Balanced Trees: AVL and Red-Black Trees - Applications - Higher Difficulty Problems

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Q. How does the balancing factor of an AVL tree node get calculated?
  • A. Height of left subtree - height of right subtree
  • B. Height of right subtree - height of left subtree
  • C. Number of nodes in left subtree - number of nodes in right subtree
  • D. Number of nodes in right subtree - number of nodes in left subtree
Q. In which scenario would an AVL tree be preferred over a Red-Black tree?
  • A. When insertions and deletions are more frequent than searches.
  • B. When search operations are more frequent than insertions and deletions.
  • C. When memory usage is a concern.
  • D. When the dataset is small.
Q. What is the main advantage of using an AVL tree over a Red-Black tree?
  • A. AVL trees are faster for insertion operations.
  • B. AVL trees maintain a stricter balance than Red-Black trees.
  • C. Red-Black trees require less memory.
  • D. AVL trees are easier to implement.
Q. What is the primary application of AVL trees?
  • A. Implementing priority queues.
  • B. Maintaining sorted data with frequent insertions and deletions.
  • C. Graph traversal.
  • D. Dynamic programming.
Q. What is the worst-case time complexity for insertion in a Red-Black tree?
  • A. O(n)
  • B. O(log n)
  • C. O(n log n)
  • D. O(1)
Q. Which of the following scenarios would benefit from using a Red-Black tree?
  • A. When frequent insertions and deletions are expected.
  • B. When the dataset is static and does not change.
  • C. When searching is the only operation performed.
  • D. When memory usage is a critical constraint.
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