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IndisputableMonolith.Quantum.HolographicBound

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Quantum.HolographicBound supplies the core definitions for the holographic principle inside Recognition Science, fixing the Planck length to unity in natural units and deriving Planck area, bits per Planck area, maximum information, and the Bekenstein bound. Researchers linking quantum information bounds to the RS forcing chain and RecognitionBandwidth unification cite these objects. The module is a pure collection of definitions with no theorems or proofs.

claim$l_P = 1$ (Planck length), $A_P = 4 l_P^2$ (Planck area), bits per Planck area, max information $\propto$ boundary area / (4 Planck areas), holographic bound, and Bekenstein bound.

background

The module sits in the Quantum domain and imports only Mathlib and IndisputableMonolith.Constants, where the fundamental RS time quantum is defined as $\tau_0 = 1$ tick. It introduces the holographic bound as max information proportional to boundary area divided by four Planck areas, together with the listed sibling definitions (planckLength, planckArea, bitsPerPlanckArea, maxInformation, holographic_bound, bekensteinBound, sphereArea, information_scales_as_area, etc.). The setting is the natural-unit framework in which $c=1$ and lengths are expressed relative to the RS time quantum.

proof idea

This is a definition module, no proofs.

why it matters in Recognition Science

The definitions feed directly into IndisputableMonolith.Unification.RecognitionBandwidth, which lists the holographic bound as the first of five elements of Recognition Science that have never been formally connected and links it to recognition cost per bit $k_R = \ln(\phi)$, ILG parameters $C_{\rm lag} = \phi^{-5}$, and the 8-tick cadence. The module therefore supplies the concrete objects required for that unification step.

scope and limits

used by (1)

From the project-wide theorem graph. These declarations reference this one in their body.

depends on (1)

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declarations in this module (23)