diff --git a/Code/Source/svFSI/main.cpp b/Code/Source/svFSI/main.cpp
index 6c81a569..0ef712bb 100644
--- a/Code/Source/svFSI/main.cpp
+++ b/Code/Source/svFSI/main.cpp
@@ -85,95 +85,96 @@ void read_files(Simulation* simulation, const std::string& file_name)
   
 }
 
-/// @brief Iterate the simulation in time.
-///
-/// Reproduces the outer and inner loops in Fortan MAIN.f. 
-//
+
 
 /// @brief Iterate the precomputed state-variables in time using linear interpolation to the current time step size
-///
+//
 void iterate_precomputed_time(Simulation* simulation) {
-    using namespace consts;
+  using namespace consts;
 
-    auto& com_mod = simulation->com_mod;
-    auto& cm_mod = simulation->cm_mod;
-    auto& cm = com_mod.cm;
-    auto& cep_mod = simulation->get_cep_mod();
+  auto& com_mod = simulation->com_mod;
+  auto& cm_mod = simulation->cm_mod;
+  auto& cm = com_mod.cm;
+  auto& cep_mod = simulation->get_cep_mod();
 
-    int nTS = com_mod.nTS;
-    int stopTS = nTS;
-    int tDof = com_mod.tDof;
-    int tnNo = com_mod.tnNo;
-    int nFacesLS = com_mod.nFacesLS;
-    int nsd = com_mod.nsd;
+  int nTS = com_mod.nTS;
+  int stopTS = nTS;
+  int tDof = com_mod.tDof;
+  int tnNo = com_mod.tnNo;
+  int nFacesLS = com_mod.nFacesLS;
+  int nsd = com_mod.nsd;
 
-    auto& Ad = com_mod.Ad;      // Time derivative of displacement
-    auto& Rd = com_mod.Rd;      // Residual of the displacement equation
-    auto& Kd = com_mod.Kd;      // LHS matrix for displacement equation
+  auto& Ad = com_mod.Ad;      // Time derivative of displacement
+  auto& Rd = com_mod.Rd;      // Residual of the displacement equation
+  auto& Kd = com_mod.Kd;      // LHS matrix for displacement equation
 
-    auto& Ao = com_mod.Ao;      // Old time derivative of variables (acceleration)
-    auto& Yo = com_mod.Yo;      // Old variables (velocity)
-    auto& Do = com_mod.Do;      // Old integrated variables (dissplacement)
+  auto& Ao = com_mod.Ao;      // Old time derivative of variables (acceleration)
+  auto& Yo = com_mod.Yo;      // Old variables (velocity)
+  auto& Do = com_mod.Do;      // Old integrated variables (dissplacement)
 
-    auto& An = com_mod.An;      // New time derivative of variables
-    auto& Yn = com_mod.Yn;      // New variables (velocity)
-    auto& Dn = com_mod.Dn;      // New integrated variables
+  auto& An = com_mod.An;      // New time derivative of variables
+  auto& Yn = com_mod.Yn;      // New variables (velocity)
+  auto& Dn = com_mod.Dn;      // New integrated variables
 
-    int& cTS = com_mod.cTS;
-    int& nITs = com_mod.nITs;
-    double& dt = com_mod.dt;
+  int& cTS = com_mod.cTS;
+  int& nITs = com_mod.nITs;
+  double& dt = com_mod.dt;
 
-    if (com_mod.usePrecomp) {
+  if (com_mod.usePrecomp) {
 #ifdef debug_iterate_solution
         dmsg << "Use precomputed values ..." << std::endl;
 #endif
-        // This loop is used to interpolate between known time values of the precomputed
-        // state-variable solution
-        for (int l = 0; l < com_mod.nMsh; l++) {
-            auto lM = com_mod.msh[l];
-            if (lM.Ys.nslices() > 1) {
-                // If there is only one temporal slice, then the solution is assumed constant
-                // in time and no interpolation is performed
-                // If there are multiple temporal slices, then the solution is linearly interpolated
-                // between the known time values and the current time.
-                double precompDt = com_mod.precompDt;
-                double preTT = precompDt * (lM.Ys.nslices() - 1);
-                double cT = cTS * dt;
-                double rT = std::fmod(cT, preTT);
-                int n1, n2;
-                double alpha;
-                if (precompDt == dt) {
-                    alpha =  0.0;
-                    if (cTS < lM.Ys.nslices()) {
-                        n1 = cTS - 1;
-                    } else {
-                        n1 = cTS % lM.Ys.nslices() - 1;
-                    }
-                } else {
-                    n1 = static_cast<int>(rT / precompDt) - 1;
-                    alpha = std::fmod(rT, precompDt);
-                }
-                n2 = n1 + 1;
-                for (int i = 0; i < tnNo; i++) {
-                    for (int j = 0; j < nsd; j++) {
-                        if (alpha == 0.0) {
-                            Yn(j, i) = lM.Ys(j, i, n2);
-                        } else {
-                            Yn(j, i) = (1.0 - alpha) * lM.Ys(j, i, n1) + alpha * lM.Ys(j, i, n2);
-                        }
-                    }
-                }
+    // This loop is used to interpolate between known time values of the precomputed
+    // state-variable solution
+    for (int l = 0; l < com_mod.nMsh; l++) {
+      auto lM = com_mod.msh[l];
+      if (lM.Ys.nslices() > 1) {
+        // If there is only one temporal slice, then the solution is assumed constant
+        // in time and no interpolation is performed
+        // If there are multiple temporal slices, then the solution is linearly interpolated
+        // between the known time values and the current time.
+        double precompDt = com_mod.precompDt;
+        double preTT = precompDt * (lM.Ys.nslices() - 1);
+        double cT = cTS * dt;
+        double rT = std::fmod(cT, preTT);
+        int n1, n2;
+        double alpha;
+        if (precompDt == dt) {
+          alpha =  0.0;
+          if (cTS < lM.Ys.nslices()) {
+            n1 = cTS - 1;
+          } else {
+            n1 = cTS % lM.Ys.nslices() - 1;
+          }
+        } else {
+          n1 = static_cast<int>(rT / precompDt) - 1;
+          alpha = std::fmod(rT, precompDt);
+        }
+        n2 = n1 + 1;
+        for (int i = 0; i < tnNo; i++) {
+          for (int j = 0; j < nsd; j++) {
+            if (alpha == 0.0) {
+              Yn(j, i) = lM.Ys(j, i, n2);
             } else {
-                for (int i = 0; i < tnNo; i++) {
-                    for (int j = 0; j < nsd; j++) {
-                        Yn(j, i) = lM.Ys(j, i, 0);
-                    }
-                }
+              Yn(j, i) = (1.0 - alpha) * lM.Ys(j, i, n1) + alpha * lM.Ys(j, i, n2);
             }
+          }
         }
+      } else {
+        for (int i = 0; i < tnNo; i++) {
+          for (int j = 0; j < nsd; j++) {
+            Yn(j, i) = lM.Ys(j, i, 0);
+          }
+        }
+      }
     }
+  }
 }
 
+/// @brief Iterate the simulation in time.
+///
+/// Reproduces the outer and inner loops in Fortan MAIN.f.
+//
 void iterate_solution(Simulation* simulation)
 {
   using namespace consts;