ArgSlot AsmJsFunctionDeclaration::GetArgByteSize(ArgSlot inArgCount) const
{
ArgSlot argSize = 0;
if (AsmJsImportFunction::Is(this))
{
Assert(inArgCount != Constants::InvalidArgSlot);
argSize = ArgSlotMath::Mul(inArgCount, (uint16)MachPtr);
}
#if _M_IX86
else
{
for (ArgSlot i = 0; i < GetArgCount(); i++)
{
if( GetArgType(i).isMaybeDouble() )
{
argSize = ArgSlotMath::Add(argSize, sizeof(double));
}
else if (GetArgType(i).isIntish())
{
argSize = ArgSlotMath::Add(argSize, sizeof(int));
}
else if (GetArgType(i).isFloatish())
{
argSize = ArgSlotMath::Add(argSize, sizeof(float));
}
else
{
AssertOrFailFast(UNREACHED);
}
}
}
#elif _M_X64
else
{
void _main(void)
{
ESI argptr = top_estack;
short a = GetIntArg (argptr);
short b = GetIntArg (argptr);
while (GetArgType (top_estack) != END_TAG) // Clean up arguments
top_estack = next_expression_index (top_estack);
top_estack--;
push_longint (a + b);
}
ArgSlot AsmJsFunctionDeclaration::GetArgByteSize(ArgSlot inArgCount) const
{
uint argSize = 0;
if (GetSymbolType() == AsmJsSymbol::ImportFunction)
{
Assert(inArgCount != Constants::InvalidArgSlot);
argSize = inArgCount * MachPtr;
}
#if _M_IX86
else
{
for (ArgSlot i = 0; i < GetArgCount(); i++)
{
if( GetArgType(i).isMaybeDouble() )
{
argSize += sizeof(double);
}
else if (GetArgType(i).isIntish())
{
argSize += sizeof(int);
}
else if (GetArgType(i).isFloatish())
{
argSize += sizeof(float);
}
else if (GetArgType(i).isSIMDType())
{
argSize += sizeof(AsmJsSIMDValue);
}
else
{
Assume(UNREACHED);
}
}
}
#elif _M_X64
else
{
for (ArgSlot i = 0; i < GetArgCount(); i++)
void _main(void)
{
short i_menu_choice;
graph *p_graph = NULL;
matrix *p_matrix = NULL;
point v_key[8];
ESI EsiPtr = top_estack; //pointer en haut de la pile
FontSetSys(F_6x8);
clrscr();
//Verifie si une matrice est passée en parametre
if((GetArgType(EsiPtr) != LIST_TAG)||(GetArgType(EsiPtr-1) != LIST_TAG)){ //Ce n'est pas une matrice
EsiPtr = open_file(); //Si ce n'est pas la cas, ouvrir une fenetre
}
//sym = DerefSym(SymFind(GetSymstrArg(EsiPtr)));
if(! is_square_matrix(EsiPtr)){
printf("\Error : The matrix must be a squared matrix (same height and width). ");
ngetchx();
exit(0);
}
_main() {
SCR_RECT SCREEN = {{0, 0, LCD_WIDTH-1, LCD_HEIGHT-1}};
SCR_RECT rect = {{0, 0, HEIGHT-1, HEIGHT-1}};
short attr = A_XOR; // Default replace value: A_XOR
// Parses arguments
ESI argptr;
InitArgPtr(argptr);
int argtype = GetArgType(argptr);
if (argtype == POSINT_TAG) {
int num = GetIntArg(argptr);
// 2. *** YOUR CODE HERE ***
}
// Initializes a rectangle bitmap of HEIGHT x HEIGHT
char mask [BITMAP_SIZE];
int i = 0;
while (i < BITMAP_SIZE) {
mask[i] = 0xFF; // Change this value to get different masks!
i++;
}
BitmapInit(&rect, mask);
// Puts the rectangle onto the screen
DRAW;
int c;
// Main loop for getting keyboard input
while ((c = ngetchx()) != ENTER_KEY) {
// Erases old bitmap
DRAW;
switch (c) { // Moves bitmap around
case LEFT_KEY:
if (rect.xy.x0 - 5 >= 0) {
rect.xy.x0 -=5;
rect.xy.x1 -=5;
}
break;
case RIGHT_KEY:
if (rect.xy.x1 + 5 < LCD_WIDTH) {
rect.xy.x0 +=5;
rect.xy.x1 +=5;
}
break;
case UP_KEY:
if (rect.xy.y0 - 5 >= 0) {
rect.xy.y0 -=5;
rect.xy.y1 -=5;
}
break;
case DOWN_KEY:
if (rect.xy.y1 + 5 < LCD_HEIGHT) {
rect.xy.y0 +=5;
rect.xy.y1 +=5;
}
break;
}
// Draws new bitmap
DRAW;
}
}
