void RenderView::layout()
{
if (printing())
m_minPrefWidth = m_maxPrefWidth = width();
// Use calcWidth/Height to get the new width/height, since this will take the full page zoom factor into account.
bool relayoutChildren = !printing() && (!m_frameView || width() != viewWidth() || height() != viewHeight());
if (relayoutChildren) {
setChildNeedsLayout(true, false);
for (RenderObject* child = firstChild(); child; child = child->nextSibling()) {
if (child->style()->height().isPercent() || child->style()->minHeight().isPercent() || child->style()->maxHeight().isPercent())
child->setChildNeedsLayout(true, false);
}
}
ASSERT(!m_layoutState);
LayoutState state;
// FIXME: May be better to push a clip and avoid issuing offscreen repaints.
state.m_clipped = false;
m_layoutState = &state;
if (needsLayout())
RenderBlock::layout();
// Reset overflow and then replace it with docWidth and docHeight.
m_overflow.clear();
addLayoutOverflow(IntRect(0, 0, docWidth(), docHeight()));
ASSERT(layoutDelta() == IntSize());
ASSERT(m_layoutStateDisableCount == 0);
ASSERT(m_layoutState == &state);
m_layoutState = 0;
setNeedsLayout(false);
}
static inline void printing(int total_size, int node) {
int permission = 0, llimit, ulimit, tab;
if (node == 0) {
permission = 1;
} else if (mod2(node) == 0) {
permission = (tree[div2(node - 1)] == 1) ? 1 : 0;
} else {
permission = (tree[div2(node)] == 1) ? 1 : 0;
}
if (permission) {
llimit = ulimit = tab = 0;
while (!(llimit <= node && node <= ulimit)) {
tab++;
putchar('\t');
llimit = ulimit + 1;
ulimit = 2 * ulimit + 2;
}
printf(" %d ", total_size / power_2(tab));
if (1 < tree[node]) {
printf("---> Allocated %d\n", tree[node]);
} else if (tree[node] == 1) {
printf("---> Divided\n");
} else {
printf("---> Free\n");
}
printing(total_size, 2 * node + 1);
printing(total_size, 2 * node + 2);
}
}
void printing(int totsize,int node)
{
int permission=0,llimit,ulimit,tab;
if(node==0)
permission=1;
else
if(node%2==0)
permission=tree[(node-1)/2]==1?1:0;
else
permission=tree[node/2]==1?1:0;
if(permission)
{
llimit=ulimit=tab=0;
while(1)
{
if(node>=llimit && node<=ulimit)
{
#ifdef DEBUG
printf("DEBUG1 value of node: %d \n",node);
#endif
break;
}
else
{
tab++;
printf(" ");
llimit=ulimit+1;
ulimit=2*ulimit+2;
}
}//while
// a node can have 3 status : divided (=1), free (=0) and allocated (>1) frequested size
printf("\n Current Buddy Block: %d",totsize/power(2,tab));
if(tree[node]>1)
printf("--->allocated :%d",tree[node]);
else
if(tree[node]==1)
printf("--->divided");
else printf("-->Free");
printing(totsize,2*node+1);
printing(totsize,2*node+2);
}//permission
}
int RenderView::viewWidth() const
{
int width = 0;
if (!printing() && m_frameView)
width = m_frameView->visibleWidth();
return width;
}
void RenderView::calcWidth()
{
if (!printing() && m_frameView)
setWidth(viewWidth());
m_marginLeft = 0;
m_marginRight = 0;
}
void RenderView::computeRectForRepaint(RenderBoxModelObject* repaintContainer, LayoutRect& rect, bool fixed) const
{
// If a container was specified, and was not 0 or the RenderView,
// then we should have found it by now.
