pythonFluIntegrationFunctionObject::pythonFluIntegrationFunctionObject
(
const word& name,
const Time& t,
const dictionary& dict
)
:
pythonIntegrationFunctionObject(name,t,dict)
{
if(parallelNoRun()) {
return;
}
if(!executeCode("import Foam",false)) {
FatalErrorIn("pythonFluIntegrationFunctionObject::pythonFluIntegrationFunctionObject")
<< "Python can not import module Foam. Probably no pythonFlu installed"
<< endl
<< exit(FatalError);
}
executeCode("import Foam.OpenFOAM as OpenFOAM",false,true);
executeCode("import Foam.finiteVolume as finiteVolume",false,true);
executeCode("from Foam.integrationHelpers.getObjectsFromPointers import getTimeFromPtr",false,true); // this should work, but doesn't
// executeCode("from Foam.src.OpenFOAM.db.Time.Time import getTimeFromPtrOld as getTimeFromPtr",false,true); // This works
PyObject *time=PyCObject_FromVoidPtr((void*)(&t),NULL);
PyObject *m = PyImport_AddModule("__main__");
PyObject_SetAttrString(m,"theTime",time);
executeCode("time=getTimeFromPtr(theTime)",true,false);
// Get rid of the helper stuff
PyRun_SimpleString("del theTime");
PyRun_SimpleString("del getTimeFromPtr");
}
static status
ExecuteWhile(While w)
{ while ( executeCode(w->condition) )
{ if ( notNil(w->body) )
{ TRY( executeCode(w->body) );
}
}
succeed;
}
void pythonIntegrationFunctionObject::writeSimple()
{
Pbug << "writeSimple" << endl;
if(!parallelNoRun()) {
setRunTime();
}
executeCode(executeCode_,true);
if(this->time_.outputTime()) {
executeCode(writeCode_,true);
}
}
ErrorCode Process::allocateMemory(size_t size, uint32_t protection,
uint64_t *address) {
if (address == nullptr) {
return kErrorInvalidArgument;
}
bool is32 = is32BitProcess(this);
U8Vector codestr;
if (is32) {
X86Sys::PrepareMmapCode(size, protection, codestr);
} else {
X86_64Sys::PrepareMmapCode(size, protection, codestr);
}
uint64_t result;
ErrorCode error = executeCode(codestr, result);
if (error != kSuccess) {
return error;
}
// MAP_FAILED is -1.
if ((is32 && static_cast<int64_t>(result) == -1LL) ||
(!is32 && static_cast<int32_t>(result) == -1)) {
return kErrorNoMemory;
}
*address = result;
return kSuccess;
}
static Any
getExecuteWhen(When w)
{ if ( executeCode(w->condition) )
return expandCodeArgument(w->then_branch);
else
return expandCodeArgument(w->else_branch);
}
void milxQtPythonConsole::executeLine(bool storeOnly)
{
QTextCursor textCursor = this->textCursor();
textCursor.movePosition(QTextCursor::End);
// Select the text from the command prompt until the end of the block
// and get the selected text.
textCursor.setPosition(commandPromptPosition());
textCursor.movePosition(QTextCursor::End, QTextCursor::KeepAnchor);
QString code = textCursor.selectedText();
// i don't know where this trailing space is coming from, blast it!
if (code.endsWith(" "))
{
code.truncate(code.length()-1);
}
if (!code.isEmpty())
{
// Update the history
_history << code;
_historyPosition = _history.count();
_currentMultiLineCode += code + "\n";
if (!storeOnly)
{
executeCode(_currentMultiLineCode);
_currentMultiLineCode = "";
}
}
// Insert a new command prompt
appendCommandPrompt(storeOnly);
}
ErrorCode Process::deallocateMemory(uint64_t address, size_t size) {
if (size == 0) {
return kErrorInvalidArgument;
}
U8Vector codestr;
if (is32BitProcess(this)) {
X86Sys::PrepareMunmapCode(address, size, codestr);
} else {
X86_64Sys::PrepareMunmapCode(address, size, codestr);
}
uint64_t result;
ErrorCode error = executeCode(codestr, result);
if (error != kSuccess) {
return error;
}
// Negative values returned by the kernel indicate failure.
