void writeOverlappedPass(HANDLE handle, HANDLE myEvent, t_filesize position, const void * in,DWORD inBytes, abort_callback & abort) {
abort.check();
if (inBytes == 0) return;
OVERLAPPED ol = {};
fillOverlapped(ol, myEvent, position);
ResetEvent(myEvent);
DWORD bytesWritten;
SetLastError(NO_ERROR);
if (WriteFile( handle, in, inBytes, &bytesWritten, &ol)) {
// succeeded already?
if (bytesWritten != inBytes) throw exception_io();
return;
}
{
const DWORD code = GetLastError();
if (code != ERROR_IO_PENDING) exception_io_from_win32(code);
}
const HANDLE handles[] = {myEvent, abort.get_abort_event()};
SetLastError(NO_ERROR);
DWORD state = WaitForMultipleObjects(_countof(handles), handles, FALSE, INFINITE);
if (state == WAIT_OBJECT_0) {
try {
WIN32_IO_OP( GetOverlappedResult(handle,&ol,&bytesWritten,TRUE) );
} catch(...) {
CancelIo(handle);
throw;
}
if (bytesWritten != inBytes) throw exception_io();
return;
}
CancelIo(handle);
throw exception_aborted();
}
void run(threaded_process_status & p_status,abort_callback & p_abort) {
try {
const t_uint32 decode_flags = input_flag_no_seeking | input_flag_no_looping; // tell the decoders that we won't seek and that we don't want looping on formats that support looping.
input_helper input;
audio_hash.set_count(m_items.get_size());
for(t_size walk = 0; walk < m_items.get_size(); ++walk) {
p_abort.check(); // in case the input we're working with fails at doing this
p_status.set_progress(walk, m_items.get_size());
p_status.set_progress_secondary(0);
p_status.set_item_path( m_items[walk]->get_path() );
input.open(NULL, m_items[walk], decode_flags, p_abort);
double length;
{ // fetch the track length for proper dual progress display;
file_info_impl info;
// input.open should have preloaded relevant info, no need to query the input itself again.
// Regular get_info() may not retrieve freshly loaded info yet at this point (it will start giving the new info when relevant info change callbacks are dispatched); we need to use get_info_async.
if (m_items[walk]->get_info_async(info)) length = info.get_length();
else length = 0;
}
memset( &ctx, 0, sizeof( sha1_context ) );
sha1_starts( &ctx );
audio_chunk_impl_temporary l_chunk;
double decoded = 0;
while(input.run(l_chunk, p_abort)) { // main decode loop
sha1_update(&ctx,(unsigned char*)l_chunk.get_data(),l_chunk.get_data_length());
//m_peak = l_chunk.get_peak(m_peak);
if (length > 0) { // don't bother for unknown length tracks
decoded += l_chunk.get_duration();
if (decoded > length) decoded = length;
p_status.set_progress_secondary_float(decoded / length);
}
p_abort.check(); // in case the input we're working with fails at doing this
}
unsigned char sha1sum[20] ={0};
sha1_finish(&ctx,sha1sum);
pfc::string_formatter msg;
for(int i = 0; i < 20; i++ )
{
msg <<pfc::format_hex(sha1sum[i]);
audio_hash[walk] =msg;
}
}
} catch(std::exception const & e) {
m_failMsg = e.what();
}
}
void CMutex::AcquireByHandle( HANDLE hMutex, abort_callback & aborter ) {
SetLastError(0);
HANDLE hWait[2] = {hMutex, aborter.get_abort_event()};
switch(WaitForMultipleObjects( 2, hWait, FALSE, INFINITE ) ) {
case WAIT_FAILED:
WIN32_OP_FAIL_CRITICAL("WaitForSingleObject");
case WAIT_OBJECT_0:
return;
case WAIT_OBJECT_0 + 1:
PFC_ASSERT( aborter.is_aborting() );
