Merge pull request #108 from upb-lea/stacked_core_study

pycodestyle python 3.12 update

Author: gituser789

femmt/component.py

@@ -582,7 +582,7 @@ def get_single_complex_permeability(self):
             complex_permeability = mu_0 * mdb.MaterialDatabase(
                 self.verbosity == Verbosity.Silent).get_material_attribute(material_name=self.core.material,
                                                                            attribute="initial_permeability")
-            self.femmt_print(f"{complex_permeability = }")
+            self.femmt_print(f"{complex_permeability=}")
         if self.core.permeability_type == PermeabilityType.FixedLossAngle:
             complex_permeability = mu_0 * self.core.mu_r_abs * complex(np.cos(np.deg2rad(self.core.phi_mu_deg)),
                                                                        np.sin(np.deg2rad(self.core.phi_mu_deg)))
@@ -613,9 +613,9 @@ def check_model_mqs_condition(self) -> None:
 
                 complex_permittivity = epsilon_0 * epsilon_r * complex(np.cos(np.deg2rad(epsilon_phi_deg)),
                                                                        np.sin(np.deg2rad(epsilon_phi_deg)))
-                self.femmt_print(f"{complex_permittivity = }\n"
-                                 f"{epsilon_r = }\n"
-                                 f"{epsilon_phi_deg = }")
+                self.femmt_print(f"{complex_permittivity=}\n"
+                                 f"{epsilon_r=}\n"
+                                 f"{epsilon_phi_deg=}")
 
                 ff.check_mqs_condition(radius=self.core.core_inner_diameter / 2, frequency=self.frequency,
                                        complex_permeability=self.get_single_complex_permeability(),
@@ -1120,8 +1120,8 @@ def excitation_time_domain(self, current_list: List[List[float]], time_list: Lis
         self.initial_time = 0  # defined 0
         self.step_time = time_list[1]  # convention!!! for fixed time steps
         self.time_period = time_list[-1]
-        print(f"{1/self.frequency = }")
-        print(f"{time_list[-1] = }")
+        print(f"{1/self.frequency=}")
+        print(f"{time_list[-1]=}")
         self.nb_steps_per_period = len(time_list)
         self.max_time = number_of_periods * (self.time_period + self.step_time)
         # current excitation

femmt/drawing.py

@@ -1236,8 +1236,8 @@ def check_number_of_drawn_conductors(self):
                 drawn_number_of_turns += int(self.p_conductor[winding.winding_number].shape[0] / 5)  # rectangular conductors
 
         if drawn_number_of_turns != needed_number_of_turns:
-            self.femmt_print(f"{drawn_number_of_turns = }")
-            self.femmt_print(f"{needed_number_of_turns = }")
+            self.femmt_print(f"{drawn_number_of_turns=}")
+            self.femmt_print(f"{needed_number_of_turns=}")
             raise Exception("Winding mismatch. Probably too many turns that do not fit in the winding window")
 
     def draw_region_single(self):

femmt/examples/inductor_optimization.py

@@ -355,7 +355,7 @@ def load_fem_simulation_results(working_directory: str):
     labels = []
     fem_simulation_results_directory = os.path.join(working_directory, 'fem_simulation_results')
     print("##########################")
-    print(f"{fem_simulation_results_directory =}")
+    print(f"{fem_simulation_results_directory=}")
     print("##########################")
     file_names = [f for f in os.listdir(fem_simulation_results_directory) if os.path.isfile(os.path.join(fem_simulation_results_directory, f))]
 
@@ -882,7 +882,7 @@ def pareto_front_from_data_matrix(self, data_matrix):
                 x_pareto_vec.append(core_2daxi_total_volume_vec[count_mask])
                 y_pareto_vec.append(total_loss_vec[count_mask])
 
-        print(f"{len(x_pareto_vec) = }")
+        print(f"{len(x_pareto_vec)=}")
 
         vector_to_sort = np.array([x_pareto_vec, y_pareto_vec])
 
