Chapter 1: Q11E (page 85)
Prove that every NFA can be converted to an equivalent one that has a single accept state.
Short Answer
Each NFA is transformed into an equivalent with a single accept state.
Chapter 1: Q11E (page 85)
Prove that every NFA can be converted to an equivalent one that has a single accept state.
Each NFA is transformed into an equivalent with a single accept state.
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a. Let and Show that B is a regular language.
b. Let and Show that C isn’t a regular language.
Let is a binary number that is a multiple of n}. Show that for each , the language is regular
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Show that if A is regular, then is not necessarily regular
A finite state transducer (FST) is a type of deterministic finite automaton whose output is a string and not just accept or reject. The following are state diagrams of finite state transducers .
Each transition of an FST is labeled with two symbols, one designating the input symbol for that transition and the other designating the output symbol. The two symbols are written with a slash, , separating them. In , the transition from has input symbol 2 and output symbol 1. Some transitions may have multiple input–output pairs, such as the transition in from to itself. When an FST computes on an input string w, it takes the input symbols one by one and, starting at the start state, follows the transitions by matching the input labels with the sequence of symbols . Every time it goes along a transition, it outputs the corresponding output symbol. For example, on input , machine enters the sequence of states and produces output . On input , outputs . Give the sequence of states entered and the output produced in each of the following parts.
a. on input
b. on input
c. on input
d. on input
e. on input b
f. on input bbab
g. on input bbbbbb
h. on input localid="1663158267545"
Consider the languages defined in Problem 1.60. Prove that for each , no DFA can recognize with fewer than states.
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