Construct a Turing machine that accepts the language of strings of the form an, where n is a composite number. A composite number is any integer n that can be written as a product n = p ·q, where p and q are integers with 1 < p, q < n. Specifically for the purpose of this question, 0 and 1 are not considered composite numbers. Your machine can be non-deterministic, and it can use multiple tapes (as many as you need). I suggest breaking up the construction into smaller sub-tasks. In particular, the machine you built in Question 3 might be useful. For this question, it is enough to give a detailed description of the algorithm of your machine. You do not need to draw a full transition diagram. Although you can draw diagrams for smaller parts if it helps you illustrate your construction
Construct a Turing machine that accepts the language of strings of the form an, where n
is a composite number. A composite number is any integer n that can be written as a product n = p ·q,
where p and q are integers with 1 < p, q < n. Specifically for the purpose of this question, 0 and 1 are not
considered composite numbers.
Your machine can be non-deterministic, and it can use multiple tapes (as many as you need). I suggest
breaking up the construction into smaller sub-tasks. In particular, the machine you built in Question 3
might be useful.
For this question, it is enough to give a detailed description of the
not need to draw a full transition diagram. Although you can draw diagrams for smaller parts if it helps
you illustrate your construction.
![Question 4. Construct a Turing machine that accepts the language of strings of the form a", where n
is a composite number. A composite number is any integer n that can be written as a product n = p. q,
where p and q are integers with 1 < p,q < n. Specifically for the purpose of this question, 0 and 1 are not
considered composite numbers.
Your machine can be non deterministic, and it can use multiple tapes (as many as you need). I suggest
breaking up the construction into smaller sub-tasks. In particular, the machine you built in Question 3
might be useful.
For this question, it is enough to give a detailed description of the algorithm of your machine. You do
not need to draw a full transition diagram. Although you can draw diagrams for smaller parts if it helps
you illustrate your construction.](/v2/_next/image?url=https%3A%2F%2Fcontent.bartleby.com%2Fqna-images%2Fquestion%2F7036f7fe-366f-4ae7-8dd1-7f35fbfb4d98%2F931f5c82-9ab0-49eb-b61c-afeca07f9adf%2Fxuje6c_processed.png&w=3840&q=75)
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