# Initial acceleration values acc_initial_x = -28.00 # in mg acc_initial_y = 1000.00 # in mg acc_initial_z = 106.00 # in mg # Final acceleration values acc_final_x = -18.00 # in mg acc_final_y = 992.00 # in mg acc_final_z = 101.00 # in mg # Time interval between measurements (in seconds) time_interval = 1 # for example, 1 second # Convert acceleration from mg to m/s^2 acceleration_factor = 9.81 / 1000 # conversion factor from mg to m/s^2 acc_initial_x_mps2 = acc_initial_x * acceleration_factor acc_initial_y_mps2 = acc_initial_y * acceleration_factor acc_initial_z_mps2 = acc_initial_z * acceleration_factor acc_final_x_mps2 = acc_final_x * acceleration_factor acc_final_y_mps2 = acc_final_y * acceleration_factor acc_final_z_mps2 = acc_final_z * acceleration_factor # Output initial acceleration in m/s^2 print("Initial acceleration (m/s^2):") print("X-axis:", acc_initial_x_mps2) print("Y-axis:", acc_initial_y_mps2) print("Z-axis:", acc_initial_z_mps2) print() # Output final acceleration in m/s^2 print("Final acceleration (m/s^2):") print("X-axis:", acc_final_x_mps2) print("Y-axis:", acc_final_y_mps2) print("Z-axis:", acc_final_z_mps2) print() # Calculate change in velocity (delta v = acceleration * time interval) delta_v_x = (acc_final_x_mps2 - acc_initial_x_mps2) * time_interval delta_v_y = (acc_final_y_mps2 - acc_initial_y_mps2) * time_interval delta_v_z = (acc_final_z_mps2 - acc_initial_z_mps2) * time_interval # Output change in velocity print("Change in velocity (m/s):") print("X-axis:", delta_v_x) print("Y-axis:", delta_v_y) print("Z-axis:", delta_v_z)