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ThObsFactory_LEP2.cpp
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1/*
2 * Copyright (C) 2012 HEPfit Collaboration
3 *
4 *
5 * For the licensing terms see doc/COPYING.
6 */
7
8#include "ThObsFactory.h"
9#include "ThObsFactoryConstants.h"
10#include "EWObservables.h"
11#include "NP_couplings.h"
12#include <boost/lexical_cast.hpp>
13using namespace ThObsConst;
14
15void ThObsFactory::registerLEP2Observables()
16{
17 //----- LEP-II two-fermion processes -----
18
19 for (int i = 0; i < 12; i++) {
20 std::string sqrt_s_str = boost::lexical_cast<std::string, double>(sqrt_s[i]);
21 obsThFactory["sigmaqLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2sigmaHadron(SM, sqrt_s_LEP2eeff[i]); };
22 obsThFactory["sigmamuLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2sigmaMu(SM, sqrt_s_LEP2eeff[i]); };
23 obsThFactory["sigmatauLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2sigmaTau(SM, sqrt_s_LEP2eeff[i]); };
24 obsThFactory["AFBmuLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2AFBmu(SM, sqrt_s_LEP2eeff[i]); };
25 obsThFactory["AFBtauLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2AFBtau(SM, sqrt_s_LEP2eeff[i]); };
26 }
27
28 for (int i = 0; i < 8; i++) {
29 std::string sqrt_s_str = boost::lexical_cast<std::string, double>(sqrt_sDiffll[i]);
30
31 for (int j = 0; j < 5; j++) {
32 std::string cos_str = boost::lexical_cast<std::string, double>(fabs(10.*cos_Diffll[j]));
33 std::string cosee_str = boost::lexical_cast<std::string, double>(fabs(10.*cos_DiffeeInp[j]));
34
35 obsThFactory["dsigmadcosmuLEP2_" + sqrt_s_str + "_m0" + cos_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosMu(SM, sqrt_sDiffll[i], cos_Diffll[j], cosmin_Diffll[j], cosmax_Diffll[j]); };
36 obsThFactory["dsigmadcostauLEP2_" + sqrt_s_str + "_m0" + cos_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosTau(SM, sqrt_sDiffll[i], cos_Diffll[j], cosmin_Diffll[j], cosmax_Diffll[j]); };
37
38 if (i>0) {obsThFactory["dsigmadcoseLEP2_" + sqrt_s_str + "_m0" + cosee_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosElectron(SM, sqrt_sDiffll[i], cos_Diffee[j], cosmin_Diffee[j], cosmax_Diffee[j]); };}
39 }
40
41 for (int j = 5; j < 10; j++) {
42 std::string cos_str = boost::lexical_cast<std::string, double>(10.*cos_Diffll[j]);
43 std::string cosee_str = boost::lexical_cast<std::string, double>(fabs(10.*cos_DiffeeInp[j]));
44
45 obsThFactory["dsigmadcosmuLEP2_" + sqrt_s_str + "_0" + cos_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosMu(SM, sqrt_sDiffll[i], cos_Diffll[j], cosmin_Diffll[j], cosmax_Diffll[j]); };
46 obsThFactory["dsigmadcostauLEP2_" + sqrt_s_str + "_0" + cos_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosTau(SM, sqrt_sDiffll[i], cos_Diffll[j], cosmin_Diffll[j], cosmax_Diffll[j]); };
47
48 if (i>0) {obsThFactory["dsigmadcoseLEP2_" + sqrt_s_str + "_0" + cosee_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosElectron(SM, sqrt_sDiffll[i], cos_Diffee[j], cosmin_Diffee[j], cosmax_Diffee[j]); };}
49 }
50
51 if (i>0) {
52 for (int j = 10; j < 15; j++) {
53 std::string cosee_str = boost::lexical_cast<std::string, double>(fabs(10.*cos_DiffeeInp[j]));
54 obsThFactory["dsigmadcoseLEP2_" + sqrt_s_str + "_0" + cosee_str] = [=](const StandardModel& SM) { return new LEP2dsigmadcosElectron(SM, sqrt_sDiffll[i], cos_Diffee[j], cosmin_Diffee[j], cosmax_Diffee[j]); };
55 }
56 }
57
58 }
59
60 //----- e+ e- two-fermion processes -----
61
62 for (int i = 0; i < 16; i++) {
63 std::string sqrt_s_str = boost::lexical_cast<std::string, double>(sqrt_see[i]);
64
65 // Unpolarized
66 // Total cross sections
67 obsThFactory["sigmaeeee_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0., 0., sqrt_s_eeff[i]); };
68 obsThFactory["sigmaeeee_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0., 0., sqrt_s_eeff[i]); };
69 obsThFactory["sigmaeemumu_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0., 0., sqrt_s_eeff[i]); };
70 obsThFactory["sigmaeetautau_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0., 0., sqrt_s_eeff[i]); };
71
72 obsThFactory["sigmaeeqq_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0., 0., sqrt_s_eeff[i]); };
73 obsThFactory["sigmaeess_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0., 0., sqrt_s_eeff[i]); };
74 obsThFactory["sigmaeecc_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0., 0., sqrt_s_eeff[i]); };
75 obsThFactory["sigmaeebb_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0., 0., sqrt_s_eeff[i]); };
76
77 //Ratios
78 obsThFactory["Reeee_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0., 0., sqrt_s_eeff[i]); };
79 obsThFactory["Reeee_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0., 0., sqrt_s_eeff[i]); };
80 obsThFactory["Reemumu_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0., 0., sqrt_s_eeff[i]); };
81 obsThFactory["Reetautau_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0., 0., sqrt_s_eeff[i]); };
82
83 obsThFactory["Reess_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0., 0., sqrt_s_eeff[i]); };
84 obsThFactory["Reecc_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0., 0., sqrt_s_eeff[i]); };
85 obsThFactory["Reebb_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0., 0., sqrt_s_eeff[i]); };
86
87 //Asymmetries
88 obsThFactory["AFBeeee_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0., 0., sqrt_s_eeff[i]); };
89 obsThFactory["AFBeeee_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0., 0., sqrt_s_eeff[i]); };
90 obsThFactory["AFBeemumu_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0., 0., sqrt_s_eeff[i]); };
91 obsThFactory["AFBeetautau_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0., 0., sqrt_s_eeff[i]); };
92
93 obsThFactory["AFBeess_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0., 0., sqrt_s_eeff[i]); };
94 obsThFactory["AFBeecc_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0., 0., sqrt_s_eeff[i]); };
95 obsThFactory["AFBeebb_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0., 0., sqrt_s_eeff[i]); };
96
97 // Polarized: Pe-: -80% Pe+: 0%
98 // Total cross sections
99 obsThFactory["sigmaeeee_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, -0.8, 0., sqrt_s_eeff[i]); };
100 obsThFactory["sigmaeeee_m80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, -0.8, 0., sqrt_s_eeff[i]); };
101 obsThFactory["sigmaeemumu_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, -0.8, 0., sqrt_s_eeff[i]); };
102 obsThFactory["sigmaeetautau_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, -0.8, 0., sqrt_s_eeff[i]); };
103
104 obsThFactory["sigmaeeqq_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, -0.8, 0., sqrt_s_eeff[i]); };
