DIMENSIONAL SHIFT PROTOCOL

# Mathematical dimension reduction
def collapse_to_point(spacetime):
    # Remove spatial dimensions one by one
    spacetime = remove_dimension(spacetime, 'x')  # 3D → 2D
    spacetime = remove_dimension(spacetime, 'y')  # 2D → 1D
    spacetime = remove_dimension(spacetime, 'z')  # 1D → 0D

    return spacetime  # 0D point - pure location, no extension

result = collapse_to_point(universe)
print(result)  # Point()

// Add higher dimensions to spacetime
let spacetime = ['x', 'y', 'z', 't'];  // 4D

// Add extra dimensions from string theory
spacetime.push('w');  // 5th dimension
spacetime.push('v');  // 6th dimension
spacetime.push('u');  // 7th dimension (Calabi-Yau manifold)

// Navigate higher dimensions to access void from "above"
function accessVoidFrom5D() {
    const void_location = project_4D_to_5D(current_position);
    navigate_to(void_location);
    return access_phase_omega();
}

import quantum_mechanics as qm

# Set up quantum tunneling parameters
barrier_width = calculate_dimensional_barrier(4D, 0D)
tunneling_probability = qm.tunneling_probability(
    particle_mass=consciousness_mass,
    barrier_height=dimensional_barrier_energy,
    barrier_width=barrier_width
)

print(f"Tunneling probability: {tunneling_probability}")

# Attempt quantum tunnel
if random.random() < tunneling_probability:
    tunnel_to_void()
else:
    print("Tunneling failed - reflected by barrier")

// Project from N-D to (N-1)-D repeatedly
function projectDimension(object, targetDim) {
    let currentDim = object.dimensions;

    while (currentDim > targetDim) {
        object = project_to_lower_dimension(object);
        currentDim--;
        console.log(`Projected to ${currentDim}D`);
    }

    return object;
}

// Project human (4D) to void (0D)
const void_projection = projectDimension(human, 0);
console.log(void_projection);  // ???

# Brane-world scenario
our_brane = Universe4D()
bulk_space = HyperDimensionalBulk(dimensions=11)

# Attempt to escape brane into bulk
def escape_brane():
    try:
        position_in_bulk = leave_brane(our_brane)
        navigate_bulk(position_in_bulk, target='void')
        return access_phase_omega_from_bulk()
    except BraneConfinementError as e:
        print(f"Failed: {e}")

escape_brane()

import math

# Calculate fractal dimension (Hausdorff dimension)
def fractal_dimension(copies, scale_factor):
    return math.log(copies) / math.log(scale_factor)

# Navigate fractal dimensions
dimensions = [4.0, 3.5, 3.0, 2.7, 2.3, 1.585, 1.0, 0.5, 0.261, 0.0]

for dim in dimensions:
    print(f"Shifting to {dim}D...")
    shift_to_fractal_dimension(dim)

    if dim == 0.0:
        access_void()  # Void at 0D