Corrected html syntax

ibpsa · Sep 11, 2023 · b63b01d · b63b01d
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diff --git a/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse1.mo b/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse1.mo
@@ -26,10 +26,10 @@ First implementation.
 A very simple building envelope model will be constructed manually using thermal resistors and heat capacitors.
 The house consists of a wall represented by a single heat capacitor and a thermal resistor.
 The thermal resistor and boundary temperature are already included in the template.
-The wall has a surface area of <i>A<sub>wall</sub>=100 m<sup>2</i></sup>,
+The wall has a surface area of <i>A<sub>wall</sub>=100 m<sup>2</sup></i>,
 a thickness of <i>d<sub>wall</sub>=25 cm</i>,
 a thermal conductivity of <i>k<sub>wall</sub>=0.04 W/(m K)</i>,
-a density of <i>&rho;<sub>wall</sub>=2000 kg/m<sup>3</i></sup>,
+a density of <i>&rho;<sub>wall</sub>=2000 kg/m<sup>3</sup></i>,
 and a specific heat capacity of <i>c<sub>p,wall</sub>= 1000 J/(kg K)</i>
 </p>
 <p>
@@ -40,7 +40,7 @@ You can use this way of declaring parameters in the remainder of this exercise,
 </p>
 <p>
 The conductive thermal resistance value of a wall may be computed as <i>R=d/(A*k)</i>.
-The heat capacity value of a wall may be computed as <i>C=A*d*c_p*&rho;
+The heat capacity value of a wall may be computed as <i>C=A*d*c_p*&rho;</i>
 </p>
 <h4>Required models</h4>
 <ul>

diff --git a/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse2.mo b/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse2.mo
@@ -54,11 +54,11 @@ Modelica.Thermal.HeatTransfer.Sources.PrescribedHeatFlow</a>
 To be able to use the value of the outdoor solar irradiance
 you will need to access the weather data reader.
 To do this, make a connection to the <code>weaBus</code>.
-In the dialog box select <i><New Variable></i> and here type <i>HDirNor</i>,
+In the dialog box select <i>&lt;New Variable&gt;</i> and here type <i>HDirNor</i>,
 which is the direct solar irradiance on a surface of <i>1 m<sup>2</sup></i>,
 perpendicular to the sun rays.
 Set the gain factor <i>k</i> to 2,
-in order to get the solar irradiance through the window of <i>2 m<sup>2</sup>.
+in order to get the solar irradiance through the window of <i>2 m<sup>2</sup></i>.
 </p>
 <p>
 Make a connection with the <code>PrescribedHeatFlow</code> as well.

diff --git a/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse4.mo b/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse4.mo
@@ -72,11 +72,11 @@ First implementation.
 <p>
 The wall temperature (and therefore the room temperature) is quite low.
 In this step a heating system is added to resolve this. It consists of a radiator, a pump and a heater.
-The radiator has a nominal power of 3~$kW$ for an inlet and outlet temperature of the radiator of <i>60°C<\\i>
-and <i>40°C<\\i>, and a room air and radiative temperature of <i>20°C<\\i>.
+The radiator has a nominal power of 3~$kW$ for an inlet and outlet temperature of the radiator of <i>60°C</i>
+and <i>40°C</i>, and a room air and radiative temperature of <i>20°C</i>.
 The pump has a (nominal) mass flow rate of <i>0.1 kg/s</i>.
 Since the heating system uses water as a heat carrier fluid,
-the media for the models in the heating circuit should be set to <i>MediumWater<\\i>.
+the media for the models in the heating circuit should be set to <i>MediumWater</i>.
 </p>
 <h4>Required models</h4>
 <ul>

diff --git a/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse6.mo b/IBPSA/Examples/Tutorial/SimpleHouse/SimpleHouse6.mo
@@ -89,8 +89,9 @@ First implementation.
 </html>", info="<html>
 <p>
 For this last exercise, we first increase the <b>window size</b>
-from <i>2 m<sup>2</sup> <b>to <i>6 m<sup>2</sup></i></b>.
+from <i>2 m<sup>2</sup></i> <b>to <i>6 m<sup>2</sup></i></b>.
 </p>
+<p>
 We will add a ventilation model that allows to perform free cooling
 using outside air when solar irradiation heats up the room too much.
 The system consists of a fan, a damper, a controller with an air temperature setpoint