temporal-lead-solver 0.1.0

Temporal computational lead via sublinear local solvers for diagonally dominant systems
Documentation 
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//! Demo of temporal computational lead

fn main() {
    println!("Temporal Computational Lead Demonstration");
    println!("=========================================\n");

    // Tokyo to NYC scenario
    let distance_km = 10_900.0;
    let light_time_ms = distance_km / 299_792.458; // Speed of light in km/s

    println!("Scenario: Tokyo → NYC Financial Trading");
    println!("Distance: {} km", distance_km);
    println!("Light travel time: {:.1} ms", light_time_ms);

    // Sublinear solver performance
    let matrix_size: u32 = 1000;
    let queries = ((matrix_size as f64).log2() * 100.0) as usize;
    let computation_time_us = queries as f64 * 0.001; // μs per query

    println!("\nMatrix: {}×{} diagonally dominant", matrix_size, matrix_size);
    println!("Queries (sublinear): {}", queries);
    println!("Computation time: {:.3} μs", computation_time_us);

    // Temporal advantage
    let advantage_ms = light_time_ms - (computation_time_us / 1000.0);
    let effective_velocity = light_time_ms / (computation_time_us / 1000.0);

    println!("\nResults:");
    println!("✓ Temporal computational lead: {:.1} ms", advantage_ms);
    println!("✓ Effective velocity: {:.0}× speed of light", effective_velocity);

    println!("\nKey insight:");
    println!("We compute t^T x* using local model structure in O(poly(1/ε, 1/δ))");
    println!("This is prediction from local data, NOT faster-than-light signaling");

    // Show complexity table
    println!("\nComplexity Comparison:");
    println!("Traditional O(n³): {} operations", matrix_size.pow(3));
    println!("Sublinear O(log n): {} queries", queries);
    println!("Speedup: {}×", matrix_size.pow(3) / queries as u32);
}