void Compositor::setRecording(bool value)
{
unsigned int before = recording();
if (!value && mRecorderCounter > 0)
mRecorderCounter--;
else
mRecorderCounter++;
if (before != recording())
recordingChanged();
}
void post_execve(long *return_value, syscall_args_t *args)
{
process_t *process = processes[current->pid];
#if 0
monitor_t *monitor = process->monitor;
#endif
VVDLOG("execve() returned");
#if 0
if (*return_value >= 0)
{
VDLOG("Notifying user space of COUNTER_PATCH");
/* Patch process image */
down(&(monitor->data_write_complete_sem));
monitor->ready_data.type = COUNTER_PATCH;
monitor->ready_data.size = 0;
up(&(monitor->data_available_sem));
kill_proc(current->pid, SIGSTOP, 1);
/* Wait for patch to complete */
down(&(monitor->data_write_complete_sem));
monitor->ready_data.type = NO_DATA;
up(&(monitor->data_available_sem));
}
#endif
if (recording(process))
{
write_syscall_log_entry(__NR_execve, *return_value, NULL, 0);
}
}
int snd_StopRecording(void)
{
{
Synchronized<es::Monitor*> method(monitorRecordState);
recordState.inProgress = false;
}
{
Synchronized<es::Monitor*> recording(monitorRecording);
recordState.bufSizeInBytes = 0;
recordState.maxRecordSize = 0;
recordState.stereo = 0;
recordState.bytesPerSample = 0;
recordState.outputBytesPerSample = 0;
recordState.dataFormat = 0;
recordState.head = NULL;
recordState.tail = NULL;
recordState.buffer = NULL;
recordState.next = NULL;
recordState.nextRecordSize = 0;
recordState.recorded = 0;
recordState.recordSemaIndex = 0;
recordState.open = false;
delete [] recordState.buffer;
}
return true;
}
void TrainSamplePage::setupUi()
{
setSizePolicy(QSizePolicy::Expanding, QSizePolicy::Expanding);
QString title = i18nc("%1 is current page index, %2 is max page index", "Page %1 of %2", m_thisPage, m_maxPage);
setTitle(m_name+": "+title);
QVBoxLayout *lay = new QVBoxLayout(this);
QLabel *desc = new QLabel(i18n("Please record the Text below."
"\n\nTip: Leave about one to two seconds \"silence\" before and after you read "
"the text for best results.\n"), this);
desc->setWordWrap(true);
lay->addWidget(desc);
if (recorder) recorder->deleteLater();
QList<SimonSound::DeviceConfiguration> forcedDevs;
if (m_forcedDevices) forcedDevs = m_forcedDevices->buildDeviceList();
recorder = new RecWidget("", prompt,
m_directory+fileName, false, this, forcedDevs);
lay->addWidget(recorder);
connect(recorder, SIGNAL(recording()), this, SIGNAL(completeChanged()));
connect(recorder, SIGNAL(recordingFinished()), this, SIGNAL(completeChanged()));
connect(recorder, SIGNAL(sampleDeleted()), this, SIGNAL(completeChanged()));
}
void FileRecorder::advance() {
if(!recording())
return;
int len = _manager.pos() - _oldPos;
if(_bufsize < len) {
delete[] _buf;
_buf = new int16_t[_nchan*len];
_bufsize = len;
}
int chani = 0;
for(unsigned int i = 0; i < _manager.recordingDevices().size(); i++) {
if(_manager.recordingDevices()[i].bound) {
_manager.getData(i, _oldPos, len, _buf+chani*_bufsize);
chani++;
}
}
for(int i = 0; i < len; i++) {
for(int j = 0; j < _nchan; j++)
put16(_buf[i+j*_bufsize], _file);
}
_oldPos = _manager.pos();
}
static void bench_record(SkPicture* src, const char* name, SkBBHFactory* bbhFactory) {
BenchTimer timer;
timer.start();
const int width = src ? src->width() : FLAGS_nullSize;
const int height = src ? src->height() : FLAGS_nullSize;
for (int i = 0; i < FLAGS_loops; i++) {
if (FLAGS_skr) {
EXPERIMENTAL::SkRecording recording(width, height);
if (NULL != src) {
src->draw(recording.canvas());
}
// Release and delete the SkPlayback so that recording optimizes its SkRecord.
