gistfile1.txt

reate_particle(quanta)

# Print the total orientation of the particle
print(particle.total_orientation())

# Visualize the particle
particle.visualize()

# Change the orientation of the particle
particle.change_orientation(5)

# Print the total orientation of the particle after the change
print(particle.total_orientation())

# Visualize the particle after the change
particle.visualize()

## Create a complex particle from multiple particles
complex_particle = create_complex_particle([particle, particle])

# Print the total orientation of the complex particle
print(complex_particle.total_orientation())

# Visualize the complex particle
complex_particle.visualize()

# Simulate an interaction between two particles
result = interact(particle, complex_particle)

# The `result` would be a new particle or complex particle resulting from the interaction

# Entangle two particles
particle1 = create_particle(quanta[:5])
particle2 = create_particle(quanta[5:])
particle1.entangle(particle2)

# The states of particle1 and particle2 are now linked due to entanglement

# Test Paradigm 1: Test the distance_to function
particle1 = create_particle(quanta[:5])
particle2 = create_particle(quanta[5:])
print(particle1.distance_to(particle2))

# Test Paradigm 2: Test the simulate_interactions function
particle1, particle2 = simulate_interactions(particle1, particle2, 10)
print(particle1.total_orientation())
print(particle2.total_orientation())

# Test Paradigm 3: Test the entangle function
particle1.entangle(particle2)
print(particle1.total_orientation())  # Should be the same as particle2's total orientation
print(particle2.total_orientation())