throw exception_aborted();
default:
uBugCheck();
}
}
t_size MultiWaitAbortable_MsgLoop(const HANDLE * ev, t_size evCount, abort_callback & abort) {
pfc::array_t<HANDLE> handles; handles.set_size(evCount + 1);
handles[0] = abort.get_abort_event();
pfc::memcpy_t(handles.get_ptr() + 1, ev, evCount);
for(;;) {
SetLastError(0);
const DWORD status = MsgWaitForMultipleObjects(handles.get_count(), handles.get_ptr(), FALSE, INFINITE, QS_ALLINPUT);
switch(status) {
case WAIT_TIMEOUT:
PFC_ASSERT(!"How did we get here?");
uBugCheck();
case WAIT_OBJECT_0:
throw exception_aborted();
case WAIT_FAILED:
WIN32_OP_FAIL();
default:
{
t_size index = (t_size)(status - (WAIT_OBJECT_0 + 1));
if (index == evCount) {
ProcessPendingMessages();
} else if (index < evCount) {
return index;
} else {
uBugCheck();
}
}
}
}
}
bool input_helper::open_path(file::ptr p_filehint,const char * path,abort_callback & p_abort,bool p_from_redirect,bool p_skip_hints) {
p_abort.check();
if (!need_file_reopen(path)) return false;
m_input.release();
service_ptr_t<file> l_file = p_filehint;
process_fullbuffer(l_file,path,m_fullbuffer,p_abort);
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(m_input,l_file,path,p_abort,p_from_redirect)
);
if (!p_skip_hints) {
try {
static_api_ptr_t<metadb_io>()->hint_reader(m_input.get_ptr(),path,p_abort);
} catch(exception_io_data) {
//Don't fail to decode when this barfs, might be barfing when reading info from another subsong than the one we're trying to decode etc.
m_input.release();
if (l_file.is_valid()) l_file->reopen(p_abort);
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(m_input,l_file,path,p_abort,p_from_redirect)
);
}
}
m_path = path;
return true;
}
void input_helper::open(service_ptr_t<file> p_filehint,const playable_location & p_location,unsigned p_flags,abort_callback & p_abort,bool p_from_redirect,bool p_skip_hints) {
p_abort.check();
if (m_input.is_empty() || metadb::path_compare(p_location.get_path(),m_path) != 0)
{
m_input.release();
service_ptr_t<file> l_file = p_filehint;
process_fullbuffer(l_file,p_location.get_path(),m_fullbuffer,p_abort);
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(m_input,l_file,p_location.get_path(),p_abort,p_from_redirect)
);
if (!p_skip_hints) {
try {
static_api_ptr_t<metadb_io>()->hint_reader(m_input.get_ptr(),p_location.get_path(),p_abort);
} catch(exception_io_data) {
//don't fail to decode when this barfs
m_input.release();
if (l_file.is_valid()) l_file->reopen(p_abort);
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(m_input,l_file,p_location.get_path(),p_abort,p_from_redirect)
);
}
}
m_path = p_location.get_path();
}
TRACK_CODE("input_decoder::initialize",m_input->initialize(p_location.get_subsong_index(),p_flags,p_abort));
}
void stream_writer_buffered::write(const void * p_buffer,t_size p_bytes,abort_callback & p_abort) {
p_abort.check_e();
const char * source = (const char*)p_buffer;
t_size source_remaining = p_bytes;
const t_size buffer_size = m_buffer.get_size();
if (source_remaining >= buffer_size)
{
flush(p_abort);
m_base->write_object(source,source_remaining,p_abort);
return;
}
if (m_buffer_ptr + source_remaining >= buffer_size)
{
t_size delta = buffer_size - m_buffer_ptr;
memcpy(m_buffer.get_ptr() + m_buffer_ptr, source,delta);
