Changeset dd60b45 in sasview
- Timestamp:
- Jan 5, 2012 11:01:26 AM (13 years ago)
- Branches:
- master, ESS_GUI, ESS_GUI_Docs, ESS_GUI_batch_fitting, ESS_GUI_bumps_abstraction, ESS_GUI_iss1116, ESS_GUI_iss879, ESS_GUI_iss959, ESS_GUI_opencl, ESS_GUI_ordering, ESS_GUI_sync_sascalc, costrafo411, magnetic_scatt, release-4.1.1, release-4.1.2, release-4.2.2, release_4.0.1, ticket-1009, ticket-1094-headless, ticket-1242-2d-resolution, ticket-1243, ticket-1249, ticket885, unittest-saveload
- Children:
- a8eab1c
- Parents:
- 2d1b700
- Location:
- sansmodels/src
- Files:
-
- 2 deleted
- 3 edited
Legend:
- Unmodified
- Added
- Removed
-
sansmodels/src/c_extensions/refl_adv.h
r67424cd rdd60b45 3 3 #if !defined(o_h) 4 4 #define refl_adv_h 5 #include "parameters.hh" 5 6 6 7 /** 7 8 * Structure definition for sphere parameters 8 9 */ 9 //[PYTHONCLASS] = ReflAdvModel 10 //[DISP_PARAMS] = thick_inter0 11 //[DESCRIPTION] =<text>Calculate neutron reflectivity using the Parratt iterative formula 12 // Parameters: 13 // background:background 14 // scale: scale factor 15 // sld_bottom0: the SLD of the substrate 16 // sld_medium: the SLD of the incident medium 17 // or superstrate 18 // sld_flatN: the SLD of the flat region of 19 // the N'th layer 20 // thick_flatN: the thickness of the flat 21 // region of the N'th layer 22 // func_interN: the function used to describe 23 // the interface of the N'th layer 24 // nu_interN: the coefficient for the func_interN 25 // thick_interN: the thickness of the interface 26 // of the N'th layer 27 // Note: the layer number starts to increase 28 // from the bottom (substrate) to the top. 29 // </text> 30 //[FIXED]= <text></text> 31 //[NON_FITTABLE_PARAMS]= <text>n_layers;func_inter0;func_inter1;func_inter2;func_inter3;func_inter4;func_inter5;func_inter5;func_inter7;func_inter8;func_inter9;func_inter10 </text> 32 //[ORIENTATION_PARAMS]= <text> </text> 33 34 typedef struct { 35 /// number of layers 36 // [DEFAULT]=n_layers=1 37 int n_layers; 38 /// Scale factor 39 // [DEFAULT]=scale= 1.0 40 double scale; 41 /// thick_inter0 [A] 42 // [DEFAULT]=thick_inter0=50.0 [A] 43 double thick_inter0; 44 /// func_inter0 45 // [DEFAULT]=func_inter0= 0 46 double func_inter0; 47 /// sld_bottom0 [1/A^(2)] 48 // [DEFAULT]=sld_bottom0= 2.07e-6 [1/A^(2)] 49 double sld_bottom0; 50 /// sld_medium [1/A^(2)] 51 // [DEFAULT]=sld_medium= 1.0e-6 [1/A^(2)] 52 double sld_medium; 53 /// Background 54 // [DEFAULT]=background=0 55 double background; 56 57 // [DEFAULT]=sld_flat1=4.0e-06 [1/A^(2)] 58 double sld_flat1; 59 // [DEFAULT]=sld_flat2=3.5e-06 [1/A^(2)] 60 double sld_flat2; 61 // [DEFAULT]=sld_flat3=4.0e-06 [1/A^(2)] 62 double sld_flat3; 63 // [DEFAULT]=sld_flat4=3.5e-06 [1/A^(2)] 64 double sld_flat4; 65 // [DEFAULT]=sld_flat5=4.0e-06 [1/A^(2)] 66 double sld_flat5; 67 // [DEFAULT]=sld_flat6=3.5e-06 [1/A^(2)] 68 double sld_flat6; 69 // [DEFAULT]=sld_flat7=4.0e-06 [1/A^(2)] 70 double sld_flat7; 71 // [DEFAULT]=sld_flat8=3.5e-06 [1/A^(2)] 72 double sld_flat8; 73 // [DEFAULT]=sld_flat9=4.0e-06 [1/A^(2)] 74 double sld_flat9; 75 // [DEFAULT]=sld_flat10=3.5e-06 [1/A^(2)] 76 double sld_flat10; 77 78 // [DEFAULT]=thick_inter1=50 [A] 79 double