeof m->netetherifstats);
}
if(needbattery(init) && loadbuf(m, &m->batteryfd) && readnums(m, nelem(m->batterystats), a, 0))
memmove(m->batterystats, a, sizeof(m->batterystats));
if(needbattery(init) && loadbuf(m, &m->bitsybatfd) && readnums(m, 1, a, 0))
memmove(m->batterystats, a, sizeof(m->batterystats));
if(needtemp(init) && loadbuf(m, &m->tempfd))
for(n=0; n < nelem(m->temp) && readnums(m, 2, a, 0); n++)
m->temp[n] = a[0];
if(m->remote){
alarm(0);
notify(nil);
}
}
/* return a vnode number matching targethost */
int findtargethost(char *allnodes, char *targethost)
{
int i;
char *ptr;
int vnode = 0;
if ((ptr = strchr(targethost, '/')) != NULL)
{
*ptr = '\0';
ptr++;
vnode = atoi(ptr);
}
for (i = 0; i < numnodes; i++)
{
if (!strcmp(allnodes + (i*PBS_MAXNODENAME), targethost))
{
if (vnode == 0)
return(i);
vnode--;
}
else
{
/* Sometimes the allnodes will return the FQDN of the host
and the PBS_NODEFILE will have the short name of the host.
See if the shortname mataches */
std::string targetname(targethost);
std::string the_host(allnodes + (i*PBS_MAXNODENAME));
std::size_t dot = the_host.find_first_of(".");
if(dot != std::string::npos)
{
the_host[dot] = '\0';
std::string shortname(the_host.c_str());
if (shortname.compare(targetname) == 0)
{
if (vnode == 0)
return(i);
vnode--;
}
}
}
}
if (i == numnodes)
{
fprintf(stderr, "%s: %s not found\n", id, targethost);
tm_finalize();
exit(1);
}
return(-1);
}
void buddha_device::autoconfig_base_address(offs_t address)
{
if (VERBOSE)
logerror("%s('%s'): autoconfig_base_address received: 0x%06x\n", shortname(), basetag(), address);
if (VERBOSE)
logerror("-> installing buddha\n");
// stop responding to default autoconfig
m_slot->m_space->unmap_readwrite(0xe80000, 0xe8007f);
// install autoconfig handler to new location
m_slot->m_space->install_readwrite_handler(address, address + 0x7f,
read16_delegate(FUNC(amiga_autoconfig::autoconfig_read), static_cast<amiga_autoconfig *>(this)),
write16_delegate(FUNC(amiga_autoconfig::autoconfig_write), static_cast<amiga_autoconfig *>(this)), 0xffff);
// buddha registers
m_slot->m_space->install_readwrite_handler(address + 0x7fe, address + 0x7ff,
read16_delegate(FUNC(buddha_device::speed_r), this),
write16_delegate(FUNC(buddha_device::speed_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0x800, address + 0x8ff,
read16_delegate(FUNC(buddha_device::ide_0_cs0_r), this),
write16_delegate(FUNC(buddha_device::ide_0_cs0_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0x900, address + 0x9ff,
read16_delegate(FUNC(buddha_device::ide_0_cs1_r), this),
write16_delegate(FUNC(buddha_device::ide_0_cs1_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0xa00, address + 0xaff,
read16_delegate(FUNC(buddha_device::ide_0_cs0_r), this),
write16_delegate(FUNC(buddha_device::ide_0_cs0_w), this), 0xffff);
m_slot->m_space->install_readwrite_handler(address + 0xb00, address + 0xbff,
read16_delegate(FUNC(buddha_device::ide_0_cs1_r), this),
write16_delegate(FUNC(buddha_device::ide_0_cs1_w), this), 0xffff);
m_slot->m_space->install_read_handler(address + 0xf00, address + 0xf3f,
read16_delegate(FUNC(buddha_device::ide_0_interrupt_r), this), 0xffff);
m_slot->m_space->install_read_handler(address + 0xf40, address + 0xf7f,
read16_delegate(FUNC(buddha_device::ide_1_interrupt_r), this), 0xffff);
m_slot->m_space->install_write_handler(address + 0xfc0, address + 0xfff,
write16_delegate(FUNC(buddha_device::ide_interrupt_enable_w), this), 0xffff);
// install access to the rom space
m_slot->m_space->install_rom(address + 0x1000, address + 0xffff, memregion("bootrom")->base() + 0x1000);
// we're done
m_slot->cfgout_w(0);
}
void wd33c9x_base_device::irq_fifo_push(const uint8_t status)
{
if (irq_fifo_full()) {
fatalerror("%s: IRQ FIFO overflow.\n", shortname());
}
// Kind of hacky, but don't push duplicate interrupt statuses.
if (m_irq_fifo_size &&
m_irq_fifo[(m_irq_fifo_pos + m_irq_fifo_size - 1) % IRQ_FIFO_SIZE] == status) {
return;
}
m_irq_fifo[(m_irq_fifo_pos + m_irq_fifo_size) % IRQ_FIFO_SIZE] = status;
++m_irq_fifo_size;
}
void QMLAccess::getStringListKey(QString key){
GConfItem entry(key);
QStringList entries = entry.value().toStringList();
currentListValues.clear();
for (int var = 0; var < entries.count(); ++var) {
currentListValues.append(new ListKey(entries.at(var),QString::number(var)));
}
m_context->setContextProperty("keyName", shortname(key));
m_context->setContextProperty("listKeys", QVariant::fromValue(currentListValues));
}
void dmac_device::autoconfig_base_address(offs_t address)
{
if (VERBOSE)
logerror("%s('%s'): autoconfig_base_address received: 0x%06x\n", shortname(), basetag(), address);
if (!m_configured && m_ram_size > 0)
{
if (VERBOSE)
logerror("-> installing ram (%d bytes)\n", m_ram_size);
// install access to the ram space
if (address)
m_space->install_ram(address, address + (m_ram_size - 1), m_ram);
// prepare autoconfig for main device
autoconfig_board_size(BOARD_SIZE_64K);
autoconfig_product(0x03); // or 0x02 for rev 1
autoconfig_rom_vector(0x2000);
autoconfig_rom_vector_valid(true);
autoconfig_link_into_memory(false);
autoconfig_multi_device(false);
// first device configured
m_configured = true;
}
else
{
if (VERBOSE)
logerror("-> installing dmac\n");
// internal dmac registers
m_space->install_readwrite_handler(address, address + 0xff,
read16_delegate(FUNC(dmac_device::register_read), this),
write16_delegate(FUNC(dmac_device::register_write), this), 0xffff);
// install access to the rom space
if (m_rom)
{
m_space->install_rom(address + 0x2000, address + 0x7fff, m_rom + 0x2000);
m_space->install_rom(address + 0x8000, address + 0xffff, m_rom);
}
// stop responding to autoconfig
m_space->unmap_readwrite(0xe80000, 0xe8007f);
// we're done
m_cfgout_handler(0);
}
}
void wd33c9x_base_device::load_transfer_count()
{
if (m_regs[COMMAND] & COMMAND_SBT) {
m_transfer_count = 1;
}
else {
m_transfer_count = (
(uint32_t(m_regs[TRANSFER_COUNT_MSB]) << 16) |
(uint32_t(m_regs[TRANSFER_COUNT]) << 8) |
(uint32_t(m_regs[TRANSFER_COUNT_LSB]) << 0)
);
if (m_transfer_count == 0) {
m_transfer_count = 1;
}
}
LOGMASKED(LOG_COMMANDS, "%s: Transfer Count %d bytes\n", shortname(), m_transfer_count);
}
void
global_help(char *args)
{
int col, len;
struct mode *p;
char *name, *prev;
move(CMDLINE, col = 0);
name = prev = NULL;
for (p = modes; p->c_name; p++) {
if ((name = shortname(args, p->c_name)) == NULL)
continue;
if (name && prev && strcmp(name, prev) == 0) {
free(name);
name = NULL;
continue;
}
len = strlen(name);
if (col + len > COLS)
break;
addstr(name);
col += len + 1;
if (col + 1 < COLS)
addch(' ');
if (prev)
free(prev);
prev = name;
name = NULL;
}
if (col == 0 && args) {
standout();
if ((int)strlen(args) < COLS - 25)
printw("help: no matches for `%s.*'", args);
else
printw("help: no matches");
standend();
}
clrtoeol();
if (name)
free(name);
if (prev)
free(prev);
}
int ExportFFmpeg::Export(AudacityProject *project,
int channels, const wxString &fName,
bool selectionOnly, double t0, double t1, MixerSpec *mixerSpec, const Tags *metadata, int subformat)
{
if (!CheckFFmpegPresence())
return false;
mChannels = channels;
// subformat index may not correspond directly to fmts[] index, convert it
mSubFormat = AdjustFormatIndex(subformat);
if (channels > ExportFFmpegOptions::fmts[mSubFormat].maxchannels)
{
wxMessageBox(
wxString::Format(
_("Attempted to export %d channels, but maximum number of channels for selected output format is %d"),
channels,
ExportFFmpegOptions::fmts[mSubFormat].maxchannels),
_("Error"));
return false;
}
mName = fName;
TrackList *tracks = project->GetTracks();
bool ret = true;
if (mSubFormat >= FMT_LAST) return false;
wxString shortname(ExportFFmpegOptions::fmts[mSubFormat].shortname);
if (mSubFormat == FMT_OTHER)
shortname = gPrefs->Read(wxT("/FileFormats/FFmpegFormat"),wxT("matroska"));
ret = Init(shortname.mb_str(),project, metadata, subformat);
if (!ret) return false;
int pcmBufferSize = 1024;
int numWaveTracks;
WaveTrack **waveTracks;
tracks->GetWaveTracks(selectionOnly, &numWaveTracks, &waveTracks);
Mixer *mixer = CreateMixer(numWaveTracks, waveTracks,
tracks->GetTimeTrack(),
t0, t1,
channels, pcmBufferSize, true,
mSampleRate, int16Sample, true, mixerSpec);
delete[] waveTracks;
int updateResult = eProgressSuccess;
{
ProgressDialog progress(wxFileName(fName).GetName(),
selectionOnly ?