105 obsThFactory["sigmaeess_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, -0.8, 0., sqrt_s_eeff[i]); };
106 obsThFactory["sigmaeecc_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, -0.8, 0., sqrt_s_eeff[i]); };
107 obsThFactory["sigmaeebb_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, -0.8, 0., sqrt_s_eeff[i]); };
108
109 //Ratios
110 obsThFactory["Reeee_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, -0.8, 0., sqrt_s_eeff[i]); };
111 obsThFactory["Reeee_m80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, -0.8, 0., sqrt_s_eeff[i]); };
112 obsThFactory["Reemumu_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, -0.8, 0., sqrt_s_eeff[i]); };
113 obsThFactory["Reetautau_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, -0.8, 0., sqrt_s_eeff[i]); };
114
115 obsThFactory["Reess_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, -0.8, 0., sqrt_s_eeff[i]); };
116 obsThFactory["Reecc_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, -0.8, 0., sqrt_s_eeff[i]); };
117 obsThFactory["Reebb_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, -0.8, 0., sqrt_s_eeff[i]); };
118
119 //Asymmetries
120 obsThFactory["AFBeeee_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, -0.8, 0., sqrt_s_eeff[i]); };
121 obsThFactory["AFBeeee_m80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, -0.8, 0., sqrt_s_eeff[i]); };
122 obsThFactory["AFBeemumu_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, -0.8, 0., sqrt_s_eeff[i]); };
123 obsThFactory["AFBeetautau_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, -0.8, 0., sqrt_s_eeff[i]); };
124
125 obsThFactory["AFBeess_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, -0.8, 0., sqrt_s_eeff[i]); };
126 obsThFactory["AFBeecc_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, -0.8, 0., sqrt_s_eeff[i]); };
127 obsThFactory["AFBeebb_m80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, -0.8, 0., sqrt_s_eeff[i]); };
128
129 // Polarized: Pe-: 80% Pe+: 0%
130 // Total cross sections
131 obsThFactory["sigmaeeee_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0.8, 0., sqrt_s_eeff[i]); };
132 obsThFactory["sigmaeeee_p80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0.8, 0., sqrt_s_eeff[i]); };
133 obsThFactory["sigmaeemumu_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0.8, 0., sqrt_s_eeff[i]); };
134 obsThFactory["sigmaeetautau_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0.8, 0., sqrt_s_eeff[i]); };
135
136 obsThFactory["sigmaeeqq_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0.8, 0., sqrt_s_eeff[i]); };
137 obsThFactory["sigmaeess_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0.8, 0., sqrt_s_eeff[i]); };
138 obsThFactory["sigmaeecc_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0.8, 0., sqrt_s_eeff[i]); };
139 obsThFactory["sigmaeebb_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0.8, 0., sqrt_s_eeff[i]); };
140
141 //Ratios
142 obsThFactory["Reeee_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0.8, 0., sqrt_s_eeff[i]); };
143 obsThFactory["Reeee_p80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0.8, 0., sqrt_s_eeff[i]); };
144 obsThFactory["Reemumu_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0.8, 0., sqrt_s_eeff[i]); };
145 obsThFactory["Reetautau_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0.8, 0., sqrt_s_eeff[i]); };
146
147 obsThFactory["Reess_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0.8, 0., sqrt_s_eeff[i]); };
148 obsThFactory["Reecc_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0.8, 0., sqrt_s_eeff[i]); };
149 obsThFactory["Reebb_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0.8, 0., sqrt_s_eeff[i]); };
150
151 //Asymmetries
152 obsThFactory["AFBeeee_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0.8, 0., sqrt_s_eeff[i]); };
153 obsThFactory["AFBeeee_p80_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0.8, 0., sqrt_s_eeff[i]); };
154 obsThFactory["AFBeemumu_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0.8, 0., sqrt_s_eeff[i]); };
155 obsThFactory["AFBeetautau_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0.8, 0., sqrt_s_eeff[i]); };
156
157 obsThFactory["AFBeess_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0.8, 0., sqrt_s_eeff[i]); };
158 obsThFactory["AFBeecc_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0.8, 0., sqrt_s_eeff[i]); };
159 obsThFactory["AFBeebb_p80_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0.8, 0., sqrt_s_eeff[i]); };
160
161 // Polarized: Pe-: -80% Pe+: +20%
162 // Total cross sections
163 obsThFactory["sigmaeeee_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
164 obsThFactory["sigmaeeee_m80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
165 obsThFactory["sigmaeemumu_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
166 obsThFactory["sigmaeetautau_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
167
168 obsThFactory["sigmaeeqq_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
169 obsThFactory["sigmaeess_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
170 obsThFactory["sigmaeecc_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
171 obsThFactory["sigmaeebb_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
172
173 //Ratios
174 obsThFactory["Reeee_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
175 obsThFactory["Reeee_m80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
176 obsThFactory["Reemumu_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
177 obsThFactory["Reetautau_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
178
179 obsThFactory["Reess_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
180 obsThFactory["Reecc_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
181 obsThFactory["Reebb_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
182
183 //Asymmetries
184 obsThFactory["AFBeeee_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
185 obsThFactory["AFBeeee_m80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
186 obsThFactory["AFBeemumu_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
187 obsThFactory["AFBeetautau_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
188
189 obsThFactory["AFBeess_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
190 obsThFactory["AFBeecc_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
191 obsThFactory["AFBeebb_m80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, -0.8, 0.2, sqrt_s_eeff[i]); };
192
193 // Polarized: Pe-: 80% Pe+: -20%
194 // Total cross sections
195 obsThFactory["sigmaeeee_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
196 obsThFactory["sigmaeeee_p80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
197 obsThFactory["sigmaeemumu_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
