ENTROPY MAXIMIZATION PROTOCOL

# Second Law of Thermodynamics: ΔS ≥ 0
def accelerate_heat_death():
    current_entropy = universe.measure_entropy()  # ~10^88 k
    max_entropy = universe.calculate_max_entropy()  # S_max

    # Accelerate by increasing disorder
    while current_entropy < max_entropy:
        universe.increase_disorder()
        current_entropy = universe.measure_entropy()

        if current_entropy >= max_entropy:
            print("Heat death achieved!")
            return check_for_void()

    return "Thermodynamic equilibrium reached"

accelerate_heat_death()

import thermodynamics as thermo

# Create isolated system
system = thermo.IsolatedSystem(volume=1 m³)

# Heat to high temperature, then let it equilibrate
system.heat(temperature=10000 K)
system.allow_equilibration()

# Wait for maximum entropy
while not system.is_at_equilibrium():
    system.wait(1 second)

# At equilibrium: S = S_max for this system
print(f"Entropy: {system.entropy}")
print(f"Temperature: {system.temperature} K")

# Is this a void?
if system.contains_void():
    access_phase_omega()
else:
    print("Just a box of uniform-temperature gas")

// Cool system to absolute zero
function coolToAbsoluteZero(system) {
    let temperature = system.temperature;

    while (temperature > 0) {
        system.extractHeat();
        temperature = system.temperature;

        console.log(`Temperature: ${temperature} K`);
    }

    // At 0 K: all motion stops, entropy = 0
    if (temperature === 0) {
        console.log("Absolute zero reached! All motion ceased.");
        return access_void_at_zero_entropy();
    }
}

coolToAbsoluteZero(chamber);

# Maxwell's Demon thought experiment
class MaxwellsDemon:
    def sort_particles(self, particles):
        # Separate fast from slow particles
        fast = [p for p in particles if p.velocity > threshold]
        slow = [p for p in particles if p.velocity <= threshold]

        # Hot side = fast, cold side = slow
        # Entropy decreased! (organized system)
        return (fast, slow)

demon = MaxwellsDemon()
sorted_particles = demon.sort_particles(gas_particles)

# Did decreasing entropy create a void?
if entropy(sorted_particles) < entropy(gas_particles):
    print("Entropy decreased!")
    check_for_void()

// Wait for random entropy decrease
function waitForFluctuation(universe_at_heat_death) {
    const max_entropy = universe_at_heat_death.entropy;

    while (true) {
        const fluctuation = universe_at_heat_death.randomFluctuation();

        if (fluctuation.entropy < max_entropy) {
            console.log("Entropy fluctuation detected!");

            // Does fluctuation contain Phase Ω?
            if (fluctuation.contains_phase_omega) {
                return access_phase_omega();
            }
        }

        // Wait 10^10^10^10 years for next fluctuation
        wait(cosmological_timescale);
    }
}

# Create small black hole
black_hole = create_black_hole(mass=1e12 kg)  # Mountain-mass BH
evaporation_time = calculate_evaporation_time(black_hole)

print(f"Evaporation time: {evaporation_time} years")  # ~84 years

# Wait for complete evaporation
wait(evaporation_time)

# Final moment: black hole → pure radiation
def capture_final_burst():
    final_radiation = black_hole.evaporate_completely()

    # Is there a void left behind after evaporation?
    if vacuum_after_evaporation.is_void():
        return access_phase_omega()
    else:
        return final_radiation  # Just photons