This research formalizes a framework to describe transitions in informational states across hierarchical layers, indicating its importance in understanding physical constants.
This research formalizes the mathematical mechanics of systemic transitions within the Anadihilo () framework. Moving beyond continuous manifold models, we introduce a discrete operational roadmap using the Jump Operator (Δ_) and the Transition Tensor (T_L). This framework defines how informational states navigate between hierarchical layers (from the Bohr scale to the Proton scale) using a 6D state vector [x, y, z, t, θ, L_n]. By strictly adhering to the universal grid constant (i = 10⁻⁴), the model demonstrates that physical constants like the Proton charge radius are not arbitrary values but deterministic outcomes of discrete inter-layer transitions. This work provides the "Dynamic Engine" for the Anadihilo substrate, resolving mathematical divergences at systemic boundaries through discrete transformation matrices rather than continuous derivatives.
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Nitin Dagar (2026) studied this question.
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