Chapter 9: Problem 14
Show that a problem is \(N P\) -easy if and only if it reduces to an \(N P\) -complete problem.
Chapter 9: Problem 14
Show that a problem is \(N P\) -easy if and only if it reduces to an \(N P\) -complete problem.
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Get started for freeGiven a list of \(n\) positive integers \((n \text { even }),\) divide the list into two sublists such that the difference between the sums of the integers in the two sublists is minimized. Is this problem an \(N P\) complete problem? Is this problem an \(N P\) -hard problem?
Write a polynomial-time algorithm that checks if an undirected graph has a Hamiltonian Circuit, assuming that the graph has no vertex with degree exceeding 2
For the Sum-of-Subsets problem discussed in Chapter \(5,\) can you develop an approximation algorithm that runs in polynomial time?
Show that the reduction of the Hamiltonian Circuits Decision problem to the Traveling Salesperson (Undirected) Decision problem can be done in polynomial time.
Show that if a problem is not in \(N P\), it is not \(N P\) easy. Therefore, Presburger Arithmetic and the Halting problem are not \(N P\) -easy.
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