def test_returns_valid_genomes(self): """ Checks the genomes returned by the create_population function are of the correct type. """ result = create_population(1, CANTUS_FIRMUS) self.assertEqual(Genome, type(result[0]))
def test_uses_only_valid_intervals(self): """ Tests that only valid consonant intervals are used. """ valid_intervals = [2, 4, 5, 7, 9, 11] result = create_population(20, CANTUS_FIRMUS) for genome in result: for i in range(len(genome.chromosome)): contrapunctus_note = genome.chromosome[i] cantus_firmus_note = CANTUS_FIRMUS[i] interval = contrapunctus_note - cantus_firmus_note self.assertIn(interval, valid_intervals)
def test_returns_correct_number_of_genomes(self): """ Ensures the correct number of genomes are returned by the function. """ result = create_population(100, CANTUS_FIRMUS) self.assertEqual(100, len(result))
if __name__ == '__main__': args = parser.parse_args() cf = [int(x) for x in args.cantus_firmus] species = args.species output = 'out' if args.out: output = args.out population_size = 1000 mutation_range = 7 mutation_rate = 0.4 if species == 1: population_size = first.DEFAULT_POPULATION_SIZE mutation_range = first.DEFAULT_MUTATION_RANGE mutation_rate = first.DEFAULT_MUTATION_RATE start_population = first.create_population(population_size, cf) fitness_function = first.make_fitness_function(cf) generate_function = first.make_generate_function(mutation_range, mutation_rate, cf) halt_function = first.halt elif species == 2: population_size = second.DEFAULT_POPULATION_SIZE mutation_range = second.DEFAULT_MUTATION_RANGE mutation_rate = second.DEFAULT_MUTATION_RATE start_population = second.create_population(population_size, cf) fitness_function = second.make_fitness_function(cf) generate_function = first.make_generate_function(mutation_range, mutation_rate, cf) halt_function = second.make_halt_function(cf) elif species == 3: population_size = third.DEFAULT_POPULATION_SIZE