if (static_cast<int32_t>(result) < 0) {
return kErrorInvalidArgument;
}
return kSuccess;
}
void jsTTY_t :: onLineIn( void )
{
if( ( JSVAL_VOID != onLineInCode_ ) && ( JSVAL_VOID != onLineInScope_ ) )
{
lineQueue_.push_back( getLine() );
executeCode( JSVAL_TO_OBJECT( onLineInScope_ ), onLineInCode_, "tty.onLineIn" );
}
}
/**
* Execute the current selection from the editor.
*/
void ScriptFileInterpreter::executeSelection(const Script::ExecutionMode mode) {
if ((m_editor->hasSelectedText() && (!m_editor->selectedText().isEmpty()))) {
int firstLineOffset(0), unused(0);
m_editor->getSelection(&firstLineOffset, &unused, &unused, &unused);
executeCode(ScriptCode(m_editor->selectedText(), firstLineOffset), mode);
} else {
executeAll(mode);
}
}
bool pythonIntegrationFunctionObject::end()
{
Pbug << "end" << endl;
if(!parallelNoRun()) {
setRunTime();
}
return executeCode(endCode_,true);
}
bool pythonIntegrationFunctionObject::start()
{
Pbug << "start" << endl;
simpleFunctionObject::start();
if(!parallelNoRun()) {
setRunTime();
}
return executeCode(startCode_,true);
}
void jsTouchPoll_t :: onRelease()
{
debugPrint( "%s\n", __PRETTY_FUNCTION__);
if( 0 != curBox_ )
{
gettimeofday(&releaseTime_,0);
curBox_->onRelease_( *curBox_, prevX_, prevY_ );
curBox_ = 0 ;
} // touching, move or release box
else if( JSVAL_VOID != onReleaseCode_ )
executeCode( JSVAL_TO_OBJECT( onReleaseObject_ ), onReleaseCode_, "onRelease" );
wasDown_ = false ;
inputTouchScreen_t::onRelease();
}
void jsPort_t :: onChar( void )
{
jsval handler ;
if( JS_GetProperty( execContext_, scope_, "onChar", &handler )
&&
( JSTYPE_FUNCTION == JS_TypeOfValue( execContext_, handler ) ) )
{
executeCode( scope_, handler, "onChar", 0, 0 );
} // have handler
else
{
printf( "no raw data handler\n" );
// clear input
std::string sData ;
read(sData);
} // no handler defined
}
void jsPort_t :: onLineIn( void )
{
jsval handler ;
if( JS_GetProperty( execContext_, scope_, "onLineIn", &handler )
&&
( JSTYPE_FUNCTION == JS_TypeOfValue( execContext_, handler ) ) )
{
executeCode( scope_, handler, "onLineIn", 0, 0 );
} // have handler
else
{
printf( "no line input handler\n" );
// clear input
std::string sData ;
while( readln( sData ) )
;
} // no handler defined, purge input
}
void jsUsblpPoll_t::onDataIn( void )
{
jsval handler ;
if( JS_GetProperty( execContext_, obj_, "onDataIn", &handler )
&&
( JSTYPE_FUNCTION == JS_TypeOfValue( execContext_, handler ) ) )
{
executeCode( obj_, handler, "onDataIn", 0, 0 );
} // have handler
else
{
printf( "no raw data handler\n" );
char temp[256];
unsigned numRead ;
while( read( temp, sizeof(temp), numRead ) )
;
} // no handler defined
}
void jsTouchPoll_t :: onMove( int x, int y )
