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January 2, 2025 333 Days Passed
January 3, 2025 Expired
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A bank processes a list of customer transactions at the end of each day. The transactions need to be sorted based on the following criteria:
The transaction dataset has the following characteristics:
Based on the analysis of the given scenario, you need to choose the most suitable sorting algorithm from the following options: Selection Sort, Merge Sort, Quick Sort, Heap Sort, Radix Sort, and Bucket Sort. Identify which algorithm performs best overall and provide reasons to justify your choice.
NOTE: Your answer should be in the following format:
Your choice: ________.
Reason 1:
write explanation/detail of this reason in 2-3 lines.
Reason 2:
write explanation/detail of this reason in 2-3 lines.
User
Approved
Choice: Merge Sort.
Reason 1:
Merge Sort efficiently handles large datasets with its O(nlogn)O(n \log n)O(nlogn) time complexity, making it suitable for processing millions of transactions daily without significant delays.
Reason 2:
Being a stable sorting algorithm, Merge Sort maintains the relative order of transactions with identical keys, which is critical for accurate reporting and audit purposes.
User
Approved
choice: Merge Sort.
Reason 1:
Due to its O(nlogn)O(n \log n)O(nlogn) time complexity, Merge Sort can sort extensive transaction datasets efficiently, making it ideal for large-scale banking operations.
Reason 2:
Its stability ensures that transactions with the same keys, such as timestamps or amounts, retain their sequence, preserving consistency in audits and reports.
User
Approved
choice: Merge Sort.
Reason 1:
Merge Sort is a highly efficient algorithm for sorting massive datasets, as its O(nlogn)O(n \log n)O(nlogn) complexity allows quick processing of millions of records daily.
Reason 2:
The stability of Merge Sort is crucial for maintaining the original order of transactions with identical keys, ensuring the accuracy of financial reports and audit trails.
User
Approved
choice: Merge Sort.
Reason 1:
Merge Sort’s O(nlogn)O(n \log n)O(nlogn) performance makes it well-suited for handling the scale of millions of transactions efficiently, ensuring smooth bank operations.
Reason 2:
As a stable sorting algorithm, it preserves the relative order of records with matching keys, which is vital for reliable audits and compliance requirements.