198 obsThFactory["sigmaeetautau_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
199
200 obsThFactory["sigmaeeqq_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
201 obsThFactory["sigmaeess_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
202 obsThFactory["sigmaeecc_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
203 obsThFactory["sigmaeebb_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
204
205 //Ratios
206 obsThFactory["Reeee_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
207 obsThFactory["Reeee_p80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
208 obsThFactory["Reemumu_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
209 obsThFactory["Reetautau_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
210
211 obsThFactory["Reess_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
212 obsThFactory["Reecc_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
213 obsThFactory["Reebb_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
214
215 //Asymmetries
216 obsThFactory["AFBeeee_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
217 obsThFactory["AFBeeee_p80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
218 obsThFactory["AFBeemumu_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
219 obsThFactory["AFBeetautau_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
220
221 obsThFactory["AFBeess_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
222 obsThFactory["AFBeecc_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
223 obsThFactory["AFBeebb_p80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0.8, -0.2, sqrt_s_eeff[i]); };
224
225 // Polarized: Pe-: -80% Pe+: -20%
226 // Total cross sections
227 obsThFactory["sigmaeeee_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
228 obsThFactory["sigmaeeee_m80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
229 obsThFactory["sigmaeemumu_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
230 obsThFactory["sigmaeetautau_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
231
232 obsThFactory["sigmaeeqq_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
233 obsThFactory["sigmaeess_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
234 obsThFactory["sigmaeecc_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
235 obsThFactory["sigmaeebb_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
236
237 //Ratios
238 obsThFactory["Reeee_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
239 obsThFactory["Reeee_m80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
240 obsThFactory["Reemumu_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
241 obsThFactory["Reetautau_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
242
243 obsThFactory["Reess_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
244 obsThFactory["Reecc_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
245 obsThFactory["Reebb_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
246
247 //Asymmetries
248 obsThFactory["AFBeeee_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
249 obsThFactory["AFBeeee_m80_m20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
250 obsThFactory["AFBeemumu_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
251 obsThFactory["AFBeetautau_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
252
253 obsThFactory["AFBeess_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
254 obsThFactory["AFBeecc_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
255 obsThFactory["AFBeebb_m80_m20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, -0.8, -0.2, sqrt_s_eeff[i]); };
256
257 // Polarized: Pe-: 80% Pe+: 20%
258 // Total cross sections
259 obsThFactory["sigmaeeee_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
260 obsThFactory["sigmaeeee_p80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
261 obsThFactory["sigmaeemumu_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
262 obsThFactory["sigmaeetautau_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
263
264 obsThFactory["sigmaeeqq_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
265 obsThFactory["sigmaeess_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
266 obsThFactory["sigmaeecc_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
267 obsThFactory["sigmaeebb_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
268
269 //Ratios
270 obsThFactory["Reeee_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
271 obsThFactory["Reeee_p80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
272 obsThFactory["Reemumu_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
273 obsThFactory["Reetautau_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
274
275 obsThFactory["Reess_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
276 obsThFactory["Reecc_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
277 obsThFactory["Reebb_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
278
279 //Asymmetries
280 obsThFactory["AFBeeee_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
281 obsThFactory["AFBeeee_p80_p20_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
282 obsThFactory["AFBeemumu_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
283 obsThFactory["AFBeetautau_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
284
285 obsThFactory["AFBeess_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
286 obsThFactory["AFBeecc_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
287 obsThFactory["AFBeebb_p80_p20_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0.8, 0.2, sqrt_s_eeff[i]); };
288
289 // Polarized: Pe-: -80% Pe+: +30%
290 // Total cross sections
291 obsThFactory["sigmaeeee_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
292 obsThFactory["sigmaeeee_m80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
293 obsThFactory["sigmaeemumu_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
294 obsThFactory["sigmaeetautau_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
295
296 obsThFactory["sigmaeeqq_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
297 obsThFactory["sigmaeess_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
298 obsThFactory["sigmaeecc_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
299 obsThFactory["sigmaeebb_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
300
301 //Ratios
302 obsThFactory["Reeee_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
303 obsThFactory["Reeee_m80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
304 obsThFactory["Reemumu_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
305 obsThFactory["Reetautau_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
306
307 obsThFactory["Reess_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
