Readme Update (#26)

common/ModTimeInt.F90

@@ -288,21 +288,6 @@ subroutine TimeInt_Euler
 !      print *,"NO VEL"
       call Compute_Rbc_Vel
 
-      ! Log area expansion of cells every 100 ts
-      do irbc = 1, nrbc
-        rbc => rbcs(irbc)
-        if (rootWorld) then
-          if (lt == 1) then
-            rbc%starting_area = rbc%area
-          end if
-          if (modulo(lt, 100) == 0) then
-            areaExp = RBC_AreaExpansion(rbc)
-            write (*, '(A, I3, A, F10.5, A)') &
-              "area expansion of cell ", irbc, ": ", areaExp, "%"
-          end if
-        end if
-      end do
-
       ! Enforce no-slip condition on the wall
 !      print *,"NO NO SLIP"
       call NoSlipWall

common/ModVelSolver.F90

@@ -620,7 +620,7 @@ subroutine Proj(cell, nlat, nlon, pp, qq, projpq)
   end subroutine Proj
 
 !**********************************************************************
-! Global spherical harmonci transform
+! Global spherical harmonic transform
 !
 ! Arguments:
 !  v -- RBC surface velocities

examples/README.md

@@ -9,7 +9,7 @@ If you visualize the cells in the `case` directory, you will see 8 RBC's in a fi
 ## Case Different Cell Types
 As of now, the different cell types we have are Leukocytes (aka WBC's) and sickle cells. We also have functions to create spheres and ellipsoids in `ModRbc.F90`.
 
-In this example, celltype 1 corresponds to RBC's, celltype 2 corresponds to Leukocytes, and cell type 3 are sickle cells. To run a simulation with these cells, the timestep in `/case_diff_celltypes/Input/tube.in` needs to be adjusted to approximately ~0.00014 for sickle cells and ~0.0008 for leukocytes.
+In this example, celltype 1 corresponds to RBC's, celltype 2 corresponds to Leukocytes, and cell type 3 are sickle cells. To run a simulation with these cells, the timestep in `/case_diff_celltypes/Input/tube.in` may need to be adjusted.
 
 <p align="center">
   <img src="../install/images/sicklecells.png" alt="sickle cell train" width="500"/>