source += delta;
source_remaining -= delta;
m_buffer_ptr += delta;
flush(p_abort);
}
memcpy(m_buffer.get_ptr() + m_buffer_ptr, source,source_remaining);
m_buffer_ptr += source_remaining;
}
void seekabilizer::seek(t_filesize p_position,abort_callback & p_abort) {
assert(m_position_base >= m_buffer.get_depth());
p_abort.check_e();
if (m_size != filesize_invalid && p_position > m_size) throw exception_io_seek_out_of_range();
t_filesize lowest = m_position_base - m_buffer.get_depth();
if (p_position < lowest) {
if (m_file->can_seek()) {
m_buffer.reset();
t_filesize target = p_position;
t_size delta = m_buffer.get_max_depth();
if (delta > backread_on_seek) delta = backread_on_seek;
if (target > delta) target -= delta;
else target = 0;
m_file->seek(target,p_abort);
m_position_base = target;
}
else {
m_buffer.reset();
m_file->reopen(p_abort);
m_position_base = 0;
}
}
m_position = p_position;
}
bool WaitAbortable_MsgLoop(HANDLE ev, abort_callback & abort, DWORD timeout /*must not be INFINITE*/) {
PFC_ASSERT( timeout != INFINITE );
const DWORD entry = GetTickCount();
const HANDLE handles[2] = {ev, abort.get_abort_event()};
for(;;) {
const DWORD done = GetTickCount() - entry;
if (done >= timeout) return false;
SetLastError(0);
const DWORD status = MsgWaitForMultipleObjects(2, handles, FALSE, timeout - done, QS_ALLINPUT);
switch(status) {
case WAIT_TIMEOUT:
return false;
case WAIT_OBJECT_0:
return true;
case WAIT_OBJECT_0 + 1:
throw exception_aborted();
case WAIT_OBJECT_0 + 2:
ProcessPendingMessages();
break;
case WAIT_FAILED:
WIN32_OP_FAIL();
default:
uBugCheck();
}
}
}
pfc::list_t<metadb_handle_ptr> get_sorted_playlist(const pfc::list_base_const_t<metadb_handle_ptr> &data, threaded_process_status &p_status, abort_callback &p_abort) {
std::multimap<int, metadb_handle_ptr, std::greater<int>> temp;
std::multimap<int, metadb_handle_ptr, std::greater<int>>::iterator it;
pfc::list_t<metadb_handle_ptr> result;
pfc::lores_timer timer;
pfc::string8 message, msg;
int size = data.get_count();
for (int i = 0; i < size; i++) {
message.reset();
message << "Track " << i + 1 << " of " << size;
p_status.set_item(message);
p_status.set_progress(i + 1, size);
timer.start();
const metadb_handle_ptr track = data[i];
int count = get_track_count(track, p_abort);
msg.reset();
msg << count;
console::print(msg);
// don't make more than 5 requests per second
// (averaged over a 5 minute period)
if (timer.query() < 0.2) {
p_abort.sleep(0.2);
}
if (i && (i % 100 == 0)) {
p_abort.sleep(10);
}
if (count > 0) {
temp.insert(std::pair<int, metadb_handle_ptr>(count, track));
} else {
temp.insert(std::pair<int, metadb_handle_ptr>(0, track));
}
}
for (it = temp.begin(); it != temp.end(); it++) {
metadb_handle_ptr track = it->second;
result.add_item(track);
}
return result;
}
HANDLE createFile(LPCTSTR lpFileName, DWORD dwDesiredAccess, DWORD dwShareMode, LPSECURITY_ATTRIBUTES lpSecurityAttributes, DWORD dwCreationDisposition, DWORD dwFlagsAndAttributes, HANDLE hTemplateFile, abort_callback & abort) {
abort.check();
return CreateFile(lpFileName, dwDesiredAccess, dwShareMode, lpSecurityAttributes, dwCreationDisposition, dwFlagsAndAttributes, hTemplateFile);
// CancelSynchronousIo() doesn't f*****g work. Useless.
