quantity module UI: updated feedback on exhaustivity

data/db-polymer-properties-and-categories.xlsx

@@ -1,3 +1,3 @@
 version https://git-lfs.github.com/spec/v1
-oid sha256:b9a899421ec1071d344636427dcc53c75e0e4fcde3ec27f322faf53607a8c142
+oid sha256:52672b90cfa19da89c958cdbdfd6121b3da9abe187e5aedaee0ea503dec05db8
 size 26083

quantity_module/templates/quantity_index.html

@@ -180,7 +180,7 @@ please see the <a href="{{url_for('.static', filename='RST.html')}}"> RST inform
         <p><em>Temperature</em> - Enter the temperature of the extraction experiment in degrees Celsius.
         <p><em>Solvent</em> - Select the extraction solvent from the list.
         <p><em>Solvent volume</em> - Enter the volume of solvent used for extraction.
-        <p><em>Swelling amount</em> - Enter the weight percent of the extraction solvent the swollen polymer, accounting for crystallinity, if any (i.e., \( (m_s-m_0)/(m_s-X_c m_0) \times 100 \), where \( m_s \) and \( m_0 \) are the swollen and initial mass, respectively, and \( X_c \) is the crystalline fraction). 
+        <p><em>Swelling amount</em> - Enter the weight percent of the extraction solvent in the swollen polymer, accounting for crystallinity, if any (i.e., \( (m_s-m_0)/(m_s-X_c m_0) \times 100 \), where \( m_s \) and \( m_0 \) are the swollen and initial mass, respectively, and \( X_c \) is the crystalline fraction). 
         <p><em>Partition coefficient</em> - If known, enter the polymer/solvent partition coefficient of the extractable. 
         If not known, the default worst-case value of 10 can be used for typical device polymers, hydrophobic extractables, and semi- or non-polar extraction solvents.
       </div>

quantity_module/templates/quantity_report.html

@@ -71,7 +71,7 @@
 </div>
 </div>
 
-<h2> Exposure </h2>
+<h2> Total Quantity </h2>
 
 <p>
 {% if methods[0]=="category" %}
@@ -117,7 +117,13 @@ Swelling = {{swelling}} wt% (used to estimate \( D \))<br>
 {{ table | safe }}
 </div>
 
-<p>The progress of the extraction can be expressed through the dimensionless time \( \tau \). For your extraction, \( \tau \) = {{tau}}. Extractions with \( \tau \geq 0.1 \) result in more accurate estimates of the total quantity. When \( \tau \geq 1.0 \), the extracted amount may be used directly as the total quantity if the extraction is diffusion-controlled (i.e., \( \Psi \) is sufficiently large). For example, if \( \Psi > 10 \) and \( \tau \geq 1.0 \) less than 10% of the extractable will remain in the test article, consistent with exhaustive extraction. The total quantity from this tool may be used in the CHRIS exposure modules to estimate clinical exposure.</p>
+<!-- <p>The progress of the extraction can be expressed through the dimensionless time \( \tau \). For your extraction, \( \tau \) = {{tau}}. Extractions with \( \tau \geq 0.1 \) result in more accurate estimates of the total quantity. When \( \tau \geq 1.0 \), the extracted amount may be used directly as the total quantity if the extraction is diffusion-controlled (i.e., \( \Psi \) is sufficiently large). For example, if \( \Psi > 10 \) and \( \tau \geq 1.0 \) less than 10% of the extractable will remain in the test article, consistent with exhaustive extraction. The total quantity from this tool may be used in the CHRIS exposure modules to estimate clinical exposure.</p> --!>
+<h3> Notes </h3>
+<ul>
+    <li>The progress of the extraction can be expressed through the dimensionless time \( \tau \). For your extraction, \( \tau \) = {{tau}}. Extractions with \( \tau \geq 0.1 \) result in more accurate estimates of the total quantity.</li>
+    <li>If the median \( M / M_0 > 0.9 \), the extraction can be considered exhaustive, and the extracted amount may be used directly as the total quantity.</li>
+    <li>The total quantity predicted with this tool can be used in the CHRIS exposure modules to estimate clinical exposure.</li>
+</ul>
 
 {% if M0>=mass_units %}
 <p>