diff --git a/web/content/docs/userguide/blocks/media.md b/web/content/docs/userguide/blocks/media.md
index 9231296f58432877613bb8f0fb917838e75c4e0f..90d1a10967f9483b11e5863feb20304928e02d2b 100644
--- a/web/content/docs/userguide/blocks/media.md
+++ b/web/content/docs/userguide/blocks/media.md
@@ -224,17 +224,19 @@ A more realistic example can be found in benchmark [A2](https://gitlab.opengeosy
 </property>
 ```
 
+The slope value provided in the `<independent_variable> </independent_variable>` block for temperature is the thermal expansion coefficient.
+
 The definition of density provided in the snippet above can be expressed by following equations:
 $$
-\rho (T=298.15, p=4e6)=1200
+\rho_{0} (T_{0}=298.15, p_{0}=4\cdot 10^{6})=1200
 $$
 
 $$
-\rho (T)=(-6 \cdot 10^{-4})\cdot T+1200
+\rho (T)=((-6 \cdot 10^{-4})\cdot (T-T_{0}) + 1) \rho_{0}
 $$
 
 $$
-\rho (p)=(0.5 \cdot 10^{9}) \cdot p+1200
+\rho (p)=((0.5 \cdot 10^{9}) \cdot (p-p_{0}) + 1) \rho_{0}
 $$
 
 ### Function
diff --git a/web/content/docs/userguide/blocks/time_loop.md b/web/content/docs/userguide/blocks/time_loop.md
index 4942e63c9cc088af58a92064e72e747391fb265e..6a73149f2a130a536cce4aeca3b9604626eced6e 100644
--- a/web/content/docs/userguide/blocks/time_loop.md
+++ b/web/content/docs/userguide/blocks/time_loop.md
@@ -140,35 +140,37 @@ especially for the solution of non-linear problems.
 
 ### Error tolerances
 
-Error tolerances will be applied to the solution vector
+Error tolerances will be applied to the solution vector.
 There are two ways of defining error tolerances:
 
-- relative `<reltosl> </reltols>`
-- absolute `<abstols> </abstols>`
+- relative
+- absolute
 
 Both of them can be defined as single value, that will be applied to all process variables, or with multiple ones applied to
-them individually.
+them individually ("per component" criteria).
+
+In those two cases appropriate tags have to be used:
+
+- for relative tolerances: `<reltol> </reltol>`
+- for absolute tolerances: `<abstol> </abstol>`
+
+and for "per component":
+
+- for relative tolerances: `<reltols> </reltols>`
+- for absolute tolerances: `<abstols> </abstols>`
 
 <!-- TODO: Describe the definition of the relative tolerance. -->
 
 If tolerances per process variable are provided, the order of values defined inside of the tags `<abstols> </abstols>` and
-`<reltosl> </reltols>` has to match order of process variables defined in [processes](/docs/userguide/blocks/processes/).
+`<reltols> </reltols>` has to match order of process variables defined in [processes](/docs/userguide/blocks/processes/).
 If process variable is directional, an XYZ order is followed.
 For example for a 3D THM problem with directional displacement $\mathbf{u}$ the following order has to be used: $T$, $p$, $u_x$
 , $u_y$, $u_z$.
 The order of $T$, $p$, and $u$ is prescribed by the THM process.
 
 Depending on process and simulation setup, the number of variables in the solution vector can vary.
-In the following example, there are four tolerances given in `abstol`: one for $T$, one for $p$, and two for $\mathbf{u}$ ($u_x$
-and $u_y$ as this is a 2D problem):
-
-```xml
-<process_variables>
-    <displacement>displacement</displacement>
-    <pressure>pressure</pressure>
-    <temperature>temperature</temperature>
-</process_variables>
-```
+For example in a 2D THM simulation, there will four tolerances given in `abstol`: one for $T$, one for $p$, and two for $\mathbf{u}$ ($u_x$
+and $u_y$).
 
 The same order is preserved for [output variables](/docs/userguide/blocks/time_loop/#output).