wxString::Format(_("Exporting selected audio as %s"), ExportFFmpegOptions::fmts[mSubFormat].description) :
wxString::Format(_("Exporting entire file as %s"), ExportFFmpegOptions::fmts[mSubFormat].description));
while (updateResult == eProgressSuccess) {
sampleCount pcmNumSamples = mixer->Process(pcmBufferSize);
if (pcmNumSamples == 0)
break;
short *pcmBuffer = (short *)mixer->GetBuffer();
EncodeAudioFrame(pcmBuffer, (pcmNumSamples)*sizeof(int16_t)*mChannels);
updateResult = progress.Update(mixer->MixGetCurrentTime() - t0, t1 - t0);
}
}
delete mixer;
Finalize();
return updateResult;
}
void wd33c9x_base_device::set_scsi_state(uint16_t state)
{
LOGMASKED(LOG_STEP, "%s: SCSI state change: %x to %x\n", shortname(), m_scsi_state, state);
m_scsi_state = state;
}
int
initmach(Machine *m, char *name)
{
int n, fd;
uint64_t a[MAXNUM];
char *p, mpt[256], buf[256];
p = strchr(name, '!');
if(p)
p++;
else
p = name;
m->name = estrdup(p);
m->shortname = shortname(p);
m->remote = (strcmp(p, mysysname) != 0);
if(m->remote == 0)
strcpy(mpt, "");
else{
snprint(mpt, sizeof mpt, "/n/%s", p);
fd = connectexportfs(name);
if(fd < 0){
fprint(2, "can't connect to %s: %r\n", name);
return 0;
}
/* BUG? need to use amount() now? */
if(mount(fd, -1, mpt, MREPL, "", 'M') < 0){
fprint(2, "stats: mount %s on %s failed (%r); trying /n/sid\n", name, mpt);
strcpy(mpt, "/n/sid");
if(mount(fd, -1, mpt, MREPL, "", 'M') < 0){
fprint(2, "stats: mount %s on %s failed: %r\n", name, mpt);
return 0;
}
}
}
snprint(buf, sizeof buf, "%s/dev/swap", mpt);
m->swapfd = open(buf, OREAD);
if(loadbuf(m, &m->swapfd) && readswap(m, a))
memmove(m->devswap, a, sizeof m->devswap);
else{
m->devswap[Maxswap] = 100;
m->devswap[Maxmem] = 100;
}
snprint(buf, sizeof buf, "%s/dev/sysstat", mpt);
m->statsfd = open(buf, OREAD);
if(loadbuf(m, &m->statsfd)){
for(n=0; readnums(m, nelem(m->devsysstat), a, 0); n++)
;
m->nproc = n;
}else
m->nproc = 1;
m->lgproc = ilog10(m->nproc);
snprint(buf, sizeof buf, "%s/net/ether0/stats", mpt);
m->etherfd = open(buf, OREAD);
if(loadbuf(m, &m->etherfd) && readnums(m, nelem(m->netetherstats), a, 1))
memmove(m->netetherstats, a, sizeof m->netetherstats);
snprint(buf, sizeof buf, "%s/net/ether0/ifstats", mpt);
m->ifstatsfd = open(buf, OREAD);
if(loadbuf(m, &m->ifstatsfd)){
/* need to check that this is a wavelan interface */
if(strncmp(m->buf, "Signal: ", 8) == 0 && readnums(m, nelem(m->netetherifstats), a, 1))
memmove(m->netetherifstats, a, sizeof m->netetherifstats);
}
snprint(buf, sizeof buf, "%s/mnt/apm/battery", mpt);
m->batteryfd = open(buf, OREAD);
m->bitsybatfd = -1;
if(m->batteryfd >= 0){
if(loadbuf(m, &m->batteryfd) && readnums(m, nelem(m->batterystats), a, 0))
memmove(m->batterystats, a, sizeof(m->batterystats));
}else{
snprint(buf, sizeof buf, "%s/dev/battery", mpt);
m->bitsybatfd = open(buf, OREAD);
if(loadbuf(m, &m->bitsybatfd) && readnums(m, 1, a, 0))
memmove(m->batterystats, a, sizeof(m->batterystats));
}
snprint(buf, sizeof buf, "%s/dev/cputemp", mpt);
m->tempfd = open(buf, OREAD);
if(loadbuf(m, &m->tempfd))
for(n=0; n < nelem(m->temp) && readnums(m, 2, a, 0); n++)
m->temp[n] = a[0];
return 1;
}
int main(int argc, char **argv)
{
if(argc != 3)
{
std::cout << argv[0] << " [-d] infile.til extract_to_dir" << std::endl;
return EXIT_SUCCESS;
}
std::fstream fd_data(argv[1], std::ios::in | std::ios::binary);
if(fd_data.fail())
{
std::cout << "error open file: " << argv[1] << std::endl;
return EXIT_SUCCESS;
}
std::string prefix(argv[2]);
std::string shortname(argv[1]);
if(shortname == "-d")
{
}
shortname.replace(shortname.find("."), 4, "");
prefix += SEPARATOR + shortname;
if(0 != MKDIR(prefix.c_str()))
{
std::cout << "error mkdir: " << prefix << std::endl;
return EXIT_SUCCESS;
}
fd_data.seekg(0, std::ios_base::end);
u32 size = fd_data.tellg();
fd_data.seekg(0, std::ios_base::beg);
u16 count, width, height;
fd_data.read(reinterpret_cast<char *>(&count), sizeof(u16));
SwapLE16(count);
fd_data.read(reinterpret_cast<char *>(&width), sizeof(u16));
SwapLE16(width);
fd_data.read(reinterpret_cast<char *>(&height), sizeof(u16));
SwapLE16(height);
char *body = new char[size];
fd_data.read(body, size);
SDL::Init();
for(u16 cur = 0; cur < count; ++cur)
{
Surface sf(&body[width * height * cur], width, height, 1, false);
std::string dstfile(prefix);
dstfile += SEPARATOR;
std::ostringstream stream;
stream << cur;
switch(stream.str().size())
{
case 1:
dstfile += "00" + stream.str();
break;
case 2:
dstfile += "0" + stream.str();
break;
default:
dstfile += stream.str();
break;
}
#ifndef WITH_IMAGE
dstfile += ".bmp";
#else
dstfile += ".png";
#endif
sf.Save(dstfile.c_str());
}
delete [] body;
fd_data.close();
std::cout << "expand to: " << prefix << std::endl;
SDL::Quit();
return EXIT_SUCCESS;
}
bool ManagerApp::CheckManagerDB() {
int version_groups = DB_MANAGER_VERSION_GROUPS;
int version_packages = DB_MANAGER_VERSION_PACKAGES;
int version_authorlist = DB_MANAGER_VERSION_AUTHORLIST;
int version_packagelist = DB_MANAGER_VERSION_PACKAGELIST;
int version_packagelist_authors = DB_MANAGER_VERSION_PACKAGELIST_AUTHORS;
int version_packagelist_warnings = DB_MANAGER_VERSION_PACKAGELIST_WARNINGS;
wxSQLite3StatementBuffer temp;
m_managerdb.Open(m_appdir.GetPath(wxPATH_GET_SEPARATOR | wxPATH_GET_VOLUME) + wxT("manager.db"));
if (!m_managerdb.TableExists(wxT("versions"))) {
m_managerdb.ExecuteUpdate(wxT("create table versions(tablename char[30], version int);"));
temp.Format("insert into versions values ('groups', %d);", version_groups);
m_managerdb.ExecuteUpdate(temp);
temp.Format("insert into versions values ('packages', %d);", version_packages);
m_managerdb.ExecuteUpdate(temp);
temp.Format("insert into versions values ('authorlist', %d);", version_authorlist);
m_managerdb.ExecuteUpdate(temp);
temp.Format("insert into versions values ('packagelist', %d);", version_packagelist);
m_managerdb.ExecuteUpdate(temp);
temp.Format("insert into versions values ('packagelist_authors', %d);", version_packagelist_authors);