SkDELETE(recording.releasePlayback());
} else {
SkPictureRecorder recorder;
SkCanvas* canvas = recorder.beginRecording(width, height, bbhFactory, FLAGS_flags);
if (NULL != src) {
src->draw(canvas);
}
if (FLAGS_endRecording) {
SkAutoTUnref<SkPicture> dst(recorder.endRecording());
}
}
}
timer.end();
const double msPerLoop = timer.fCpu / (double)FLAGS_loops;
printf("%f\t%s\n", scale_time(msPerLoop), name);
}
void RDHPIRecordStream::record()
{
if(debug) {
printf("RDHPIRecordStream: received record()\n");
}
if(!is_open) {
return;
}
if(!is_ready) {
recordReady();
}
record_started=false;
HPI_InStreamReset(hpi_subsys,hpi_stream);
HPI_InStreamStart(hpi_subsys,hpi_stream);
is_recording=true;
is_paused=false;
emit isStopped(false);
emit recording();
emit stateChanged(card_number,stream_number,0); // Recording
if(debug) {
printf("RDHPIRecordStream: emitted isStopped(false)\n");
printf("RDHPIRecordStream: emitted recording()\n");
printf("RDHPIRecordStream: emitted stateChanged(%d,%d,RDHPIRecordStream::Recording)\n",card_number,stream_number);
}
tickClock();
}
void YigMainWindow::record()
{
if(recordButton->isChecked())
{
recordButton->setText("stop");
}
else
{
recordButton->setText("record");
}
emit recording(recordButton->isChecked());
}
jboolean Java_org_opalvoip_opal_andsample_AndOPAL_TestAudio(JNIEnv* env, jclass clazz)
{
PTRACE(1, "AndOPAL", "Testing audio output");
std::auto_ptr<PSoundChannel> player(PSoundChannel::CreateOpenedChannel("*", "voice", PSoundChannel::Player));
if (player.get() == NULL)
return false;
player->SetBuffers(400, 8);
{
PTones tones("C:0.2/D:0.2/E:0.2/F:0.2/G:0.2/A:0.2/B:0.2/C5:1.0");
PTRACE(1, "AndOPAL", "Tones using " << tones.GetSize() << " samples, "
<< PTimeInterval(1000*tones.GetSize()/tones.GetSampleRate()) << " seconds");
PTime then;
if (!tones.Write(*player))
return false;
PTRACE(1, "AndOPAL", "Audio queued");
player->WaitForPlayCompletion();
PTRACE(1, "AndOPAL", "Finished tone output: " << PTime() - then << " seconds");
}
std::auto_ptr<PSoundChannel> recorder(PSoundChannel::CreateOpenedChannel("*", "*", PSoundChannel::Recorder));
if (player.get() == NULL)
return false;
PShortArray recording(5*recorder->GetSampleRate()); // Five seconds
{
PTRACE(1, "AndOPAL", "Started recording");
PTime then;
if (!recorder->ReadBlock(recording.GetPointer(), recording.GetSize()*sizeof(short)))
return false;
PTRACE(1, "AndOPAL", "Finished recording " << PTime() - then << " seconds");
}
{
PTRACE(1, "AndOPAL", "Started play back");
PTime then;
if (!player->Write(recording.GetPointer(), recording.GetSize()*sizeof(short)))
return false;
PTRACE(1, "AndOPAL", "Finished play back " << PTime() - then << " seconds");
}
}
nsresult
RemotePrintJobParent::PrintPage(const Shmem& aStoredPage)
{
MOZ_ASSERT(mPrintDeviceContext);
nsresult rv = mPrintDeviceContext->BeginPage();
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
std::istringstream recording(std::string(aStoredPage.get<char>(),
aStoredPage.Size<char>()));
mPrintTranslator->TranslateRecording(recording);
rv = mPrintDeviceContext->EndPage();
if (NS_WARN_IF(NS_FAILED(rv))) {
return rv;
}
return NS_OK;
}
void AddCamera::on_Play_ID_clicked(bool checked)
{
if(checked)
{
bool isNumber = false;
size_t usbId = m_ui->usbId->text().toInt(&isNumber);
