Indistinguishability Obfuscation, Range Avoidance, and Bounded Arithmetic
summary
Main claim: under two assumptions—NP not in coAM infinitely often and existence of subexponentially secure indistinguishability obfuscation—the theory PV1 cannot prove the dual weak pigeonhole principle for PV functions, so APC1 is strictly stronger. Proof converts a hypothetical PV1 proof via KPT witnessing into a deterministic constant‑round Circuit Range Avoidance student‑teacher algorithm, then uses iO to build circuits C_{φ,y} (output y on satisfying x, else 0) so that such an algorithm yields NP in coAM infinitely often (or NP=coNP in the one‑round case).
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chapters (8)
- 0:00Introduction
- 2:40Proof of PV1
- 8:55What is PV1
- 12:25Range Avoidance Algorithm
- 15:23Indistinguishable
- 16:57Indistinguishability Application
- 20:23Proof
- 22:00Reduction
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