308 obsThFactory["Reecc_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
309 obsThFactory["Reebb_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
310
311 //Asymmetries
312 obsThFactory["AFBeeee_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
313 obsThFactory["AFBeeee_m80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
314 obsThFactory["AFBeemumu_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
315 obsThFactory["AFBeetautau_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
316
317 obsThFactory["AFBeess_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
318 obsThFactory["AFBeecc_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
319 obsThFactory["AFBeebb_m80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, -0.8, 0.3, sqrt_s_eeff[i]); };
320
321 // Polarized: Pe-: 80% Pe+: -30%
322 // Total cross sections
323 obsThFactory["sigmaeeee_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
324 obsThFactory["sigmaeeee_p80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
325 obsThFactory["sigmaeemumu_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
326 obsThFactory["sigmaeetautau_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
327
328 obsThFactory["sigmaeeqq_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
329 obsThFactory["sigmaeess_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
330 obsThFactory["sigmaeecc_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
331 obsThFactory["sigmaeebb_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
332
333 //Ratios
334 obsThFactory["Reeee_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
335 obsThFactory["Reeee_p80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
336 obsThFactory["Reemumu_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
337 obsThFactory["Reetautau_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
338
339 obsThFactory["Reess_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
340 obsThFactory["Reecc_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
341 obsThFactory["Reebb_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
342
343 //Asymmetries
344 obsThFactory["AFBeeee_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
345 obsThFactory["AFBeeee_p80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
346 obsThFactory["AFBeemumu_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
347 obsThFactory["AFBeetautau_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
348
349 obsThFactory["AFBeess_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
350 obsThFactory["AFBeecc_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
351 obsThFactory["AFBeebb_p80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0.8, -0.3, sqrt_s_eeff[i]); };
352
353 // Polarized: Pe-: -80% Pe+: -30%
354 // Total cross sections
355 obsThFactory["sigmaeeee_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
356 obsThFactory["sigmaeeee_m80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
357 obsThFactory["sigmaeemumu_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
358 obsThFactory["sigmaeetautau_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
359
360 obsThFactory["sigmaeeqq_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
361 obsThFactory["sigmaeess_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
362 obsThFactory["sigmaeecc_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
363 obsThFactory["sigmaeebb_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
364
365 //Ratios
366 obsThFactory["Reeee_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
367 obsThFactory["Reeee_m80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
368 obsThFactory["Reemumu_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
369 obsThFactory["Reetautau_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
370
371 obsThFactory["Reess_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
372 obsThFactory["Reecc_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
373 obsThFactory["Reebb_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
374
375 //Asymmetries
376 obsThFactory["AFBeeee_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
377 obsThFactory["AFBeeee_m80_m30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
378 obsThFactory["AFBeemumu_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
379 obsThFactory["AFBeetautau_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
380
381 obsThFactory["AFBeess_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
382 obsThFactory["AFBeecc_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
383 obsThFactory["AFBeebb_m80_m30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, -0.8, -0.3, sqrt_s_eeff[i]); };
384
385 // Polarized: Pe-: 80% Pe+: 30%
386 // Total cross sections
387 obsThFactory["sigmaeeee_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaElectron(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
388 obsThFactory["sigmaeeee_p80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmatsubElectron(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
389 obsThFactory["sigmaeemumu_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaMu(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
390 obsThFactory["sigmaeetautau_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaTau(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
391
392 obsThFactory["sigmaeeqq_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaHadron(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
393 obsThFactory["sigmaeess_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaStrange(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
394 obsThFactory["sigmaeecc_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaCharm(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
395 obsThFactory["sigmaeebb_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffsigmaBottom(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
396
397 //Ratios
398 obsThFactory["Reeee_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectron(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
399 obsThFactory["Reeee_p80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRelectrontsub(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
400 obsThFactory["Reemumu_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRmuon(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
401 obsThFactory["Reetautau_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRtau(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
402
403 obsThFactory["Reess_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRstrange(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
404 obsThFactory["Reecc_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRcharm(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