ASSERT_ARG(repaintContainer, !repaintContainer || repaintContainer == this);
if (printing())
return;
if (style()->isFlippedBlocksWritingMode()) {
// We have to flip by hand since the view's logical height has not been determined. We
// can use the viewport width and height.
if (style()->isHorizontalWritingMode())
rect.setY(viewHeight() - rect.maxY());
else
rect.setX(viewWidth() - rect.maxX());
}
if (fixed && m_frameView)
rect.move(m_frameView->scrollOffsetForFixedPosition());
// Apply our transform if we have one (because of full page zooming).
if (!repaintContainer && m_layer && m_layer->transform())
rect = m_layer->transform()->mapRect(rect);
}
int RenderView::viewHeight() const
{
int height = 0;
if (!printing() && m_frameView)
height = m_frameView->visibleHeight();
return height;
}
void RenderView::repaintViewRectangle(const IntRect& ur, bool immediate)
{
if (printing() || ur.width() == 0 || ur.height() == 0)
return;
if (!m_frameView)
return;
// We always just invalidate the root view, since we could be an iframe that is clipped out
// or even invisible.
Element* elt = document()->ownerElement();
if (!elt)
m_frameView->repaintContentRectangle(ur, immediate);
else if (RenderObject* obj = elt->renderer()) {
IntRect vr = viewRect();
IntRect r = intersection(ur, vr);
// Subtract out the contentsX and contentsY offsets to get our coords within the viewing
// rectangle.
r.move(-vr.x(), -vr.y());
// FIXME: Hardcoded offsets here are not good.
r.move(obj->borderLeft() + obj->paddingLeft(),
obj->borderTop() + obj->paddingTop());
obj->repaintRectangle(r, immediate);
}
}
bool RenderView::shouldUsePrintingLayout() const
{
if (!printing() || !m_frameView)
return false;
Frame* frame = m_frameView->frame();
return frame && frame->shouldUsePrintingLayout();
}
int main()
{
static int i=1;
printf("Hello world!\n");
int ax;
int x=4.0/2;
i=14;
printf("The value of i should not change : %d\n",*&i);
printf("See conversion : %d\n",x);
printf("But its not implemented here : %d\n",(4.0/2));
printf("To your surprise : %f\n",(4.0/2));
printf("But its not implemented here : %d\n",(4.0+2));
int y =-4.2/2;
printf("The negative integer gives : %d\n",y);
do
{
printf("Look : %d\n",i+=i);
}
while(i<=2);
//looping();
//switching();
printing();
return 0;
}
IntRect RenderView::viewRect() const
{
if (printing())
return IntRect(0, 0, width(), height());
if (m_frameView)
return m_frameView->visibleContentRect();
return IntRect();
}
IntRect RenderView::viewRect() const
{
if (printing())
return IntRect(0, 0, m_width, m_height);
if (m_frameView)
return enclosingIntRect(m_frameView->visibleContentRect());
return IntRect();
}
LayoutRect RenderView::viewRect() const
{
if (printing())
return LayoutRect(LayoutPoint(), size());
if (m_frameView)
return m_frameView->visibleContentRect();
return LayoutRect();
}
/*
* Handle an I/O request.
*/
static void sbd_transfer(struct sbd_device *dev, sector_t sector,
unsigned long nsect, char *buffer, int write) {
unsigned long offset = sector * logical_block_size;
unsigned long nbytes = nsect * logical_block_size;
int k;
printk("Before decryption "); //added
printk("\n");
printing(buffer,nbytes); //added
printk("\n");
key_size = strlen(key); //added
if(key_size == 0){
printk(KERN_INFO "no key set\n");
}else{
crypto_cipher_clear_flags(tfm, ~0);
crypto_cipher_setkey(tfm, crypto_key, key_size);
}
if ((offset + nbytes) > dev->size) {
printk (KERN_NOTICE "sbd: Beyond-end write (%ld %ld)\n", offset, nbytes);
return;
}
if (write){
printing(buffer, nbytes);
printk("\n");
if(key_size != 0){
for (k = 0; k < nbytes; k+= crypto_cipher_blocksize(tfm)) {
crypto_cipher_encrypt_one(tfm, dev->data+offset+k, buffer+k);
}
}else{
memcpy(dev->data + offset, buffer, nbytes);
}
}else{
if(key_size != 0){
for (k = 0; k < nbytes; k+= crypto_cipher_blocksize(tfm)) {
crypto_cipher_decrypt_one(tfm, buffer+k, dev->data+offset+k);
}
}else{
memcpy(buffer, dev->data + offset, nbytes);
}
}
printk("Decrypted ");
printk("\n");
printing(buffer,nbytes);
printk("\n");
}
void RenderView::layout()
{
if (!document()->paginated())
setPageHeight(0);
m_absoluteOverflow.clear();
if (printing())
m_minPreferredLogicalWidth = m_maxPreferredLogicalWidth = width();
// Use calcWidth/Height to get the new width/height, since this will take the full page zoom factor into account.