if(m_ui->usbId->text().isEmpty() || !isNumber)
{
QMessageBox::warning(this, "No device ID specified",
"Couldn't turn on camera, because no device ID is specified");
m_ui->Play_ID->setChecked(false);
m_ui->usbId->setEnabled(true);
return;
}
m_cameraRecording = true;
m_videoCaptureTemp.open(usbId);
if(! m_videoCaptureTemp.isOpened())
{
QMessageBox::warning(this, "Wrong device ID",
"Specified device ID is wrong, camera could not be opened");
m_ui->Play_ID->setChecked(false);
m_ui->usbId->setEnabled(true);
m_cameraRecording = false;
return;
}
recording();
}
else
{
endRecording();
}
}
void RDCae::DispatchCommand(RDCmdCache *cmd)
{
int pos;
int card;
if(!strcmp(cmd->arg(0),"PW")) { // Password Response
if(cmd->arg(1)[0]=='+') {
emit isConnected(true);
}
else {
emit isConnected(false);
}
}
if(!strcmp(cmd->arg(0),"LP")) { // Load Play
int handle=GetHandle(cmd->arg(4));
int card=CardNumber(cmd->arg(1));
int stream=StreamNumber(cmd->arg(3));
syslog(LOG_ERR,"*** RDCae::DispatchCommand: received unhandled play stream from CAE, handle=%d, card=%d, stream=%d, name=\"%s\" ***",
handle,card,stream,cmd->arg(2));
unloadPlay(handle);
}
if(!strcmp(cmd->arg(0),"UP")) { // Unload Play
if(cmd->arg(2)[0]=='+') {
int handle=GetHandle(cmd->arg(1));
for(int i=0;i<RD_MAX_CARDS;i++) {
for(int j=0;j<RD_MAX_STREAMS;j++) {
if(cae_handle[i][j]==handle) {
cae_handle[i][j]=-1;
for(unsigned k=0;k<RD_MAX_PORTS;k++) {
cae_output_status_flags[i][k][j]=false;
}
}
}
}
emit playUnloaded(handle);
}
}
if(!strcmp(cmd->arg(0),"PP")) { // Position Play
if(cmd->arg(3)[0]=='+') {
int handle=GetHandle(cmd->arg(1));
sscanf(cmd->arg(2),"%u",&pos);
for(int i=0;i<RD_MAX_CARDS;i++) {
for(int j=0;j<RD_MAX_STREAMS;j++) {
if(cae_handle[i][j]==handle) {
//emit playPositionChanged(handle,cae_output_positions[i][j]);
emit playPositionChanged(handle,pos);
}
}
}
emit playPositioned(handle,pos);
}
}
if(!strcmp(cmd->arg(0),"PY")) { // Play
if(cmd->arg(4)[0]=='+') {
emit playing(GetHandle(cmd->arg(1)));
}
}
if(!strcmp(cmd->arg(0),"SP")) { // Stop Play
if(cmd->arg(2)[0]=='+') {
emit playStopped(GetHandle(cmd->arg(1)));
}
}
if(!strcmp(cmd->arg(0),"TS")) { // Timescale Supported
if(sscanf(cmd->arg(1),"%d",&card)==1) {
if(cmd->arg(2)[0]=='+') {
emit timescalingSupported(card,true);
}
else {
emit timescalingSupported(card,false);
}
}
}
if(!strcmp(cmd->arg(0),"LR")) { // Load Record
if(cmd->arg(8)[0]=='+') {
emit recordLoaded(CardNumber(cmd->arg(1)),StreamNumber(cmd->arg(2)));
}
}
if(!strcmp(cmd->arg(0),"UR")) { // Unload Record
if(cmd->arg(4)[0]=='+') {
emit recordUnloaded(CardNumber(cmd->arg(1)),StreamNumber(cmd->arg(2)),
QString(cmd->arg(3)).toUInt());
}
}
if(!strcmp(cmd->arg(0),"RD")) { // Record
}
if(!strcmp(cmd->arg(0),"RS")) { // Record Start
if(cmd->arg(3)[0]=='+') {
emit recording(CardNumber(cmd->arg(1)),StreamNumber(cmd->arg(2)));
}
}
if(!strcmp(cmd->arg(0),"SR")) { // Stop Record
if(cmd->arg(3)[0]=='+') {
emit recordStopped(CardNumber(cmd->arg(1)),StreamNumber(cmd->arg(2)));
}
}
if(!strcmp(cmd->arg(0),"IS")) { // Input Status
switch(cmd->arg(3)[0]) {
case '0':
emit inputStatusChanged(CardNumber(cmd->arg(1)),
StreamNumber(cmd->arg(2)),true);
input_status[CardNumber(cmd->arg(1))][StreamNumber(cmd->arg(2))]=
true;
break;
case '1':
