Manual


The manual is shipped together with the program in the VBFNLO-Download in the doc folder. You can also download it from below.


VBFNLO Version 2.7.1

The manual for the current release is available in pdf format for download:

Manual for version 2.7.1


VBFNLO Version 2.7.0

The manual for version 2.7.0 is available in pdf format for download:

Manual for version 2.7.0,

but it can also be found on the arXiv:

arXiv:1107.4038v3

The release note for version 2.7.0 is here or on the arXiv:

arXiv:1404.3940


VBFNLO Version 2.6.0

The release note for version 2.6.0 is here or on the arXiv:

arXiv:1207.4975v1

The manual of version 2.6.0 can also be found on the arXiv:

arXiv:1107.4038v2


VBFNLO Version 2.5.0

The manual of version 2.5.0 can be found on the arXiv:

arXiv:1107.4038v1


VBFNLO Version 2.0.0

The manual of version 2.0.0 can be found on the arXiv:

arXiv:0811.4559



Process List

Higgs boson production plus two jets via Vector Boson Fusion

Processes with fully leptonic decays:

Process ID Process BSM Options
100 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj$ anomalous HVV couplings, MSSM
101 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \gamma\gamma \, jj$
102 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \mu^+\mu^- \, jj$
103 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \tau^+\tau^- \, jj$
104 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to b\bar{b} \, jj$
105 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to W^{+}W^{-} \, jj\to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^- \bar{\nu}_{\ell_{2}} \, jj$
106 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \ell_{2}^+ \ell_{2}^- \, jj$
107 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \, jj$

Processes with semi-leptonic decays:

Process ID Process BSM Options
108 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to W^{+}W^{-} \, jj\to q\bar{q} \, \ell^- \bar{\nu}_{\ell} \,jj$ anomalous HVV couplings, MSSM
109 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to W^{+}W^{-} \, jj\to \ell^+\nu_{\ell} \, q\bar{q} \,jj$
1010 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to ZZ \, jj\to q\bar{q} \, \ell^+ \ell^- \,jj$


Higgs boson production plus three jets via Vector Boson Fusion
Process ID Process BSM Options
110 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj$
111 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to \gamma\gamma \, jjj$
112 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to \mu^+\mu^- \, jjj$
113 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to \tau^+\tau^- \, jjj$
114 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to b\bar{b} \, jjj$
115 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to W^{+}W^{-} \, jj\to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^- \bar{\nu}_{\ell_{2}} \, jjj$
116 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \ell_{2}^+ \ell_{2}^- \, jjj$
117 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jjj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \, jjj$


Higgs boson production with a photon and two jets via Vector Boson Fusion
Process ID Process BSM Options
2100 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj$
2101 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to \gamma\gamma \gamma \, jj$
2102 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to \mu^+\mu^- \gamma \, jj$
2103 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to \tau^+\tau^- \gamma \, jj$
2104 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to b\bar{b} \gamma \, jj$
2105 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to W^{+}W^{-} \gamma \, jj\to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^- \bar{\nu}_{\ell_{2}} \gamma \, jj$
2106 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to ZZ \gamma \, jj\to \ell_{1}^+ \ell_{1}^- \ell_{2}^+ \ell_{2}^- \gamma \, jj$
2107 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \gamma \, jj\to ZZ \gamma \, jj\to \ell_{1}^+ \ell_{1}^- \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \gamma \, jj$


Single vector boson production plus two jets via Vector Boson Fusion
Process ID Process BSM Options
120 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \, jj \to \ell^{+} \ell^{-} \, jj$ Anomalous gauge couplings
121 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \, jj\to \nu_\ell \bar{\nu}_\ell \, jj$
130 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} \, jj\to \ell^{+} \nu_\ell \, jj$
140 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} \, jj\to \ell^{-} \bar{\nu}_\ell \, jj$
150 $p \overset{\tiny{\mbox{(—)}}}{p} \to \gamma \, jj$