m_managerdb.ExecuteUpdate(temp);
temp.Format("insert into versions values ('packagelist_warnings', %d);", version_packagelist_warnings);
m_managerdb.ExecuteUpdate(temp);
} else {
version_groups = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'groups';"));
version_packages = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'packages';"));
version_authorlist = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'authorlist';"));
version_packagelist = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'packagelist';"));
version_packagelist_authors = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'packagelist_authors';"));
version_packagelist_warnings = m_managerdb.ExecuteScalar(wxT("select version from versions where tablename = 'packagelist_warnings';"));
}
if ((version_groups > DB_MANAGER_VERSION_GROUPS) ||
(version_packages > DB_MANAGER_VERSION_PACKAGES) ||
(version_authorlist > DB_MANAGER_VERSION_AUTHORLIST) ||
(version_packagelist > DB_MANAGER_VERSION_PACKAGELIST) ||
(version_packagelist_authors > DB_MANAGER_VERSION_PACKAGELIST_AUTHORS) ||
(version_packagelist_warnings > DB_MANAGER_VERSION_PACKAGELIST_WARNINGS)) {
wxLogError(_("Manager database modified by a newer version of this application."));
return false;
}
if (!m_managerdb.TableExists(wxT("groups"))) {
m_managerdb.ExecuteUpdate(wxT("create table groups(name text, guid text);"));
}
if (!m_managerdb.TableExists(wxT("packages"))) {
m_managerdb.ExecuteUpdate(wxT("create table packages(name text, guid text, file text, version text);"));
}
if (!m_managerdb.TableExists(wxT("authorlist"))) {
m_managerdb.ExecuteUpdate(wxT("create table authorlist(name text, guid text, official int);"));
wxFileSystem fs;
m_managerdb.Begin();
try {
xmlcpp::cXmlDoc xdoc(wxString(MEMORY_PREFIX RES_XML_AUTHORS).mb_str(wxConvUTF8), NULL);
if (xdoc.ok()) {
xmlcpp::cXmlNode child(xdoc.getRoot().children());
while (child.ok()) {
if (child.name() == "author") {
wxString name(child.getPropVal("name").c_str(), wxConvUTF8);
name.Trim();
name.Trim(true);
wxString guid(child.getPropVal("guid").c_str(), wxConvUTF8);
guid.Trim();
guid.Trim(true);
if (name.IsEmpty() || guid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in author list xml."));
return false;
}
temp.Format("insert into authorlist values ('%q', '%q', 1);", name.mb_str(wxConvUTF8).data(), guid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
}
child.go_next();
}
}
} catch (std::exception& e) {
wxLogError(wxString(e.what(), wxConvUTF8));
}
/*
std::auto_ptr<wxFSFile> inputfsfile(fs.OpenFile(MEMORY_PREFIX RES_XML_AUTHORS, wxFS_READ));
wxXmlDocument doc(*inputfsfile->GetStream());
wxXmlNode* child = doc.GetRoot()->GetChildren();
while (child) {
if (child->GetName() == wxT("author")) {
wxString name = child->GetPropVal(wxT("name"), wxT(""));
name.Trim();
name.Trim(true);
wxString guid = child->GetPropVal(wxT("guid"), wxT(""));
guid.Trim();
guid.Trim(true);
if (name.IsEmpty() || guid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in author list xml."));
return false;
}
temp.Format("insert into authorlist values ('%q', '%q', 1);", name.mb_str(wxConvUTF8).data(), guid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
}
child = child->GetNext();
}
*/
m_managerdb.Commit();
}
if (!m_managerdb.TableExists(wxT("packagelist"))) {
m_managerdb.ExecuteUpdate(wxT("create table packagelist(name text, shortname text, guid text, version text, official int);"));
}
if (!m_managerdb.TableExists(wxT("packagelist_authors"))) {
m_managerdb.ExecuteUpdate(wxT("create table packagelist_authors(guid text, authorguid text);"));
}
if (!m_managerdb.TableExists(wxT("packagelist_warnings"))) {
m_managerdb.ExecuteUpdate(wxT("create table packagelist_warnings(guid text, type int, descrition text);"));
}
if (!m_managerdb.ExecuteScalar(wxT("select count(*) from packagelist;"))) {
wxFileSystem fs;
m_managerdb.Begin();
try {
xmlcpp::cXmlDoc xdoc(wxString(MEMORY_PREFIX RES_XML_PACKAGES).mb_str(wxConvUTF8), NULL);
if (xdoc.ok()) {
xmlcpp::cXmlNode child(xdoc.getRoot().children());
while (child.ok()) {
if (child.name() == "package") {
wxString name(child.getPropVal("name").c_str(), wxConvUTF8);
name.Trim();
name.Trim(true);
wxString shortname(child.getPropVal("shortname").c_str(), wxConvUTF8);
shortname.Trim();
shortname.Trim(true);
wxString guid(child.getPropVal("guid").c_str(), wxConvUTF8);
guid.Trim();
guid.Trim(true);
wxString version(child.getPropVal("version").c_str(), wxConvUTF8);
version.Trim();
version.Trim(true);
if (name.IsEmpty() || guid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (name and/or guid missing)."));
return false;
}
temp.Format("insert into packagelist values ('%q', '%q', '%q', '%q', 1);", name.mb_str(wxConvUTF8).data(),
shortname.mb_str(wxConvUTF8).data(), guid.mb_str(wxConvUTF8).data(), version.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
bool haveauthor = false;
if (child.hasProp("authorguid")) {
wxString authorguid(child.getPropVal("authorguid").c_str(), wxConvUTF8);
authorguid.Trim();
authorguid.Trim(true);
if (authorguid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (authorguid empty)."));
return false;
}
temp.Format("insert into packagelist_authors values ('%q', '%q');", guid.mb_str(wxConvUTF8).data(), authorguid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
haveauthor = true;
}
xmlcpp::cXmlNode subchild(child.children());
while(subchild.ok()) {
if (subchild.name() == "author") {
wxString authorguid(subchild.getPropVal("guid").c_str(), wxConvUTF8);
authorguid.Trim();
authorguid.Trim(true);
if (authorguid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (author[guid] empty)."));
return false;
}
temp.Format("insert into packagelist_authors values ('%q', '%q');", guid.mb_str(wxConvUTF8).data(), authorguid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
haveauthor = true;
} else if (subchild.name() == "warning") {
wxString wtype(subchild.getPropVal("type").c_str(), wxConvUTF8);
wtype.Trim();
wtype.Trim(true);
