A Theoretical Framework for Supernova Energy Amplification Through Exotic-Matter Formation

We explore a theoretical framework addressing the supernova shock revival problem through matter phase transitions during core collapse. Extending Lockyer's geometric model, we investigate how extreme compression might induce reversible energy storage in modified nucleonic states. The proposed mechanism exhibits 2:1 energy release upon decompression, naturally yielding $\sim$1\% mass-to-energy conversion, matching observed explosion energies without fine-tuning. Analytical estimates suggest that the collapse energies could reach thresholds for such transitions, potentially explaining both shock revival and the supernova/black-hole dichotomy.