Given trouble is NP-complete.
To show any problem is thought to be NP-complete.
It has to create happy two conditions:
1) The clique difficulty is in NP
2) There exists an NP-complete reducible to a clique trouble.
1)consider a place with n number of rudiments has 2^n number of subsets.
graph with n amount of vertices has 2^n number of achievable subgraphs.for checking clique in each sub graph takes exponential occasion by deterministic mechanism.
That income it is not in P
2) reduce a 3SAT predicament to the NP form.A 3 SAT predicament has a solution ,if the resultant vertices form a faction.
That means we are capable to reduce the 3SAT crisis to clique problem, then clique problem is NP-complete.
2. Consider the following problem: Input: graph G, integer k Question: is it possible to partition...
The input to SPANNINGTREEWITHKLEAVES is a graph G and an integer K. The question asked by SPAN NINGTREEWITHKLEAVES is whether G has a spanning tree with exactly K leaves. Problem 3. Show that SPANNINGTREEWITIIKLEAVES is NP-complete. Hint: There is a simple polynomial time reduction from HAMILTONIANPATH to SPANNINGTREEWITHKLEAVES.
Input: a directed grid graph G, a set of target points S, and an integer k Output: true if there is a path through G that visits all points in S using at most k left turns A grid graph is a graph where the vertices are at integer coordinates from 0,0 to n,n. (So 0,0, 0,1, 0,2, ...0,n, 1,0, etc.) Also, all edges are between vertices at distance 1. (So 00->01, 00->10, but not 00 to any other vertex....
Consider the following four problems: Bin Packing: Given n items with positive integer sizes s1,s2,...,sn, a capacity C for bins and a positive integer k, is it possible to pack the n items using at most k bins? Partition: Given a set S of n integers, is it possible to partition S into two subsets S1 and S2 so that the sum of the integers in S1 is equal to the sum of the integers in S2? Longest Path: Given...
2. For a given graph G, we say that H is a clique if H is a complete subgraph of Design an algorithm such that if given a graph G and an integer k as input, determines whether or not G has a clique with k vertices in polynomial time. (Hint: Try to first find a polynomial time algorithm for a different problem and reduce the clique problem to that problem).
2. For a given graph G, we say that...
Consider the following decision problem: • Input: hGi where G is a graph. • Question: Does G contain a clique of size 3? Is this problem in P? Yes, no, unknown? Justify your answer (if your answer is “yes”, briefly describe a polynomial-time algorithm).
2. For a given graph G, we say that H is a clique if H is a complete subgraph of Design an algorithm such that if given a graph G and an integer k as input, determines whether or not G has a clique with k vertices in polynomial time. (Hint: Try to first find a polynomial time algorithm for a different problem and reduce the clique problem to that problem).
COMP Discrete Structures: Please answer completely and
clearly.
(3).
(5).
x) (4 points) If k is a positive integer, a k-coloring of a graph G is an assignment of one of k possible colors to each of the vertices/edges of G so that adjacent vertices/edges have different colors. Draw pictures of each of the following (a) A 4-coloring of the edges of the Petersen graph. (b) A 3-coloring of the vertices of the Petersen graph. (e) A 2-coloring (d) A...
1) Consider the clique problem: given a graph G (V, E) and a positive integer k, determine whether the graph contains a clique of size k, i.e., a set of k vertices S of V such that each pair of vertices of S are neighbours to each other. Design an exhaustive-search algorithm for this problem. Compute also the time complexity of your algorithm.
(a) Given a graph G = (V, E) and a number k (1 ≤ k ≤ n), the CLIQUE problem asks us whether there is a set of k vertices in G that are all connected to one another. That is, each vertex in the ”clique” is connected to the other k − 1 vertices in the clique; this set of vertices is referred to as a ”k-clique.” Show that this problem is in class NP (verifiable in polynomial time)...
Prove that the following problem is NP-complete: given an undirected graph G = (V, E) and an integer k, return a clique of size k as well as an independent set of size k, provided both exist.