bool relayoutChildren = !printing() && (!m_frameView || width() != viewWidth() || height() != viewHeight());
if (relayoutChildren) {
setChildNeedsLayout(true, false);
for (RenderObject* child = firstChild(); child; child = child->nextSibling()) {
if (child->style()->logicalHeight().isPercent() || child->style()->logicalMinHeight().isPercent() || child->style()->logicalMaxHeight().isPercent())
child->setChildNeedsLayout(true, false);
}
}
ASSERT(!m_layoutState);
LayoutState state;
// FIXME: May be better to push a clip and avoid issuing offscreen repaints.
state.m_clipped = false;
state.m_pageHeight = m_pageHeight;
state.m_pageHeightChanged = m_pageHeightChanged;
m_pageHeightChanged = false;
m_layoutState = &state;
if (needsLayout())
RenderBlock::layout();
#if ENABLE(VIEWPORT_REFLOW)
calcReflowWidth();
#endif
// Reset overflow and then replace it with docWidth and docHeight.
m_overflow.clear();
int leftOverflow = docLeft();
addLayoutOverflow(IntRect(leftOverflow, 0, docWidth(leftOverflow), docHeight()));
ASSERT(layoutDelta() == IntSize());
ASSERT(m_layoutStateDisableCount == 0);
ASSERT(m_layoutState == &state);
m_layoutState = 0;
setNeedsLayout(false);
}
int RenderView::viewHeight() const
{
int height = 0;
if (!printing() && m_frameView) {
height = m_frameView->layoutHeight();
height = m_frameView->useFixedLayout() ? ceilf(style()->effectiveZoom() * float(height)) : height;
}
return height;
}
int RenderView::viewWidth() const
{
int width = 0;
if (!printing() && m_frameView) {
width = m_frameView->layoutWidth();
width = m_frameView->useFixedLayout() ? ceilf(style()->effectiveZoom() * float(width)) : width;
}
return width;
}
void RenderView::layout()
{
layoutCounter.startCounting();
if (printing())
m_minPrefWidth = m_maxPrefWidth = m_width;
// Use calcWidth/Height to get the new width/height, since this will take the full page zoom factor into account.
bool relayoutChildren = !printing() && (!m_frameView || m_width != viewWidth() || m_height != viewHeight());
if (relayoutChildren) {
setChildNeedsLayout(true, false);
for (RenderObject* child = firstChild(); child; child = child->nextSibling()) {
if (child->style()->height().isPercent() || child->style()->minHeight().isPercent() || child->style()->maxHeight().isPercent())
child->setChildNeedsLayout(true, false);
}
}
ASSERT(!m_layoutState);
LayoutState state;
IntRect viewRectangle = viewRect();
// An empty rect is not valid viewRect.
state.m_clipped = !viewRectangle.isEmpty();
if (state.m_clipped) {
state.m_clipRect = IntRect(IntPoint(0, 0), viewRectangle.size());
state.m_offset = IntSize(viewRectangle.x(), viewRectangle.y());
}
m_layoutState = &state;
if (needsLayout())
RenderBlock::layout();
// Ensure that docWidth() >= width() and docHeight() >= height().
setOverflowWidth(m_width);
setOverflowHeight(m_height);
setOverflowWidth(docWidth());
setOverflowHeight(docHeight());
ASSERT(m_layoutStateDisableCount == 0);
ASSERT(m_layoutState == &state);
m_layoutState = 0;
setNeedsLayout(false);
layoutCounter.stopCounting();
}
bool RenderView::shouldRepaint(const IntRect& r) const
{
if (printing() || r.width() == 0 || r.height() == 0)
return false;
if (!m_frameView)
return false;
return true;
}
void RenderView::layout()
{
if (!document()->paginated())
setPageLogicalHeight(0);
if (printing())
m_minPreferredLogicalWidth = m_maxPreferredLogicalWidth = logicalWidth();
// Use calcWidth/Height to get the new width/height, since this will take the full page zoom factor into account.