#if 0
pCancelSynchronousIo_t pCancelSynchronousIo = (pCancelSynchronousIo_t) GetProcAddress(GetModuleHandle(TEXT("kernel32.dll")), "CancelSynchronousIo");
if (pCancelSynchronousIo == NULL) {
#ifdef _DEBUG
uDebugLog() << "Async CreateFile unavailable - using regular";
#endif
return CreateFile(lpFileName, dwDesiredAccess, dwShareMode, lpSecurityAttributes, dwCreationDisposition, dwFlagsAndAttributes, hTemplateFile);
} else {
#ifdef _DEBUG
uDebugLog() << "Starting async CreateFile...";
pfc::hires_timer t; t.start();
#endif
createFileData_t data = {lpFileName, dwDesiredAccess, dwShareMode, lpSecurityAttributes, dwCreationDisposition, dwFlagsAndAttributes, hTemplateFile, NULL, 0};
HANDLE hThread = (HANDLE) _beginthreadex(NULL, 0, createFileProc, &data, 0, NULL);
HANDLE waitHandles[2] = {hThread, abort.get_abort_event()};
switch(WaitForMultipleObjects(2, waitHandles, FALSE, INFINITE)) {
case WAIT_OBJECT_0: // succeeded
break;
case WAIT_OBJECT_0 + 1: // abort
#ifdef _DEBUG
uDebugLog() << "Aborting async CreateFile...";
#endif
pCancelSynchronousIo(hThread);
WaitForSingleObject(hThread, INFINITE);
break;
default:
uBugCheck();
}
CloseHandle(hThread);
SetLastError(data.dwErrorCode);
#ifdef _DEBUG
uDebugLog() << "Async CreateFile completed in " << pfc::format_time_ex(t.query(), 6) << ", status: " << (uint32_t) data.dwErrorCode;
#endif
if (abort.is_aborting()) {
if (data.hResult != INVALID_HANDLE_VALUE) CloseHandle(data.hResult);
throw exception_aborted();
}
return data.hResult;
}
#endif
}
DWORD readOverlappedPass(HANDLE handle, HANDLE myEvent, t_filesize position, void * out, DWORD outBytes, abort_callback & abort) {
abort.check();
if (outBytes == 0) return 0;
OVERLAPPED ol = {};
fillOverlapped(ol, myEvent, position);
ResetEvent(myEvent);
DWORD bytesDone;
SetLastError(NO_ERROR);
if (ReadFile( handle, out, outBytes, &bytesDone, &ol)) {
// succeeded already?
return bytesDone;
}
{
const DWORD code = GetLastError();
switch(code) {
case ERROR_HANDLE_EOF:
case ERROR_BROKEN_PIPE:
return 0;
case ERROR_IO_PENDING:
break; // continue
default:
exception_io_from_win32(code);
};
}
const HANDLE handles[] = {myEvent, abort.get_abort_event()};
SetLastError(NO_ERROR);
DWORD state = WaitForMultipleObjects(_countof(handles), handles, FALSE, INFINITE);
if (state == WAIT_OBJECT_0) {
SetLastError(NO_ERROR);
if (!GetOverlappedResult(handle,&ol,&bytesDone,TRUE)) {
const DWORD code = GetLastError();
if (code == ERROR_HANDLE_EOF || code == ERROR_BROKEN_PIPE) bytesDone = 0;
else {
CancelIo(handle);
exception_io_from_win32(code);
}
}
return bytesDone;
}
CancelIo(handle);
throw exception_aborted();
}
t_size seekabilizer::read(void * p_buffer,t_size p_bytes,abort_callback & p_abort) {
p_abort.check_e();
if (m_position > m_position_base + pfc::max_t<t_size>(m_buffer.get_max_depth(),backread_on_seek) && m_file->can_seek()) {
m_buffer.reset();
t_filesize target = m_position;
if (target < backread_on_seek) target = 0;
else target -= backread_on_seek;
m_file->seek(target,p_abort);
m_position_base = target;
}
//seek ahead
while(m_position > m_position_base) {
enum {tempsize = 1024};
t_uint8 temp[tempsize];
t_size delta = (t_size) pfc::min_t<t_filesize>(tempsize,m_position - m_position_base);
t_size bytes_read = 0;
bytes_read = m_file->read(temp,delta,p_abort);
m_buffer.write(temp,bytes_read);
m_position_base += bytes_read;
if (bytes_read < delta) {
return 0;
}
