Explanation Given: Suppose that S, and I are finite sets such that | S | = n and | I | = k . To specify a finite- state machine, first step is to choose the starting state. Now, here | S | = n , that is there are n ways to choose this starting state. Next step is to find number of ways to implement transitions. For this first choose the corresponding pair of input and state. Since | S | = n and | I | = k so, it can be done in n k ways To determine (b) The number of different finite-statenon-deterministic automata M = ( S , I , f , S 0 , F ) that can be constructed, where the starting state S 0 and the subset F of S consisting of final states can be chosen arbitrarily.

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Chapter 13, Problem 18SE

To determine

(a)

The number of differentfinite-state deterministic. automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

To determine

(b)

The number of different finite-statenon-deterministic automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

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Chapter 13, Problem 17SE

Chapter 13, Problem 19SE

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Chapter 13 Solutions

DISCRETE MATHEMATICS+ITS APPL. (LL)-W/A

Ch. 13.1 - Exercises 1-3 refer to the grammar with start...Ch. 13.1 - Exercises 1-3 refer to the grammar with start...Ch. 13.1 - Prob. 3E Ch. 13.1 - Let G=(V,T,S,P) be the phrase-structure grammar...Ch. 13.1 - Prob. 5E Ch. 13.1 - Prob. 6E Ch. 13.1 - Prob. 7E Ch. 13.1 - Show that the grammar given in Example 5 generates...Ch. 13.1 - Prob. 9E Ch. 13.1 - Prob. 10E

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(a) The number of differentfinite-state deterministic. automata M = ( S , I , f , S 0 , F ) that can be constructed, where the starting state S 0 and the subset F of S consisting of final states can be chosen arbitrarily.

Solution Summary: The author explains how to specify a finite-state machine by choosing the starting state and the number of ways to implement transitions.

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(a)

The number of differentfinite-state deterministic. automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

(b)

The number of different finite-statenon-deterministic automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

Want to see the full answer?

Chapter 13 Solutions

(a) The number of differentfinite-state deterministic. automata M = ( S , I , f , S 0 , F ) that can be constructed, where the starting state S 0 and the subset F of S consisting of final states can be chosen arbitrarily.

Solution Summary: The author explains how to specify a finite-state machine by choosing the starting state and the number of ways to implement transitions.

Videos

(a) The number of differentfinite-state deterministic. automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

(b) The number of different finite-statenon-deterministic automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

Want to see the full answer?

Chapter 13 Solutions

(a)

The number of differentfinite-state deterministic. automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.

(b)

The number of different finite-statenon-deterministic automata M=(S,I,f,S0,F) that can be constructed, where the starting state S0 and the subset F of S consisting of final states can be chosen arbitrarily.