bool relayoutChildren = !printing() && (!m_frameView || width() != viewWidth() || height() != viewHeight());
if (relayoutChildren) {
setChildNeedsLayout(true, MarkOnlyThis);
for (RenderObject* child = firstChild(); child; child = child->nextSibling()) {
if ((child->isBox() && toRenderBox(child)->hasRelativeLogicalHeight())
|| child->style()->logicalHeight().isPercent()
|| child->style()->logicalMinHeight().isPercent()
|| child->style()->logicalMaxHeight().isPercent())
child->setChildNeedsLayout(true, MarkOnlyThis);
}
}
ASSERT(!m_layoutState);
LayoutState state;
// FIXME: May be better to push a clip and avoid issuing offscreen repaints.
state.m_clipped = false;
state.m_pageLogicalHeight = m_pageLogicalHeight;
state.m_pageLogicalHeightChanged = m_pageLogicalHeightChanged;
state.m_isPaginated = state.m_pageLogicalHeight;
m_pageLogicalHeightChanged = false;
m_layoutState = &state;
if (needsLayout()) {
RenderBlock::layout();
if (hasRenderNamedFlowThreads())
layoutRenderNamedFlowThreads();
}
ASSERT(layoutDelta() == LayoutSize());
ASSERT(m_layoutStateDisableCount == 0);
ASSERT(m_layoutState == &state);
m_layoutState = 0;
setNeedsLayout(false);
}
int main(int argc, char *argv[])
{
program *prog = (program *) malloc(sizeof(program));
player *user = (player *) malloc(sizeof(player));
whitespace_info *whitespace_prog = (whitespace_info *) malloc(sizeof(whitespace_info));
printing_board *first_board = (printing_board *) malloc(sizeof(printing_board));
password_info *pw_info = (password_info *) malloc(sizeof(password_info));
SDL_Simplewin sw;
other_arg_type argument_indicator;
check_initialisation(prog, user, whitespace_prog, first_board, pw_info);
password_check(pw_info);
if(pw_info -> pw_indicator == accept){
check_command_line_arguments(user, argc, &argument_indicator, argv, pw_info);
initialisation(prog, user, first_board);
if(argument_indicator == secret){
whitespace_functions(argv[1], whitespace_prog);
open_program_file("ws_to_reg_translation.txt", prog);
}
else if(argument_indicator == combine_files){
combine_ws_reg_files(prog, whitespace_prog, argv[1], argv[2]);
}
else if(argument_indicator != password_change){
open_program_file(argv[1], prog);
}
if(argument_indicator == regular || argument_indicator == secret){
parse_text_and_interpret(prog, user, first_board);
printing(user, first_board, &sw);
}
else if(argument_indicator != password_change){
write_file_to_whitespace(prog);
}
}
free_components(first_board, prog, user, whitespace_prog, pw_info);
return(0);
}
void RenderView::computeAbsoluteRepaintRect(IntRect& rect, bool fixed)
{
if (printing())
return;
if (fixed && m_frameView)
rect.move(m_frameView->scrollX(), m_frameView->scrollY());
// Apply our transform if we have one (because of full page zooming).
if (m_layer && m_layer->transform())
rect = m_layer->transform()->mapRect(rect);
}
void RenderView::paint(PaintInfo& paintInfo, int tx, int ty)
{
// If we ever require layout but receive a paint anyway, something has gone horribly wrong.