{
if( 0 != curBox_ )
{
if( ( x >= curBox_->xLeft_ )
&&
( x <= curBox_->xRight_ )
&&
( y >= curBox_->yTop_ )
&&
( y <= curBox_->yBottom_ ) )
{
curBox_->onTouchMove_( *curBox_, x, y );
return ;
} // still on this button
else
{
curBox_->onTouchMoveOff_( *curBox_, x, y );
curBox_ = 0 ;
} // moved off of the button
} // have a box
std::vector<box_t *> boxes = getZMap().getBoxes( x, y );
if( 0 < boxes.size() )
{
curBox_ = boxes[0];
curBox_->onTouch_( *boxes[0], x, y );
}
else
{
if( JSVAL_VOID != onMoveCode_ )
executeCode( JSVAL_TO_OBJECT( onMoveObject_ ), onMoveCode_, "onMove" );
else
{
// printf( "no touch handler %u/%u\n", x, y );
// dumpZMaps();
}
} // no boxes... look for global handler
}
void jsTouchPoll_t :: onTouch( unsigned x, unsigned y )
{
debugPrint( "raw: %d/%d\n", x, y );
// translate( x, y );
debugPrint( "cooked: %d/%d\n", x, y );
prevX_ = x ; // set here so code has access to it
prevY_ = y ;
if( 0 != curBox_ )
{
onMove( x, y );
} // already touching, move or release
else
{
gettimeofday(&touchTime_, 0);
std::vector<box_t *> boxes = getZMap().getBoxes( x, y );
if( 0 < boxes.size() )
{
curBox_ = boxes[0];
curBox_->onTouch_( *boxes[0], x, y );
}
else
{
if( JSVAL_VOID != onTouchCode_ )
{
executeCode( JSVAL_TO_OBJECT( onTouchObject_ ), onTouchCode_, "onTouch" );
}
else
{
// printf( "no touch handler %u/%u\n", x, y );
// dumpZMaps();
}
} // no boxes... look for global handler
}
wasDown_ = true ;
}
int C_THISCLASS::render(char visdata[2][2][576], int isBeat, int *framebuffer, int *fbout, int w, int h)
{
//pow(sin(d),dpos)*1.7
if (need_recompile)
{
int err=0;
int x;
EnterCriticalSection(&rcs);
if (!var_b || g_reset_vars_on_recompile)
{
clearVars();
var_x = registerVar("x");
var_y = registerVar("y");
var_w = registerVar("w");
var_h = registerVar("h");
var_b = registerVar("b");
var_alpha = registerVar("alpha");
inited=0;
}
need_recompile=0;
for (x = 0; x < 3; x ++)
{
freeCode(codehandle[x]);
codehandle[x]=compileCode(effect_exp[x].get());
}
LeaveCriticalSection(&rcs);
}
*var_w=w;
*var_h=h;
*var_b=isBeat?1.0:0.0;
if (isBeat&0x80000000) return 0;
if (codehandle[0] && (!inited || m_lasth != h || m_lastw != w))
{
m_lastw=w;
m_lasth=h;
*var_x=0; *var_y=0; *var_alpha=0.5;
executeCode(codehandle[0],visdata);
inited=1;
}
executeCode(codehandle[1],visdata);
if (isBeat) executeCode(codehandle[2],visdata);
int doblend=blend;
int ialpha=127;
if (doblend)
{
ialpha=(int)(*var_alpha*255.0);
if (ialpha <= 0) return 0;
if (ialpha >= 255) doblend=0;
}
int *inptr=framebuffer;
int *blendptr=framebuffer;
int *outptr=fbout;
int xa=(int)*var_x;
int ya=(int)*var_y;
// var_x, var_y at this point tell us how to shift, and blend also tell us what to do.