}
t_size done = 0;
t_uint8 * targetptr = (t_uint8*) p_buffer;
//try to read backbuffer
if (m_position < m_position_base) {
if (m_position_base - m_position > (t_filesize)m_buffer.get_depth()) throw exception_io_seek_out_of_range();
t_size backread_depth = (t_size) (m_position_base - m_position);
t_size delta = pfc::min_t<t_size>(backread_depth,p_bytes-done);
m_buffer.read(backread_depth,targetptr,delta);
done += delta;
m_position += delta;
}
//regular read
if (done < p_bytes)
{
t_size bytes_read;
bytes_read = m_file->read(targetptr+done,p_bytes-done,p_abort);
m_buffer.write(targetptr+done,bytes_read);
done += bytes_read;
m_position += bytes_read;
m_position_base += bytes_read;
}
return done;
}
t_size reader_membuffer_base::read(void * p_buffer,t_size p_bytes,abort_callback & p_abort) {
p_abort.check_e();
t_size max = get_buffer_size();
if (max < m_offset) uBugCheck();
max -= m_offset;
t_size delta = p_bytes;
if (delta > max) delta = max;
memcpy(p_buffer,(char*)get_buffer() + m_offset,delta);
m_offset += delta;
return delta;
}
mutexScope::mutexScope(HANDLE hMutex_, abort_callback & abort) : hMutex(hMutex_) {
HANDLE h[2] = {hMutex, abort.get_abort_event()};
switch( WaitForMultipleObjects(2, h, FALSE, INFINITE) ) {
case WAIT_OBJECT_0:
break; // and enter
case WAIT_OBJECT_0+1:
throw exception_aborted();
default:
uBugCheck();
}
}
void input_entry::g_open_for_info_write_timeout(service_ptr_t<input_info_writer> & p_instance,service_ptr_t<file> p_filehint,const char * p_path,abort_callback & p_abort,double p_timeout,bool p_from_redirect) {
pfc::lores_timer timer;
timer.start();
for(;;) {
try {
g_open_for_info_write(p_instance,p_filehint,p_path,p_abort,p_from_redirect);
break;
} catch(exception_io_sharing_violation) {
if (timer.query() > p_timeout) throw;
p_abort.sleep(0.01);
}
}
}
bool directory_callback_impl::on_entry(filesystem * owner,abort_callback & p_abort,const char * url,bool is_subdirectory,const t_filestats & p_stats) {
p_abort.check_e();
if (is_subdirectory) {
if (m_recur) {
try {
owner->list_directory(url,*this,p_abort);
} catch(exception_io const &) {}
}
} else {
m_data.add_item(pfc::rcnew_t<t_entry>(url,p_stats));
}
return true;
}
void stream_reader_chunk::flush(abort_callback & p_abort) {
while(!m_eof) {
p_abort.check_e();
t_uint8 temp;
m_reader->read_lendian_t(temp,p_abort);
m_buffer_size = temp;
if (temp != sizeof(m_buffer)) m_eof = true;
m_buffer_state = 0;
if (m_buffer_size>0) {
m_reader->skip_object(m_buffer_size,p_abort);
}
}
}
t_filesize file::g_transfer(stream_reader * p_src,stream_writer * p_dst,t_filesize p_bytes,abort_callback & p_abort) {
enum {BUFSIZE = 1024*1024*8};
pfc::array_t<t_uint8> temp;
temp.set_size((t_size)pfc::min_t<t_filesize>(BUFSIZE,p_bytes));
void* ptr = temp.get_ptr();
t_filesize done = 0;
while(done<p_bytes) {
p_abort.check_e();
t_size delta = (t_size)pfc::min_t<t_filesize>(BUFSIZE,p_bytes-done);
delta = p_src->read(ptr,delta,p_abort);
if (delta<=0) break;
p_dst->write(ptr,delta,p_abort);
done += delta;
}
return done;
}
static void index_tracks_helper(const char * p_path,const service_ptr_t<file> & p_reader,const t_filestats & p_stats,playlist_loader_callback::t_entry_type p_type,playlist_loader_callback::ptr p_callback, abort_callback & p_abort,bool & p_got_input)
{
TRACK_CALL_TEXT("index_tracks_helper");
if (p_reader.is_empty() && filesystem::g_is_remote_safe(p_path))
{
