def FandTGen(N):
    #Constants and Parametres
    iterations_of_positions = 10000
    mean_length_list = [] #Empty List to be filled later
    origin = [0,0,0]
    


    #Empty lists to fill later
    number_list = []
    mean_mag_force_list = []
    mean_mag_torque_list = []
    summed_force_list = []
    summed_torque_list = []

    for i in range(iterations_of_positions):

        #more empty lists innit
        initial_force_list = []
        final_force_list = []
        torque_list = []

        for i in range(N): #This loop generates a sphere
            magnitude, vector = obs.RandSphere(N)
            initial_force_list.append(vector)

            #print(initial_force_list)

        transformed_v = obs.translation(vector, initial_force_list) #transforiming to get a nice graph

        for i in range(N):
            transformed_v[i] = transformed_v[i] / np.linalg.norm(transformed_v[i]) #literally for getting a nice graph


        alpha_list = [] #list for angles to the sphere

        for i in range(N):
            mtx,alpha = obs.fullrotation(transformed_v[i])
            final_force_list.append(mtx)
            alpha_list.append(alpha)


        summed_force_list.append(obs.forces(final_force_list))
        summed_torque_list.append(obs.torque(final_force_list, initial_force_list, N, torque_list))

        mean_mag_force_list.append(scipy.linalg.norm(obs.forces(final_force_list)))
        mean_mag_torque_list.append(scipy.linalg.norm(obs.torque(final_force_list, initial_force_list, N, torque_list)))


    mean_force = sum(mean_mag_force_list)/(iterations_of_positions)
    mean_torque = sum(mean_mag_torque_list)/(iterations_of_positions)

    return(mean_force, mean_torque, sum(summed_force_list)/iterations_of_positions, sum(summed_torque_list)/iterations_of_positions)
Example #2
0
            magnitude, vector = obs.RandSphere(N)
            initial_force_list.append(vector)

        #print(initial_force_list)

        transformed_v = obs.translation(
            vector, initial_force_list)  #transforiming to get a nice graph

        for i in range(N):
            transformed_v[i] = transformed_v[i] / np.linalg.norm(
                transformed_v[i])  #literally for getting a nice graph

        alpha_list = []  #list for angles to the sphere

        for i in range(N):
            mtx, alpha = obs.fullrotation(transformed_v[i])
            final_force_list.append(mtx)
            alpha_list.append(alpha)

        summed_force_list.append(obs.forces(final_force_list))
        summed_torque_list.append(
            obs.torque(final_force_list, initial_force_list, N, torque_list))

        mean_mag_force_list.append(
            scipy.linalg.norm(obs.forces(final_force_list)))
        mean_mag_torque_list.append(
            scipy.linalg.norm(
                obs.torque(final_force_list, initial_force_list, N,
                           torque_list)))

        initial_force_list = []