chore: update Q3D busbar example with Matrix Reduction Operation

examples/high_frequency/emc/busbar.py

@@ -117,18 +117,66 @@
 print(q3d.net_sources("Bar2"))
 print(q3d.net_sources("Bar3"))
 
+
+# ## Create Matrix Reduction Operations
+#
+# Series of Bar1 and Bar2
+
+mr_series = q3d.insert_reduced_matrix(
+    operation_name="JoinSeries",
+    assignment=["Sink1", "Source2"],
+    reduced_matrix="MR_1_Series",
+    new_net_name="Series1",
+)
+
+# Add Parallel with Bar3
+
+mr_series.add_operation(
+    operation_type="JoinParallel",
+    source_names=["Source1", "Source3"],
+    new_net_name="SeriesPar",
+    new_source_name="src_par",
+    new_sink_name="snk_par",
+)
+
+# Series of Bar1 and Bar2
+
+mr_series2 = q3d.insert_reduced_matrix(
+    operation_name="JoinSeries",
+    assignment=["Sink1", "Source2"],
+    reduced_matrix="MR_2_Series",
+    new_net_name="Series2",
+)
+
+# Add Series with Bar3
+
+mr_series2.add_operation(
+    operation_type="JoinSeries",
+    source_names=["Sink3", "Source1"],
+    new_net_name="MR_2_Series1",
+)
+
 # Create the solution setup and define the frequency range for the solution.
 
-setup1 = q3d.create_setup(props={"AdaptiveFreq": "100MHz"})
-sweep = setup1.add_sweep()
-sweep.props["RangeStart"] = "1MHz"
-sweep.props["RangeEnd"] = "100MHz"
+freq_sweep_name = "my_sweep"
+setup1 = q3d.create_setup(props={"AdaptiveFreq": "1000MHz"})
+sweep = setup1.add_sweep(name=freq_sweep_name)
+sweep.props["RangeStart"] = "0Hz"
+sweep.props["RangeEnd"] = "20GHz"
 sweep.props["RangeStep"] = "5MHz"
 sweep.update()
+sweep.update()
+
+# ## Analyze
+#
+# Solve the setup.
+
+q3d.analyze(cores=NUM_CORES)
+q3d.save_project()
 
 # ### Set up for postprocessing
 #
-# Specify the traces to display after solving the model.
+# Specify the traces to display after solving the model. Capacitances - Original Matrix
 
 data_plot_self = q3d.matrices[0].get_sources_for_plot(
     get_self_terms=True, get_mutual_terms=False
@@ -137,19 +185,40 @@
     get_self_terms=False, get_mutual_terms=True, category="C"
 )
 
-# Define a plot and a data table in AEDT for visualizing results.
+# Specify the traces to display after solving the model. ACL - Reduced Matrix MR_1_Series
 
-q3d.post.create_report(expressions=data_plot_self)
-q3d.post.create_report(
-    expressions=data_plot_mutual, context="Original", plot_type="Data Table"
+data_red_m1_plot_self = q3d.matrices[1].get_sources_for_plot(
+    get_self_terms=True, get_mutual_terms=False, category="ACL"
 )
 
-# ## Analyze
-#
-# Solve the setup.
+# Specify the traces to display after solving the model. ACL - Reduced Matrix MR_2_Series
 
-q3d.analyze(cores=NUM_CORES)
-q3d.save_project()
+data_red_m2_plot_self = q3d.matrices[2].get_sources_for_plot(
+    get_self_terms=True, get_mutual_terms=False, category="ACL"
+)
+
+# Define plots and a data table in AEDT for visualizing results.
+
+rep_original_self_c = q3d.post.create_report(
+    expressions=data_plot_self, plot_name="Original, Self Capacitances"
+)
+rep_original_mutual_c = q3d.post.create_report(
+    expressions=data_plot_mutual,
+    context="Original",
+    plot_type="Data Table",
+    plot_name="Original, Mutual Capacitances",
+)
+rep_red_m1_self_acl = q3d.post.create_report(
+    expressions=data_red_m1_plot_self,
+    context="MR_1_Series",
+    plot_name="MR_1_Series, Self Inductances",
+)
+rep_red_m2_self_acl = q3d.post.create_report(
+    expressions=data_red_m2_plot_self,
+    context="MR_2_Series",
+    plot_name="MR_2_Series, Self Inductances",
+)
+rep_red_m2_self_acl.edit_x_axis_scaling(linear_scaling=False)
 
 # Retrieve solution data for processing in Python.