Iterated Jump Noncomputability and Compactness
Erwin Schrödinger International Institute for Mathematics and Physics (ESI) via YouTube
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Explore the intricate relationships between "iterated jump" versions of four fundamental principles in reverse mathematics: the atomic model theorem with subenumerable types (AST), the diagonally noncomputable principle (DNR), weak weak Kőnig's lemma (WWKL), and weak Kőnig's lemma (WKL). Examine how each principle connects to computability-theoretic concepts including noncomputable sets, diagonally noncomputable functions, Martin-Löf randoms, and PA degrees respectively. Discover the complex logical relationships between these iterated jump principles, including the formation of infinite chains and infinite antichains that demonstrate strong non-linearity in provability strength among natural combinatorial principles. Gain insights into advanced topics in reverse mathematics and computability theory through this detailed analysis of how these fundamental principles behave under iteration, revealing new paradigms in the field's understanding of mathematical strength and computational complexity.
Syllabus
Gavin Dooley - Iterated jump noncomputability and compactness
Taught by
Erwin Schrödinger International Institute for Mathematics and Physics (ESI)