if (!subpixel)
{
int endy=h+ya;
int endx=w+xa;
int x,y;
if (endx > w) endx=w;
if (endy > h) endy=h;
if (ya < 0) inptr += -ya*w;
if (ya > h) ya=h;
if (xa > w) xa=w;
for (y = 0; y < ya; y ++)
{
x=w;
if (!doblend) while (x--) *outptr++ = 0;
else while (x--) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
for (; y < endy; y ++)
{
int *ip=inptr;
if (xa < 0) inptr += -xa;
if (!doblend)
{
for (x = 0; x < xa; x ++) *outptr++=0;
for (; x < endx; x ++) *outptr++=*inptr++;
for (; x < w; x ++) *outptr++=0;
}
else
{
for (x = 0; x < xa; x ++) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
for (; x < endx; x ++) *outptr++ = BLEND_ADJ(*inptr++,*blendptr++,ialpha);
for (; x < w; x ++) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
inptr=ip+w;
}
for (; y < h; y ++)
{
x=w;
if (!doblend) while (x--) *outptr++ = 0;
else while (x--) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
}
else // bilinear filtering version
{
int xpart,ypart;
{
double vx=*var_x;
double vy=*var_y;
xpart=(int) ((vx - (int)vx)*255.0);
if (xpart < 0) xpart=-xpart;
else { xa++; xpart=255-xpart; }
if (xpart < 0) xpart=0;
if (xpart > 255) xpart=255;
ypart=(int) ((vy - (int)vy)*255.0);
if (ypart < 0) ypart=-ypart;
else { ya++; ypart=255-ypart; }
if (ypart < 0) ypart=0;
if (ypart > 255) ypart=255;
}
int x,y;
if (ya < 1-h) ya=1-h;
if (xa < 1-w) xa=1-w;
if (ya > h-1) ya=h-1;
if (xa > w-1) xa=w-1;
if (ya < 0) inptr += -ya*w;
int endy=h-1+ya;
int endx=w-1+xa;
if (endx > w-1) endx=w-1;
if (endy > h-1) endy=h-1;
if (endx < 0) endx=0;
if (endy < 0) endy=0;
for (y = 0; y < ya; y ++)
{
x=w;
if (!doblend) while (x--) *outptr++ = 0;
else while (x--) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
for (; y < endy; y ++)
{
int *ip=inptr;
if (xa < 0) inptr += -xa;
if (!doblend)
{
for (x = 0; x < xa; x ++) *outptr++=0;
for (; x < endx; x ++) *outptr++=BLEND4((unsigned int *)inptr++,w,xpart,ypart);
for (; x < w; x ++) *outptr++=0;
}
else
{
for (x = 0; x < xa; x ++) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
for (; x < endx; x ++) *outptr++ = BLEND_ADJ(BLEND4((unsigned int *)inptr++,w,xpart,ypart),*blendptr++,ialpha);
for (; x < w; x ++) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
inptr=ip+w;
}
for (; y < h; y ++)
{
x=w;
if (!doblend) while (x--) *outptr++ = 0;
else while (x--) *outptr++ = BLEND_ADJ(0,*blendptr++,ialpha);
}
}
#ifndef NO_MMX
__asm emms;
#endif
return 1;
}
bool writeIfPythonFunctionObject::checkStopWriting()
{
return executeCode(stopWriteCode_);
}
bool writeIfPythonFunctionObject::checkStopCooldown()
{
return executeCode(stopCooldownCode_);
}
/**
* Execute the whole script in the editor.