@@ -900,11 +900,11 @@ def filter_reluctance_pareto_front_tolerance(self, data_matrix, factor_min_dc_lo
         total_volume_vec = data_matrix[:, self.param["total_volume"]]
 
         min_total_loss = np.min(total_loss_vec)
-        print(f"{min_total_loss = }")
+        print(f"{min_total_loss=}")
 
         pareto_x_vec, pareto_y_vec = self.pareto_front_from_data_matrix(data_matrix)
-        print(f"{pareto_x_vec = }")
-        print(f"{pareto_y_vec = }")
+        print(f"{pareto_x_vec=}")
+        print(f"{pareto_y_vec=}")
 
         loss_offset = factor_min_dc_losses * min_total_loss
 
@@ -1021,9 +1021,9 @@ def fem_simulation(self):
                 time_difference_seconds = end_time - start_time
                 time_difference_minutes = time_difference_seconds / 60
                 time_difference_hours = time_difference_minutes / 60
-                print(f"{time_difference_seconds = }")
-                print(f"{time_difference_minutes = }")
-                print(f"{time_difference_hours = }")
+                print(f"{time_difference_seconds=}")
+                print(f"{time_difference_minutes=}")
+                print(f"{time_difference_hours=}")
 
             except Exception as e:
                 print(f"next iteration due to {e}")

femmt/examples/ito_brute_force_example.py

@@ -56,15 +56,15 @@
 elif task == 'load_reluctance_and_filter':
     # load all calculated and valid reluctance model calculations
     valid_reluctance_model_designs = fmt.IntegratedTransformerOptimization.ReluctanceModel.load_unfiltered_results(dab_transformer_config.working_directory)
-    print(f"{len(valid_reluctance_model_designs) = }")
+    print(f"{len(valid_reluctance_model_designs)=}")
 
     # filter air gaps
     filtered_air_gaps_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.filter_min_air_gap_length(valid_reluctance_model_designs)
-    print(f"{len(filtered_air_gaps_dto_list) = }")
+    print(f"{len(filtered_air_gaps_dto_list)=}")
 
     # filter for Pareto front
     pareto_reluctance_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.filter_loss_list(filtered_air_gaps_dto_list, factor_min_dc_losses=0.5)
-    print(f"{len(pareto_reluctance_dto_list) = }")
+    print(f"{len(pareto_reluctance_dto_list)=}")
 
     # save results
     fmt.IntegratedTransformerOptimization.ReluctanceModel.save_dto_list(pareto_reluctance_dto_list, os.path.join(dab_transformer_config.working_directory,
@@ -79,7 +79,7 @@
 
     # load filtered reluctance models
     pareto_reluctance_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.load_filtered_results(dab_transformer_config.working_directory)
-    print(f"{len(pareto_reluctance_dto_list) = }")
+    print(f"{len(pareto_reluctance_dto_list)=}")
 
     # start FEM simulation
     fmt.IntegratedTransformerOptimization.FemSimulation.simulate(config_dto=dab_transformer_config,
@@ -89,14 +89,14 @@
 
     # load unfiltered results
     unfiltered_fem_results = fmt.IntegratedTransformerOptimization.FemSimulation.load_unfiltered_results(dab_transformer_config.working_directory)
-    print(f"{len(unfiltered_fem_results) = }")
+    print(f"{len(unfiltered_fem_results)=}")
 
     # plot unfiltered results
     fmt.IntegratedTransformerOptimization.FemSimulation.plot(unfiltered_fem_results)
 
     # filter results
     filtered_fem_results = fmt.IntegratedTransformerOptimization.FemSimulation.filter_loss_list(unfiltered_fem_results, factor_min_dc_losses=0.1)
-    print(f"{len(filtered_fem_results) = }")
+    print(f"{len(filtered_fem_results)=}")
 
     # save filtered results
     # fmt.IntegratedTransformerOptimization.FemSimulation.save_filtered_results(filtered_fem_results, dab_transformer_config.working_directory)
@@ -116,11 +116,11 @@
     # load thermal simulation results
     unfiltered_thermal_fem_results = fmt.IntegratedTransformerOptimization.ThermalSimulation.load_unfiltered_simulations(
         dab_transformer_config.working_directory)
-    print(f"{len(unfiltered_thermal_fem_results) = }")
+    print(f"{len(unfiltered_thermal_fem_results)=}")
 
     # filter thermal FEM simulations
     filtered_thermal_fem_results = fmt.IntegratedTransformerOptimization.ThermalSimulation.filter_max_temperature(unfiltered_thermal_fem_results, 125, 125)
-    print(f"{len(filtered_thermal_fem_results) = }")
+    print(f"{len(filtered_thermal_fem_results)=}")
 
