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a) Define a full \(m{\bf{ - }}\)ary tree.

b) How many vertices does a full \(m{\bf{ - }}\)ary tree have if it has \({\bf{i}}\) internal vertices\(?\) How many leaves does the tree have?

Short Answer

Expert verified

a) A full\(m{\bf{ - }}\)ary tree is a tree where every internal vertex has exactly\({\bf{m}}\)children.

b) Vertices:\({\bf{mi + 1}}\)

Leaves:\({\bf{m(i - 1) + 1}}\)

Step by step solution

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01

Using the theorem \({\bf{4(ii)}}\)

A full \(m{\bf{ - }}\)ary tree is a tree where every internal vertex has exactly \(m{\bf{ - }}\) children.

Theorem \({\bf{4(ii)}}\): A full \(m{\bf{ - }}\)ary tree with \({\bf{i}}\) internal vertices has \({\bf{mi + 1}}\) vertices and \({\bf{(m - 1)i + 1}}\) leaves.

02

Finding the children

A full \(m{\bf{ - }}\)ary tree is a tree where every internal vertex has exactly \({\bf{m}}\) children.

03

Finding the vertices and leaves

Theorem \({\bf{4(ii)}}\) of section \({\bf{11}}{\bf{.1}}\) Introduction to Trees tells us that a full \(m{\bf{ - }}\)ary tree with \({\bf{i}}\) internal vertices has \({\bf{mi + 1}}\) vertices and \({\bf{(m - 1)i + 1}}\) leaves.

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Most popular questions from this chapter

Show that every tree is a planar graph.

In this exercise we will develop an algorithm to find the strong components of a directed graph \({\bf{G = }}\left( {{\bf{V,E}}} \right)\). Recall that a vertex \({\bf{w}} \in {\bf{V}}\) is reachable from a vertex \({\bf{v}} \in {\bf{V}}\) if there is a directed path from v to w.

  1. Explain how to use breadth-first search in the directed graph G to find all the vertices reachable from a vertex \({\bf{v}} \in {\bf{G}}\).
  2. Explain how to use breadth-first search in \({{\bf{G}}^{{\bf{conv}}}}\) to find all the vertices from which a vertex \({\bf{v}} \in {\bf{G}}\) is reachable. (Recall that \({{\bf{G}}^{{\bf{conv}}}}\) is the directed graph obtained from G by reversing the direction of all its edges.)
  3. Explain how to use part (a) and (b) to construct an algorithm that finds the strong components of a directed graph G, and explain why your algorithm is correct.

Use Sollin's algorithm to produce a minimum spanning tree for the weighted graph shown in

\({\bf{a}})\)Figure \(1\).

\(b)\)Figure \(3\).

a) Define a rooted tree and the root of such a tree.

b) Define the parent of a vertex and a child of a vertex in a rooted tree.

c) What are an internal vertex, a leaf, and a subtree in a rooted tree\(?\)

d) Draw a rooted tree with at least \({\bf{10}}\) vertices, where the degree of each vertex does not exceed \({\bf{3}}\). Identify the root, the parent of each vertex, the children of each vertex, the internal vertices, and the leaves.

Show that when given as input an undirected graph with \(n\) vertices, no more than \(\left\lfloor {\frac{n}{{{2^k}}}} \right\rfloor \) trees remain after the first step of Sollin's algorithm has been carried out and the second step of the algorithm has been carried out \({\bf{k - 1}}\) times.

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