if (wtype.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (warning[type] empty)."));
return false;
}
wxString desc(subchild.content().c_str(), wxConvUTF8);
desc.Trim();
desc.Trim(true);
temp.Format("insert into packagelist_warnings values ('%q', '%q', '%q');", guid.mb_str(wxConvUTF8).data(), wtype.mb_str(wxConvUTF8).data(), desc.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
}
subchild.go_next();
}
if (!haveauthor) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (author missing)."));
return false;
}
}
child.go_next();
}
} else {
wxLogError(_("Failed to open package list xml."));
for (std::vector<xmlcpp::cXmlStructuredError>::const_iterator it = xdoc.getStructuredErrors().begin(); it != xdoc.getStructuredErrors().end(); ++it)
wxLogError(wxString(it->message.c_str(), wxConvUTF8));
}
} catch (std::exception& e) {
wxLogError(wxString(e.what(), wxConvUTF8));
}
/*
std::auto_ptr<wxFSFile> inputfsfile(fs.OpenFile(MEMORY_PREFIX RES_XML_PACKAGES, wxFS_READ));
wxXmlDocument doc(*inputfsfile->GetStream());
wxXmlNode* child = doc.GetRoot()->GetChildren();
while (child) {
if (child->GetName() == wxT("package")) {
wxString name = child->GetPropVal(wxT("name"), wxT(""));
name.Trim();
name.Trim(true);
wxString shortname = child->GetPropVal(wxT("shortname"), wxT(""));
shortname.Trim();
shortname.Trim(true);
wxString guid = child->GetPropVal(wxT("guid"), wxT(""));
guid.Trim();
guid.Trim(true);
wxString version = child->GetPropVal(wxT("version"), wxT("0"));
version.Trim();
version.Trim(true);
if (name.IsEmpty() || guid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (name and/or guid missing)."));
return false;
}
temp.Format("insert into packagelist values ('%q', '%q', '%q', '%q', 1);", name.mb_str(wxConvUTF8).data(),
shortname.mb_str(wxConvUTF8).data(), guid.mb_str(wxConvUTF8).data(), version.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
bool haveauthor = false;
if (child->HasProp(wxT("authorguid"))) {
wxString authorguid = child->GetPropVal(wxT("authorguid"), wxT(""));
authorguid.Trim();
authorguid.Trim(true);
if (authorguid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (authorguid empty)."));
return false;
}
temp.Format("insert into packagelist_authors values ('%q', '%q');", guid.mb_str(wxConvUTF8).data(), authorguid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
haveauthor = true;
}
wxXmlNode* subchild = child->GetChildren();
while(subchild) {
if (subchild->GetName() == wxT("author")) {
wxString authorguid = subchild->GetPropVal(wxT("guid"), wxT(""));
authorguid.Trim();
authorguid.Trim(true);
if (authorguid.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (author[guid] empty)."));
return false;
}
temp.Format("insert into packagelist_authors values ('%q', '%q');", guid.mb_str(wxConvUTF8).data(), authorguid.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
haveauthor = true;
} else if (subchild->GetName() == wxT("warning")) {
wxString wtype = subchild->GetPropVal(wxT("type"), wxT(""));
wtype.Trim();
wtype.Trim(true);
if (wtype.IsEmpty()) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (warning[type] empty)."));
return false;
}
wxString desc = subchild->GetNodeContent();
desc.Trim();
desc.Trim(true);
temp.Format("insert into packagelist_warnings values ('%q', '%q', '%q');", guid.mb_str(wxConvUTF8).data(), wtype.mb_str(wxConvUTF8).data(), desc.mb_str(wxConvUTF8).data());
m_managerdb.ExecuteUpdate(temp);
}
subchild = subchild->GetNext();
}
if (!haveauthor) {
m_managerdb.Rollback();
wxLogError(_("Error in package list xml (author missing)."));
return false;
}
}
child = child->GetNext();
}
*/
m_managerdb.Commit();
}
return true;
}
bool ExportFFmpeg::EncodeAudioFrame(int16_t *pFrame, int frameSize)
{
AVPacket pkt;
int nBytesToWrite = 0;
uint8_t * pRawSamples = NULL;
int nAudioFrameSizeOut = mEncAudioCodecCtx->frame_size * mEncAudioCodecCtx->channels * sizeof(int16_t);
if (mEncAudioCodecCtx->frame_size == 1) nAudioFrameSizeOut = mEncAudioEncodedBufSiz;
int ret;
nBytesToWrite = frameSize;
pRawSamples = (uint8_t*)pFrame;
#if FFMPEG_STABLE
FFmpegLibsInst->av_fifo_realloc(&mEncAudioFifo, FFmpegLibsInst->av_fifo_size(&mEncAudioFifo) + frameSize);
#else
FFmpegLibsInst->av_fifo_realloc2(mEncAudioFifo, FFmpegLibsInst->av_fifo_size(mEncAudioFifo) + frameSize);
#endif
// Put the raw audio samples into the FIFO.
#if FFMPEG_STABLE
ret = FFmpegLibsInst->av_fifo_generic_write(&mEncAudioFifo, pRawSamples, nBytesToWrite,NULL);
#else
ret = FFmpegLibsInst->av_fifo_generic_write(mEncAudioFifo, pRawSamples, nBytesToWrite,NULL);
#endif
wxASSERT(ret == nBytesToWrite);
// Read raw audio samples out of the FIFO in nAudioFrameSizeOut byte-sized groups to encode.
#if FFMPEG_STABLE
while ((ret = FFmpegLibsInst->av_fifo_size(&mEncAudioFifo)) >= nAudioFrameSizeOut)
{
ret = FFmpegLibsInst->av_fifo_read(&mEncAudioFifo, mEncAudioFifoOutBuf, nAudioFrameSizeOut);
#else
while ((ret = FFmpegLibsInst->av_fifo_size(mEncAudioFifo)) >= nAudioFrameSizeOut)
{
ret = FFmpegLibsInst->av_fifo_generic_read(mEncAudioFifo, mEncAudioFifoOutBuf, nAudioFrameSizeOut, NULL);
#endif
FFmpegLibsInst->av_init_packet(&pkt);
pkt.size = FFmpegLibsInst->avcodec_encode_audio(mEncAudioCodecCtx,
mEncAudioEncodedBuf, mEncAudioEncodedBufSiz, // out
(int16_t*)mEncAudioFifoOutBuf); // in
if (mEncAudioCodecCtx->frame_size == 1) { wxASSERT(pkt.size == mEncAudioEncodedBufSiz); }
if (pkt.size < 0)
{
wxLogMessage(wxT("FFmpeg : ERROR - Can't encode audio frame."));
return false;
}
// Rescale from the codec time_base to the AVStream time_base.
if (mEncAudioCodecCtx->coded_frame && mEncAudioCodecCtx->coded_frame->pts != int64_t(AV_NOPTS_VALUE))
pkt.pts = FFmpegLibsInst->av_rescale_q(mEncAudioCodecCtx->coded_frame->pts, mEncAudioCodecCtx->time_base, mEncAudioStream->time_base);
//wxLogMessage(wxT("FFmpeg : (%d) Writing audio frame with PTS: %lld."), mEncAudioCodecCtx->frame_number, pkt.pts);
pkt.stream_index = mEncAudioStream->index;
pkt.data = mEncAudioEncodedBuf;
pkt.flags |= PKT_FLAG_KEY;
// Write the encoded audio frame to the output file.