thick_inter1; 80 // [DEFAULT]=thick_inter2=50 [A] 81 double thick_inter2; 82 // [DEFAULT]=thick_inter3=50 [A] 83 double thick_inter3; 84 // [DEFAULT]=thick_inter4=50 [A] 85 double thick_inter4; 86 // [DEFAULT]=thick_inter5=50 [A] 87 double thick_inter5; 88 // [DEFAULT]=thick_inter6=50 [A] 89 double thick_inter6; 90 // [DEFAULT]=thick_inter7=50 [A] 91 double thick_inter7; 92 // [DEFAULT]=thick_inter8=50 [A] 93 double thick_inter8; 94 // [DEFAULT]=thick_inter9=50 [A] 95 double thick_inter9; 96 // [DEFAULT]=thick_inter10=50 [A] 97 double thick_inter10; 98 99 // [DEFAULT]=thick_flat1=100 [A] 100 double thick_flat1; 101 // [DEFAULT]=thick_flat2=100 [A] 102 double thick_flat2; 103 // [DEFAULT]=thick_flat3=100 [A] 104 double thick_flat3; 105 // [DEFAULT]=thick_flat4=100 [A] 106 double thick_flat4; 107 // [DEFAULT]=thick_flat5=100 [A] 108 double thick_flat5; 109 // [DEFAULT]=thick_flat6=100 [A] 110 double thick_flat6; 111 // [DEFAULT]=thick_flat7=100 [A] 112 double thick_flat7; 113 // [DEFAULT]=thick_flat8=100 [A] 114 double thick_flat8; 115 // [DEFAULT]=thick_flat9=100 [A] 116 double thick_flat9; 117 // [DEFAULT]=thick_flat10=100 [A] 118 double thick_flat10; 119 120 // [DEFAULT]=func_inter1=0 121 double func_inter1; 122 // [DEFAULT]=func_inter2=0 123 double func_inter2; 124 // [DEFAULT]=func_inter3=0 125 double func_inter3; 126 // [DEFAULT]=func_inter4=0 127 double func_inter4; 128 // [DEFAULT]=func_inter5=0 129 double func_inter5; 130 // [DEFAULT]=func_inter6=0 131 double func_inter6; 132 // [DEFAULT]=func_inter7=0 133 double func_inter7; 134 // [DEFAULT]=func_inter8=0 135 double func_inter8; 136 // [DEFAULT]=func_inter9=0 137 double func_inter9; 138 // [DEFAULT]=func_inter10=0 139 double func_inter10; 140 141 // [DEFAULT]=sldIM_flat1=0 [1/A^(2)] 142 double sldIM_flat1; 143 // [DEFAULT]=sldIM_flat2=0 [1/A^(2)] 144 double sldIM_flat2; 145 // [DEFAULT]=sldIM_flat3=0 [1/A^(2)] 146 double sldIM_flat3; 147 // [DEFAULT]=sldIM_flat4=0 [1/A^(2)] 148 double sldIM_flat4; 149 // [DEFAULT]=sldIM_flat5=0 [1/A^(2)] 150 double sldIM_flat5; 151 // [DEFAULT]=sldIM_flat6=0 [1/A^(2)] 152 double sldIM_flat6; 153 // [DEFAULT]=sldIM_flat7=0 [1/A^(2)] 154 double sldIM_flat7; 155 // [DEFAULT]=sldIM_flat8=0 [1/A^(2)] 156 double sldIM_flat8; 157 // [DEFAULT]=sldIM_flat9=0 [1/A^(2)] 158 double sldIM_flat9; 159 // [DEFAULT]=sldIM_flat10=0 [1/A^(2)] 160 double sldIM_flat10; 161 162 // [DEFAULT]=nu_inter1=2.5 163 double nu_inter1; 164 // [DEFAULT]=nu_inter2=2.5 165 double nu_inter2; 166 // [DEFAULT]=nu_inter3=2.5 167 double nu_inter3; 168 // [DEFAULT]=nu_inter4=2.5 169 double nu_inter4; 170 // [DEFAULT]=nu_inter5=2.5 171 double nu_inter5; 172 // [DEFAULT]=nu_inter6=2.5 173 double nu_inter6; 174 // [DEFAULT]=nu_inter7=2.5 175 double nu_inter7; 176 // [DEFAULT]=nu_inter8=2.5 177 double nu_inter8; 178 // [DEFAULT]=nu_inter9=2.5 179 double nu_inter9; 180 // [DEFAULT]=nu_inter10=2.5 181 double nu_inter10; 182 183 184 // [DEFAULT]=sldIM_sub0=0 185 double sldIM_sub0; 186 // [DEFAULT]=sldIM_medium=0 187 double sldIM_medium; 188 // [DEFAULT]=npts_inter=21.0 189 double npts_inter; 190 // [DEFAULT]=nu_inter0=2.5 191 double nu_inter0; 192 } ReflAdvParameters; 193 194 double