     # load filtered FEM simulation results
     unfiltered_fem_simulation_results = fmt.IntegratedTransformerOptimization.FemSimulation.load_unfiltered_results(
@@ -131,7 +131,7 @@
     # to be removed in loss vs. volume plane.
     valid_thermal_simulations = fmt.IntegratedTransformerOptimization.ThermalSimulation.find_common_cases(
         unfiltered_fem_simulation_results, filtered_thermal_fem_results)
-    print(f"{len(valid_thermal_simulations) = }")
+    print(f"{len(valid_thermal_simulations)=}")
 
     # plot all thermal simulation results, and plot
     fmt.IntegratedTransformerOptimization.FemSimulation.plot(unfiltered_thermal_fem_results)

femmt/examples/ito_optuna_example.py

@@ -56,16 +56,16 @@
     elif task == 'filter_reluctance_model':
         # load trials from reluctance model
         reluctance_result_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.NSGAII.load_study_to_dto(study_name, dab_transformer_config)
-        print(f"{len(reluctance_result_list) = }")
+        print(f"{len(reluctance_result_list)=}")
 
         # filter air gaps
         filtered_air_gaps_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.filter_min_air_gap_length(reluctance_result_list)
-        print(f"{len(filtered_air_gaps_dto_list) = }")
+        print(f"{len(filtered_air_gaps_dto_list)=}")
 
         # filter for Pareto front
         pareto_reluctance_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.filter_loss_list(
             filtered_air_gaps_dto_list, factor_min_dc_losses=0.5)
-        print(f"{len(pareto_reluctance_dto_list) = }")
+        print(f"{len(pareto_reluctance_dto_list)=}")
 
         fmt.IntegratedTransformerOptimization.plot(reluctance_result_list)
         fmt.IntegratedTransformerOptimization.plot(pareto_reluctance_dto_list)
@@ -77,7 +77,7 @@
     elif task == 'fem_simulation_from_filtered_reluctance_model_results':
         # load filtered reluctance models
         pareto_reluctance_dto_list = fmt.IntegratedTransformerOptimization.ReluctanceModel.load_filtered_results(dab_transformer_config.working_directory)
-        print(f"{len(pareto_reluctance_dto_list) = }")
+        print(f"{len(pareto_reluctance_dto_list)=}")
 
         # start FEM simulation
         fmt.IntegratedTransformerOptimization.FemSimulation.simulate(config_dto=dab_transformer_config,
@@ -89,4 +89,4 @@
     time_stop = datetime.datetime.now()
 
     time_difference = time_stop - time_start
-    print(f"{time_difference = }")
+    print(f"{time_difference=}")

femmt/functions.py

@@ -755,11 +755,11 @@ def fft(period_vector_t_i: npt.ArrayLike, sample_factor: int = 1000, plot: str =
             f"filter_type '{filter_value_harmonic}' not available: Must be 'factor','harmonic' or 'disabled ")
 
     if plot != 'no' and plot is not False:
-        print(f"{title = }")
-        print(f"{t[-1] = }")
-        print(f"{f0 = }")
-        print(f"{Fs = }")
-        print(f"{sample_factor = }")
+        print(f"{title=}")
+        print(f"{t[-1]=}")
+        print(f"{f0=}")
+        print(f"{Fs=}")
+        print(f"{sample_factor=}")
         print(f"f_out = {np.around(f_out, decimals=0)}")
         print(f"x_out = {np.around(x_out, decimals=3)}")
         print(f"phi_rad_out = {np.around(phi_rad_out, decimals=3)}")
@@ -977,9 +977,9 @@ def find_common_frequencies(frequency_list_1: List, amplitude_list_1: List, phas
     common_phases_list_2 = []
 
     common_frequency_list = list(set(frequency_list_1).intersection(frequency_list_2))
-    print(f"{common_frequency_list = }")
+    print(f"{common_frequency_list=}")
     common_frequency_list.sort()
-    print(f"{common_frequency_list = }")
+    print(f"{common_frequency_list=}")
 
