Automata, Languages, and MachinesAutomata, Languages, and Machines |
Contents
1 | |
12 | |
30 | |
Chapter IV Structure of Recognizable Sets | 76 |
Chapter V The Integers | 100 |
Chapter VI Multiplicity | 120 |
Chapter VII Rational Sets | 159 |
Chapter VIII An Excursion into Analysis | 195 |
Chapter X Machines | 266 |
Chapter XI Sequential Machines | 296 |
Chapter XII Operations on Sequential Machines | 330 |
Chapter XIII Infinite Words | 358 |
Chapter XIV Infinite Behavior of Finite Automata | 379 |
Chapter XV kRecognizable Sequences | 394 |
Chapter XVI Linear Sequential Machines | 405 |
447 | |
Common terms and phrases
2-automaton algebraic assume automata behavior bijective called card Q coaccessible coefficients complete semiring composition computed Consequently consider COROLLARY defined denote deterministic deterministic automaton disjoint edges equation equivalence relation EXAMPLE EXERCISE exists f is rational finite alphabet formal power series formula free monoid function f given go-module gs-machine gsp-function implies infinite integer Jºy K-module K-morphism k-recognizable K-subset Kleene's Theorem label length-preserving Let f Let Q locally finite matrix minimal automaton module morphism f multiplication non-singular notation obtain output partial function polynomial prefix Proof PROPOSITION 3.1 prove q e Q rational relation rational subset Ratk recognizable subset relation f replaced satisfying semigroup semiring sequence sequential machine Show submonoid successful path surjective surjective function syntactic monoid terminal transducer unambiguous subset unitary monoid