re_adv_kernel(double dq[], double q); 195 196 /// 1D scattering function 197 double refl_adv_analytical_1D(ReflAdvParameters *pars, double q); 198 199 /// 2D scattering function 200 double refl_adv_analytical_2D(ReflAdvParameters *pars, double q, double phi); 201 double refl_adv_analytical_2DXY(ReflAdvParameters *pars, double qx, double qy); 10 //[PYTHONCLASS] = ReflAdvModel 11 //[DISP_PARAMS] = thick_inter0 12 //[DESCRIPTION] =<text>Calculate neutron reflectivity using the Parratt iterative formula 13 // Parameters: 14 // background:background 15 // scale: scale factor 16 // sld_bottom0: the SLD of the substrate 17 // sld_medium: the SLD of the incident medium 18 // or superstrate 19 // sld_flatN: the SLD of the flat region of 20 // the N'th layer 21 // thick_flatN: the thickness of the flat 22 // region of the N'th layer 23 // func_interN: the function used to describe 24 // the interface of the N'th layer 25 // nu_interN: the coefficient for the func_interN 26 // thick_interN: the thickness of the interface 27 // of the N'th layer 28 // Note: the layer number starts to increase 29 // from the bottom (substrate) to the top. 30 // </text> 31 //[FIXED]= <text></text> 32 //[NON_FITTABLE_PARAMS]= <text>n_layers;func_inter0;func_inter1;func_inter2;func_inter3;func_inter4;func_inter5;func_inter5;func_inter7;func_inter8;func_inter9;func_inter10 </text> 33 //[ORIENTATION_PARAMS]= <text> </text> 34 35 class ReflAdvModel{ 36 public: 37 // Model parameters 38 /// number of layers 39 // [DEFAULT]=n_layers=1 40 Parameter n_layers; 41 /// Scale factor 42 // [DEFAULT]=scale= 1.0 43 Parameter scale; 44 /// thick_inter0 [A] 45 // [DEFAULT]=thick_inter0=50.0 [A] 46 Parameter thick_inter0; 47 /// func_inter0 48 // [DEFAULT]=func_inter0= 0 49 Parameter func_inter0; 50 /// sld_bottom0 [1/A^(2)] 51 // [DEFAULT]=sld_bottom0= 2.07e-6 [1/A^(2)] 52 Parameter sld_bottom0; 53 /// sld_medium [1/A^(2)] 54 // [DEFAULT]=sld_medium= 1.0e-6 [1/A^(2)] 55 Parameter sld_medium; 56 /// Background 57 // [DEFAULT]=background=0 58 Parameter background; 59 60 // [DEFAULT]=sld_flat1=4.0e-06 [1/A^(2)] 61 Parameter sld_flat1; 62 // [DEFAULT]=sld_flat2=3.5e-06 [1/A^(2)] 63 Parameter sld_flat2; 64 // [DEFAULT]=sld_flat3=4.0e-06 [1/A^(2)] 65 Parameter sld_flat3; 66 // [DEFAULT]=sld_flat4=3.5e-06 [1/A^(2)] 67 Parameter sld_flat4; 68 // [DEFAULT]=sld_flat5=4.0e-06 [1/A^(2)] 69 Parameter sld_flat5; 70 // [DEFAULT]=sld_flat6=3.5e-06 [1/A^(2)] 71 Parameter sld_flat6; 72 // [DEFAULT]=sld_flat7=4.0e-06 [1/A^(2)] 73 Parameter sld_flat7; 74 // [DEFAULT]=sld_flat8=3.5e-06 [1/A^(2)] 75 Parameter sld_flat8; 76 // [DEFAULT]=sld_flat9=4.0e-06 [1/A^(2)] 77 Parameter sld_flat9; 78 // [DEFAULT]=sld_flat10=3.5e-06 [1/A^(2)] 79 Parameter sld_flat10; 80 81 // [DEFAULT]=thick_inter1=50 [A] 82 Parameter thick_inter1; 83 // [DEFAULT]=thick_inter2=50 [A] 84 Parameter thick_inter2; 85 // [DEFAULT]=thick_inter3=50 [A] 86 Parameter thick_inter3; 87 // [DEFAULT]=thick_inter4=50 [A] 88 Parameter thick_inter4; 89 // [DEFAULT]=thick_inter5=50 [A] 90 Parameter thick_inter5; 91 // [DEFAULT]=thick_inter6=50 [A] 92 Parameter thick_inter6; 93 // [DEFAULT]=thick_inter7=50 [A] 94 Parameter thick_inter7; 95 // [DEFAULT]=thick_inter8=50 [A] 96 Parameter thick_inter8; 97 // [DEFAULT]=thick_inter9=50 [A] 98 Parameter thick_inter9; 99 // [DEFAULT]=thick_inter10=50 [A] 100 Parameter thick_inter10; 101 102 // [DEFAULT]=thick_flat1=100 [A] 103 Parameter thick_flat1; 104 // [DEFAULT]=thick_flat2=100 [A] 105 Parameter thick_flat2; 106 // [DEFAULT]=thick_flat3=100 [A] 107 Parameter thick_flat3; 108 // [DEFAULT]=thick_flat4=100 [A] 109 Parameter thick_flat4; 110 // [DEFAULT]=thick_flat5=100 [A] 111 Parameter thick_flat5; 112 // [DEFAULT]=thick_flat6=100 [A] 113 Parameter thick_flat6; 114 // [DEFAULT]=thick_flat7=100 [A] 115 Parameter thick_flat7; 116 // [DEFAULT]=thick_flat8=100 [A] 117 Parameter thick_flat8; 118 // [DEFAULT]=thick_flat9=100 [A] 119 Parameter thick_flat9; 120 // [DEFAULT]=thick_flat10=100 [A] 121 Parameter thick_flat10; 122 123 // [DEFAULT]=func_inter1=0 124 Parameter func_inter1; 125 // [DEFAULT]=func_inter2=0 126 Parameter func_inter2; 127 // [DEFAULT]=func_inter3=0 128 Parameter func_inter3; 129 // [DEFAULT]=func_inter4=0 130 Parameter func_inter4; 131 // [DEFAULT]=func_inter5=0 132 Parameter func_inter5; 133 // [DEFAULT]=func_inter6=0 134 Parameter func_inter6; 135 // [DEFAULT]=func_inter7=0 136 Parameter func_inter7; 137 // [DEFAULT]=func_inter8=0 138 Parameter func_inter8; 139 // [DEFAULT]=func_inter9=0 140 Parameter func_inter9; 141 // [DEFAULT]=func_inter10=0 142 Parameter func_inter10; 143 144 // [DEFAULT]=sldIM_flat1=0 [1/A^(2)] 145 Parameter sldIM_flat1; 146 // [DEFAULT]=sldIM_flat2=0 [1/A^(2)] 147 Parameter sldIM_flat2; 148 // [DEFAULT]=sldIM_flat3=0 [1/A^(2)] 149 Parameter sldIM_flat3; 150 // [DEFAULT]=sldIM_flat4=0 [1/A^(2)] 151 Parameter sldIM_flat4; 152 // [DEFAULT]=sldIM_flat5=0 [1/A^(2)] 153 Parameter sldIM_flat5; 154 // [DEFAULT]=sldIM_flat6=0 [1/A^(2)] 155 Parameter sldIM_flat6; 156 // [DEFAULT]=sldIM_flat7=0 [1/A^(2)] 157 Parameter sldIM_flat7; 158 // [DEFAULT]=sldIM_flat8=0 [1/A^(2)] 159 Parameter sldIM_flat8; 160 // [DEFAULT]=sldIM_flat9=0 [1/A^(2)] 161 Parameter sldIM_flat9; 162 // [DEFAULT]=sldIM_flat10=0 [1/A^(2)] 163 Parameter sldIM_flat10; 164 165 // [DEFAULT]=nu_inter1=2.5 166 Parameter nu_inter1; 167 // [DEFAULT]=nu_inter2=2.5 168 Parameter nu_inter2; 169 // [DEFAULT]=nu_inter3=2.5 170 Parameter nu_inter3; 171 // [DEFAULT]=nu_inter4=2.5 172 Parameter nu_inter4; 173 // [DEFAULT]=nu_inter5=2.5 174 Parameter nu_inter5; 175 // [DEFAULT]=nu_inter6=2.5 176 Parameter nu_inter6; 177 // [DEFAULT]=nu_inter7=2.5 178 Parameter nu_inter7; 179 // [DEFAULT]=nu_inter8=2.5 180 Parameter nu_inter8; 181 // [DEFAULT]=nu_inter9=2.5 182 Parameter nu_inter9; 183 // [DEFAULT]=nu_inter10=2.5 184 Parameter nu_inter10; 185 186 187 // [DEFAULT]=sldIM_sub0=0 188 Parameter sldIM_sub0; 189 // [DEFAULT]=sldIM_medium=0 190 Parameter sldIM_medium; 191 // [DEFAULT]=npts_inter=21.0 192 Parameter npts_inter; 193 // [DEFAULT]=nu_inter0=2.5 194 Parameter nu_inter0; 195 196 // Constructor 197 ReflAdvModel(); 198 199 // Operators to get I(Q) 200 double operator()(double q); 201 double operator()(double qx, double qy); 202 double calculate_ER(); 203 double evaluate_rphi(double q, double phi); 204 }; 202 205 203 206 #endif -
sansmodels/src/c_models/models.hh