TRACK_CALL_TEXT("remote");
metadb_handle_ptr handle;
p_callback->handle_create(handle,make_playable_location(p_path,0));
p_got_input = true;
p_callback->on_entry(handle,p_type,p_stats,true);
} else {
TRACK_CALL_TEXT("hintable");
service_ptr_t<input_info_reader> instance;
input_entry::g_open_for_info_read(instance,p_reader,p_path,p_abort);
t_filestats stats = instance->get_file_stats(p_abort);
t_uint32 subsong,subsong_count = instance->get_subsong_count();
bool bInfoGetError = false;
for(subsong=0;subsong<subsong_count;subsong++)
{
TRACK_CALL_TEXT("subsong-loop");
p_abort.check();
metadb_handle_ptr handle;
t_uint32 index = instance->get_subsong(subsong);
p_callback->handle_create(handle,make_playable_location(p_path,index));
p_got_input = true;
if (! bInfoGetError && p_callback->want_info(handle,p_type,stats,true) )
{
file_info_impl info;
try {
TRACK_CODE("get_info",instance->get_info(index,info,p_abort));
} catch(std::exception const & e) {
bInfoGetError = true;
}
p_callback->on_entry_info(handle,p_type,stats,info,true);
}
else
{
p_callback->on_entry(handle,p_type,stats,true);
}
}
}
}
bool WaitAbortable(HANDLE ev, abort_callback & abort, DWORD timeout) {
const HANDLE handles[2] = {ev, abort.get_abort_event()};
SetLastError(0);
const DWORD status = WaitForMultipleObjects(2, handles, FALSE, timeout);
switch(status) {
case WAIT_TIMEOUT:
PFC_ASSERT( timeout != INFINITE );
return false;
case WAIT_OBJECT_0:
return true;
case WAIT_OBJECT_0 + 1:
throw exception_aborted();
case WAIT_FAILED:
WIN32_OP_FAIL();
default:
uBugCheck();
}
}
void SleepAbortable_MsgLoop(abort_callback & abort, DWORD timeout /*must not be INFINITE*/) {
PFC_ASSERT( timeout != INFINITE );
const DWORD entry = GetTickCount();
const HANDLE handles[1] = {abort.get_abort_event()};
for(;;) {
const DWORD done = GetTickCount() - entry;
if (done >= timeout) return;
SetLastError(0);
const DWORD status = MsgWaitForMultipleObjects(1, handles, FALSE, timeout - done, QS_ALLINPUT);
switch(status) {
case WAIT_TIMEOUT:
return;
case WAIT_OBJECT_0:
throw exception_aborted();
case WAIT_OBJECT_0 + 1:
ProcessPendingMessages();
default:
throw exception_win32(GetLastError());
}
}
}
static bool grab_items_by_path(pfc::list_base_t<metadb_handle_ptr> & p_out,const char * p_path,abort_callback & p_abort)
{
try {
pfc::string8 path;
filesystem::g_get_canonical_path(p_path,path);
p_out.remove_all();
service_ptr_t<input_info_reader> reader;
input_entry::g_open_for_info_read(reader,0,path,p_abort);
static_api_ptr_t<metadb> l_metadb;
const t_uint32 count = reader->get_subsong_count();
for(t_uint32 n=0;n<count;n++) {
p_abort.check_e();
metadb_handle_ptr ptr;
l_metadb->handle_create(ptr,make_playable_location(path,reader->get_subsong(n)));
p_out.add_item(ptr);
}
return p_out.get_count() > 0;
} catch(std::exception const &) {return false;}
}
void open_path_helper(input_decoder::ptr & p_input, file::ptr p_file, const char * path,abort_callback & p_abort,bool p_from_redirect,bool p_skip_hints) {
p_abort.check();
p_input.release();
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(p_input,p_file,path,p_abort,p_from_redirect)
);
if (!p_skip_hints) {
try {
static_api_ptr_t<metadb_io>()->hint_reader(p_input.get_ptr(),path,p_abort);
} catch(exception_io_data) {
//Don't fail to decode when this barfs, might be barfing when reading info from another subsong than the one we're trying to decode etc.
