docs: quantity hierarchies in the User's Guide upated to match auto-generated ones

Author: mpusz

docs/users_guide/framework_basics/dimensionless_quantities.md

@@ -273,12 +273,12 @@ flowchart TD
     dimensionless["<b>dimensionless</b><br>[one]"]
     dimensionless --- rotation["<b>rotation</b>"]
     dimensionless --- thermodynamic_efficiency["<b>thermodynamic_efficiency</b><br><i>(work / heat)</i>"]
-    dimensionless --- angular_measure["<b>angular_measure</b><br><i>(arc_length / radius)</i><br>[rad]"]
+    dimensionless --- angular_measure["<b>angular_measure</b>🔒<br><i>(arc_length / radius)</i><br>[rad]"]
     angular_measure --- rotational_displacement["<b>rotational_displacement</b><br><i>(path_length / radius)</i>"]
     angular_measure --- phase_angle["<b>phase_angle</b>"]
-    dimensionless --- solid_angular_measure["<b>solid_angular_measure</b><br><i>(area / pow<2>(radius))</i><br>[sr]"]
-    dimensionless --- drag_factor["<b>drag_factor</b><br><i>(drag_force / (mass_density * pow<2>(speed) * area))</i>"]
-    dimensionless --- storage_capacity["<b>storage_capacity</b><br>[bit]"] --- equivalent_binary_storage_capacity["<b>equivalent_binary_storage_capacity</b>"]
+    dimensionless --- solid_angular_measure["<b>solid_angular_measure</b>🔒<br><i>(area / radius<sup>2</sup>)</i><br>[sr]"]
+    dimensionless --- drag_factor["<b>drag_factor</b><br><i>(drag_force / (mass_density * speed<sup>2</sup> * area))</i>"]
+    dimensionless --- storage_capacity["<b>storage_capacity</b>🔒<br>[bit]"] --- equivalent_binary_storage_capacity["<b>equivalent_binary_storage_capacity</b>"]
     dimensionless --- ...
 ```
 

docs/users_guide/framework_basics/systems_of_quantities.md

@@ -341,15 +341,20 @@ The below presents some arbitrary hierarchy of derived quantities of kind _energ
 ```mermaid
 flowchart TD
     energy["<b>energy</b><br><i>(mass * length<sup>2</sup> / time<sup>2</sup>)</i><br>[J]"]
-    energy --- mechanical_energy["<b>mechanical_energy</b>"]
+    energy --- signal_energy_per_binary_digit["<b>signal_energy_per_binary_digit</b><br><i>(carrier_power * period_of_binary_digits)</i>"]
+    energy --- mechanical_work["<b>mechanical_work</b>"]
+    mechanical_work --- mechanical_energy["<b>mechanical_energy</b><br><i>(force * displacement)</i>"]
     mechanical_energy --- potential_energy["<b>potential_energy</b>"]
     potential_energy --- gravitational_potential_energy["<b>gravitational_potential_energy</b><br><i>(mass * acceleration_of_free_fall * height)</i>"]
     potential_energy --- elastic_potential_energy["<b>elastic_potential_energy</b><br><i>(spring_constant * amount_of_compression<sup>2</sup>)</i>"]
     mechanical_energy --- kinetic_energy["<b>kinetic_energy</b><br><i>(mass * speed<sup>2</sup>)</i>"]
-    energy --- enthalpy["<b>enthalpy</b>"]
-    enthalpy --- internal_energy["<b>internal_energy</b> | <b>thermodynamic_energy</b>"]
+    energy --- radiant_energy["<b>radiant_energy</b>"]
+    energy --- internal_energy["<b>internal_energy</b> | <b>thermodynamic_energy</b>"]
     internal_energy --- Helmholtz_energy["<b>Helmholtz_energy</b> | <b>Helmholtz_function</b>"]
+    internal_energy --- enthalpy["<b>enthalpy</b>"]
     enthalpy --- Gibbs_energy["<b>Gibbs_energy</b> | <b>Gibbs_function</b>"]
+    internal_energy --- heat["<b>heat</b> | <b>amount_of_heat</b>"]
+    heat --- latent_heat["<b>latent_heat</b>"]
     energy --- active_energy["<b>active_energy</b>"]
 ```