if ((ret = FFmpegLibsInst->av_interleaved_write_frame(mEncFormatCtx, &pkt)) != 0)
{
wxLogMessage(wxT("FFmpeg : ERROR - Failed to write audio frame to file."));
return false;
}
}
return true;
}
int ExportFFmpeg::Export(AudacityProject *project,
int channels, wxString fName,
bool selectionOnly, double t0, double t1, MixerSpec *mixerSpec, Tags *metadata, int subformat)
{
if (!CheckFFmpegPresence())
return false;
mChannels = channels;
// subformat index may not correspond directly to fmts[] index, convert it
mSubFormat = AdjustFormatIndex(subformat);
if (channels > ExportFFmpegOptions::fmts[mSubFormat].maxchannels)
{
wxLogMessage(wxT("Attempted to export %d channels, but max. channels = %d"),channels,ExportFFmpegOptions::fmts[mSubFormat].maxchannels);
wxMessageBox(wxString::Format(_("Attempted to export %d channels, but max. channels for selected output format is %d"),channels,ExportFFmpegOptions::fmts[mSubFormat].maxchannels),_("Error"));
return false;
}
mName = fName;
TrackList *tracks = project->GetTracks();
bool ret = true;
if (mSubFormat >= FMT_LAST) return false;
wxString shortname(ExportFFmpegOptions::fmts[mSubFormat].shortname);
if (mSubFormat == FMT_OTHER)
shortname = gPrefs->Read(wxT("/FileFormats/FFmpegFormat"),wxT("matroska"));
ret = Init(shortname.mb_str(),project, metadata);
if (!ret) return false;
int pcmBufferSize = 1024;
int numWaveTracks;
WaveTrack **waveTracks;
tracks->GetWaveTracks(selectionOnly, &numWaveTracks, &waveTracks);
Mixer *mixer = new Mixer(numWaveTracks, waveTracks,
tracks->GetTimeTrack(),
t0, t1,
channels, pcmBufferSize, true,
mSampleRate, int16Sample, true, mixerSpec);
delete [] waveTracks;
ProgressDialog *progress = new ProgressDialog(wxFileName(fName).GetName(),
selectionOnly ?
wxString::Format(_("Exporting selected audio as %s"), ExportFFmpegOptions::fmts[mSubFormat].description) :
wxString::Format(_("Exporting entire file as %s"), ExportFFmpegOptions::fmts[mSubFormat].description));
int updateResult = eProgressSuccess;
while(updateResult == eProgressSuccess) {
sampleCount pcmNumSamples = mixer->Process(pcmBufferSize);
if (pcmNumSamples == 0)
break;
short *pcmBuffer = (short *)mixer->GetBuffer();
EncodeAudioFrame(pcmBuffer,(pcmNumSamples)*sizeof(int16_t)*mChannels);
updateResult = progress->Update(mixer->MixGetCurrentTime()-t0, t1-t0);
}
delete progress;
delete mixer;
Finalize();
return updateResult;
}
void AddStringTagUTF8(char field[], int size, wxString value)
{
memset(field,0,size);
memcpy(field,value.ToUTF8(),(int)strlen(value.ToUTF8()) > size -1 ? size -1 : strlen(value.ToUTF8()));
}
/* wrapper Audio::Play */
void AGG::PlayMusic(const MUS::mus_t mus, bool loop)
{
static MUS::mus_t old = MUS::UNKNOWN;
const Settings & conf = Settings::Get();
if(!conf.Music() || MUS::UNUSED == mus || MUS::UNKNOWN == mus || (old == mus && Music::isPlaying())) return;
old = mus;
if(conf.MusicExt())
{
const std::string musname(conf.LocalPrefix() + SEPARATOR + "files" + SEPARATOR + "music" + SEPARATOR + MUS::GetString(mus));
#ifdef WITH_MIXER
std::string shortname(conf.LocalPrefix() + SEPARATOR + "files" + SEPARATOR + "music" + SEPARATOR + MUS::GetString(mus, true));
const char* filename = NULL;
if(FilePresent(musname)) filename = musname.c_str();
else
if(FilePresent(shortname)) filename = shortname.c_str();
else
{
String::Replace(shortname, ".ogg", ".mp3");
if(FilePresent(shortname)) filename = shortname.c_str();
else
DEBUG(DBG_ENGINE , DBG_WARN, "AGG::PlayMusic: error read file: " << musname << ", skipping...");
}
if(filename) Music::Play(filename, loop);
#else
if(FilePresent(musname) && conf.PlayMusCommand().size())
{
const std::string run = conf.PlayMusCommand() + " " + musname;
Music::Play(run.c_str(), loop);
}
#endif
DEBUG(DBG_ENGINE , DBG_INFO, "AGG::PlayMusic: " << MUS::GetString(mus));
}
else
#ifdef WITH_AUDIOCD
if(conf.MusicCD() && Cdrom::isValid())
{
Cdrom::Play(mus, loop);
DEBUG(DBG_ENGINE , DBG_INFO, "AGG::PlayMusic: cd track " << static_cast<int>(mus));
}
else
#endif
if(conf.MusicMIDI())
{
XMI::xmi_t xmi = XMI::FromMUS(mus);
if(XMI::UNKNOWN != xmi)
{
#ifdef WITH_MIXER
const std::vector<u8> & v = AGG::Cache::Get().GetMID(xmi);
if(v.size()) Music::Play(&v[0], v.size(), loop);
#else
if(conf.PlayMusCommand().size())
{
const std::string file = conf.LocalPrefix() + SEPARATOR + "files" + SEPARATOR + "music" + SEPARATOR + XMI::GetString(xmi);
if(FilePresent(file))
{
const std::string run = conf.PlayMusCommand() + " " + file;
Music::Play(run.c_str(), loop);
}
else
StoreMemToFile(AGG::Cache::Get().GetMID(xmi), file);
}
#endif
}
DEBUG(DBG_ENGINE , DBG_INFO, "AGG::PlayMusic: " << XMI::GetString(xmi));
}
}
void wd33c9x_base_device::start_command()
{
const uint8_t cc = m_regs[COMMAND] & COMMAND_CC;
// Command In Progress
// The CIP flag being set only means that the WD33C9x is
// *interpreting* the contents of the Command Register.
// It shouldn't actually be set.
//m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_CIP;
if (cc > COMMAND_CC_DISCONNECT && cc != COMMAND_CC_SET_IDI) {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_BSY;
}
switch (cc) {
case COMMAND_CC_RESET:
LOGMASKED(LOG_COMMANDS, "%s: Reset Command\n", shortname());
scsi_bus->ctrl_w(scsi_refid, 0, S_ALL);
scsi_bus->ctrl_wait(scsi_refid, S_SEL|S_BSY|S_RST, S_ALL);
m_regs[OWN_ID] = m_command_length;
memset(&m_regs[CONTROL], 0, SOURCE_ID - CONTROL);
m_regs[COMMAND] = 0;
m_regs[AUXILIARY_STATUS] &= ~AUXILIARY_STATUS_DBR;
m_mode = MODE_D;
data_fifo_reset();
irq_fifo_reset();
update_irq();
set_scsi_state(FINISHED);
irq_fifo_push((m_regs[OWN_ID] & OWN_ID_EAF) ? SCSI_STATUS_RESET_EAF : SCSI_STATUS_RESET);
scsi_id = (m_regs[OWN_ID] & OWN_ID_SCSI_ID);
break;
case COMMAND_CC_ABORT:
LOGMASKED(LOG_COMMANDS, "%s: Abort Command\n", shortname());
set_scsi_state(FINISHED);
// FIXME
irq_fifo_push((m_regs[OWN_ID] & OWN_ID_EAF) ? SCSI_STATUS_RESET_EAF : SCSI_STATUS_RESET);
break;
case COMMAND_CC_ASSERT_ATN:
LOGMASKED(LOG_COMMANDS, "%s: Assert ATN Command\n", shortname());
if (m_mode != MODE_I) {
fatalerror("%s: ASSERT_ATN command only valid in the Initiator state.", shortname());
}
scsi_bus->ctrl_w(scsi_refid, S_ATN, S_ATN);
return;
case COMMAND_CC_NEGATE_ACK:
LOGMASKED(LOG_COMMANDS, "%s: Negate ACK Command\n", shortname());
// FIXME - This is causing problems, so ignore for now.