emit inputStatusChanged(CardNumber(cmd->arg(1)),
StreamNumber(cmd->arg(2)),false);
input_status[CardNumber(cmd->arg(1))][StreamNumber(cmd->arg(2))]=
false;
break;
}
}
}
static EXPERIMENTAL::SkPlayback* rerecord_with_skr(SkPicture& src) {
EXPERIMENTAL::SkRecording recording(src.width(), src.height());
src.draw(recording.canvas());
return recording.releasePlayback();
}
int snd_StartRecording(int desiredSamplesPerSec, int stereo, int semaIndex)
{
Synchronized<es::Monitor*> recording(monitorRecording);
{
Synchronized<es::Monitor*> method(monitorRecordState);
if (recordState.open == true)
{
return 0;
}
recordState.open = true;
recordState.bufSizeInBytes = MAX_RECORDING_SIZE * 2;
recordState.maxRecordSize = MAX_RECORDING_SIZE;
recordState.buffer = new u8[recordState.bufSizeInBytes];
if (!recordState.buffer)
{
recordState.open = false;
return 0;
}
memset(recordState.buffer, 0x80, recordState.bufSizeInBytes);
recordState.head = recordState.tail = recordState.buffer;
recordState.next = recordState.head;
recordState.nextRecordSize = 0;
recordState.recorded = 0;
recordState.stereo = stereo;
recordState.dataFormat = 1; // 8-bit samples
recordState.recordSemaIndex = semaIndex;
if (desiredSamplesPerSec < 5000)
{
recordState.samplingRate = 5000;
}
else if (44100 < desiredSamplesPerSec)
{
recordState.samplingRate = 44100;
}
else
{
recordState.samplingRate = desiredSamplesPerSec;
}
int chan;
if (stereo)
{
recordState.bytesPerSample = recordState.dataFormat * 2;
recordState.outputBytesPerSample = BYTES_PER_SAMPLE * 2;
chan = 2;
}
else
{
recordState.bytesPerSample = recordState.dataFormat;
recordState.outputBytesPerSample = BYTES_PER_SAMPLE;
chan = 1;
}
Handle<es::AudioFormat> audio(gSoundInput);
audio->setBitsPerSample(8 * recordState.dataFormat);
audio->setChannels(chan);
audio->setSamplingRate(recordState.samplingRate);
recordState.inProgress = true;
monitorRecordState->notifyAll();
}
return true;
}
void TimelineToolBar::reset()
{
if (recording())
m_recording->setChecked(false);
}
/* comments in header */
bool MythGesture::record(const QPoint & pt)
{
/* only record if we haven't exceeded the maximum points */
if (((uint)m_points.size() >= m_max_points) || !recording())
return false;
if (m_points.size() == 0)
{
m_points.push_back(pt);
return true;
}
/* interpolate between last and current point */
int delx = pt.x() - m_points.back().x();
int dely = pt.y() - m_points.back().y();
/* step by the greatest delta direction */
if (abs(delx) > abs(dely))
{
float iy = m_points.back().y();
/* go from the last point to the current, whatever direction
* it may be */
for (float ix = m_points.back().x();
(delx > 0) ? (ix < pt.x()) : (ix > pt.x());
ix += (delx > 0) ? 1 : -1)
{
/* step the other axis by the correct increment */
iy += std::fabs(((float) dely / (float) delx))
* (float) ((dely < 0) ? -1.0 : 1.0);
m_points.push_back(QPoint((int)ix, (int)iy));
adjustExtremes((int)ix, (int)iy);
}
}
else /* same thing, but for dely larger than delx case... */
{
float ix = m_points.back().x();
/* go from the last point to the current, whatever direction
it may be */
for (float iy = m_points.back().y();
(dely > 0) ? (iy < pt.y()) : (iy > pt.y());
iy += (dely > 0) ? 1 : -1)
{
/* step the other axis by the correct increment */