r2d1b700 rdd60b45 27 27 using namespace std; 28 28 29 class ReflAdvModel{ 30 public: 31 // Model parameters 32 Parameter n_layers; 33 Parameter scale; 34 Parameter thick_inter0; 35 Parameter func_inter0; 36 Parameter sld_bottom0; 37 Parameter sld_medium; 38 Parameter background; 39 40 Parameter sld_flat1; 41 Parameter sld_flat2; 42 Parameter sld_flat3; 43 Parameter sld_flat4; 44 Parameter sld_flat5; 45 Parameter sld_flat6; 46 Parameter sld_flat7; 47 Parameter sld_flat8; 48 Parameter sld_flat9; 49 Parameter sld_flat10; 50 51 Parameter thick_inter1; 52 Parameter thick_inter2; 53 Parameter thick_inter3; 54 Parameter thick_inter4; 55 Parameter thick_inter5; 56 Parameter thick_inter6; 57 Parameter thick_inter7; 58 Parameter thick_inter8; 59 Parameter thick_inter9; 60 Parameter thick_inter10; 61 62 Parameter thick_flat1; 63 Parameter thick_flat2; 64 Parameter thick_flat3; 65 Parameter thick_flat4; 66 Parameter thick_flat5; 67 Parameter thick_flat6; 68 Parameter thick_flat7; 69 Parameter thick_flat8; 70 Parameter thick_flat9; 71 Parameter thick_flat10; 72 73 Parameter func_inter1; 74 Parameter func_inter2; 75 Parameter func_inter3; 76 Parameter func_inter4; 77 Parameter func_inter5; 78 Parameter func_inter6; 79 Parameter func_inter7; 80 Parameter func_inter8; 81 Parameter func_inter9; 82 Parameter func_inter10; 83 84 Parameter sldIM_flat1; 85 Parameter sldIM_flat2; 86 Parameter sldIM_flat3; 87 Parameter sldIM_flat4; 88 Parameter sldIM_flat5; 89 Parameter sldIM_flat6; 90 Parameter sldIM_flat7; 91 Parameter sldIM_flat8; 92 Parameter sldIM_flat9; 93 Parameter sldIM_flat10; 94 95 Parameter nu_inter1; 96 Parameter nu_inter2; 97 Parameter nu_inter3; 98 Parameter nu_inter4; 99 Parameter nu_inter5; 100 Parameter nu_inter6; 101 Parameter nu_inter7; 102 Parameter nu_inter8; 103 Parameter nu_inter9; 104 Parameter nu_inter10; 105 106 Parameter sldIM_sub0; 107 Parameter sldIM_medium; 108 Parameter npts_inter; 109 Parameter nu_inter0; 110 111 // Constructor 112 ReflAdvModel(); 113 114 // Operators to get I(Q) 115 double operator()(double q); 116 double operator()(double qx, double qy); 117 double calculate_ER(); 118 double evaluate_rphi(double q, double phi); 119 }; 29 120 30 121 31 -
sansmodels/src/c_models/refl_adv.cpp
r67424cd rdd60b45 1 1 2 2 #include <math.h> 3 #include "models.hh"4 3 #include "parameters.hh" 5 4 #include <stdio.h> 5 #include <stdlib.h> 6 #include "refl_adv.h" 7 8 extern "C" { 9 #include "libmultifunc/librefl.h" 10 } 11 6 12 using namespace std; 7 13 8 extern "C" { 9 #include "refl_adv.h" 10 } 11 14 #define lamda 4.62 15 16 17 double re_adv_kernel(double dp[], double q) { 18 int n = dp[0]; 19 int i,j; 20 double nsl; 21 22 double scale = dp[1]; 23 double thick_inter_sub = dp[2]; 24 double sld_sub = dp[4]; 25 double sld_super = dp[5]; 26 double background = dp[6]; 27 double npts = dp[69]; //number of sub_layers in each interface 28 29 double total_thick=0.0; 30 31 int n_s; 32 double sld_i,sldim_i,dz,phi,R,ko2; 33 double pi; 34 35 int* fun_type; 36 double* sld; 37 double* sld_im; 38 double* thick_inter; 39 double* thick; 40 double* fun_coef; 41 complex phi1,alpha,alpha2,kn,fnm,fnp,rn,Xn,nn,nn2,an,nnp1,one,two,n_sub,n_sup,knp1,Xnp1; 