*/
void ScriptFileInterpreter::executeAll(const Script::ExecutionMode mode)
{
executeCode(m_editor->text(), mode);
}
void jsMouse_t::onData( struct input_event const &event )
{
assert( cursor_ );
cursor_->getPos(x_,y_);
switch( event.type ){
case EV_SYN:
cursor_->setPos(x_,y_);
if( down_ ){
press();
}
if( 0 != wheel_ ){
printf( "wheel motion: %d\n", wheel_ );
if( JSVAL_VOID != onWheelCode_ ){
jsval args[2] = {
INT_TO_JSVAL(wheel_)
, JSVAL_NULL
};
printf( "call handler here\n" );
executeCode(JS_GetGlobalObject(execContext_),onWheelCode_, __func__, 1,args);
} else
printf( "No wheel handler\n" );
wheel_ = 0 ;
}
break;
case EV_REL: {
if( (REL_X==event.code) || (REL_Y==event.code) ){
fbDevice_t &fb = getFB();
int value = (int)event.value ;
int pos = (int)( (REL_X == event.code) ? x_ : y_ );
int max = (int)( (REL_X == event.code) ? fb.getWidth() : fb.getHeight() ) - 1 ;
pos += value ;
if( 0 > pos )
pos = 0 ;
else if( max < pos ){
pos = max ;
}
if( REL_X == event.code )
x_ = pos ;
else
y_ = pos ;
cursor_->setPos(x_,y_);
} else if(REL_WHEEL==event.code){
wheel_ += (int)event.value ;
} else
printf( "Unknown rel value, code 0x%x, value 0x%x\n", event.code, event.value );
break;
}
case EV_KEY: {
int down = event.value ;
int left = ( event.code == LMOUSEBUTTON );
#if defined(KERNEL_FB_DAVINCI) && (KERNEL_FB_DAVINCI == 1)
if( down ){
cursor_->setWidth(SMALL);
cursor_->setHeight(SMALL);
}
else {
cursor_->setWidth(BIG);
cursor_->setHeight(BIG);
}
#endif
if( left && ( down_ != down ) ){
if( down ){
press();
}
else {
release();
}
down_ = down ;
} // left button state changed
break;
}
default:
inputPoll_t::onData(event);
}
}
double runKernel(double externalTime) {
double nextHit, timeElapsed;
Task *task, *temp, *oldrunning, *newrunning;
UserTask *usertask;
InterruptHandler *hdl;
DataNode* dn;
// If no energy, then we can not run
if (rtsys->energyLevel <= 0) {
//printf("Energy is out at time: %f\n", rtsys->time);
return INF;
}
timeElapsed = externalTime - rtsys->prevHit; // time since last invocation
rtsys->prevHit = externalTime; // update previous invocation time
nextHit = 0.0;
//printf("runkernel at %f\n", rtsys->time);
#ifdef KERNEL_MATLAB
/* Write rtsys pointer to global workspace */
*((long *)mxGetPr(rtsys->rtsysptr)) = (long)rtsys;
#endif
while (nextHit < EPS) {
// Count down execution time for current task (usertask or handler)
// and check if it has finished its execution
task = rtsys->running;
if (task != NULL) {
// Count down execution time
task->execTime -= timeElapsed * rtsys->cpuScaling;
if (task->execTime < EPS) {
// Execute next segment
task->segment++;
if (task->isUserTask()) {
usertask = (UserTask*) task;
// Update budget and lastStart variable at segment change
usertask->budget -= (rtsys->time - usertask->lastStart);
usertask->lastStart = rtsys->time;
}
// Execute next segment of the code function
#ifndef KERNEL_MATLAB
task->execTime = task->codeFcn(task->segment, task->data);
if (rtsys->error) {
printf("Error in ==> task '%s', segment %d\n", task->name, task->segment);
return 0.0;
}
#else
if (task->codeFcnMATLAB == NULL) {
task->execTime = task->codeFcn(task->segment, task->data);
} else {
task->execTime = executeCode(task->codeFcnMATLAB, task->segment, task);
}
if (rtsys->error) {
printf("Error in ==> task '%s', segment %d\n", task->name, task->segment);
