static void calculate_oil(t_bunny_pixelarray *pix,
t_bunny_pixelarray *save,
t_oil *oil)
{
int width;
int height;
oil->pos.y = 0;
width = pix->clipable.clip_width;
height = pix->clipable.clip_height;
while (oil->pos.y < height)
{
oil->pos.x = 0;
while (oil->pos.x < width)
{
init_oil(oil, LEVEL);
calculate_avg(pix, oil, oil->pos.x, oil->pos.y);
apply_normalize_oil(save, oil, LEVEL);
++(oil->pos.x);
}
++(oil->pos.y);
}
}
void ccp_session::read_alive_response() {
int retval;
int tmp;
//QM
int tmp2, tmp3;
retval = read_int(&tmp);
if (retval == -1) {
printf("ccp_session::read_alive_response socket-closed-1\n");
return;
}
// QM
retval = read_int(&tmp2);
if (retval == -1) {
printf("ccp_session::read_alive_response socket-closed-2\n");
return;
}
retval = read_int(&tmp3);
if (retval == -1) {
printf("ccp_session::read_alive_response socket-closed-3\n");
return;
}
alive_response_received = true;
latest_checkpoint = tmp;
// QM
cpu_utilization = tmp2;
idle_time = tmp3;
cpuUtil.push_back(cpu_utilization);
idleTime.push_back(idle_time);
if(cpuUtil.size() > 33)
{
vector<int>::iterator i;
i = cpuUtil.begin();
cpuUtil.erase(i,i+1);
}
if(idleTime.size() > 33)
{
vector<int>::iterator i;
i = idleTime.begin();
idleTime.erase(i,i+1);
}
calculate_avg();
/* printf("[%d.%d.%d.%d] Alive resp is (chkpt=%d, util=%d, idle=%d)\n",
(ip % 256),
((ip>>8) % 256),
((ip>>16) % 256),
((ip>>24) % 256),
latest_checkpoint,
cpu_utilization,
idle_time);*/
}