     # Delete the corresponding phases and amplitudes
     if isinstance(amplitude_list_1, List):

femmt/functions_reluctance.py

@@ -542,12 +542,12 @@ def r_air_gap_round_round(air_gap_total_height, core_inner_diameter, core_height
     sigma = sigma_round(r_equivalent_round_round, air_gap_radius, air_gap_total_height)
     if np.any(sigma > 1):
         raise Exception(f"Failure in calculating reluctance. Sigma was calculated to >1. Check input parameters!\n"
-                        f"\t{air_gap_total_height = }\n"
-                        f"\t{core_inner_diameter = }\n"
-                        f"\t{core_height_upper = }\n"
-                        f"\t{core_height_lower = }\n"
-                        f"\t{r_equivalent_round_round = }\n"
-                        f"\t{air_gap_radius = }")
+                        f"\t{air_gap_total_height=}\n"
+                        f"\t{core_inner_diameter=}\n"
+                        f"\t{core_height_upper=}\n"
+                        f"\t{core_height_lower=}\n"
+                        f"\t{r_equivalent_round_round=}\n"
+                        f"\t{air_gap_radius=}")
 
     r_air_gap_ideal = air_gap_total_height / mu_0 / np.pi / (air_gap_radius ** 2)
     r_air_gap = sigma ** 2 * r_air_gap_ideal
@@ -612,7 +612,7 @@ def r_basic_tablet_cyl(tablet_height, air_gap_basic_height, tablet_radius):
     :return: basic reluctance for tablet - cylinder structure
     """
     if air_gap_basic_height == 0:
-        raise ZeroDivisionError(f"Division by zero: {air_gap_basic_height = }")
+        raise ZeroDivisionError(f"Division by zero: {air_gap_basic_height=}")
 
     conductance_basic = mu_0 * (tablet_height / 2 / air_gap_basic_height + 2 / \
                                 np.pi * (1 + np.log(np.pi * tablet_radius / 4 / air_gap_basic_height)))

femmt/model.py

@@ -431,7 +431,7 @@ def update_sigma(self, frequency: bool) -> None:
     def update_core_material_pro_file(self, frequency, electro_magnetic_folder, plot_interpolation: bool = False):
         """Update the pro file for the solver depending on the frequency of the upcoming simulation."""
         if self.mdb_verbosity == Verbosity.ToConsole:
-            print(f"{self.permeability['datasource'] = }")
+            print(f"{self.permeability['datasource']=}")
         self.material_database.permeability_data_to_pro_file(temperature=self.temperature, frequency=frequency,
                                                              material_name=self.material,
                                                              datasource=self.permeability["datasource"],

femmt/optimization/functions_optimization.py

@@ -185,7 +185,7 @@ def pareto_front_from_dtos(dto_list: List[ItoSingleResultFile]) -> tuple:
             x_pareto_vec.append(x_vec[count_mask])
             y_pareto_vec.append(y_vec[count_mask])
 
-    print(f"{len(x_pareto_vec) = }")
+    print(f"{len(x_pareto_vec)=}")
 
     return np.array(x_pareto_vec), np.array(y_pareto_vec)
 
@@ -220,6 +220,6 @@ def pareto_front_from_result_dicts(result_dict_list: List[Dict]) -> tuple:
             x_pareto_vec.append(x_vec[count_mask])
             y_pareto_vec.append(y_vec[count_mask])
 
-    print(f"{len(x_pareto_vec) = }")
+    print(f"{len(x_pareto_vec)=}")
 
     return np.array(x_pareto_vec), np.array(y_pareto_vec)

femmt/optimization/ito.py

@@ -212,7 +212,7 @@ def brute_force_calculation(config_file: ItoSingleInputConfig):
                 time_extracted, current_extracted_2_vec = fr.time_vec_current_vec_from_time_current_vec(
                     sweep_dto.time_current_2_vec)
                 fundamental_frequency = np.around(1 / time_extracted[-1], decimals=0)
-                print(f"{fundamental_frequency = }")
+                print(f"{fundamental_frequency=}")
 
                 i_rms_1 = fr.i_rms(sweep_dto.time_current_1_vec)
                 i_rms_2 = fr.i_rms(sweep_dto.time_current_2_vec)
@@ -271,7 +271,7 @@ def brute_force_calculation(config_file: ItoSingleInputConfig):
                         #     print(f"{simulation_progress_percent} simulation_progress_percent")
                         # geometry_simulation_counter += 1
                         simulation_progress_percent = count_geometry / number_of_geometry_simulations * 100
-                        print(f"{simulation_progress_percent = } %")
+                        print(f"{simulation_progress_percent=} %")
 
                         # print(geometry_simulation_counter)