Please consider the following formatting changes to #15409

Detectors/Upgrades/ALICE3/FT3/simulation/include/FT3Simulation/FT3ModuleConstants.h

@@ -153,7 +153,7 @@ const std::vector<double> x_midpoints = {
   38.25, 42.75, 47.25, 51.75, 56.25, 60.75, 65.25               // R
 };
 const double x_midpoint_spacing = 4.5; // assume constant for now
-const double maxToleranceInner = 0.; // default not allowed inwards
+const double maxToleranceInner = 0.;   // default not allowed inwards
 const double maxToleranceOuter = 3.4;  // leave 1mm for layer air encapsulation
 const std::vector<bool> staveOnFront =
   {
@@ -180,8 +180,8 @@ const std::vector<double> x_midpoints = {
   2.25, 6.75, 11.25, 15.75, 20.25, 24.75, 29.25, 33.75          // R
 };
 const double x_midpoint_spacing = 4.5;
-const double maxToleranceInner = 0.; // default not allowed inwards
-const double maxToleranceOuter = 3.4;  // leave 1mm for layer air encapsulation
+const double maxToleranceInner = 0.;  // default not allowed inwards
+const double maxToleranceOuter = 3.4; // leave 1mm for layer air encapsulation
 const std::vector<bool> staveOnFront =
   {
     1, 0, 1, 0, 1, 0, 1, 0, // L

Detectors/Upgrades/ALICE3/FT3/simulation/src/FT3Layer.cxx

@@ -459,8 +459,8 @@ void FT3Layer::createLayer(TGeoVolume* motherVolume)
 
     // shift stave volumes into layer volume, since nominal z_{stave face} = 0
     double z_local_offset = z_layer_thickness / 2.0;
-     // ensure staves fully encapsulated in the layer volume,
-     // but don't cross out of max nominal radii of 38.5cm & 71.5cm respectively (3.5cm tolerance)
+    // ensure staves fully encapsulated in the layer volume,
+    // but don't cross out of max nominal radii of 38.5cm & 71.5cm respectively (3.5cm tolerance)
     TGeoTube* layer = new TGeoTube(mInnerRadius - 0.2, mOuterRadius + 3.49, z_layer_thickness / 2);
     layerVol = new TGeoVolume(mLayerName.c_str(), layer, medAir);
 

Detectors/Upgrades/ALICE3/FT3/simulation/src/FT3Module.cxx

@@ -553,8 +553,7 @@ void FT3Module::create_layout_staveGeo(double mZ, int layerNumber, int direction
   // each entry is a vector, where each entry is the number of modules of that stack height
   std::vector<std::vector<unsigned>> nSensorStackCountPerStave(
     staveConfig.x_midpoints.size(),
-    std::vector<unsigned>(Constants::kSensorsPerStack.size(), 0)
-  );
+    std::vector<unsigned>(Constants::kSensorsPerStack.size(), 0));
   std::vector<unsigned> nSensorStackTotal(Constants::kSensorsPerStack.size(), 0);
   for (unsigned i_stave = 0; i_stave < staveConfig.x_midpoints.size(); i_stave++) {
     y_positionsPosNeg.emplace_back(PosNegPositionTypes{PositionTypes{}, PositionTypes{}});
@@ -669,33 +668,25 @@ void FT3Module::create_layout_staveGeo(double mZ, int layerNumber, int direction
 
     // now add the sensor positions on the stave
     for (unsigned i_kSens = 0; i_kSens < Constants::kSensorsPerStack.size(); i_kSens++) {
-      unsigned nModulesCurr = y_positionsPosNeg.back().first.size()
-                            + y_positionsPosNeg.back().second.size();
+      unsigned nModulesCurr = y_positionsPosNeg.back().first.size() + y_positionsPosNeg.back().second.size();
       fill_stave(y_positionsPosNeg.back(), Rin, Rout, x_left,
                  Constants::kSensorsPerStack[i_kSens], y_ranges,
                  absAllowedYRange);
-      unsigned nModulesAdded = y_positionsPosNeg.back().first.size()
-                             + y_positionsPosNeg.back().second.size()
-                             - nModulesCurr;
+      unsigned nModulesAdded = y_positionsPosNeg.back().first.size() + y_positionsPosNeg.back().second.size() - nModulesCurr;
       nSensorStackCountPerStave[i_stave][i_kSens] = nModulesAdded;
       nSensorStackTotal[i_kSens] += nModulesAdded;
     }
-    std::string moduleDebugStr = "Module size counts for layer " + std::to_string(layerNumber)
-                             + " in direction " + std::to_string(direction) + ":\n";
+    std::string moduleDebugStr = "Module size counts for layer " + std::to_string(layerNumber) + " in direction " + std::to_string(direction) + ":\n";
     for (unsigned i_kSens = 0; i_kSens < Constants::kSensorsPerStack.size(); i_kSens++) {
-      moduleDebugStr += "\t" + std::to_string(nSensorStackCountPerStave[i_stave][i_kSens])
-                     + " modules with " + std::to_string(Constants::kSensorsPerStack[i_kSens])
-                     + " sensors stacked\n";
+      moduleDebugStr += "\t" + std::to_string(nSensorStackCountPerStave[i_stave][i_kSens]) + " modules with " + std::to_string(Constants::kSensorsPerStack[i_kSens]) + " sensors stacked\n";
     }
     LOG(debug) << moduleDebugStr;
   }
   std::string totalModuleInfoStr =
     "Total module size counts for layer " + std::to_string(layerNumber) +
     " in direction " + std::to_string(direction) + ":\n";
   for (unsigned i_kSens = 0; i_kSens < Constants::kSensorsPerStack.size(); i_kSens++) {
-    totalModuleInfoStr += "\t" + std::to_string(nSensorStackTotal[i_kSens])
-                        + " modules with " + std::to_string(Constants::kSensorsPerStack[i_kSens])
-                        + " sensors stacked\n";
+    totalModuleInfoStr += "\t" + std::to_string(nSensorStackTotal[i_kSens]) + " modules with " + std::to_string(Constants::kSensorsPerStack[i_kSens]) + " sensors stacked\n";
   }
   LOG(info) << totalModuleInfoStr;