8. If L is a context-free language, then we can construct a pda A accepting L by empty store, i.e. L = N(A).
Tuesday, February 23, 2021
Design a Turing machine over {I. b} which can compute a concatenation function over L = {I}. If a pair of words (W1,W2) is the input. the output has to be W1.W2.
Design a Turing machine over {I. b} which can compute a concatenation function over L = {I}. If a pair of words (W1,W2) is the input. the output has to be W1.W2.
question theory of automata from Mishra CHAPTER 9
1. DEFINITION TURING MACHINE . ANSWER LINK +
2. REPRESENTATION OF TURING MACHINE. ANSWER LINK
3. MOVES OF TURING MACHINE USING ID. ANSWER LINK +
4. INPUT PROCESSING USING ID. ANSWER LINK
5. DESIGN OF TURING MACHINES -
I ) Design a Turing machine to recognize all stlings consisting of an even number
of 1's. ANSWER LINK +
II ) Design a Turing machine over {I. b} which can compute a concatenation
function over L = {I}. If a pair of words (W1,W2) is the input. the output has
to be W1.W2. ANSWER LINK
III ) Design a TM that accepts {0N1N: n >=1}. ANSWER LINK
IV ) Design a Turing machine M to recognize the language 1N2N3N :N>=1
V) Construct a TM that accepts the language 0 1* + 1 0*.
VI) Design a TM which can multiply two positive integers.
VII) NONDETERMINISTIC TURING MACHINES .
question theory of automata from Mishra CHAPTER 5
question theory of automata from Mishra CHAPTER 5
1. REGULAR EXPRESSIONS
2. IDENTITIES FOR REGULAR
EXPRESSIONS
3. NDFAs WITH
A-MOVES AND REGULAR EXPRESSIONS
4. Any set L accepted by a
finite automaton M
is
represented by
a regular expression.
5. CONVERSION OF
NONDETERMINISTIC SYSTEMS TO
DETERMINISTIC SYSTEMS
6. ALGEBRAIC METHOD USING ARDEN'S THEOREM
7. CONSTRUCTION OF FINITE
AUTOMATA EQUIVALENT
TO A REGULAR EXPRESSION.
8. EQUIVALENCE OF Two FINITE
AUTOMATA
9. EQUIVALENCE OF Two REGULAR
EXPRESSIONS
10. PUMPING LEMMA FOR REGULAR
SETS
11. CLOSURE PROPERTIES OF REGULAR SETS
12. REGULAR
SETS AND REGULAR GRAMMARS
question theory of automata from Mishra CHAPTER 6
question theory of automata from Mishra CHAPTER 6
1. Construct a context-free grammar G
generating all integers (with sign).
2. DERIVATION TREES
3. leftmost derivation and rightmost
derivation.
4. AMBIGUITY IN CONTEXT-FREE GRAMMARS
5. If G is the grammar S -> SbS | a, show
that G is ambiguous.
6. CONSTRUCTION OF REDUCED GRAMMARS.
7. ELIMINATION OF NULL PRODUCTIONS
8. ELIMINATION OF UNIT
PRODUCTIONS
9. CHOMSKY
NORMAL FORM
10. GREIBACH
NORMAL FORM
question theory of automata from Mishra CHAPTER 7
1. Model of a pushdown automaton. ANSWER LINK +
2. Definition - pushdown automaton. ANSWER LINK+
3. instantaneous description (ID) of pushdown automaton. + ANSWER LINK
4. move of pushdown automaton. ANSWER LINK
5. deterministic pda ANSWER LINK
6. Construct a pda A accepting L = {WCWT } by final state. + - ANSWER LINK
7. Construct a pda A accepting the set of all strings over {a, b} with equal number of a's and b's. +
ANSWER LINK
8. If L is a context-free language, then we can construct a pda A accepting L by empty store, i.e. L = N(A).ANSWER LINK
question theory of automata from Mishra CHAPTER 4
question theory of automata from Mishra CHAPTER 4
1. DEFINITION OF A GRAMMAR
2. DERIVATIONS AND THE
LANGUAGE GENERATED
BY A GRAMMAR
3. CHOMSKY CLASSIFICATION OF
LANGUAGES
4. RECURSIVE AND RECURSIVELY ENUMERABLE SETS