Minor doc update [ci skip]

Author: AntoineGautier

Buildings/Fluid/HeatPumps/ModularReversible/RefrigerantCycle/BaseClasses/TableData2DLoadDepSHC.mo

@@ -718,6 +718,15 @@ modules <code>nUni</code>. Nevertheless, single-module systems can also be
 appropriately represented by setting <code>nUni = 1</code>.
 </p>
 <p>
+All kinds of capacity-modulation processes are supported, such as
+VFD-driven compressors, multiple on-off compressors, and single compressor cycling.
+The method used to interpolate capacity and power based on user-provided data is 
+taken from 
+<a href=\"modelica://Buildings.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.TableData2DLoadDep\">
+Buildings.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.TableData2DLoadDep</a>.
+Users should be familiar with this latter block before continuing with this documentation.
+</p>
+<p>
 The block implements the following functionalities.
 </p>
 <ul>
@@ -734,13 +743,6 @@ Module staging
 Load balancing between the HW and CHW side
 </li>
 </ul>
-<p>
-The method used to interpolate capacity and power based on user-provided data is 
-taken from 
-<a href=\"modelica://Buildings.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.TableData2DLoadDep\">
-Buildings.Fluid.HeatPumps.ModularReversible.RefrigerantCycle.BaseClasses.TableData2DLoadDep</a>.
-Users should be familiar with this latter block before continuing with this documentation.
-</p>
 <h4>System and module operating mode</h4>
 <p>
 The block input <code>mode</code> allows switching between three system operating modes.
@@ -909,7 +911,7 @@ Based on this assumption, on the dominant side, the heating or cooling load of e
 module in SHC mode can be calculated as:</p>
 <code>Q&lt;Hea|Coo&gt;SetUniShc_flow = Q&lt;Hea|Coo&gt;Set_flow / (nUniShc + nUni&lt;Hea|Coo&gt;)</code>.
 <p>
-Now, in order to achieve load balancing between the CHW and HW sides for the
+In order to achieve load balancing between the CHW and HW sides for the
 subset of modules in SHC mode, the model assumes that these modules are loaded
 for the most demanding side, and that <b>a single module</b> can cycle between
 SHC and the corresponding single-mode operation.
@@ -986,7 +988,7 @@ The load balancing logic relies on a subset of modules producing excess heat flo
 while another module compensates for it.
 The fundamental assumption of even load between modules therefore breaks down on 
 the non-dominant side.
-In a real system where the modules are hydronically balanced, this imbalance yields 
+In a real system where the modules are hydronically balanced, this load imbalance yields 
 varying leaving temperatures across modules.
 In the worst case, the deviation from setpoint is <code>SPLR / 2</code> times the 
 design &Delta;T.

Buildings/Fluid/HeatPumps/ModularReversible/TableData2DLoadDepSHC.mo

@@ -352,6 +352,10 @@ where the capacity and power are interpolated from manufacturer
 data along the source and sink temperature and the part load ratio (PLR).<sup>1</sup>
 </p>
 <p>
+All kinds of capacity-modulation processes are supported, such as VFD-driven compressors, 
+multiple on-off compressors, and single compressor cycling.
+</p>
+<p>
 The model supports modeling both modular (<code>nUni > 1</code>) and
 single-unit (<code>nUni = 1</code>) systems.
 When modeling modular systems, the staging logic for multiple modules is