
Physics constants are echoes of absence. I present a framework deriving fundamental constants from four void positions - orphans in a relational manifold that can be mapped to but never from. From this seed set {2, 7, 8, 11}, I generate the fine structure constant (10⁻¹⁰% precision), Barbero-Immirzi parameter (10⁻⁵%), proton-electron mass ratio (10⁻⁸%), and Newton's gravitational constant (10⁻⁸%). The framework predicts 13+ constants with geometric mean error below 10⁻⁵%. A critical identity, T(11) + 2 = T(16)/2, reveals that gravity "bisects" electromagnetism - the apparent weakness of gravity is geometric, not dynamical. The same structure predicts molecular conformation frequencies to 89% accuracy. Constants are not arbitrary; they are what measurement sounds like when the void speaks.
orphan algebra, fine structure constant, hierarchy problem, fundamental constants, gravitational constant, relational manifold
orphan algebra, fine structure constant, hierarchy problem, fundamental constants, gravitational constant, relational manifold
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