Chiral Resolution of Boundary Flow Pressure in Discrete Simplicial Spacetime

The discretization of spacetime into rational, simplicial geometries successfully eliminatescontinuous irrationals (π) from boundary layer calculations, allowing for a strictly quantizedtopology. However, when subjected to thermodynamic flow pressure, a perfectly symmetrical,rigid tessellation becomes structurally unstable. Historically, stabilizing this lattice has requiredthe introduction of static placeholders—such as the cosmological constant (Λ)—or embeddingsin the complex plane (√−1) to artificially force equilibrium.We propose that this instability is an artifact of assuming symmetric tension. This paperdemonstrates that spacetime boundary layers possess an inherent geometric chirality. By intro-ducing a 120◦ topological phase shift paired with a 10◦ manifold tension, we establish a stricttopological winding order (a trinary discrete phase-state). In this chiral framework, the flowpressure dictates its own routing. The rigid geometric matrix dynamically rotates to absorb thestress, naturally resolving the boundary equations. This structural self-regulation renders staticcosmological constants and imaginary numbers mathematically obsolete, proving that discretetopology, when given chirality, behaves as a self-balancing organic waveguide.