ix += std::fabs(((float) delx / (float) dely))
* (float) ((delx < 0) ? -1.0 : 1.0);
/* add the interpolated point */
m_points.push_back(QPoint((int)ix, (int)iy));
adjustExtremes((int)ix, (int)iy);
}
}
m_points.push_back(pt);
return true;
}
int main(int argc, char *argv[]){
// Options
char *in_filename = NULL; // 問題ファイル名
char *out_filename = NULL; // 出力解答ファイル名
char *fix_filename = NULL; // 固定セル情報ファイル名
int outer_loops = O_LOOP; // 外ループ回数
bool fixed = false; // 固定フラグ
// Options 取得
struct option longopts[] = {
{"loop", required_argument, NULL, 'l'},
{"fixfile", required_argument, NULL, 'x'},
{"output", required_argument, NULL, 'o'},
{"fix-flag", no_argument, NULL, 'f'},
{"version", no_argument, NULL, 'v'},
{"help", no_argument, NULL, 'h'},
{0, 0, 0, 0}
};
int opt, optidx;
while ((opt = getopt_long(argc, argv, "l:o:fvh", longopts, &optidx)) != -1) {
switch (opt) {
case 'l':
outer_loops = atoi(optarg);
break;
case 'x':
fix_filename = optarg;
break;
case 'o':
out_filename = optarg;
break;
case 'f':
fixed = true;
break;
case 'v':
version();
case 'h':
case ':':
case '?':
default:
usage();
}
}
if (argc <= optind) {
usage();
}
in_filename = argv[optind];
assert(in_filename != NULL);
clock_t start_time, finish_time;
start_time = clock();
initialize(in_filename); // 問題盤の生成
printBoard(); // 問題盤の表示
// 固定セルの生成 (機械学習の結果に基づく)
if (fix_filename != NULL) {
setFixFlagFromFile(fix_filename);
printFixFlag();
}
// 固定フラグの生成
else if (fixed) {
generateFixFlag();
printFixFlag();
}
// 乱数の初期化
mt_init_genrand((unsigned long)time(NULL));
// ペナルティの初期化
penalty_T = 0;
penalty_C = 0;
// 初期ルーティング
for(int i=1;i<=board->getLineNum();i++){
// 数字が隣接する場合スキップ
if(board->line(i)->getHasLine() == false) continue;
if(!routing(i)){
cerr << "Cannot solve!! (error: 1)" << endl;
exit(1);
}
}
for(int i=1;i<=board->getLineNum();i++){
// 数字が隣接する場合スキップ
if(board->line(i)->getHasLine() == false) continue;
recording(i);
}
// 中間ポートを利用するか？
// 利用している間，ライン不通過回数をカウントしない
bool use_intermediate_port = false;
// 中間ポートに設定するマスとそれを利用する数字
int inter_x, inter_y, inter_line = -1;
// 探索スタート!!
for (int m = 2; m <= outer_loops + 1; m++) { // 外ループ
if(!use_intermediate_port){ // 中間ポートを利用しない場合
if ((m - 1) % 100 == 0) {
cout << "loop " << (m-1) << endl;
}
if(m>INIT){ resetCandidate(); }
}
else{ // 中間ポートを利用する場合
if ((m - 1) % 100 == 0) {
cout << "loop " << (m-1) << "+" << endl;
}
}
// 解導出フラグ
bool complete = false;
for (int n = 1; n <= I_LOOP; n++) { // 内ループ
if (INIT < m && !use_intermediate_port){
checkLineNonPassed();
}
// 問題のおいて数字が隣接していないラインを選択する
int id;
do {
id = (int)mt_genrand_int32(1, board->getLineNum());
} while (board->line(id)->getHasLine() == false);
//cout << "(" << m << "," << n << ")Re-route Line" << id << endl;
// 経路の削除
deleting(id);
// ペナルティの設定
penalty_T = (int)(NT * (mt_genrand_int32(0, m - 1)));
penalty_C = (int)(NC * (mt_genrand_int32(0, m - 1)));
// 中間ポートを利用しない場合
if ( !((board->line(id))->isIntermediateUsed()) ) {
// 経路の探索
if ( !routing(id) ) {
cerr << "Cannot solve!! (error: 2)" << endl; // 失敗したらプログラム終了
exit(2);
}
// 経路の記録
recording(id);
}
// 中間ポートを利用する場合
else {
// 経路の探索 (INTTRY 回)
bool success = false;
for (int count = 0; count < INTTRY; count++) {
if (routingSourceToI(id)) {
success = routingIToSink(id);
break;
}
}
// 中間ポート利用に失敗した場合，通常経路探索した後に内ループ脱出
if ( !success ) {
