Thermal: Unused Variable

src/particles/distribution/Thermal.H

@@ -89,7 +89,7 @@
             amrex::ParticleReal r_scale = matched_scale_radius(data);
             amrex::ParticleReal rmin = rin*r_scale;
             amrex::ParticleReal rmax = rout*r_scale;
             // amrex::PrintToFile("equilibrium_params.out") << r_scale << " " << data.Cintensity << "\n";
 
             // Scale the parameters p1 and p2
             amrex::ParticleReal rt2pi = sqrt(2.0_prt*pi);
@@ -156,12 +156,12 @@
                 data.cdf1[j+1] = data.f1;
                 data.cdf2[j+1] = data.f2;
                 // write cumulative density to file for debugging
                 /* comment in for debugging
                 amrex::PrintToFile("density1.out") << reval << " " << data.f1 << "\n";
                 amrex::PrintToFile("density2.out") << reval << " " << data.f2 << "\n";
                 amrex::PrintToFile("phi1.out") << reval << " " << data.phi1 << "\n";
                 amrex::PrintToFile("phi2.out") << reval << " " << data.phi2 << "\n";
                 */
             }
 
         }
@@ -214,8 +214,8 @@
             potential = pow(k*r,2.0)/2.0_prt + c1*phi1 + c2*phi2;
             amrex::ParticleReal Pdensity1 = data.p1*exp(-potential/T1);
             amrex::ParticleReal Pdensity2 = data.p2*exp(-potential/T2);
-            amrex::ParticleReal Pdensity_tot = (1.0_prt-w)*Pdensity1 + w*Pdensity2;
+            // amrex::ParticleReal Pdensity_tot = (1.0_prt-w)*Pdensity1 + w*Pdensity2;
             // amrex::PrintToFile("Pdensity.out") << reval << " " << Pdensity_tot << "\n";
 
             // Apply map to update f1 and f2:
             data.phi1 = phi1;
@@ -246,7 +246,7 @@
                  [[maybe_unused]] amrex::ParticleReal const T1,
                  [[maybe_unused]] amrex::ParticleReal const T2,
                  [[maybe_unused]] amrex::ParticleReal const w,
                  ThermalData::Rprofile const data
          )
           : m_k(k),m_T1(T1),m_T2(T2),m_w(w),m_data(data)
           {
@@ -317,7 +317,7 @@
             amrex::ParticleReal rmin = m_data.rmin;
             amrex::ParticleReal rmax = m_data.rmax;
             int const nbins = m_data.nbins;
             constexpr int length = 2001;  // Ideally, int const length = nbins + 1;
             amrex::ParticleReal cdf[length];
             for (int n = 0; n < length; ++n) {
                 cdf[n] = (uhalo > m_data.w) ? m_data.cdf1[n] : m_data.cdf2[n]; //select core or halo CDF