405 obsThFactory["Reebb_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffRbottom(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
406
407 //Asymmetries
408 obsThFactory["AFBeeee_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectron(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
409 obsThFactory["AFBeeee_p80_p30_tsub_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBelectrontsub(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
410 obsThFactory["AFBeemumu_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBmu(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
411 obsThFactory["AFBeetautau_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBtau(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
412
413 obsThFactory["AFBeess_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBstrange(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
414 obsThFactory["AFBeecc_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBcharm(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
415 obsThFactory["AFBeebb_p80_p30_" + sqrt_s_str] = [=](const StandardModel& SM) { return new eeffAFBbottom(SM, 0.8, 0.3, sqrt_s_eeff[i]); };
416
417 }
418
419 //----- Wilson coefficients of Top operators in the conventions of the LHC Top WG ----------
420 //----- (Energy-independent definition) ----------
421 //
422 obsThFactory["cQQ1_TWG"] = [=](const StandardModel& SM) { return new TWGcQQ1(SM, muEW); };
423 obsThFactory["cQQ8_TWG"] = [=](const StandardModel& SM) { return new TWGcQQ8(SM, muEW); };
424 obsThFactory["ctt1_TWG"] = [=](const StandardModel& SM) { return new TWGctt1(SM, muEW); };
425 obsThFactory["cQt1_TWG"] = [=](const StandardModel& SM) { return new TWGcQt1(SM, muEW); };
426 obsThFactory["cQt8_TWG"] = [=](const StandardModel& SM) { return new TWGcQt8(SM, muEW); };
427 //
428 obsThFactory["cQq31_TWG"] = [=](const StandardModel& SM) { return new TWGcQq31(SM, muEW); };
429 obsThFactory["cQq38_TWG"] = [=](const StandardModel& SM) { return new TWGcQq38(SM, muEW); };
430 obsThFactory["cQq11_TWG"] = [=](const StandardModel& SM) { return new TWGcQq11(SM, muEW); };
431 obsThFactory["cQq18_TWG"] = [=](const StandardModel& SM) { return new TWGcQq18(SM, muEW); };
432 obsThFactory["cQu1_TWG"] = [=](const StandardModel& SM) { return new TWGcQu1(SM, muEW); };
433 obsThFactory["cQu8_TWG"] = [=](const StandardModel& SM) { return new TWGcQu8(SM, muEW); };
434 obsThFactory["cQd1_TWG"] = [=](const StandardModel& SM) { return new TWGcQd1(SM, muEW); };
435 obsThFactory["cQd8_TWG"] = [=](const StandardModel& SM) { return new TWGcQd8(SM, muEW); };
436 obsThFactory["ctq1_TWG"] = [=](const StandardModel& SM) { return new TWGctq1(SM, muEW); };
437 obsThFactory["ctq8_TWG"] = [=](const StandardModel& SM) { return new TWGctq8(SM, muEW); };
438 obsThFactory["ctu1_TWG"] = [=](const StandardModel& SM) { return new TWGctu1(SM, muEW); };
439 obsThFactory["ctu8_TWG"] = [=](const StandardModel& SM) { return new TWGctu8(SM, muEW); };
440 obsThFactory["ctd1_TWG"] = [=](const StandardModel& SM) { return new TWGctd1(SM, muEW); };
441 obsThFactory["ctd8_TWG"] = [=](const StandardModel& SM) { return new TWGctd8(SM, muEW); };
442 //
443 obsThFactory["ctH_TWG"] = [=](const StandardModel& SM) { return new TWGctH(SM, muEW); };
444 obsThFactory["cHQm_TWG"] = [=](const StandardModel& SM) { return new TWGcHQm(SM, muEW); };
445 obsThFactory["cHQp_TWG"] = [=](const StandardModel& SM) { return new TWGcHQp(SM, muEW); };
446 obsThFactory["cHQ3_TWG"] = [=](const StandardModel& SM) { return new TWGcHQ3(SM, muEW); };
447 obsThFactory["cHt_TWG"] = [=](const StandardModel& SM) { return new TWGcHt(SM, muEW); };
448 obsThFactory["cHb_TWG"] = [=](const StandardModel& SM) { return new TWGcHb(SM, muEW); };
449 obsThFactory["cHtb_TWG"] = [=](const StandardModel& SM) { return new TWGcHtb(SM, muEW); };
450 //
451 obsThFactory["ctW_TWG"] = [=](const StandardModel& SM) { return new TWGctW(SM, muEW); };
452 obsThFactory["ImctW_TWG"] = [=](const StandardModel& SM) { return new TWGImctW(SM, muEW); };
453 obsThFactory["ctZ_TWG"] = [=](const StandardModel& SM) { return new TWGctZ(SM, muEW); };
454 obsThFactory["ImctZ_TWG"] = [=](const StandardModel& SM) { return new TWGImctZ(SM, muEW); };
455 obsThFactory["ctG_TWG"] = [=](const StandardModel& SM) { return new TWGctG(SM, muEW); };
456 //
457 obsThFactory["cbW_TWG"] = [=](const StandardModel& SM) { return new TWGcbW(SM, muEW); };
458 //
459 obsThFactory["cQlM_TWG"] = [=](const StandardModel& SM) { return new TWGcQlM(SM, muEW); };
460 obsThFactory["cQlP_TWG"] = [=](const StandardModel& SM) { return new TWGcQlP(SM, muEW); };
461 obsThFactory["cQl3_TWG"] = [=](const StandardModel& SM) { return new TWGcQl3(SM, muEW); };
462 obsThFactory["cQe_TWG"] = [=](const StandardModel& SM) { return new TWGcQe(SM, muEW); };
463 obsThFactory["ctl_TWG"] = [=](const StandardModel& SM) { return new TWGctl(SM, muEW); };
464 obsThFactory["cte_TWG"] = [=](const StandardModel& SM) { return new TWGcte(SM, muEW); };
465 obsThFactory["ctlS_TWG"] = [=](const StandardModel& SM) { return new TWGctlS(SM, muEW); };
466 obsThFactory["ctlT_TWG"] = [=](const StandardModel& SM) { return new TWGctlT(SM, muEW); };
467
468 //----- Wilson coefficients of Top operators in the conventions of the LHC Top WG ----------
469 //----- (Energy-dependent definition: Only for energies above the ttbar threshold ) --------
470
471 for (int i = 6; i < 16; i++) {
472 std::string sqrt_s_str = boost::lexical_cast<std::string, double>(sqrt_see[i]);
473
474 obsThFactory["cQQ1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQQ1(SM, sqrt_s_eeff[i]); };
475 obsThFactory["cQQ8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQQ8(SM, sqrt_s_eeff[i]); };
476 obsThFactory["ctt1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctt1(SM, sqrt_s_eeff[i]); };
477 obsThFactory["cQt1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQt1(SM, sqrt_s_eeff[i]); };
478 obsThFactory["cQt8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQt8(SM, sqrt_s_eeff[i]); };
479 //
480 obsThFactory["cQq31_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQq31(SM, sqrt_s_eeff[i]); };
481 obsThFactory["cQq38_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQq38(SM, sqrt_s_eeff[i]); };
482 obsThFactory["cQq11_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQq11(SM, sqrt_s_eeff[i]); };
483 obsThFactory["cQq18_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQq18(SM, sqrt_s_eeff[i]); };
484 obsThFactory["cQu1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQu1(SM, sqrt_s_eeff[i]); };
485 obsThFactory["cQu8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQu8(SM, sqrt_s_eeff[i]); };
