Import Geant4 11.3.0 source tree

source/parameterisations/gflash/include/GFlashSamplingShowerTuning.hh

@@ -60,75 +60,72 @@ class GFlashSamplingShowerTuning : public GVFlashHomoShowerTuning
 
     GFlashSamplingShowerTuning() {}
     virtual ~GFlashSamplingShowerTuning() {}
-  
 
-  public: // with description
-
-  G4double ParsAveT1(){ return -0.55;} // t1
-  G4double ParsAveT2(){ return -0.69;} // t2
+  public:  // with description
+    G4double ParsAveT1() { return -0.55; }  // t1
+    G4double ParsAveT2() { return -0.69; }  // t2
     // T_sam =  log(exp( log T_hom) + t1*Fs-1 + t2*(1-ehat))
 
-  G4double ParsAveA1(){ return -0.476;  } // a1
+    G4double ParsAveA1() { return -0.476; }  // a1
     // alpha_sam = log(exp(log alphah_hom) +(a1*Fs-1))
 
-  G4double ParsSigLogT1(){ return -2.5;} // t1
-  G4double ParsSigLogT2(){ return 1.25;} // t2
+    G4double ParsSigLogT1() { return -2.5; }  // t1
+    G4double ParsSigLogT2() { return 1.25; }  // t2
     // std::sqrt(var(ln(T_sam))) = 1/(t+t2*ln(y))
 
-  G4double ParsSigLogA1(){ return -0.82;} // a1
-  G4double ParsSigLogA2(){ return 0.79; } // a2
+    G4double ParsSigLogA1() { return -0.82; }  // a1
+    G4double ParsSigLogA2() { return 0.79; }  // a2
     // std::sqrt(var(ln(alpha_sam))) = 1/(a1+a2*ln(y))
 
-  G4double ParsRho1(){ return 0.784; } // r1
-  G4double ParsRho2(){ return -0.023;} // r2
+    G4double ParsRho1() { return 0.784; }  // r1
+    G4double ParsRho2() { return -0.023; }  // r2
     // Correlation(ln(T),ln(alpha))=r1+r2*ln(y)
 
-  // Radial profiles
-  // f(r) := (1/dE(t))(dE(t,r)/dr)
-  // Ansatz:
-  // f(r) = p(2*r*Rc**2)/(r**2+Rc**2)**2+(1-p)*(2*r*Rt**2)/(r**2+Rt**2)**2,
-  //        0<p<1
+    // Radial profiles
+    // f(r) := (1/dE(t))(dE(t,r)/dr)
+    // Ansatz:
+    // f(r) = p(2*r*Rc**2)/(r**2+Rc**2)**2+(1-p)*(2*r*Rt**2)/(r**2+Rt**2)**2,
+    //        0<p<1
 
-  G4double ParsRC1(){ return -0.0203;   } // c1
-  G4double ParsRC2(){ return 0.0397;  }   // c2
+    G4double ParsRC1() { return -0.0203; }  // c1
+    G4double ParsRC2() { return 0.0397; }  // c2
     // Rc_sam = Rc_hom + c1 * (1-ehat) + c2 *Fs-1*exp (-tau)
 
-  G4double ParsRT1(){ return -0.14;  }   // t1
-  G4double ParsRT2(){ return -0.495; }   // t2
+    G4double ParsRT1() { return -0.14; }  // t1
+    G4double ParsRT2() { return -0.495; }  // t2
     // Rt_sam = Rc_hom + t1 * (1-ehat) + t2 *Fs-1*exp (-tau)
 
-  G4double ParsWC1(){ return 0.348;   } // c1
-  G4double ParsWC2(){ return -0.642;} // c2
+    G4double ParsWC1() { return 0.348; }  // c1
+    G4double ParsWC2() { return -0.642; }  // c2
     // W_sam = W_hom + (1-ehat)*(c1 + c2 *Fs-1 * exp (- (tau -1 )**2))
 
-  // Fluctuations on radial profiles through number of spots
-  // The total number of spots needed for a shower is
+    // Fluctuations on radial profiles through number of spots
+    // The total number of spots needed for a shower is
 
-  G4double ParsSpotN1(){ return 10.3; } // n1
-  G4double ParsSpotN2(){ return 0.959;} // n2
+    G4double ParsSpotN1() { return 10.3; }  // n1
+    G4double ParsSpotN2() { return 0.959; }  // n2
     // Ns = n1*ln(Z)(E/GeV)**n2
 
-  // The number of spots per longitudinal interval is:
-  // (1/Ns)(dNs(t)/dt) = f(t)
-  //  = (beta*t)**(alpha-1)*beta*std::exp(-beta*t)/Gamma(alpha)
-  // <t> = alpha_s/beta_s
-  // Ts = (alpha_s-1)/beta_s
-  // and
-  // Ts = T*(t1+t2*Z)
-  // alpha_s = alpha*(a1+a2*Z)
+    // The number of spots per longitudinal interval is:
+    // (1/Ns)(dNs(t)/dt) = f(t)
+    //  = (beta*t)**(alpha-1)*beta*std::exp(-beta*t)/Gamma(alpha)
+    // <t> = alpha_s/beta_s
+    // Ts = (alpha_s-1)/beta_s
+    // and
+    // Ts = T*(t1+t2*Z)
+    // alpha_s = alpha*(a1+a2*Z)
 
-  G4double ParsSpotT1(){ return 0.813; } // t1
-  G4double ParsSpotT2(){ return 0.0019;} // t2
+    G4double ParsSpotT1() { return 0.813; }  // t1
+    G4double ParsSpotT2() { return 0.0019; }  // t2
 
-  G4double ParsSpotA1(){ return 0.844; } //a1
-  G4double ParsSpotA2(){ return 0.0026;} //a2
+    G4double ParsSpotA1() { return 0.844; }  // a1
+    G4double ParsSpotA2() { return 0.0026; }  // a2
 
-  // Resolution
-
-  G4double ConstantResolution(){ return 0.00;  }  
-  G4double NoiseResolution()   { return 0.00;  } // not used    
-  G4double SamplingResolution(){ return 0.11;  } // not used
+    // Resolution
 
+    G4double ConstantResolution() { return 0.00; }  // not used
+    G4double NoiseResolution() { return 0.00; }  // not used
+    G4double SamplingResolution() { return 0.11; }
 };
 
 #endif