--- trunk/tengDissertation/Methodology.tex	2006/06/11 02:06:01	2851
+++ trunk/tengDissertation/Methodology.tex	2006/06/11 02:23:00	2853
@@ -356,11 +356,7 @@ relaxation of the pressure to the target value.  To se
 \end{equation}
 
 In eq.(\ref{eq:melchionna1}), $\tau_B$ is the time constant for
-relaxation of the pressure to the target value.  To set values for
-$\tau_B$ or $P_{\mathrm{target}}$ in a simulation, one would use the
-{\tt tauBarostat} and {\tt targetPressure} keywords in the {\tt
-.bass} file.  The units for {\tt tauBarostat} are fs, and the units
-for the {\tt targetPressure} are atmospheres.  Like in the NVT
+relaxation of the pressure to the target value. Like in the NVT
 integrator, the integration of the equations of motion is carried
 out in a velocity-Verlet style 2 part algorithm:
 
@@ -472,9 +468,6 @@ P_{\mathrm{target}} \mathcal{V}(t).
 \left( \chi^2 \tau_T^2 + \eta^2 \tau_B^2 \right) +
 P_{\mathrm{target}} \mathcal{V}(t).
 \end{equation}
-
-Bond constraints are applied at the end of both the {\tt moveA} and
-{\tt moveB} portions of the algorithm.
 
 \subsection{\label{methodSection:NPTf}Constant-pressure integration with a
 flexible box (NPTf)}