486 obsThFactory["cQd1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQd1(SM, sqrt_s_eeff[i]); };
487 obsThFactory["cQd8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQd8(SM, sqrt_s_eeff[i]); };
488 obsThFactory["ctq1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctq1(SM, sqrt_s_eeff[i]); };
489 obsThFactory["ctq8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctq8(SM, sqrt_s_eeff[i]); };
490 obsThFactory["ctu1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctu1(SM, sqrt_s_eeff[i]); };
491 obsThFactory["ctu8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctu8(SM, sqrt_s_eeff[i]); };
492 obsThFactory["ctd1_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctd1(SM, sqrt_s_eeff[i]); };
493 obsThFactory["ctd8_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctd8(SM, sqrt_s_eeff[i]); };
494 //
495 obsThFactory["ctH_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctH(SM, sqrt_s_eeff[i]); };
496 obsThFactory["cHQm_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHQm(SM, sqrt_s_eeff[i]); };
497 obsThFactory["cHQp_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHQp(SM, sqrt_s_eeff[i]); };
498 obsThFactory["cHQ3_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHQ3(SM, sqrt_s_eeff[i]); };
499 obsThFactory["cHt_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHt(SM, sqrt_s_eeff[i]); };
500 obsThFactory["cHb_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHb(SM, sqrt_s_eeff[i]); };
501 obsThFactory["cHtb_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcHtb(SM, sqrt_s_eeff[i]); };
502 //
503 obsThFactory["ctW_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctW(SM, sqrt_s_eeff[i]); };
504 obsThFactory["ImctW_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGImctW(SM, sqrt_s_eeff[i]); };
505 obsThFactory["ctZ_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctZ(SM, sqrt_s_eeff[i]); };
506 obsThFactory["ImctZ_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGImctZ(SM, sqrt_s_eeff[i]); };
507 obsThFactory["ctG_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctG(SM, sqrt_s_eeff[i]); };
508 //
509 obsThFactory["cbW_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcbW(SM, sqrt_s_eeff[i]); };
510 //
511 obsThFactory["cQlM_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQlM(SM, sqrt_s_eeff[i]); };
512 obsThFactory["cQlP_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQlP(SM, sqrt_s_eeff[i]); };
513 obsThFactory["cQl3_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQl3(SM, sqrt_s_eeff[i]); };
514 obsThFactory["cQe_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcQe(SM, sqrt_s_eeff[i]); };
515 obsThFactory["ctl_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctl(SM, sqrt_s_eeff[i]); };
516 obsThFactory["cte_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGcte(SM, sqrt_s_eeff[i]); };
517 obsThFactory["ctlS_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctlS(SM, sqrt_s_eeff[i]); };
518 obsThFactory["ctlT_TWG_" + sqrt_s_str] = [=](const StandardModel& SM) { return new TWGctlT(SM, sqrt_s_eeff[i]); };
519
520 }
521
522 //----- (Extra temporary definition, evaluated at 10 TeV) ----------
523 //
524 obsThFactory["cQQ1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQQ1(SM, 10000.); };
525 obsThFactory["cQQ8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQQ8(SM, 10000.); };
526 obsThFactory["ctt1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctt1(SM, 10000.); };
527 obsThFactory["cQt1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQt1(SM, 10000.); };
528 obsThFactory["cQt8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQt8(SM, 10000.); };
529 //
530 obsThFactory["cQq31_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQq31(SM, 10000.); };
531 obsThFactory["cQq38_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQq38(SM, 10000.); };
532 obsThFactory["cQq11_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQq11(SM, 10000.); };
533 obsThFactory["cQq18_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQq18(SM, 10000.); };
534 obsThFactory["cQu1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQu1(SM, 10000.); };
535 obsThFactory["cQu8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQu8(SM, 10000.); };
536 obsThFactory["cQd1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQd1(SM, 10000.); };
537 obsThFactory["cQd8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQd8(SM, 10000.); };
538 obsThFactory["ctq1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctq1(SM, 10000.); };
539 obsThFactory["ctq8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctq8(SM, 10000.); };
540 obsThFactory["ctu1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctu1(SM, 10000.); };
541 obsThFactory["ctu8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctu8(SM, 10000.); };
542 obsThFactory["ctd1_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctd1(SM, 10000.); };
543 obsThFactory["ctd8_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctd8(SM, 10000.); };
544 //
545 obsThFactory["ctH_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctH(SM, 10000.); };
546 obsThFactory["cHQm_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHQm(SM, 10000.); };
547 obsThFactory["cHQp_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHQp(SM, 10000.); };
548 obsThFactory["cHQ3_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHQ3(SM, 10000.); };
549 obsThFactory["cHt_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHt(SM, 10000.); };
550 obsThFactory["cHb_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHb(SM, 10000.); };
551 obsThFactory["cHtb_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcHtb(SM, 10000.); };
552 //
553 obsThFactory["ctW_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctW(SM, 10000.); };
554 obsThFactory["ImctW_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGImctW(SM, 10000.); };
555 obsThFactory["ctZ_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctZ(SM, 10000.); };
556 obsThFactory["ImctZ_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGImctZ(SM, 10000.); };
557 obsThFactory["ctG_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctG(SM, 10000.); };
558 //
559 obsThFactory["cbW_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcbW(SM, 10000.); };
560 //
561 obsThFactory["cQlM_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQlM(SM, 10000.); };
562 obsThFactory["cQlP_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQlP(SM, 10000.); };
563 obsThFactory["cQl3_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQl3(SM, 10000.); };
564 obsThFactory["cQe_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcQe(SM, 10000.); };
565 obsThFactory["ctl_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctl(SM, 10000.); };