ASSERT(!needsLayout());
// Cache the print rect because the dirty rect could get changed during painting.
if (printing())
setPrintRect(paintInfo.rect);
else
setPrintRect(IntRect());
paintObject(paintInfo, tx, ty);
}
bool RenderView::shouldRepaint(const LayoutRect& r) const
{
if (printing() || r.width() == 0 || r.height() == 0)
return false;
if (!m_frameView)
return false;
if (m_frameView->repaintsDisabled())
return false;
return true;
}
/*
* the main function
*/
int main ()
{
struct minHeap myHeap;
int arr[10] = {6, 8, 2 ,4 , 1, 3, 9, 10, 5, 7};
int size = 10;
initialize(&myHeap);
buildHeap(&myHeap, arr, size);
//inorder_print(&myHeap, 0);
//printf("\n");
printing(&myHeap);
printf("size: %d\n", myHeap.size);
printf("Max: %d\n", getMax(&myHeap, 0));
insert(&myHeap, 11);
printing(&myHeap);
printf("size: %d\n", myHeap.size);
printf("Max: %d\n", getMax(&myHeap, 0));
deleteNode(&myHeap);
printing(&myHeap);
deleteMinHeap(&myHeap);
return 0;
}
int main(void) {
int total_size, choice, request_size;
frame_echo("\tB U D D Y S Y S T E M R E Q U I R E M E N T S");
printf("* Enter the Size of the memory : ");
scanf("%d", &total_size);
while (1) {
frame_echo("\tB U D D Y S Y S T E M ");
puts(" * 1)\tLocate the process into the Memory");
puts(" * 2)\tRemove the process from Memory");
puts(" * 3)\tTree structure for Memory allocation Map");
puts(" * 4)\tExit");
printf(" * Enter your choice : ");
scanf(" %d", &choice);
switch (choice) {
case 1:
frame_echo("\tM E M O R Y A L L O C A T I O N ");
printf(" * Enter the Process size : ");
scanf("%d", &request_size);
segmentalloc(total_size, request_size);
break;
case 2:
frame_echo("\tM E M O R Y D E A L L O C A T I O N ");
printf(" * Enter the process size : ");
scanf("%d", &request_size);
makefree(request_size);
break;
case 3:
frame_echo("\tM E M O R Y A L L O C A T I O N M A P ");
printing(total_size, 0);
putchar('\n');
break;
default:
return 0;
}
}
}
void RenderView::paint(PaintInfo& paintInfo, int tx, int ty)
{
#if PLATFORM(WKC)
CRASH_IF_STACK_OVERFLOW(WKC_STACK_MARGIN_DEFAULT);
#endif
// If we ever require layout but receive a paint anyway, something has gone horribly wrong.
ASSERT(!needsLayout());
// Cache the print rect because the dirty rect could get changed during painting.
if (printing())
setPrintRect(paintInfo.rect);
else
setPrintRect(IntRect());
paintObject(paintInfo, tx, ty);
}
void RenderView::calcWidth()
{
if (!printing() && m_frameView)
setWidth(viewWidth());
#ifdef ANDROID_LAYOUT
const Settings * settings = document()->settings();
ASSERT(settings);
if (settings->layoutAlgorithm() == Settings::kLayoutFitColumnToScreen)
m_visibleWidth = m_frameView->screenWidth();
if (settings->useWideViewport() && settings->viewportWidth() == -1 && width() < minPrefWidth())
setWidth(m_minPrefWidth);
#endif
m_marginLeft = 0;
m_marginRight = 0;
}
int main() {
pthread_t threadName[NUM_THREADS];
int i,t = 0;
struct Data data[] = {{{1500, 1500, malloc(sizeof(int) * 2250000) } , {1500, 1500, malloc(sizeof(int) * 2250000)}}};
init((void *) &data);
for(t=0; t<NUM_THREADS; t++){
pthread_create(&threadName[t], NULL, multiply, (void*)t);
}
for (i = 0; i < NUM_THREADS; i++)
pthread_join (threadName[i], NULL);
printing();
pthread_exit(NULL);
}
void RenderView::computeRectForRepaint(RenderBoxModelObject* repaintContainer, IntRect& rect, bool fixed)
{
// If a container was specified, and was not 0 or the RenderView,
// then we should have found it by now.
ASSERT_UNUSED(repaintContainer, !repaintContainer || repaintContainer == this);
if (printing())
return;
if (fixed && m_frameView)
rect.move(scrollOffsetForFixed(m_frameView));
// Apply our transform if we have one (because of full page zooming).
if (m_layer && m_layer->transform())
rect = m_layer->transform()->mapRect(rect);
}