42 43 fun_type = (int*)malloc((n+2)*sizeof(int)); 44 sld = (double*)malloc((n+2)*sizeof(double)); 45 sld_im = (double*)malloc((n+2)*sizeof(double)); 46 thick_inter = (double*)malloc((n+2)*sizeof(double)); 47 thick = (double*)malloc((n+2)*sizeof(double)); 48 fun_coef = (double*)malloc((n+2)*sizeof(double)); 49 50 fun_type[0] = dp[3]; 51 fun_coef[0] = fabs(dp[70]); 52 for (i =1; i<=n; i++){ 53 sld[i] = dp[i+6]; 54 thick_inter[i]= dp[i+16]; 55 thick[i] = dp[i+26]; 56 fun_type[i] = dp[i+36]; 57 sld_im[i] = dp[i+46]; 58 fun_coef[i] = fabs(dp[i+56]); 59 //printf("type_func2 =%g\n",fun_coef[i]); 60 61 total_thick += thick[i] + thick_inter[i]; 62 } 63 sld[0] = sld_sub; 64 sld[n+1] = sld_super; 65 sld_im[0] = fabs(dp[1+66]); 66 sld_im[n+1] = fabs(dp[2+66]); 67 thick[0] = total_thick/5.0; 68 thick[n+1] = total_thick/5.0; 69 thick_inter[0] = thick_inter_sub; 70 thick_inter[n+1] = 0.0; 71 fun_coef[n+1] = 0.0; 72 73 nsl=npts;//21.0; //nsl = Num_sub_layer: MUST ODD number in double //no other number works now 74 75 pi = 4.0*atan(1.0); 76 one = cassign(1.0,0.0); 77 Xn = cassign(0.0,0.0); 78 two = cassign(0.0,-2.0); 79 80 //Checking if floor is available. 81 //no imaginary sld inputs in this function yet 82 n_sub=cassign(1.0-sld_sub*pow(lamda,2.0)/(2.0*pi),pow(lamda,2.0)/(2.0*pi)*sld_im[0]); 83 n_sup=cassign(1.0-sld_super*pow(lamda,2.0)/(2.0*pi),pow(lamda,2.0)/(2.0*pi)*sld_im[n+1]); 84 ko2 = pow(2.0*pi/lamda,2.0); 85 86 phi = asin(lamda*q/(4.0*pi)); 87 phi1 = cplx_div(rcmult(phi,one),n_sup); 88 alpha = cplx_mult(n_sup,cplx_cos(phi1)); 89 alpha2 = cplx_mult(alpha,alpha); 90 91 nnp1=n_sub; 92 knp1=cplx_sqrt(rcmult(ko2,cplx_sub(cplx_mult(nnp1,nnp1),alpha2))); //nnp1*ko*sin(phinp1) 93 Xnp1=cassign(0.0,0.0); 94 dz = 0.0; 95 // iteration for # of layers +sub from the top 96 for (i=1;i<=n+1; i++){ 97 //if (fun_coef[i]==0.0) 98 // // this condition protects an error in numerical multiplication 99 // fun_coef[i] = 1e-14; 100 //iteration for 9 sub-layers 101 for (j=0;j<2;j++){ 102 for (n_s=0;n_s<nsl; n_s++){ 103 // for flat layer 104 if (j==1){ 105 if (i==n+1) 106 break; 107 dz = thick[i]; 108 sld_i = sld[i]; 109 sldim_i = sld_im[i]; 110 } 111 // for interface 112 else{ 113 dz = thick_inter[i-1]/nsl; 114 if (sld[i-1] == sld[i]){ 115 sld_i = sld[i]; 116 } 117 else{ 118 sld_i = intersldfunc(fun_type[i-1],nsl, n_s+0.5, fun_coef[i-1], sld[i-1], sld[i]); 119 } 120 if (sld_im[i-1] == sld_im[i]){ 121 sldim_i = sld_im[i]; 122 } 123 else{ 124 sldim_i = intersldfunc(fun_type[i-1],nsl, n_s+0.5, fun_coef[i-1], sld_im[i-1], sld_im[i]); 125 } 126 } 127 nn = cassign(1.0-sld_i*pow(lamda,2.0)/(2.0*pi),pow(lamda,2.0)/(2.0*pi)*sldim_i); 128 nn2=cplx_mult(nn,nn); 129 130 kn=cplx_sqrt(rcmult(ko2,cplx_sub(nn2,alpha2))); //nn*ko*sin(phin) 131 an=cplx_exp(rcmult(dz,cplx_mult(two,kn))); 132 133 fnm=cplx_sub(kn,knp1); 134 fnp=cplx_add(kn,knp1); 135 rn=cplx_div(fnm,fnp); 136 Xn=cplx_mult(an,cplx_div(cplx_add(rn,Xnp1),cplx_add(one,cplx_mult(rn,Xnp1)))); //Xn=an*((rn+Xnp1*anp1)/(1+rn*Xnp1*anp1)) 137 138 Xnp1=Xn; 139 knp1=kn; 140 // no for-loop for flat layer 141 if (j==1) 142 break; 143 } 144 } 145 } 146 R=pow(Xn.re,2.0)+pow(Xn.im,2.0); 147 // This temperarily fixes the total reflection for Rfunction and linear. 