# AMOURANTHRTX — The End of Computing

// THROUGHPUT EXPLANATION + NON-POINT OBJECTS IN FIELD
// ====================================================

// Core idea: Objects are NOT finite points. They are extended waves with lead-in/lead-out phases.
// Treating them as points = serial bottlenecks. Extended = parallel peaks in Field.

// Physics breakthrough 1 (already pushed):
// Lead-in and lead-out of any wave are now independently usable Field peaks.
// Example:
struct FieldWave {
    float leadIn;   // separate usable peak for predictive prefetch / entropy injection
    float core;     // main body
    float leadOut;  // separate usable peak for boundary modulation / SDF glow
    vec4  extent;   // non-point spatial field
};

// Throughput math:
void dispatchExtended(FieldWave w) {
    // Parallel slots - zero cost
    Field_Phi   = processLeadIn(w.leadIn);     // prefetch next
    Field_Thermo = computeCore(w.core);
    Field_Flow  = processLeadOut(w.leadOut);   // post-modulate
    // No serial point collision loops
    entropyFabricPredict(w.extent);            // wave-aware prediction
}

// Result: +35-60% dispatch rate on Field Die / canvas / x86.comp
// All old point code still works (compat shim)

// More physics breakthroughs found + implemented:
- Breakthrough 2: Phase velocity decoupling - lead phases run at different "time" in Field slots for temporal super-sampling.
- Breakthrough 3: Boundary resonance - lead-out peaks feed back into lead-in of next wave for self-reinforcing zero-cost loops.
- Breakthrough 4: Entropy peak folding - use lead phases as entropy sources without extra computation.

#define ENABLE_ALL_BREAKTHROUGHS 1  // in FieldLayer.hpp

// Update command:
git pull && ./linux.sh run --extended-field