return 0.0;
}
#endif
if (task->execTime < 0.0) {
// Negative execution time = task finished
task->execTime = 0.0;
task->segment = 0;
if (task->myList == rtsys->readyQ) {
// Remove task from readyQ
task->remove();
}
if (!(task->isUserTask())) {
hdl = (InterruptHandler*) task;
if (hdl->type == TIMER) {
if (hdl->timer->isPeriodic) {
// if periodic timer put back in timeQ
hdl->timer->time += hdl->timer->period;
hdl->moveToList(rtsys->timeQ);
} else {
// Remove timer and free up handler
dn = getNode(hdl->timer->name, rtsys->timerList);
rtsys->timerList->deleteNode(dn);
delete hdl->timer;
hdl->timer = NULL;
hdl->type = UNUSED;
}
}
if (hdl->type == EXTERNAL) {
if (hdl->pending > 0) {
// new external interrupt occured before handler finished
hdl->pending--;
hdl->moveToList(rtsys->readyQ);
}
}
} else { // the finished task is a usertask
usertask = (UserTask*) task;
// Execute finish-hook
usertask->finish_hook(usertask);
usertask->state = IDLE;
// Release next job if any
usertask->nbrJobs--;
if (usertask->nbrJobs > 0) {
// next pending release
dn = (DataNode*) usertask->pending->getFirst();
double* release = (double*) dn->data;
usertask->release = *release;
usertask->absDeadline = *release + usertask->deadline;
usertask->moveToList(rtsys->timeQ);
usertask->pending->deleteNode(dn);
delete release;
// Execute release-hook
usertask->release_hook(usertask);
usertask->state = SLEEPING;
}
}
}
}
} // end: counting down execution time of running task
// Check time queue for possible releases
task = (Task*) rtsys->timeQ->getFirst();
while (task != NULL) {
if ((task->wakeupTime() - rtsys->time) < EPS) {
// Task to be released
temp = task;
task = (Task*) task->getNext();
temp->moveToList(rtsys->readyQ);
if (temp->isUserTask()) {
usertask = (UserTask*) temp;
usertask->state = READY;
}
} else {
break;
}
} // end: checking timeQ for releases
// Determine task with highest priority and make it running task
newrunning = (Task*) rtsys->readyQ->getFirst();
oldrunning = rtsys->running;
if (newrunning != NULL) {
// Check for suspend- and resume-hooks
if (oldrunning != NULL) {
// Is oldrunning being suspended?
if (oldrunning->isUserTask()) {
if (newrunning != oldrunning && ((UserTask*) oldrunning)->state == RUNNING) {
usertask = (UserTask*) oldrunning;
usertask->state = SUSPENDED;
usertask->suspend_hook(usertask);
}
}
}
// invocation of hooks may have triggered kernelHandler
newrunning = (Task*) rtsys->readyQ->getFirst();
// Is newrunning being resumed?
if (newrunning->isUserTask()) {
if ( (((UserTask*) newrunning)->state == READY) ||
(((UserTask*) newrunning)->state == SUSPENDED) ) {
// newrunning is being resumed or started
usertask = (UserTask*) newrunning;
usertask->state = RUNNING;
if (usertask->segment == 0) {
usertask->start_hook(usertask);
} else {
usertask->resume_hook(usertask);
}
}
}
// invocation of hooks may have triggered kernelHandler
rtsys->running = (Task*) rtsys->readyQ->getFirst();
} else { // No tasks in readyQ
rtsys->running = NULL;
} // end: task dispatching
// Determine next invocation of kernel
nextHit = getNextInvocation();
timeElapsed = 0.0;
} // end: loop while nextHit < EPS
return nextHit;
}
/**
* Execute the whole script in the editor. Always clears the contents of the
* local variable dictionary first.