//if (m_mode != MODE_I) {
// fatalerror("NEGATE_ACK command only valid in the Initiator state.");
//}
scsi_bus->ctrl_w(scsi_refid, 0, S_ACK);
return;
case COMMAND_CC_DISCONNECT:
LOGMASKED(LOG_COMMANDS, "%s: Disconnect Command\n", shortname());
scsi_bus->ctrl_w(scsi_refid, 0, S_ALL);
scsi_bus->ctrl_wait(scsi_refid, S_SEL|S_BSY|S_RST, S_ALL);
m_mode = MODE_D;
set_scsi_state(IDLE);
m_regs[AUXILIARY_STATUS] &= ~(AUXILIARY_STATUS_CIP | AUXILIARY_STATUS_BSY);
break;
case COMMAND_CC_SELECT:
case COMMAND_CC_SELECT_ATN:
LOGMASKED(LOG_COMMANDS, "%s: %s Command\n", shortname(), select_strings[cc - COMMAND_CC_SELECT_ATN]);
if (m_mode != MODE_D) {
fatalerror("Select commands only valid in the Disconnected state.");
}
set_scsi_state((ARB_WAIT_BUS_FREE << SUB_SHIFT) | DISC_SEL_ARBITRATION);
break;
case COMMAND_CC_SELECT_TRANSFER:
case COMMAND_CC_SELECT_ATN_TRANSFER:
LOGMASKED(LOG_COMMANDS, "%s: %s Command\n", shortname(), select_strings[cc - COMMAND_CC_SELECT_ATN]);
if (m_mode == MODE_D) {
set_scsi_state((ARB_WAIT_BUS_FREE << SUB_SHIFT) | DISC_SEL_ARBITRATION);
m_regs[COMMAND_PHASE] = COMMAND_PHASE_ZERO;
}
else if (m_mode == MODE_I) {
set_scsi_state(INIT_XFR);
}
else {
fatalerror("%s: Select-and-Transfer commands only valid in the Disconnected and Initiator states.", shortname());
}
set_command_length(cc);
load_transfer_count();
break;
case COMMAND_CC_TRANSFER_INFO:
LOGMASKED(LOG_COMMANDS, "%s: Transfer Info Command\n", shortname());
if (m_mode != MODE_I) {
fatalerror("%s: TRANSFER_INFO command only valid in the Initiator state.", shortname());
}
m_regs[AUXILIARY_STATUS] &= ~AUXILIARY_STATUS_DBR;
set_scsi_state(INIT_XFR);
set_command_length(COMMAND_CC_TRANSFER_INFO);
load_transfer_count();
m_xfr_phase = (scsi_bus->ctrl_r() & S_PHASE_MASK);
step(false);
return;
default:
fatalerror("%s: Unimplemented command: 0x%02x", shortname(), cc);
break;
}
delay(1);
}
ExportFFmpeg::ExportFFmpeg()
: ExportPlugin()
{
mEncFormatDesc = NULL; // describes our output file to libavformat
mEncAudioStream = NULL; // the output audio stream (may remain NULL)
#define MAX_AUDIO_PACKET_SIZE (128 * 1024)
mEncAudioFifoOutBufSiz = 0;
mSampleRate = 0;
mSupportsUTF8 = true;
PickFFmpegLibs(); // DropFFmpegLibs() call is in ExportFFmpeg destructor
int avfver = FFmpegLibsInst->ValidLibsLoaded() ? avformat_version() : 0;
int newfmt;
// Adds export types from the export type list
for (newfmt = 0; newfmt < FMT_LAST; newfmt++)
{
wxString shortname(ExportFFmpegOptions::fmts[newfmt].shortname);
//Don't hide export types when there's no av-libs, and don't hide FMT_OTHER
if (newfmt < FMT_OTHER && FFmpegLibsInst->ValidLibsLoaded())
{
// Format/Codec support is compiled in?
AVOutputFormat *avoformat = av_guess_format(shortname.mb_str(), NULL, NULL);
AVCodec *avcodec = avcodec_find_encoder(ExportFFmpegOptions::fmts[newfmt].codecid);
if (avoformat == NULL || avcodec == NULL)
{
ExportFFmpegOptions::fmts[newfmt].compiledIn = false;
continue;
}
}
int fmtindex = AddFormat() - 1;
SetFormat(ExportFFmpegOptions::fmts[newfmt].name,fmtindex);
AddExtension(ExportFFmpegOptions::fmts[newfmt].extension,fmtindex);
// For some types add other extensions
switch(newfmt)
{
case FMT_M4A:
AddExtension(wxString(wxT("3gp")),fmtindex);
AddExtension(wxString(wxT("m4r")),fmtindex);
AddExtension(wxString(wxT("mp4")),fmtindex);
break;
case FMT_WMA2:
AddExtension(wxString(wxT("asf")),fmtindex);
AddExtension(wxString(wxT("wmv")),fmtindex);
break;
default:
break;
}
SetMaxChannels(ExportFFmpegOptions::fmts[newfmt].maxchannels,fmtindex);
SetDescription(ExportFFmpegOptions::fmts[newfmt].description,fmtindex);
int canmeta = ExportFFmpegOptions::fmts[newfmt].canmetadata;
if (canmeta && (canmeta == AV_VERSION_INT(-1,-1,-1) || canmeta <= avfver))
{
SetCanMetaData(true,fmtindex);
}
else
{
SetCanMetaData(false,fmtindex);
}
}
}
void wd33c9x_base_device::step(bool timeout)
{
if (++m_step_count > 1) {
return;
}
const uint8_t cc = (m_regs[COMMAND] & COMMAND_CC);
const bool sat = (cc == COMMAND_CC_SELECT_TRANSFER || cc == COMMAND_CC_SELECT_ATN_TRANSFER);
uint32_t cycles = 0;
do {
const uint32_t ctrl = scsi_bus->ctrl_r();
const uint32_t data = scsi_bus->data_r();
m_step_count = 1;
LOGMASKED(LOG_STEP,
"%s: step - PHASE:%s BSY:%x SEL:%x REQ:%x ACK:%x ATN:%x RST:%x DATA:%x (%d.%d) %s\n",
shortname(),
phase_strings[ctrl & S_PHASE_MASK],
(ctrl & S_BSY) ? 1 : 0,
(ctrl & S_SEL) ? 1 : 0,
(ctrl & S_REQ) ? 1 : 0,
(ctrl & S_ACK) ? 1 : 0,
(ctrl & S_ATN) ? 1 : 0,
(ctrl & S_RST) ? 1 : 0,
data,
m_scsi_state & STATE_MASK, m_scsi_state >> SUB_SHIFT,
(timeout) ? "timeout" : "change"
);
if (m_mode == MODE_I) {
if (ctrl & S_BSY) {
if (ctrl & S_REQ) {
uint8_t xfr_phase = (ctrl & S_PHASE_MASK);
switch (m_scsi_state) {
case DISC_SEL_ARBITRATION:
m_xfr_phase = xfr_phase;
break;
case INIT_XFR_WAIT_REQ:
break;
default:
if (m_xfr_phase != xfr_phase) {
fatalerror("%s: Unexpected phase change during state.\n", shortname());
}
break;
}
}
}
else {
LOGMASKED(LOG_STATE, "%s: Target disconnected\n", shortname());
if (sat) {
switch (m_regs[COMMAND_PHASE]) {
case COMMAND_PHASE_DISCONNECT_MESSAGE:
set_scsi_state(FINISHED);
m_regs[COMMAND_PHASE] = COMMAND_PHASE_DISCONNECTED;
break;
case COMMAND_PHASE_COMMAND_COMPLETE:
if (m_regs[CONTROL] & CONTROL_EDI) {
set_scsi_state(FINISHED);
irq_fifo_push(SCSI_STATUS_SELECT_TRANSFER_SUCCESS);
}
break;
default:
fatalerror("%s: Unhandled command phase during Select-and-Transfer disconnect.\n", shortname());
break;
}
}
else {
set_scsi_state(FINISHED);
irq_fifo_push(SCSI_STATUS_DISCONNECT);
}
m_mode = MODE_D;
scsi_bus->ctrl_w(scsi_refid, 0, S_ALL);
scsi_bus->ctrl_wait(scsi_refid, S_SEL|S_BSY|S_RST, S_ALL);
continue;
}
}
switch (m_scsi_state & SUB_MASK ? m_scsi_state & SUB_MASK : m_scsi_state & STATE_MASK) {
case IDLE:
break;
case FINISHED:
set_scsi_state(IDLE);
m_regs[AUXILIARY_STATUS] &= ~(AUXILIARY_STATUS_CIP | AUXILIARY_STATUS_BSY);
update_irq();
break;
case ARB_WAIT_BUS_FREE << SUB_SHIFT:
if (timeout) {
if (!(ctrl & (S_BSY | S_SEL))) {
set_scsi_state_sub(ARB_CHECK_FREE);
}
cycles = 1;
}
break;
case ARB_CHECK_FREE << SUB_SHIFT:
if (timeout) {
uint8_t next_state;
if (ctrl & (S_BSY | S_SEL)) {
next_state = ARB_WAIT_BUS_FREE;
cycles = 1;
}
else {
scsi_bus->data_w(scsi_refid, 1 << scsi_id);
scsi_bus->ctrl_w(scsi_refid, S_BSY, S_BSY);
next_state = ARB_EXAMINE_BUS;
cycles = 1;
}
set_scsi_state_sub(next_state);
}
break;
case ARB_EXAMINE_BUS << SUB_SHIFT:
if (timeout) {
if (ctrl & S_SEL) {
scsi_bus->ctrl_w(scsi_refid, 0, S_BSY);
scsi_bus->data_w(scsi_refid, 0);
set_scsi_state_sub(ARB_WAIT_BUS_FREE);
}
else {
int win;
for (win = 7; win >=0 && !(data & (1 << win)); win--) {};
if (win == scsi_id) {
scsi_bus->ctrl_w(scsi_refid, S_SEL, S_SEL);
set_scsi_state_sub(ARB_ASSERT_SEL);
}
else {
scsi_bus->data_w(scsi_refid, 0);
scsi_bus->ctrl_w(scsi_refid, 0, S_ALL);
}
}
cycles = 1;
}
break;
case ARB_ASSERT_SEL << SUB_SHIFT:
if (timeout) {
scsi_bus->data_w(scsi_refid, (1 << scsi_id) | (1 << (m_regs[DESTINATION_ID] & DESTINATION_ID_DI)));
set_scsi_state_sub(ARB_SET_DEST);
cycles = 1;
}
break;
case ARB_SET_DEST << SUB_SHIFT:
if (timeout) {
scsi_bus->ctrl_w(scsi_refid, (cc == COMMAND_CC_SELECT_ATN || cc == COMMAND_CC_SELECT_ATN_TRANSFER) ? S_ATN : 0, S_ATN | S_BSY);
set_scsi_state_sub(ARB_RELEASE_BUSY);
cycles = 1;
}
break;
case ARB_RELEASE_BUSY << SUB_SHIFT:
if (timeout) {
if (ctrl & S_BSY) {
set_scsi_state_sub(ARB_DESKEW_WAIT);
if (cc == COMMAND_CC_RESELECT) {
scsi_bus->ctrl_w(scsi_refid, S_BSY, S_BSY);
}
cycles = 1;
}
else {
set_scsi_state_sub(ARB_TIMEOUT_BUSY);
cycles = 1;
}
}
break;
case ARB_DESKEW_WAIT << SUB_SHIFT:
if (timeout) {
scsi_bus->data_w(scsi_refid, 0);
scsi_bus->ctrl_w(scsi_refid, 0, S_SEL);
m_mode = (cc == COMMAND_CC_RESELECT) ? MODE_T : MODE_I;
set_scsi_state_sub(0);
++m_step_count;
}
break;
case ARB_TIMEOUT_BUSY << SUB_SHIFT:
if (timeout) {
scsi_bus->data_w(scsi_refid, 0);
set_scsi_state_sub(ARB_TIMEOUT_ABORT);
cycles = 1000;
}
else if (ctrl & S_BSY) {
set_scsi_state_sub(ARB_DESKEW_WAIT);
if (cc == COMMAND_CC_RESELECT) {
scsi_bus->ctrl_w(scsi_refid, S_BSY, S_BSY);
}
cycles = 1;
}
break;
case ARB_TIMEOUT_ABORT << SUB_SHIFT:
if (timeout) {
if (ctrl & S_BSY) {
set_scsi_state_sub(ARB_DESKEW_WAIT);
if (cc == COMMAND_CC_RESELECT) {
scsi_bus->ctrl_w(scsi_refid, S_BSY, S_BSY);
}
cycles = 1;
}
else {
scsi_bus->ctrl_w(scsi_refid, 0, S_ALL);
scsi_bus->ctrl_wait(scsi_refid, S_SEL|S_BSY|S_RST, S_ALL);
m_regs[AUXILIARY_STATUS] &= ~(AUXILIARY_STATUS_CIP | AUXILIARY_STATUS_BSY);
m_mode = MODE_D;
set_scsi_state(IDLE);
irq_fifo_push(SCSI_STATUS_SELECTION_TIMEOUT);
update_irq();
}
}
break;
case SEND_WAIT_SETTLE << SUB_SHIFT:
if (timeout) {
set_scsi_state_sub(SEND_WAIT_REQ_0);
++m_step_count;
}
break;
case SEND_WAIT_REQ_0 << SUB_SHIFT:
if (!(ctrl & S_REQ)) {
set_scsi_state_sub(0);
scsi_bus->data_w(scsi_refid, 0);
scsi_bus->ctrl_w(scsi_refid, 0, S_ACK);
if (sat) {
switch (m_xfr_phase) {
case S_PHASE_COMMAND:
++m_regs[COMMAND_PHASE];
break;
}
}
++m_step_count;
}
break;
case RECV_WAIT_REQ_1 << SUB_SHIFT:
if (ctrl & S_REQ) {
set_scsi_state_sub(RECV_WAIT_SETTLE);
cycles = 1;
}
break;
case RECV_WAIT_SETTLE << SUB_SHIFT:
if (timeout) {
if (sat) {
switch (m_xfr_phase) {
case S_PHASE_DATA_IN:
data_fifo_push(data);
if ((m_regs[CONTROL] & CONTROL_DM) != CONTROL_DM_POLLED) {
set_drq();
}
else {
decrement_transfer_count();
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
}
break;
case S_PHASE_STATUS:
m_regs[TARGET_LUN] = data;
m_regs[COMMAND_PHASE] = COMMAND_PHASE_STATUS_RECEIVED;
break;
case S_PHASE_MSG_IN:
data_fifo_push(data);
break;
default:
fatalerror("%s: Unexpected phase in RECV_WAIT_SETTLE.\n", shortname());
break;
}
}
else {
data_fifo_push(data);
if (m_xfr_phase == S_PHASE_DATA_IN && (m_regs[CONTROL] & CONTROL_DM) != CONTROL_DM_POLLED) {
set_drq();
}
else {
decrement_transfer_count();
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
}
}
set_scsi_state_sub(RECV_WAIT_REQ_0);
scsi_bus->ctrl_w(scsi_refid, S_ACK, S_ACK);
++m_step_count;
}
break;
case RECV_WAIT_REQ_0 << SUB_SHIFT:
if (!(ctrl & S_REQ)) {
set_scsi_state_sub(0);
++m_step_count;
}
break;
case DISC_SEL_ARBITRATION:
scsi_bus->ctrl_wait(scsi_refid, S_REQ, S_REQ);
if (cc == COMMAND_CC_SELECT || cc == COMMAND_CC_SELECT_ATN) {
set_scsi_state(FINISHED);
irq_fifo_push(SCSI_STATUS_SELECT_SUCCESS);
if (ctrl & S_REQ) {
irq_fifo_push(SCSI_STATUS_REQ | m_xfr_phase);
}
}
else {
set_scsi_state(INIT_XFR);
m_regs[COMMAND_PHASE] = COMMAND_PHASE_SELECTED;
}
++m_step_count;
break;
case INIT_XFR:
if (ctrl & S_REQ) {
switch (m_xfr_phase) {
case S_PHASE_DATA_OUT:
if ((m_regs[CONTROL] & CONTROL_DM) != CONTROL_DM_POLLED) {
while (!data_fifo_full() && m_transfer_count > 0) {
set_drq();
}
}
if (!data_fifo_empty()) {
set_scsi_state(INIT_XFR_WAIT_REQ);
cycles = send_byte();
