//-------------------------------------------------
// postload - after loading a save state
//-------------------------------------------------
void postload()
{
// remove all timers and make a private list of permanent ones
simple_list <emu_timer> private_list = new simple_list <emu_timer>();
while (m_timer_list != null)
{
emu_timer timer = m_timer_list;
// temporary timers go away entirely (except our special never-expiring one)
if (timer.m_temporary && !timer.expire().is_never())
{
m_timer_allocator.reclaim(timer.release());
}
// permanent ones get added to our private list
else
{
private_list.append(timer_list_remove(timer));
}
}
{
// now re-insert them; this effectively re-sorts them by time
emu_timer timer;
while ((timer = private_list.detach_head()) != null)
{
timer_list_insert(timer);
}
}
m_suspend_changes_pending = true;
rebuild_execute_list();
// report the timer state after a log
LOG("After resetting/reordering timers:\n");
#if VERBOSE
dump_timers();
#endif
}
//-------------------------------------------------
// first_dirty_rect -- return the first dirty
// rectangle in the list
//-------------------------------------------------
public sparse_dirty_rect first_dirty_rect(rectangle cliprect)
{
// if what we have is valid, just return it again
if (m_rect_list_bounds == cliprect)
{
return(m_rect_list.empty() ? null : m_rect_list.first());
}
// reclaim the dirty list and start over
m_rect_allocator.reclaim_all(m_rect_list);
// compute dirty space rectangle coordinates
int sx = cliprect.min_x >> m_granularity;
int ex = cliprect.max_x >> m_granularity;
int sy = cliprect.min_y >> m_granularity;
int ey = cliprect.max_y >> m_granularity;
int tilesize = 1 << m_granularity;
// loop over all grid rows that intersect our cliprect
for (int y = sy; y <= ey; y++)
{
PointerU8 dirtybase = m_bitmap.pix(y); //uint8_t *dirtybase = &m_bitmap.pix(y);
sparse_dirty_rect currect = null;
// loop over all grid columns that intersect our cliprect
for (int x = sx; x <= ex; x++)
{
// if this tile is not dirty, end our current run and continue
if (dirtybase[x] == 0)
{
if (currect != null)
{
currect.m_rect &= cliprect; //*currect &= cliprect;
}
currect = null;
continue;
}
// if we can't add to an existing rect, create a new one
if (currect == null)
{
// allocate a new rect and add it to the list
currect = m_rect_list.append(m_rect_allocator.alloc());
// make a rect describing this grid square
currect.m_rect.min_x = x << m_granularity;
currect.m_rect.max_x = currect.m_rect.min_x + tilesize - 1;
currect.m_rect.min_y = y << m_granularity;
currect.m_rect.max_y = currect.m_rect.min_y + tilesize - 1;
}
// if we can add to the previous rect, just expand its width
else
{
currect.m_rect.max_x += tilesize;
}
}
// clip the last rect to the cliprect
if (currect != null)
{
currect.m_rect &= cliprect;
}
}
// mark the list as valid
m_rect_list_bounds = cliprect;
return(m_rect_list.empty() ? null : m_rect_list.first());
}