# These could be from the std math lib, but I like the numpy ones better personally from numpy import sin, cos, pi # Pull a1 support from a1_support import GRAVITY_ACC, WATER_DENSITY, HELP_MESSAGE from a1_support import load_data, plot_water_height # Fill these in with your details __author__ = "Cal Wing" __email__ = "cal@wing.id.au" __date__ = "14/02/2025" __version__ = "1.0.0" # Task 1 def determine_power_used(water_mass: float, elevation: float, pumping_time: float, efficiency: float) -> float: """ Calculates the power required to pump a certain mass of water a certain height taking into account the pumping_time and efficiency. Parameters: water_mass (float): the mass of the water pumped [kg] elevation (float): the height difference [m] pumping_time (float): the amount of time the pump is running for [hrs] efficiency (float): the conversion efficiency [%] Returns: (float): the power required by the pump [kW] """ # Ideal energy needed to lift the water potenital_energy = water_mass * GRAVITY_ACC * elevation # J = kg * m/s^2 * m = mgh # Actual amount of energy needed based on eff # Here an 85% eff means an extra 15% is needed to pump the water up electrical_energy = potenital_energy * (1 + (1 - efficiency/100)) # J = J * SCALER # Actual electrial power used to pump the water power_used = electrical_energy / (pumping_time*60*60) # W = J / S = J / (hr*60*60) return power_used / 10e3 # W -> kW def main(): print("Hello World!") # See if I get what the task sheet wants def sheet_tasks(): TASKS = ( (determine_power_used, (5e6, 250, 8, 85), 500.9191176470588), ) for i, (task, args, expected) in enumerate(TASKS): print(f'Task {i+1}') result = task(*args) if expected is not None: print(f'{task.__qualname__}{args} -> {result} {"==" if result == expected else "!="} {expected}') print(f'Task{"" if result == expected else " NOT"} equal to expected result.') else: print(f'{task.__qualname__}{args} -> {result}') print() if __name__ == '__main__': sheet_tasks()