566 obsThFactory["cte_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGcte(SM, 10000.); };
567 obsThFactory["ctlS_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctlS(SM, 10000.); };
568 obsThFactory["ctlT_TWG_10TeV"] = [=](const StandardModel& SM) { return new TWGctlT(SM, 10000.); };
569
570 /* BEGIN: REMOVE FROM THE PACKAGE */
571
572 for (int i = 0; i < 10; i++) {
573 std::string sqrt_s_str = boost::lexical_cast<std::string, double>(sqrt_s_HF[i]);
574 obsThFactory["AFBbottomLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2AFBbottom(SM, sqrt_s_LEP2_HF[i]); };
575 obsThFactory["AFBcharmLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2AFBcharm(SM, sqrt_s_LEP2_HF[i]); };
576 obsThFactory["RbottomLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2Rbottom(SM, sqrt_s_LEP2_HF[i]); };
577 obsThFactory["RcharmLEP2_" + sqrt_s_str] = [=](const StandardModel& SM) { return new LEP2Rcharm(SM, sqrt_s_LEP2_HF[i]); };
578 }
579 /* END: REMOVE FROM THE PACKAGE */
580
581
582 //----- Low Energy EW observables -----
583 // Parity violation
584 obsThFactory["QWeMoller"] = [](const StandardModel& SM) { return new QWe(SM); };
585 obsThFactory["QWproton"] = [](const StandardModel& SM) { return new QWp(SM); };
586 obsThFactory["QWCs133_55"] = [=](const StandardModel& SM) { return new QWAPV(SM, 55, 78); };
587 obsThFactory["QWTl205_81"] = [=](const StandardModel& SM) { return new QWAPV(SM, 81, 124); };
588 // Neutrino scattering
589 obsThFactory["gL2_nuN"] = [](const StandardModel& SM) { return new gLnuN2(SM); };
590 obsThFactory["gR2_nuN"] = [](const StandardModel& SM) { return new gRnuN2(SM); };
591 obsThFactory["gV_nue"] = [](const StandardModel& SM) { return new gVnue(SM); };
592 obsThFactory["gA_nue"] = [](const StandardModel& SM) { return new gAnue(SM); };
593 // Temporary observable: for testing
594 obsThFactory["amuongminus2"] = [](const StandardModel& SM) { return new agminus2muon(SM); };
595
596 //----- Lepton decays -----
597 // LFU tests in Tau decays
598 obsThFactory["gmuge_TauLFU"] = [](const StandardModel& SM) { return new gmugeTauLFU(SM); };
599 obsThFactory["gtaugmu_TauLFU"] = [](const StandardModel& SM) { return new gtaugmuTauLFU(SM); };
600 obsThFactory["gtauge_TauLFU"] = [](const StandardModel& SM) { return new gtaugeTauLFU(SM); };
601
602 obsThFactory["gtaugmuPi_TauLFU"] = [](const StandardModel& SM) { return new gtaugmuPiTauLFU(SM); };
603 obsThFactory["gtaugmuK_TauLFU"] = [](const StandardModel& SM) { return new gtaugmuKTauLFU(SM); };
604
605}
EWObservables.h
A header file for the observables defined in EW module.
NP_couplings.h
LEP2AFBbottom
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBbottom.h:22
LEP2AFBcharm
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBcharm.h:22
LEP2AFBmu
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBmu.h:22
LEP2AFBtau
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBtau.h:22
LEP2Rbottom
A class for above the pole.
Definition: LEP2Rbottom.h:21
LEP2Rcharm
A class for above the pole.
Definition: LEP2Rcharm.h:21
LEP2dsigmadcosElectron
A class for the cross section of above the pole.
Definition: LEP2sigmaElectron.h:21
LEP2dsigmadcosMu
A class for the cross section of above the pole.
Definition: LEP2sigmaMu.h:53
LEP2dsigmadcosTau
A class for the cross section of above the pole.
Definition: LEP2sigmaTau.h:54
LEP2sigmaHadron
A class for the hadronic cross section of annihilations above the pole.
Definition: LEP2sigmaHadron.h:21
LEP2sigmaMu
A class for the cross section of above the pole.
Definition: LEP2sigmaMu.h:21
LEP2sigmaTau
A class for the cross section of above the pole.
Definition: LEP2sigmaTau.h:21
QWAPV
An observable class for the weak charge from atomic parity violation.
Definition: LE_ParityViolation.h:137
QWe
An observable class for the weak charge of the electron.
Definition: LE_ParityViolation.h:31
QWp
An observable class for the weak charge of the proton.
Definition: LE_ParityViolation.h:66
StandardModel
A model class for the Standard Model.
Definition: StandardModel.h:521
TWGImctW
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7596
TWGImctZ
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7666
TWGcHQ3
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7421
TWGcHQm
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7351
TWGcHQp
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7386
TWGcHb
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7491
TWGcHt
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7456
TWGcHtb
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7526
TWGcQQ1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6652
TWGcQQ8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6687
TWGcQd1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7037
TWGcQd8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7072
TWGcQe
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7876
TWGcQl3
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7841
TWGcQlM
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7771
TWGcQlP
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7806
TWGcQq11
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6897
TWGcQq18
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6932
TWGcQq31
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6827
TWGcQq38
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6862
TWGcQt1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6757
TWGcQt8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6792
TWGcQu1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6967
TWGcQu8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7002
TWGcbW
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7736
TWGctG
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7701
TWGctH
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7317
TWGctW
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7561
TWGctZ
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7631
TWGctd1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7247
TWGctd8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7282
TWGcte
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7946
TWGctl
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7911
TWGctlS
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7981
TWGctlT
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:8015
TWGctq1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7107
TWGctq8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7142
TWGctt1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:6722
TWGctu1
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7177
TWGctu8
An observable class for the LHC Top WG definitions of Top operators.
