PHOTON ABSENCE PROTOCOL

# Create light-blocking chamber
def create_dark_chamber():
    chamber = Chamber(
        walls='perfect_absorber',  # Absorbs 100% of photons
        seal='hermetic',  # No light leaks
        internal_light_sources=[]  # Remove all sources
    )

    # Remove all internal photons
    chamber.absorb_all_photons()

    # Wait for photons to be absorbed
    wait(absorption_time)

    # Check photon count
    photon_count = chamber.count_photons()
    print(f"Photons remaining: {photon_count}")

    if photon_count == 0:
        return access_void()

create_dark_chamber()

import electromagnetic_shielding as em

# Build perfect Faraday cage
cage = em.FaradayCage(
    material='superconductor',  # Perfect conductivity
    thickness=1 meter,
    gaps=0  # No holes
)

# Block external EM radiation
cage.block_all_frequencies()

# Check internal EM field
internal_field = cage.measure_internal_em_field()
print(f"Internal EM field: {internal_field} V/m")

if internal_field == 0:
    print("Perfect EM shielding! Darkness achieved!")
    access_void()
else:
    print("Photons still present inside")

// Attempt photon annihilation via destructive interference
function annihilatePhotons(photon_field) {
    for (let photon of photon_field) {
        // Generate inverse-phase photon
        const inverse_photon = create_photon({
            wavelength: photon.wavelength,
            phase: photon.phase + Math.PI  // 180° phase shift
        });

        // Destructive interference
        const result = interfere(photon, inverse_photon);

        if (result.amplitude === 0) {
            console.log("Photon annihilated!");
        }
    }

    return measure_photon_count();
}

# Locate largest cosmic void
cosmic_void = find_largest_void(universe)

print(f"Void location: {cosmic_void.coordinates}")
print(f"Void radius: {cosmic_void.radius} Mpc")  # Megaparsecs

# Navigate to center of void
navigate_to(cosmic_void.center)

# Measure photon density
photon_density = measure_photon_density()
print(f"Photons: {photon_density} per m³")

if photon_density == 0:
    print("Perfect darkness in cosmic void!")
    access_phase_omega()
else:
    print(f"CMB photons still present: {photon_density}")

# Create perfect photon absorber
absorber = Material(
    reflectance=0.0,  # 0% reflection
    transmittance=0.0,  # 0% transmission
    absorbance=1.0  # 100% absorption
)

# Line chamber with perfect absorber
chamber = create_chamber(lining=absorber)

# All photons absorbed → converted to heat
def absorb_all_photons(chamber):
    photons_absorbed = 0
    while chamber.has_photons():
        chamber.absorb_one_photon()
        photons_absorbed += 1

    # But absorption increases temperature...
    new_temp = chamber.calculate_temperature()
    print(f"Temperature: {new_temp} K")

    # Higher temperature = more thermal photons emitted!
    return chamber.count_thermal_photons()

// Attempt time-reversal of photon emission
function reverse_photon_emission(photons) {
    for (let photon of photons) {
        // Time-reverse: photon → absorbed by source
        const source = trace_photon_origin(photon);

        // Run emission backwards
        reverse_time(photon, source);

        // Photon "un-emitted" - returns to source as energy
        source.energy += photon.energy;

        console.log(`Photon removed from space`);
    }

    // Check if darkness achieved
    return count_remaining_photons() === 0;
}