148 // ToDo: Show why it happens that Xn.re=0 and Xn.im >1! 149 if (Xn.im == 0.0 || R > 1){ 150 R=1.0; 151 } 152 R *= scale; 153 R += background; 154 155 free(fun_type); 156 free(sld); 157 free(sld_im); 158 free(thick_inter); 159 free(thick); 160 free(fun_coef); 161 162 return R; 163 164 } 12 165 ReflAdvModel :: ReflAdvModel() { 13 14 15 16 17 18 19 20 21 22 23 24 25 26 27 28 29 30 31 32 33 34 35 36 37 38 39 40 41 42 43 44 45 46 47 48 49 50 51 52 53 54 55 56 57 58 59 60 61 62 63 64 65 66 67 68 69 70 71 72 73 74 75 76 77 78 79 80 81 82 83 84 85 86 87 88 89 90 91 92 93 94 166 n_layers = Parameter(1.0); 167 scale = Parameter(1.0); 168 thick_inter0 = Parameter(1.0); 169 func_inter0 = Parameter(0); 170 sld_bottom0 = Parameter(2.07e-06); 171 sld_medium = Parameter(1.0e-06); 172 background = Parameter(0.0); 173 174 175 sld_flat1 = Parameter(2.7e-06); 176 sld_flat2 = Parameter(3.5e-06); 177 sld_flat3 = Parameter(4.0e-06); 178 sld_flat4 = Parameter(3.5e-06); 179 sld_flat5 = Parameter(4.0e-06); 180 sld_flat6 = Parameter(3.5e-06); 181 sld_flat7 = Parameter(4.0e-06); 182 sld_flat8 = Parameter(3.5e-06); 183 sld_flat9 = Parameter(4.0e-06); 184 sld_flat10 = Parameter(3.5e-06); 185 186 187 thick_inter1 = Parameter(1.0); 188 thick_inter2 = Parameter(1.0); 189 thick_inter3 = Parameter(1.0); 190 thick_inter4 = Parameter(1.0); 191 thick_inter5 = Parameter(1.0); 192 thick_inter6 = Parameter(1.0); 193 thick_inter7 = Parameter(1.0); 194 thick_inter8 = Parameter(1.0); 195 thick_inter9 = Parameter(1.0); 196 thick_inter10 = Parameter(1.0); 197 198 199 thick_flat1 = Parameter(15.0); 200 thick_flat2 = Parameter(100.0); 201 thick_flat3 = Parameter(100.0); 202 thick_flat4 = Parameter(100.0); 203 thick_flat5 = Parameter(100.0); 204 thick_flat6 = Parameter(100.0); 205 thick_flat7 = Parameter(100.0); 206 thick_flat8 = Parameter(100.0); 207 thick_flat9 = Parameter(100.0); 208 thick_flat10 = Parameter(100.0); 209 210 211 func_inter1 = Parameter(0); 212 func_inter2 = Parameter(0); 213 func_inter3 = Parameter(0); 214 func_inter4 = Parameter(0); 215 func_inter5 = Parameter(0); 216 func_inter6 = Parameter(0); 217 func_inter7 = Parameter(0); 218 func_inter8 = Parameter(0); 219 func_inter9 = Parameter(0); 220 func_inter10 = Parameter(0); 221 222 sldIM_flat1 = Parameter(0); 223 sldIM_flat2 = Parameter(0); 224 sldIM_flat3 = Parameter(0); 225 sldIM_flat4 = Parameter(0); 226 sldIM_flat5 = Parameter(0); 227 sldIM_flat6 = Parameter(0); 228 sldIM_flat7 = Parameter(0); 229 sldIM_flat8 = Parameter(0); 230 sldIM_flat9 = Parameter(0); 231 sldIM_flat10 = Parameter(0); 232 233 nu_inter1 = Parameter(2.5); 234 nu_inter2 = Parameter(2.5); 235 nu_inter3 = Parameter(2.5); 236 nu_inter4 = Parameter(2.5); 237 nu_inter5 = Parameter(2.5); 238 nu_inter6 = Parameter(2.5); 239 nu_inter7 = Parameter(2.5); 240 nu_inter8 = Parameter(2.5); 241 nu_inter9 = Parameter(2.5); 242 nu_inter10 = Parameter(2.5); 243 244 sldIM_sub0 = Parameter(0.0); 245 sldIM_medium = Parameter(0.0); 246 npts_inter = Parameter(21.0); 247 nu_inter0 = Parameter(2.5); 95 248 } 96 249 … … 101 254 */ 102 255 double ReflAdvModel :: operator()(double q) { 103 104 105 106 107 108 109 110 111 