a) Apply Bucket-Sort on the following input. Show your work in a similar way that we did in the class. Assume we use 10 buckets. A = [0.88, 0.32, 0.15, 0.6, 0.55, 0.11, 0.52, 0.12, 0.83, 0.31, 0.19, 0.81] b) We saw in the class that Bucket Sort is useful when the input is uniformly distributed. Consider the following input which is NOT uniformly sorted: n/logn items are uni- formly distributed in [0, 0.8], log² n items are uniformly distributed in (0.8, 0.9] and the remaining n - n/logn - log² n items are uniformly distributed in (0.9, 1]. Repeat the analysis from the class to describe the expected running time of Bucket- Sort with parameter k = n/20 for the above input. You may assume that we a comparison-based sorting algorithm with running time (n log n) to sort items within each bucket.
a) Apply Bucket-Sort on the following input. Show your work in a similar way that we did in the class. Assume we use 10 buckets. A = [0.88, 0.32, 0.15, 0.6, 0.55, 0.11, 0.52, 0.12, 0.83, 0.31, 0.19, 0.81] b) We saw in the class that Bucket Sort is useful when the input is uniformly distributed. Consider the following input which is NOT uniformly sorted: n/logn items are uni- formly distributed in [0, 0.8], log² n items are uniformly distributed in (0.8, 0.9] and the remaining n - n/logn - log² n items are uniformly distributed in (0.9, 1]. Repeat the analysis from the class to describe the expected running time of Bucket- Sort with parameter k = n/20 for the above input. You may assume that we a comparison-based sorting algorithm with running time (n log n) to sort items within each bucket.
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![a) Apply Bucket-Sort on the following input. Show your work in a similar way that we
did in the class. Assume we use 10 buckets.
A = [0.88, 0.32, 0.15, 0.6, 0.55, 0.11, 0.52, 0.12, 0.83, 0.31, 0.19, 0.81]
b) We saw in the class that Bucket Sort is useful when the input is uniformly distributed.
Consider the following input which is NOT uniformly sorted: n/logn items are uni-
formly distributed in [0, 0.8], log² n items are uniformly distributed in (0.8, 0.9] and the
remaining n - n/logn - log² n items are uniformly distributed in (0.9, 1].
Repeat the analysis from the class to describe the expected running time of Bucket-
Sort with parameter k = n/20 for the above input. You may assume that we a
comparison-based sorting algorithm with running time (n log n) to sort items within
each bucket.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F4575c695-56bc-4a6a-843f-ec886ca258f2%2Fd32a678b-94be-4f2a-8a8c-3a6d0b76ceea%2Fmwjnwqd_processed.png&w=3840&q=75)
Transcribed Image Text:a) Apply Bucket-Sort on the following input. Show your work in a similar way that we
did in the class. Assume we use 10 buckets.
A = [0.88, 0.32, 0.15, 0.6, 0.55, 0.11, 0.52, 0.12, 0.83, 0.31, 0.19, 0.81]
b) We saw in the class that Bucket Sort is useful when the input is uniformly distributed.
Consider the following input which is NOT uniformly sorted: n/logn items are uni-
formly distributed in [0, 0.8], log² n items are uniformly distributed in (0.8, 0.9] and the
remaining n - n/logn - log² n items are uniformly distributed in (0.9, 1].
Repeat the analysis from the class to describe the expected running time of Bucket-
Sort with parameter k = n/20 for the above input. You may assume that we a
comparison-based sorting algorithm with running time (n log n) to sort items within
each bucket.
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