p_input.release();
if (p_file.is_valid()) p_file->reopen(p_abort);
TRACK_CODE("input_entry::g_open_for_decoding",
input_entry::g_open_for_decoding(p_input,p_file,path,p_abort,p_from_redirect)
);
}
}
}
t_size stream_reader_buffered::read(void * p_buffer,t_size p_bytes,abort_callback & p_abort) {
if (p_bytes <= m_bufferRemaining) {
memcpy( p_buffer, m_bufferPtr, p_bytes );
m_bufferRemaining -= p_bytes;
m_bufferPtr += p_bytes;
return p_bytes;
}
p_abort.check();
char * output = (char*) p_buffer;
t_size output_ptr = 0;
while(output_ptr < p_bytes) {
{
t_size delta = pfc::min_t(p_bytes - output_ptr, m_bufferRemaining);
if (delta > 0)
{
memcpy(output + output_ptr, m_bufferPtr, delta);
output_ptr += delta;
m_bufferPtr += delta;
m_bufferRemaining -= delta;
}
}
if (m_bufferRemaining == 0)
{
t_size bytes_read;
bytes_read = m_base->read(m_buffer.get_ptr(), m_buffer.get_size(), p_abort);
m_bufferPtr = m_buffer.get_ptr();
m_bufferRemaining = bytes_read;
if (m_bufferRemaining == 0) break;
}
}
return output_ptr;
}
void WaitAbortable_MsgLoop(HANDLE ev, abort_callback & abort) {
const HANDLE handles[2] = {ev, abort.get_abort_event()};
for(;;) {
SetLastError(0);
const DWORD status = MsgWaitForMultipleObjects(2, handles, FALSE, INFINITE, QS_ALLINPUT);
switch(status) {
case WAIT_TIMEOUT:
PFC_ASSERT(!"How did we get here?");
uBugCheck();
case WAIT_OBJECT_0:
return;
case WAIT_OBJECT_0 + 1:
throw exception_aborted();
case WAIT_OBJECT_0 + 2:
ProcessPendingMessages();
break;
case WAIT_FAILED:
WIN32_OP_FAIL();
default:
uBugCheck();
}
}
}
static void track_indexer__g_get_tracks_wrap(const char * p_path,const service_ptr_t<file> & p_reader,const t_filestats & p_stats,playlist_loader_callback::t_entry_type p_type,playlist_loader_callback::ptr p_callback, abort_callback & p_abort) {
bool got_input = false;
bool fail = false;
try {
index_tracks_helper(p_path,p_reader,p_stats,p_type,p_callback,p_abort, got_input);
} catch(exception_aborted) {
throw;
} catch(exception_io_unsupported_format) {
fail = true;
} catch(std::exception const & e) {
fail = true;
console::formatter() << "could not enumerate tracks (" << e << ") on:\n" << file_path_display(p_path);
}
if (fail) {
if (!got_input && !p_abort.is_aborting()) {
if (p_type == playlist_loader_callback::entry_user_requested)
{
metadb_handle_ptr handle;
p_callback->handle_create(handle,make_playable_location(p_path,0));
p_callback->on_entry(handle,p_type,p_stats,true);
}
}
}
}
void reader_membuffer_base::seek(t_filesize position,abort_callback & p_abort) {
p_abort.check_e();
t_filesize max = get_buffer_size();
if (position == filesize_invalid || position > max) throw exception_io_seek_out_of_range();
m_offset = (t_size)position;
}
void load_database_t::load_cache(HWND wnd, ipod_device_ptr_ref_t p_ipod, bool b_CheckIfFilesChanged, threaded_process_v2_t & p_status, abort_callback & p_abort)
{
pfc::string8 base;
p_ipod->get_root_path(base);
metadb_handle_list handlestoread(m_handles);
pfc::string8 cachePath = base;
cachePath << "metadata_cache.fpl";
//We want to hint from main thread to avoid annoyances
static_api_ptr_t<main_thread_callback_manager> p_main_thread;
p_status.update_text("Loading metadata cache");
