9.2 Large Cardinals
An introduction to large cardinal axioms, inaccessible cardinals, measurable cardinals, elementary embeddings, and consistency strength.
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An introduction to large cardinal axioms, inaccessible cardinals, measurable cardinals, elementary embeddings, and consistency strength.
An introduction to forcing, generic filters, forcing names, the forcing relation, and the basic extension theorem.
The constructible universe, definable subsets, the hierarchy L_alpha, and the axiom of constructibility.
Equivalent forms of the axiom of choice, including Zorn's lemma, the well ordering theorem, maximal principles, and right inverses of surjections.
The axiom of choice, choice functions, indexed families, and first consequences in axiomatic set theory.
Cardinal addition, multiplication, exponentiation, finite and infinite cardinal arithmetic, and basic comparison laws.
Basic set theoretic language, including sets, membership, subsets, operations, relations, equivalence relations, order relations, and functions.
Applications of advanced set theory to analysis and topology, including regularity properties, Banach spaces, measure theory, and topological classification.
An introduction to infinite games, determined games, the axiom of determinacy, projective determinacy, and consequences for sets of reals.
An introduction to Polish spaces, Borel sets, analytic sets, projective sets, regularity properties, and the role of definability in set theory.
Forcing, large cardinals, descriptive set theory, determinacy principles, and applications in analysis and topology.
Independence results in set theory, including the axiom of choice and the continuum hypothesis, and the methods used to establish independence.
Relative consistency, inner models, constructibility, and the role of consistency results in axiomatic set theory.
Axiom of Choice, equivalent formulations, constructible universe, consistency results, and independence phenomena.
The axioms of Zermelo Fraenkel set theory, the role of choice, and the use of axioms as a foundation for mathematics.
Well ordered sets, order isomorphisms, ordinals, successor ordinals, limit ordinals, and transfinite induction.
Cardinality, finite and infinite sets, countable sets, uncountable sets, and Cantor diagonal arguments.
Basic set theoretic notions including sets, relations, functions, cardinality, ordinals, well ordering, cardinal arithmetic, and the ZF and ZFC axioms.
Three ways to organize a domain of discourse for mathematics: sets, types, and universes — and how they relate.
Formal logic, set theory, computability, and the foundations of mathematics treated as a formal system.