}
else if ((m_regs[CONTROL] & CONTROL_DM) == CONTROL_DM_POLLED) {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
}
break;
case S_PHASE_COMMAND:
if (!data_fifo_empty()) {
uint32_t mask;
if (sat) {
mask = 0;
}
else {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
mask = (m_transfer_count == 0 && m_data_fifo_size == 1) ? S_ATN : 0;
}
set_scsi_state(INIT_XFR_WAIT_REQ);
cycles = send_byte(0, mask);
}
else if (!sat) {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
}
break;
case S_PHASE_MSG_OUT:
if (sat) {
data_fifo_push(get_msg_out());
}
if (!data_fifo_empty()) {
uint32_t mask;
if (sat) {
mask = S_ATN;
}
else {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
mask = (m_transfer_count == 0 && m_data_fifo_size == 1) ? S_ATN : 0;
}
set_scsi_state(INIT_XFR_WAIT_REQ);
cycles = send_byte(0, mask);
}
else if (!sat) {
m_regs[AUXILIARY_STATUS] |= AUXILIARY_STATUS_DBR;
}
break;
case S_PHASE_DATA_IN:
case S_PHASE_STATUS:
case S_PHASE_MSG_IN:
if (!data_fifo_full()) {
// if it's the last message byte, ACK remains asserted, terminate with function_complete()
//state = (m_xfr_phase == S_PHASE_MSG_IN && (!dma_command || tcounter == 1)) ? INIT_XFR_RECV_BYTE_NACK : INIT_XFR_RECV_BYTE_ACK;
scsi_bus->ctrl_wait(scsi_refid, S_REQ, S_REQ);
set_scsi_state((RECV_WAIT_REQ_1 << SUB_SHIFT) | INIT_XFR_RECV_BYTE_ACK);
if (ctrl & S_REQ) {
++m_step_count;
}
}
break;
default:
fatalerror("%s: Invalid phase during INIT_XFR.\n", shortname());
break;
}
}
break;
case INIT_XFR_WAIT_REQ:
if (ctrl & S_REQ) {
uint16_t next_state = m_scsi_state;
const uint8_t xfr_phase = (ctrl & S_PHASE_MASK);
switch ((m_xfr_phase << 3) | xfr_phase) {
case ((S_PHASE_MSG_OUT << 3) | S_PHASE_MSG_OUT):
case ((S_PHASE_COMMAND << 3) | S_PHASE_COMMAND):
case ((S_PHASE_MSG_IN << 3) | S_PHASE_MSG_IN):
next_state = INIT_XFR;
break;
case ((S_PHASE_DATA_IN << 3) | S_PHASE_DATA_IN):
case ((S_PHASE_DATA_OUT << 3) | S_PHASE_DATA_OUT):
if (sat || cc == COMMAND_CC_TRANSFER_INFO) {
if (m_transfer_count > 0 || (m_xfr_phase == S_PHASE_DATA_OUT && !data_fifo_empty())) {
next_state = INIT_XFR;
}
else {
next_state = FINISHED;
uint8_t scsi_status;
if (sat) {
m_regs[COMMAND_PHASE] = COMMAND_PHASE_TRANSFER_COUNT;
scsi_status = SCSI_STATUS_UNEXPECTED_PHASE;
}
else {
scsi_status = SCSI_STATUS_TRANSFER_SUCCESS;
}
irq_fifo_push(scsi_status | m_xfr_phase);
}
}
else {
fatalerror("%s: Unhandled command in data phase.\n", shortname());
next_state = FINISHED;
}
break;
case ((S_PHASE_MSG_OUT << 3) | S_PHASE_COMMAND):
case ((S_PHASE_COMMAND << 3) | S_PHASE_DATA_OUT):
case ((S_PHASE_COMMAND << 3) | S_PHASE_DATA_IN):
case ((S_PHASE_COMMAND << 3) | S_PHASE_STATUS):
case ((S_PHASE_COMMAND << 3) | S_PHASE_MSG_IN):
case ((S_PHASE_DATA_OUT << 3) | S_PHASE_STATUS):
case ((S_PHASE_DATA_IN << 3) | S_PHASE_STATUS):
case ((S_PHASE_STATUS << 3) | S_PHASE_MSG_IN):
if (!(m_xfr_phase & 1) && !data_fifo_empty()) {
fatalerror("%s: Data FIFO is not empty on phase transition.\n", shortname());
}
if (sat) {
switch (xfr_phase) {
case S_PHASE_MSG_OUT:
next_state = INIT_XFR;
break;
case S_PHASE_COMMAND:
next_state = INIT_XFR;
m_regs[COMMAND_PHASE] = COMMAND_PHASE_CP_BYTES_0;
LOGMASKED(LOG_COMMANDS, "%s: Sending Command:", shortname());
for (uint8_t i = 0; i < m_command_length; ++i) {
const uint8_t command_byte = m_regs[CDB_1 + i];
LOGMASKED(LOG_COMMANDS, " %02x", command_byte);
data_fifo_push(command_byte);
}
LOGMASKED(LOG_COMMANDS, " (%d)\n", m_transfer_count);
break;
case S_PHASE_DATA_OUT:
case S_PHASE_DATA_IN:
next_state = INIT_XFR;
break;
case S_PHASE_STATUS:
next_state = INIT_XFR;
m_regs[COMMAND_PHASE] = COMMAND_PHASE_RECEIVE_STATUS;
break;
case S_PHASE_MSG_IN:
next_state = INIT_XFR;
break;
default:
fatalerror("%s: Unhandled phase in Select-w/Atn-and-Transfer.\n", shortname());
next_state = FINISHED;
break;
}
}
else if (cc == COMMAND_CC_TRANSFER_INFO) {
next_state = FINISHED;
irq_fifo_push(SCSI_STATUS_TRANSFER_SUCCESS | xfr_phase);
}
else {
fatalerror("%s: Unhandled command in data phase.\n", shortname());
next_state = FINISHED;
}
break;
default:
fatalerror("%s: Unhandled phase transition in INIT_XFR_WAIT_REQ.\n", shortname());
next_state = FINISHED;
break;
}
if (next_state != m_scsi_state) {
set_scsi_state(next_state);
++m_step_count;
m_xfr_phase = xfr_phase;
}
}
break;
case INIT_XFR_RECV_BYTE_ACK:
if (sat && m_xfr_phase == S_PHASE_MSG_IN) {
const uint8_t msg = data_fifo_pop();
if (m_regs[COMMAND_PHASE] <= COMMAND_PHASE_CP_BYTES_C) {
switch (msg) {
case SM_SAVE_DATA_PTR:
set_scsi_state(FINISHED);
irq_fifo_push(SCSI_STATUS_SAVE_DATA_POINTERS);
m_regs[COMMAND_PHASE] = COMMAND_PHASE_SAVE_DATA_POINTER;
break;
case SM_DISCONNECT:
m_regs[COMMAND_PHASE] = COMMAND_PHASE_DISCONNECT_MESSAGE;
break;
default:
fatalerror("%s: Unhandled MSG_IN.\n", shortname());
break;
}
}
else if (m_regs[COMMAND_PHASE] < COMMAND_PHASE_COMMAND_COMPLETE) {
switch (msg) {
case SM_COMMAND_COMPLETE:
set_scsi_state(FINISHED);
irq_fifo_push(SCSI_STATUS_SELECT_TRANSFER_SUCCESS);
m_regs[COMMAND_PHASE] = COMMAND_PHASE_COMMAND_COMPLETE;
break;
default:
fatalerror("%s: Unhandled MSG_IN.\n", shortname());
break;
}
}
}
else {
set_scsi_state(INIT_XFR_WAIT_REQ);
}
scsi_bus->ctrl_w(scsi_refid, 0, S_ACK);
++m_step_count;
break;
default:
fatalerror("%s: Unhandled state in step.\n", shortname());
break;
}
timeout = false;
} while (--m_step_count);
if (cycles) {
delay(cycles);
}
}