112 113 114 115 116 117 118 119 120 121 122 123 124 125 126 127 128 129 130 131 132 133 134 135 136 137 138 139 140 141 142 143 144 145 146 147 148 149 150 151 152 153 154 155 156 157 158 159 160 161 162 163 164 165 166 167 168 169 170 171 172 173 174 175 176 177 178 179 180 181 182 183 184 185 186 187 188 189 256 double dp[71]; 257 // Fill parameter array for IGOR library 258 // Add the background after averaging 259 dp[0] = n_layers(); 260 dp[1] = scale(); 261 dp[2] = thick_inter0(); 262 dp[3] = func_inter0(); 263 dp[4] = sld_bottom0(); 264 dp[5] = sld_medium(); 265 dp[6] = background(); 266 267 dp[7] = sld_flat1(); 268 dp[8] = sld_flat2(); 269 dp[9] = sld_flat3(); 270 dp[10] = sld_flat4(); 271 dp[11] = sld_flat5(); 272 dp[12] = sld_flat6(); 273 dp[13] = sld_flat7(); 274 dp[14] = sld_flat8(); 275 dp[15] = sld_flat9(); 276 dp[16] = sld_flat10(); 277 278 dp[17] = thick_inter1(); 279 dp[18] = thick_inter2(); 280 dp[19] = thick_inter3(); 281 dp[20] = thick_inter4(); 282 dp[21] = thick_inter5(); 283 dp[22] = thick_inter6(); 284 dp[23] = thick_inter7(); 285 dp[24] = thick_inter8(); 286 dp[25] = thick_inter9(); 287 dp[26] = thick_inter10(); 288 289 dp[27] = thick_flat1(); 290 dp[28] = thick_flat2(); 291 dp[29] = thick_flat3(); 292 dp[30] = thick_flat4(); 293 dp[31] = thick_flat5(); 294 dp[32] = thick_flat6(); 295 dp[33] = thick_flat7(); 296 dp[34] = thick_flat8(); 297 dp[35] = thick_flat9(); 298 dp[36] = thick_flat10(); 299 300 dp[37] = func_inter1(); 301 dp[38] = func_inter2(); 302 dp[39] = func_inter3(); 303 dp[40] = func_inter4(); 304 dp[41] = func_inter5(); 305 dp[42] = func_inter6(); 306 dp[43] = func_inter7(); 307 dp[44] = func_inter8(); 308 dp[45] = func_inter9(); 309 dp[46] = func_inter10(); 310 311 dp[47] = sldIM_flat1(); 312 dp[48] = sldIM_flat2(); 313 dp[49] = sldIM_flat3(); 314 dp[50] = sldIM_flat4(); 315 dp[51] = sldIM_flat5(); 316 dp[52] = sldIM_flat6(); 317 dp[53] = sldIM_flat7(); 318 dp[54] = sldIM_flat8(); 319 dp[55] = sldIM_flat9(); 320 dp[56] = sldIM_flat10(); 321 322 dp[57] = nu_inter1(); 323 dp[58] = nu_inter2(); 324 dp[59] = nu_inter3(); 325 dp[60] = nu_inter4(); 326 dp[61] = nu_inter5(); 327 dp[62] = nu_inter6(); 328 dp[63] = nu_inter7(); 329 dp[64] = nu_inter8(); 330 dp[65] = nu_inter9(); 331 dp[66] = nu_inter10(); 332 333 dp[67] = sldIM_sub0(); 334 dp[68] = sldIM_medium(); 335 dp[69] = npts_inter(); 336 dp[70] = nu_inter0(); 337 // Get the dispersion points for the radius 338 //vector<WeightPoint> weights_thick; 339 //thick_inter0.get_weights(weights_thick_inter0); 340 341 342 return re_adv_kernel(dp,q); 190 343 } 191 344 … … 197 350 */ 198 351 double ReflAdvModel :: operator()(double qx, double qy) { 199 200 201 202 203 204 352 // For 2D set qy as q, ignoring qx. 353 double q = qy;//sqrt(qx*qx + qy*qy); 354 if (q < 0.0){ 355 return 0.0; 356 } 357 return (*this).operator()(q); 205 358 } 206 359 … … 213 366 */ 214 367 double ReflAdvModel :: evaluate_rphi(double q, double phi) { 215 368 return (*this).operator()(q); 216 369 } 217 370 … … 221 374 */ 222 375 double ReflAdvModel :: calculate_ER() { 223 224 225 } 376 //NOT implemented yet!!! 377 return 0.0; 378 }
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