Chapter 1: Problem 16
Using the definitions of \(O\) and \(\Omega\), show that $$6 n^{2}+20 n \in O\left(n^{3}\right) \quad \text { but } \quad 6 n^{2}+20 n \notin \Omega\left(n^{3}\right)$$
Chapter 1: Problem 16
Using the definitions of \(O\) and \(\Omega\), show that $$6 n^{2}+20 n \in O\left(n^{3}\right) \quad \text { but } \quad 6 n^{2}+20 n \notin \Omega\left(n^{3}\right)$$
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Get started for freeWrite a \(\Theta(n)\) algorithm that sorts \(n\) distinct integers, ranging in size between 1 and \(k n\) inclusive, where \(k\) is a constant positive integer. (Hint: Use a kn-element array.)
Show directly that \(f(n)=n^{2}+3 n^{3} \in \Theta\left(n^{3}\right)\). That is, use the definitions of \(O\) and \(\Omega\) to show that \(f(n)\) is in both \(O\left(n^{3)} \text { and } \Omega\left(n^{3)}\right.\right.\)
Give an algorithm for the following problem and determine its time complexity. Given a list of \(n\) distinct positive integers. partition the list into two sublists, each of size \(n / 2\), such that the difference between the sums of the integers in the two sublists is maximized. You may assume that \(n\) is a multiple of 2
Group the following function by complexity category. $$\begin{aligned}&n \ln n \quad(\lg n)^{2} \quad 5 n^{2}+7 n \quad n^{5 / 2}\\\&n ! \quad 2^{n !} \quad 4^{n} \quad n^{n} \quad n^{n}+\ln n\\\&5^{\lg n} \lg (n !) \quad(\lg n) ! \quad \sqrt{n} \quad e^{n} \quad 8 n+12 \quad 10^{n}+n^{20}\end{aligned}$$
Write an algorithm that prints out all the subsets of three elements of a set of \(n\) elements. The elements of this set are stored in a list that is the input to the algorithm.
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