Remove leftover braces from the pulse-ox post due to incomplete LaTeX conversion.

diff --git a/posts/Pulse_oxymetry.mdwn_itex b/posts/Pulse_oxymetry.mdwn_itex
index 755daab917b351ee8f0247c228e0dcb95fa76a07..05b8b0956550fd16b3c8e4e015db82a1a6f139dc 100644 (file)
--- a/posts/Pulse_oxymetry.mdwn_itex
+++ b/posts/Pulse_oxymetry.mdwn_itex
@@ -184,10 +184,10 @@ The Beer-Labmert law
 So far we've been labeling and defining attributes of the blood.  The
 point of this excercise is to understand how a pulse oximeter measures
 them.  People have known for a while that different hemoglobin
-complexes (HbO₂, HHb, MHb, HbCO, …) have differnt absorbtion
-spectra (Fig.~\ref{fig:absorbtion}), and they have been using this
-difference since the 1930's to make pulse-oximeters based on two-color
-transmittance measurements (see [Tremper 1989][T89]).
+complexes (HbO₂, HHb, MHb, HbCO, …) have differnt absorbtion spectra,
+and they have been using this difference since the 1930's to make
+pulse-oximeters based on two-color transmittance measurements (see
+[Tremper 1989][T89]).
 
 [[!img absorbtion.png
  size="600x418"
@@ -542,7 +542,7 @@ Nomenclature
       wavelength $\lambda$</dd>
   <dt id="L">$L$</dt><dd>Length of tissue through which light must pass</dd>
   <dt id="LDC">$L_\text{DC}$</dt><dd>Diastolic finger width</dd>
-  <dt id="R">$R$</dt><dd>Optical density ratio}</dd>
+  <dt id="R">$R$</dt><dd>Optical density ratio</dd>
   <dt id="LED">LED</dt><dd>Light emitting diode</dd>
 </dl>