int main(int argc, const char * argv[]) {
printf("test\n");
int i;
long x ;
x = CountSeconds(1456,1700);
printf("%ld\n",x);
// struct LNode Biu; d
// Biu.data = 12;
// printf("%d\n",Biu.data);
// DouLNode Head = (DouLNode) malloc (sizeof(DouLNode *));
// DouLNode test1 =(DouLNode) malloc (sizeof(DouLNode *));
// DouLNode test2 = (DouLNode) malloc (sizeof(DouLNode *));
BinaryTree Root = InitBiTree();
BinaryTree test1 = InitBiTree();
BinaryTree test2 = InitBiTree();
BinaryTree pointer = Root;
Root->data = 0;
// Root->leftChild
// Head->next = Head;
// test1->data = 1;
// test2->data = 2;
for (i = 1; i <= 3; i++) {
printf("%d\n",pointer->data);
// pointer = pointer->next;
}
// struct LNode *bb;
// printf("%lu",sizeof(*Head));
// free(Head);
free(test1);
free(test2);
puts("test");
puts("test");
bulbSwitch(100);
return 0;
}
void CClock::Update (float DeltaTime)
{
// If the clock is not paused then update it!
if (!m_Pause)
{
// Update the date (total time in seconds) according
// to the type of the clock.
switch (m_ClockType)
{
// If it's a countdown clock
case CLOCKTYPE_COUNTDOWN :
{
// Decrease the date
m_Date -= DeltaTime;
// Saturate to zero
if (m_Date < 0.0f)
m_Date = 0.0f;
break;
}
// If it's a chronometer clock
case CLOCKTYPE_CHRONOMETER :
{
// Increase the date
m_Date += DeltaTime;
break;
}
}
// Make a duplicate of the date. It will be used to
// count progressively the numbers of the clock.
float RemainingDate = m_Date;
// All clock numbers to zero, because the update
// of each clock number will be done by incrementing
// them repeatedly.
m_Hours = 0;
m_Minutes = 0;
m_Seconds = 0;
m_Seconds100 = 0;
// Count the numbers differently according to the
// clock mode, that allows to know how to count.
// For a clock mode like HM, the seconds and the
// seconds100 won't be updated : they will be zero.
switch (m_ClockMode)
{
case CLOCKMODE_HMSC :
CountHours (RemainingDate);
CountMinutes (RemainingDate);
CountSeconds (RemainingDate);
CountSeconds100 (RemainingDate);
break;
case CLOCKMODE_HMS :
CountHours (RemainingDate);
CountMinutes (RemainingDate);
CountSeconds (RemainingDate);
break;
case CLOCKMODE_HM :
CountHours (RemainingDate);
CountMinutes (RemainingDate);
break;
case CLOCKMODE_MSC :
CountMinutes (RemainingDate);
CountSeconds (RemainingDate);
CountSeconds100 (RemainingDate);
break;
case CLOCKMODE_MS :
CountMinutes (RemainingDate);
CountSeconds (RemainingDate);
break;
case CLOCKMODE_SC :
CountSeconds (RemainingDate);
CountSeconds100 (RemainingDate);
break;
case CLOCKMODE_S :
CountSeconds (RemainingDate);
break;
}
}
}