service_ptr_t<t_main_thread_load_cache_v2_t> p_cache_loader = new service_impl_t<t_main_thread_load_cache_v2_t>
(base);
p_cache_loader->callback_run();
//p_main_thread->add_callback(p_cache_loader);
if (!p_cache_loader->m_signal.wait_for(-1))
throw pfc::exception("Cache read timeout!");
if (!p_cache_loader->m_ret)
throw pfc::exception(pfc::string8() << "Error reading metadata cache: " << p_cache_loader->m_error);
p_status.update_text("Checking files for changes");
//pfc::hires_timer timer2;
//timer2.start();
t_size n = handlestoread.get_count(), count = n;
for (; n; n--)
{
if (p_ipod->mobile || !b_CheckIfFilesChanged)
{
if (handlestoread[n - 1]->is_info_loaded_async())
handlestoread.remove_by_idx(n - 1);
m_tracks[n - 1]->m_runtime_filestats.m_timestamp = filetimestamp_invalid;
if (m_tracks[n - 1]->original_timestamp_valid)
m_tracks[n - 1]->m_runtime_filestats.m_timestamp = m_tracks[n - 1]->original_timestamp;
else if (m_tracks[n - 1]->lastmodifiedtime)
m_tracks[n - 1]->m_runtime_filestats.m_timestamp = filetime_time_from_appletime(m_tracks[n - 1]->lastmodifiedtime);
m_tracks[n - 1]->m_runtime_filestats.m_size = m_tracks[n - 1]->size;
}
else
{
if (true)
{
if (n % 20 == 0)
p_abort.check();
t_filestats stats = handlestoread[n - 1]->get_filestats();
const char * path = handlestoread[n - 1]->get_path();
if (!stricmp_utf8_max(path, "file://", 7))
{
path += 7;
win32::handle_ptr_t p_file =
CreateFile(pfc::stringcvt::string_os_from_utf8(path), FILE_READ_ATTRIBUTES, FILE_SHARE_READ, NULL, OPEN_EXISTING, NULL, NULL);
if (p_file.is_valid())
{
t_filestats newstats = filestats_invalid;
GetFileSizeEx(p_file, (PLARGE_INTEGER)&newstats.m_size);
GetFileTime(p_file, NULL, NULL, (LPFILETIME)&newstats.m_timestamp);
m_tracks[n - 1]->m_runtime_filestats = newstats;
if (handlestoread[n - 1]->is_info_loaded_async())
{
t_uint64 hour = 60 * 60;
hour *= 10000000;
if (stats.m_size == newstats.m_size && (stats.m_timestamp == newstats.m_timestamp || _abs64(newstats.m_timestamp - stats.m_timestamp) == hour) && newstats.m_size != filesize_invalid && newstats.m_timestamp != filetimestamp_invalid)
handlestoread.remove_by_idx(n - 1);
}
}
}
}
}
p_status.update_progress_subpart_helper(count - n + 1, count);
}
//console::formatter() << "info checked in: " << pfc::format_time_ex(timer2.query(),6);
if (handlestoread.get_count())
{
p_status.update_text("Loading file info");
//static_api_ptr_t<main_thread_callback_manager> p_main_thread;
service_ptr_t<t_main_thread_scan_file_info> p_info_loader = new service_impl_t<t_main_thread_scan_file_info>
(handlestoread, metadb_io::load_info_force, wnd);
p_main_thread->add_callback(p_info_loader);
if (!p_info_loader->m_signal.wait_for(-1))
throw pfc::exception("File info reading timeout!");
if (p_info_loader->m_ret == metadb_io::load_info_aborted)
throw pfc::exception("File info read was aborted");
}
p_abort.check();
}
/** Does /not/ throw exception_io_data, unlike normal */
pfc::string8 SpotifySession::waitForLogin(abort_callback & p_abort) {
while (WAIT_OBJECT_0 != WaitForSingleObject(loggedInEvent, 200))
if (p_abort.is_aborting())
return "user aborted";
return loginResult;
}