Definition: NP_couplings.h:7212
ThObsFactory::obsThFactory
std::map< std::string, std::function< ThObservable *(const StandardModel &) > > obsThFactory
Definition: ThObsFactory.h:49
ThObsFactory::registerLEP2Observables
void registerLEP2Observables()
Definition: ThObsFactory_LEP2.cpp:15
eeffAFBbottom
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBbottom.h:54
eeffAFBcharm
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBcharm.h:54
eeffAFBelectron
A class for the forward-backward asymmetry of above the pole.
Definition: eeffAFBelectron.h:22
eeffAFBelectrontsub
A class for the forward-backward asymmetry of , subtracting the SM t channel. above the pole.
Definition: eeffAFBelectron.h:53
eeffAFBmu
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBmu.h:53
eeffAFBstrange
A class for the forward-backward asymmetry of above the pole.
Definition: eeffAFBstrange.h:23
eeffAFBtau
A class for the forward-backward asymmetry of above the pole.
Definition: LEP2AFBtau.h:53
eeffRbottom
A class for the ratio of cross sections of off the pole.
Definition: LEP2sigmaBottom.h:85
eeffRcharm
A class for the ratio of cross sections of off the pole.
Definition: LEP2sigmaCharm.h:87
eeffRelectron
A class for the ratio of cross sections of off the pole.
Definition: LEP2sigmaElectron.h:87
eeffRelectrontsub
A class for the ratio of cross sections of off the pole, subtracting the SM t channel.
Definition: LEP2sigmaElectron.h:153
eeffRmuon
A class for the ratio of cross sections of off the pole.
Definition: LEP2sigmaMu.h:118
eeffRstrange
A class for the ratio of cross sections of off the pole.
Definition: eeffsigmaStrange.h:54
eeffRtau
A class for the ratio of cross sections of off the pole.
Definition: LEP2sigmaTau.h:122
eeffsigmaBottom
A class for the cross section of off the pole.
Definition: LEP2sigmaBottom.h:53
eeffsigmaCharm
A class for the cross section of off the pole.
Definition: LEP2sigmaCharm.h:54
eeffsigmaElectron
A class for the cross section of off the pole.
Definition: LEP2sigmaElectron.h:55
eeffsigmaHadron
A class for the hadronic cross section of annihilations above the pole.
Definition: LEP2sigmaHadron.h:53
eeffsigmaMu
A class for the cross section of off the pole.
Definition: LEP2sigmaMu.h:86
eeffsigmaStrange
A class for the cross section of off the pole.
Definition: eeffsigmaStrange.h:22
eeffsigmaTau
A class for the cross section of off the pole.
Definition: LEP2sigmaTau.h:89
eeffsigmatsubElectron
A class for the cross section of off the pole, subtracting the SM t-channel.
Definition: LEP2sigmaElectron.h:121
gAnue
An observable class for the effective (muon) neutrino-electron axial-vector coupling.
Definition: LE_NuScatt.h:200
gLnuN2
An observable class for the effective neutrino nucleon LH coupling.
Definition: LE_NuScatt.h:30
gRnuN2
An observable class for the effective neutrino nucleon RH coupling.
Definition: LE_NuScatt.h:64
gVnue
An observable class for the effective (muon) neutrino-electron vector coupling.
Definition: LE_NuScatt.h:166
gmugeTauLFU
An observable class for the tau LFU ratio .
Definition: Lepton_Decays.h:133
gtaugeTauLFU
An observable class for the tau LFU ratio .
Definition: Lepton_Decays.h:199
gtaugmuKTauLFU
An observable class for the tau LFU ratio .
Definition: Lepton_Decays.h:265
gtaugmuPiTauLFU
An observable class for the tau LFU ratio .
Definition: Lepton_Decays.h:232
gtaugmuTauLFU
An observable class for the tau LFU ratio .
Definition: Lepton_Decays.h:166
ThObsConst
Namespace containing collider energy and angle constants used across ThObsFactory registration functi...
Definition: ThObsFactoryConstants.h:15
ThObsConst::sqrt_s
const double sqrt_s[12]
Definition: ThObsFactoryConstants.h:100
ThObsConst::sqrt_see
const double sqrt_see[16]
Definition: ThObsFactoryConstants.h:117
ThObsConst::sqrt_s_HF
const double sqrt_s_HF[10]
Definition: ThObsFactoryConstants.h:124
ThObsConst::cos_Diffee
const double cos_Diffee[15]
Definition: ThObsFactoryConstants.h:112
ThObsConst::sqrt_sDiffll
const double sqrt_sDiffll[8]
Definition: ThObsFactoryConstants.h:106
ThObsConst::sqrt_s_eeff
const double sqrt_s_eeff[16]
Definition: ThObsFactoryConstants.h:118
ThObsConst::sqrt_s_LEP2_HF
const double sqrt_s_LEP2_HF[10]
Definition: ThObsFactoryConstants.h:126
ThObsConst::sqrt_s_LEP2eeff
const double sqrt_s_LEP2eeff[12]
Definition: ThObsFactoryConstants.h:102
ThObsConst::muEW
const double muEW
Definition: ThObsFactoryConstants.h:120
ThObsConst::cosmin_Diffee
const double cosmin_Diffee[15]
Definition: ThObsFactoryConstants.h:113
ThObsConst::cosmin_Diffll
const double cosmin_Diffll[10]
Definition: ThObsFactoryConstants.h:108
ThObsConst::cos_DiffeeInp
const double cos_DiffeeInp[15]
Definition: ThObsFactoryConstants.h:111
ThObsConst::cosmax_Diffee
const double cosmax_Diffee[15]
Definition: ThObsFactoryConstants.h:114
ThObsConst::cosmax_Diffll
const double cosmax_Diffll[10]
Definition: ThObsFactoryConstants.h:109
ThObsConst::cos_Diffll
const double cos_Diffll[10]
Definition: ThObsFactoryConstants.h:107