*/
void ScriptFileInterpreter::executeAll(const Script::ExecutionMode mode) {
m_runner->clearLocals();
executeCode(ScriptCode(m_editor->text()), mode);
}
int main()
{
int mark, o;
unsigned char c;
rmdata *realmachine;
vmdata *virtualmachine;
realmachine = malloc(sizeof(rmdata));
virtualmachine = malloc(sizeof(vmdata));
SetConsoleTitle(LTITLE);
strcpy(text, "");
mode = 1;
clearRReg(realmachine, 0);
clearVReg(virtualmachine, 0);
clearRRam(realmachine, 0xFF);
clearVRam(virtualmachine, 0xFF);
callUpdateAndDraw(realmachine, virtualmachine);
while(1)
{
if(mode == 0)
{
sprintf(text, "%sExec command: %X\n", text, realmachine->ram[absoluteAdress(realmachine,virtualmachine->IP)]);
o = executeCode(realmachine, virtualmachine, absoluteAdress(realmachine,virtualmachine->IP), absoluteAdress(realmachine,virtualmachine->IP + 1));
if(o == 1)
{
virtualmachine->IP++;
}
else if(o == 'G')
{
realmachine->TI = 1;
callUpdateAndDraw(realmachine, virtualmachine);
mark = realmachine->ram[absoluteAdress(realmachine,virtualmachine->IP + 1)];
c = 0;
while(c != 0x0D)
{
if(c)
{
realmachine->ram[absoluteAdress(realmachine, mark)] = c;
sprintf(text, "%s%c", text, c);
mark++;
}
c = getProgramInput();
callUpdateAndDraw(realmachine, virtualmachine);
}
realmachine->ram[absoluteAdress(realmachine, mark)] = 0;
strcat(text, "\n");
virtualmachine->IP++;
realmachine->TI = 0;
}
else if(o == 'P')
{
virtualmachine->IP++;
mark = realmachine->ram[absoluteAdress(realmachine,virtualmachine->IP)];
while((c = realmachine->ram[absoluteAdress(realmachine, mark)]) != 0x00)
{
sprintf(text, "%s%c", text, c);
mark++;
}
strcat(text, "\n");
}
else if(o == 'H')
{
mode = 2;
strcat(text, "Program ended successfully.\n");
}
else if(o == 255)
{
mode = 2;
realmachine->PI = 1;
strcat(text, "Error, program ended unsuccessfully!\n");
}
if(o != 'J')
{
virtualmachine->IP++;
}
if(realmachine->MODE)
{
strcat(text, "Press ENTER key...");
callUpdateAndDraw(realmachine, virtualmachine);
while(getchar() != '\n');
strcat(text, "\n");
}
else
{
callUpdateAndDraw(realmachine, virtualmachine);
}
}
else if(mode == 1)
{
c = getProgramInput();
if(c && c != '`' && c != 0x0D)
{
sprintf(text, "%s%c", text, c);
}
if(c == 0x0D)
{
if(strcmp(text, "quit") == 0 || strcmp(text, "exit") == 0 || strcmp(text, "e") == 0 || strcmp(text, "q") == 0)
{
break;
}
else if(strcmp(text, "start") == 0 || strcmp(text, "s") == 0)
{
mode = 0;
}
else if(strcmp(text, "step") == 0)
{
if(realmachine->MODE)
{
realmachine->MODE = 0;
}
else
{
realmachine->MODE = 1;
}
}
else if(strcmp(text, "reset") == 0 || strcmp(text, "r") == 0)
{
clearRReg(realmachine, 0);
clearVReg(virtualmachine, 0);
clearRRam(realmachine, 0xFF);
clearVRam(virtualmachine, 0xFF);
}
if(strcmp(text, "cls") == 0)
{
system("cls");
}
else if(strncmp(text, "loadfile", 8) == 0)
{
fileToRam(realmachine, text + 9);
}
else if(strcmp(text, "load") == 0 || strcmp(text, "l") == 0)
{
fileToRam(realmachine, HDDFILE);
}
strcpy(text, "");
}
callUpdateAndDraw(realmachine, virtualmachine);
}
else if(mode == 2)
{
//strcat(text, "Press ENTER key...");
//callUpdateAndDraw(realmachine, virtualmachine);
//while(getchar() != '\n');
system("pause");
strcpy(text, "");
mode = 1;
system("cls");
callUpdateAndDraw(realmachine, virtualmachine);
}
}
return 0;
}
