Tweaks

Author: pgleeson

NeuroML2/osbSessions/3.html

@@ -2,15 +2,15 @@
 
     <p><strong>What are the properties of the cell?</strong></p>
 
-    <p>Now let's focus on the cell model. The cell is named <strong><span style="color:#ff5a02">L23_cADpyr</span> </strong>
+    <p>Now let's focus on the cell model. The cell is named <strong style="color:#ff5a02">L23_cADpyr</strong>
         (Layer 2/3 continuous accommodating pyramidal cell).</p>
 
-    <p>Selecting this in the <strong> <span style="color:#ff5a02">Model Description</span></strong> widget displays the properties of the cell. 
+    <p>Selecting this in the <strong style="color:#ff5a02">Model Description</strong> widget displays the properties of the cell. 
         There are <strong>1148 segments</strong> (based on the 3D points/radii from the neuronal reconstruction) and 
         <strong>132 segment groups</strong> consisting of sections of neurites between branch points as well as larger segment groups such as basal dendrites, axon, etc.</p>
 
     <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> Click on 
-        <strong> <span style="color:#ff5a02">Highlight cell regions</span></strong> in the widget (link is under
+        <strong style="color:#ff5a02">Highlight cell regions</strong> in the widget (link is under
         <strong>Click to apply colouring to the cell morphology</strong>). The cell should change color indicating the different regions:</p>
 
     <p>&nbsp;> <strong><span style="color:#0066FF">soma</span></strong> - consisting of a set of flat segments recreating the shape of the pyramidal cell soma</strong><br/>

NeuroML2/osbSessions/4.html

@@ -11,17 +11,17 @@
        &nbsp;> <strong><span style="color:#A9A9A9">Non specific </span></strong> </p>
 
     <p>The colored scales indicate the relative densities of the different conductances on the cell using a logarithmic scale. 
-        The <span style="color:#FF0000">red dot</span> (and the value printed on the right) shows the highest density present, 
-        and (if the conductance is not uniform across the cell) the <span style="color:#FFFF00">yellow dot</span> shows the lowest (non-zero) density.</p>
+        The <strong style="color:#FF0000">red dot</strong> (and the value printed on the right) shows the highest density present, 
+        and (if the conductance is not uniform across the cell) the <strong style="color:#FFFF00">yellow dot</strong> shows the lowest (non-zero) density.</p>
 
-    <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> Click on <strong> <span style="color:#ff5a02">NaTs2_t</span></strong>
-        (near the top in the table). This highlights the distribution of this transient Na conductance, with a large concentration on the soma, 
+    <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> Click on <strong style="color:#ff5a02">NaTs2_t</strong>
+        (on the left of the blue rows in the table). This highlights the distribution of this transient Na conductance, with a large concentration on the soma, 
         a lower density on the apical dendrites, and zero conductance (shows as white on the cell) on the basal dendrites and axon.</p>
 
     <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> The highest densities present are for 
-        <strong><span style="color:#ff5a02">NaTa_t</span></strong> and <strong><span style="color:#ff5a02">K_Pst</span></strong>. Click on each of these in turn to show that these 
+        <strong style="color:#ff5a02">NaTa_t</strong> and <strong style="color:#ff5a02">K_Pst</strong>. Click on each of these in turn to show that these 
             channels are only present on the axon (and result in this being the location of action potential initiation).</strong>
 
-    <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> Click on <strong><span style="color:#ff5a02">Ih_apical</span></strong>
+    <p><i class="fa fa-exclamation-circle" aria-hidden="true" style="color:#dd0000"></i> Click on <strong style="color:#ff5a02">Ih_apical</strong>
             to show how the conductance underlying the I<sub>h</sub> current varies on the apical dendrite from low for proximal locations to high at the apical tuft.</p>
 </div>