Step 1: Understanding the question.
The question asks for the time required to pick any element that is smaller than the maximum element in a binary search tree.
Step 2: Key observation.
In a BST with distinct elements, the maximum element is the rightmost node. Any other node in the tree automatically satisfies the condition of being smaller than the maximum.
Step 3: Time complexity.
We can simply pick the root (or any arbitrary node other than the maximum) without performing any traversal or comparison. This operation takes constant time.
Step 4: Conclusion.
Thus, the time complexity is \( \Theta(1) \).
Consider the following code:
main() {
int x = 126, y = 105;
{
if (x > y)
x = x - y;
else
y = y - x;
}
while (x != y)
printf("%d", x);
}
Consider the following code:
int a;
int arr[] = {30, 50, 10};
int *ptr = arr[10] + 1;
a = *ptr;
(*ptr)++;
ptr = ptr + 1;
printf("%d", a + arr[1] + *ptr);
Consider the following code:
int a;
int arr[] = {30, 50, 10};
int *ptr = arr[10] + 1;
a = *ptr;
(*ptr)++;
ptr = ptr + 1;
printf("%d", a + arr[1] + *ptr);
Consider the following hierarchical cache system with the following access times:
\[ \begin{array}{|c|c|c|} \hline \textbf{Cache Level} & \textbf{Hit Rate} & \textbf{Access Time} \\ \hline L1 & 90\% & 1 \text{ ns} \\ L2 & 80\% & 10 \text{ ns} \\ L3 & 100\% & 100 \text{ ns} \\ \hline \end{array} \]Find \( T_{avg} \) for hierarchical or simultaneous access.
What is the output of the following C code?
void foo(int *p, int x) {
*p = x;
}
void main() {
int *z;
int a = 20, b = 25;
z = a; // Incorrect: Should be z = a;
foo(z, b);
printf("%d", a);
}
Issue: The statement z = a; is invalid because a is an integer, and z is a pointer.