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- Timestamp:
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May 6, 2009, 1:41:51 PM (16 years ago)
- Author:
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jweil
- Comment:
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--
Legend:
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v7
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v8
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5 | 5 | |
6 | 6 | == Target definition == |
| 7 | |
7 | 8 | The namelist ''target'' controls the target. Do not modify the ''fermimotion'' and ''densitySwitch_Static'' switches besides for testing. |
8 | 9 | {{{ |
… |
… |
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37 | 38 | $lowPhotonAnalysis |
38 | 39 | ! Analysis flags |
39 | | outputEvents =.true. ! Print events to file |
40 | | photonAnalyse =.true. ! Generate analysis for final state photons |
| 40 | outputEvents = .true. ! Print events to file |
| 41 | outputEvents_onlyFree = .true. ! Prints only "free" nucleons to file (.false.=print all nucleons) |
| 42 | photonAnalyse = .true. ! Generate analysis for final state photons |
41 | 43 | ! Switch off unnessary analysis |
42 | | KruscheOutput =.false. |
43 | | fissumOutput =.false. |
44 | | twoPiOutput =.false. |
45 | | $end |
46 | | }}} |
| 44 | KruscheOutput = .false. |
| 45 | fissumOutput = .false. |
| 46 | twoPiOutput = .false. |
| 47 | $end |
| 48 | }}} |
| 49 | |
| 50 | |
47 | 51 | == General Input == |
| 52 | |
48 | 53 | These namelists control the general input for each run: |
49 | 54 | * The variable ''numEnsembles'' defines how many ensembles of test-particles are used to model a physical one, so it defines the granularity of our numerical realization. Use ''numEnsembles=1000...10000'' for a real calculation. |
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86 | 91 | $end |
87 | 92 | }}} |
| 93 | |
| 94 | |
88 | 95 | == Numerical details == |
| 96 | |
89 | 97 | Don't touch! |
90 | 98 | {{{ |
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105 | 113 | predictorCorrector=.true. ! Whether to use a predictor/corrector algorithm to do the propagation |
106 | 114 | $end |
107 | | |
108 | | |
109 | | }}} |
| 115 | }}} |
| 116 | |
| 117 | |
110 | 118 | == Input for potentials == |
| 119 | |
111 | 120 | Influences the hadronic potentials. In the scenario below we use no potential for the mesons and our standard Skyrme-type potential for the baryons. |
112 | 121 | {{{ |
113 | | |
114 | 122 | $Coulomb |
115 | 123 | CoulombFlag=.false. |
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137 | 145 | ! 2= 100 MeV *rho/rhoNull |
138 | 146 | $end |
139 | | |
140 | | }}} |
| 147 | }}} |
| 148 | |
| 149 | |
141 | 150 | == The collision term == |
| 151 | |
142 | 152 | Here one can modify the collision term, e.g. by switching off three-body interactions. The scenario below is standard, so don't modify besides for testing. Note that the parameter ''minimumEnergy =0.005'' in the namelist ''insertion'' removes all final state nucleons which have kinetic energies less than 5 MeV. |
143 | 153 | {{{ |
144 | | |
145 | 154 | $hadronFormation |
146 | 155 | tauForma=0.8 ! formation proper time in restframe of hadron |
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172 | 181 | $end |
173 | 182 | |
174 | | |
175 | | |
176 | 183 | $initStability |
177 | 184 | stabilityFlag(101) = 4 ! Let Pi^0 Decay |
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181 | 188 | MDCY(102,1)=1 ! KC code of pi0, not KF! !Pi^0 unstable in Pythia |
182 | 189 | $end |
183 | | |
184 | | |
185 | | }}} |
| 190 | }}} |
| 191 | |
| 192 | |
186 | 193 | == The widths of the particles == |
| 194 | |
187 | 195 | The scenario below corresponds to a broadening of the Delta, but to no broadening of any other particle. Such a broadening can be included by setting |
188 | 196 | ''mediumSwitch_coll=.true.'' in the namelist width_Baryon and/or ''mediumSwitch=.true.'' in the namelist width_Meson. |
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198 | 206 | $end |
199 | 207 | }}} |
| 208 | |
| 209 | |
200 | 210 | == Temperature and thermodynamics == |
| 211 | |
201 | 212 | Don't touch this! Otherwise computation time blows up |
202 | 213 | {{{ |
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