Informational Spacetime Tuning: Reducing the Exotic-Matter Energy Gap through Non-Linear Asymmetrical Decay Pulsing

Abstract: The previous work Γ = 10³³ vs. Wormholes established that stabilizing a Dynamic Throat Precursor requires a negative-energy density deficit of approximately ΔE ~ 10¹¹, rendering wormhole stabilization infeasible under classical assumptions of continuous, uniform exotic-matter delivery. In this paper, we introduce Informational Spacetime Tuning (IST), a framework in which spacetime behaves as a resonant structure responsive to the informational timing of energy input rather than its sustained magnitude. Through simulation, we show that delivering exotic matter via a precisely structured Exotic-Matter Pulse Train (EMPT), governed by a Non-Linear Asymmetrical Decay Curve (NADC), reduces the effective exotic-matter requirement by two orders of magnitude—from Γ ~ 10¹¹ to Γₑff ~ 10⁹. This reframes wormhole stabilization as a problem of temporal precision and structural synchronization, not brute-force negative-energy generation, establishing IST as a foundational technique for gravitational engineering research.