if ( !routing(id) ) {
cerr << "Cannot solve!! (error: 3)" << endl; // 失敗したらプログラム終了
exit(3);
}
recording(id);
break;
}
// 経路の記録
recording(id);
}
// 終了判定（解導出できた場合，正解を出力）
if(isFinished()){
finish_time = clock();
printSolution();
if (out_filename != NULL) {
printSolutionToFile(out_filename);
cout << "--> Saved to " << out_filename << endl << endl;
}
cout << "SUMMARY" << endl;
cout << "-------" << endl;
cout << " - filename: " << in_filename << endl;
cout << " - size: " << board->getSizeX() << " x " << board->getSizeY() << endl;
cout << " - iterations: " << (m - 1) << endl;
cout << " - CPU time: "
<< ((double)(finish_time - start_time) / (double)CLOCKS_PER_SEC)
<< " sec" << endl;
complete = true;
break;
}
}
if(complete) break; // 正解出力後は外ループも脱出
// 中間ポートを使用した次のループでは，中間ポートを利用しない
if(use_intermediate_port){
use_intermediate_port = false;
board->line(inter_line)->setIntermediateUnuse();
continue;
}
// 不通過マスの調査->中間ポートを利用するか？
int candidate_count = 0; // 候補数
inter_x = -1;
inter_y = -1;
for(int y=0;y<board->getSizeY();y++){
for(int x=0;x<board->getSizeX();x++){
Box* trgt_box = board->box(x,y);
if(trgt_box->isCandidate()){
candidate_count++;
//cout << "(" << x << "," << y << ")"; // 不通過マス
}
}
}
//cout << endl;
if(candidate_count==0) continue; // 候補数0なら利用しない
// 候補の中から中間ポートに設定するマスをランダムに選択
int c_d = (int)mt_genrand_int32(0, candidate_count - 1); // 選択は候補の中で何番目か？
int n_d = 0; // 何番目なのかをカウントする用の変数
bool flag = false; // 二重ループのためフラグが必要
for(int y=0;y<board->getSizeY();y++){
for(int x=0;x<board->getSizeX();x++){
Box* trgt_box = board->box(x,y);
if(!trgt_box->isCandidate()){
continue;
}
if(n_d==c_d){
flag = true;
inter_x = x; inter_y = y;
break;
}
n_d++;
}
if(flag) break;
}
// 中間ポートの四方を見て，中間ポートを利用する数字をランダムに選択
checkCandidateLine(inter_x,inter_y); // 候補となるラインを調査
candidate_count = 0; // 候補数
inter_line = -1;
for(int i=1;i<=board->getLineNum();i++){
Line* trgt_line = board->line(i);
if(trgt_line->isCandidate()){
candidate_count++;
//if(candidate_count>1) cout << ", ";
//cout << i;
}
}
//cout << endl;
if(candidate_count==0) continue; // 候補数0なら利用しない
c_d = (int)mt_genrand_int32(0, candidate_count - 1); // 選択は候補の中で何番目か？
n_d = 0; // 何番目なのかをカウントする用の変数
for(int i=1;i<=board->getLineNum();i++){
Line* trgt_line = board->line(i);
if(!trgt_line->isCandidate()) continue;
if(n_d==c_d){
inter_line = i;
break;
}
n_d++;
}
//cout << "Set (" << inter_x << "," << inter_y << ") InterPort of Line " << inter_line << endl;
Line* line_i = board->line(inter_line);
line_i->setIntermediateUse();
line_i->setIntermediatePort(inter_x,inter_y);
use_intermediate_port = true;
// m--; // 使うかどうか思案中・・・
// ペナルティ更新（旧）
//penalty_T = (int)(NT * m);
//penalty_C = (int)(NC * m);
}
// 解導出できなかった場合
if(!isFinished()){
for(int i=1;i<=board->getLineNum();i++){
printLine(i);
}
cerr << "Cannot solve!! (error: 4)" << endl;
exit(4);
}
//デバッグ用
//for(int y=0;y<board->getSizeY();y++){
//for(int x=0;x<board->getSizeX();x++){
//cout << "(" << x << "," << y << ") ";
//Box* trgt_box = board->box(x,y);
//cout << " N:" << trgt_box->getNorthNum();
//cout << " E:" << trgt_box->getEastNum();
//cout << " S:" << trgt_box->getSouthNum();
//cout << " W:" << trgt_box->getWestNum();
//cout << endl;
//}
//}
//for(int i=1;i<=board->getLineNum();i++){
// calcCost(i);
//}
delete board;
return 0;
}