VBF production of two Higgs bosons and two jets
Process ID Process BSM Options
160 $p \overset{\tiny{\mbox{(—)}}}{p} \to HH \, jj$
161 $p \overset{\tiny{\mbox{(—)}}}{p} \to HH \, jj \to b\bar{b}\tau^+\tau^- \, jj$
162 $p \overset{\tiny{\mbox{(—)}}}{p} \to HH \, jj \to b\bar{b}\gamma\gamma \, jj$


VBF production of a spin-2 particle
Process ID Process BSM Options
191 $p \overset{\tiny{\mbox{(—)}}}{p} \to S_{2} \, jj\to \gamma\gamma \, jj$ spin-2 resonant production
195 $p \overset{\tiny{\mbox{(—)}}}{p} \to S_{2} \, jj\to W^{+}W^{-} \, jj\to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^- \bar{\nu}_{\ell_{2}} \,jj$
196 $p \overset{\tiny{\mbox{(—)}}}{p} \to S_{2} \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \ell_{2}^+ \ell_{2}^- \,jj$
197 $p \overset{\tiny{\mbox{(—)}}}{p} \to S_{2} \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \,jj$


Vector boson pair production plus two jets via Vector Boson Fusion

Processes with fully leptonic decays:

Process ID Process BSM Options
200 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \, jj \to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} \, jj$ anomalous gauge couplings, two-Higgs model, Kaluza-Klein models, spin-2 models
210 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \, jj\to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} \, jj$
211 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \, jj\to \ell_{1}^{+} \ell_{1}^{-} \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \, jj$
220 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \, jj\to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{+} \ell_{2}^{-} \, jj$
230 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \, jj\to \ell_{1}^{-} \bar{\nu}_{\ell _{1}} \ell_{2}^{+} \ell_{2}^{-} \, jj$
250 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{+} \, jj\to \ell_{1}^{+} \nu_{\ell _{1}} \ell_{2}^{+} \nu_{\ell_{2}} \, jj$ anomalous gauge couplings, two-Higgs model
260 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{-} \, jj\to \ell_{1}^{-} \bar{\nu}_{\ell _{1}} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} \, jj$
270 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}\gamma \, jj\to \ell^{+} \nu_{\ell} \gamma \, jj$ anomalous gauge couplings
280 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}\gamma \, jj\to \ell^{-} \bar{\nu}_{\ell} \gamma \, jj$
290 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z\gamma \, jj\to \ell^{+} \ell^{-} \gamma \, jj$
291 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z\gamma \, jj\to \nu_{\ell}\bar{\nu}_{\ell} \gamma \, jj$

Processes with semi-leptonic decays:

Process ID Process BSM Options
201 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \, jj \to q \bar{q} \, \ell^{-} \bar{\nu}_{\ell} \, jj$ anomalous gauge couplings, two-Higgs model
202 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \, jj\to \ell^{+} \nu_\ell \, q \bar{q} \, jj$
212 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \, jj\to q \bar{q} \, \ell^{+} \ell^{-} \, jj$
221 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \, jj\to q \bar{q} \, \ell^{+} \ell^{-} \, jj$
222 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \, jj\to \ell^{+} \nu_{\ell} \, q \bar{q} \, jj$
231 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \, jj\to q \bar{q} \, \ell^{+} \ell^{-} \, jj$
232 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \, jj\to \ell^{-} \bar{\nu}_{\ell} \, q \bar{q} \, jj$
251 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{+} \, jj\to q \bar{q} \, \ell^{+} \nu_{\ell} \, jj$
261 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{-} \, jj\to q \bar{q} \, \ell^{-} \bar{\nu}_{\ell} \, jj$


Diboson production

Processes with fully leptonic decays:

Process ID Process BSM Options
300 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{-}\bar{\nu}_{\ell_{2}}$ anomalous HVV and gauge couplings
310 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{+}\ell_{2}^{-}$ anomalous gauge couplings
320 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \to \ell_{1}^{-} \bar{\nu}_{\ell_{1}} \ell_{2}^{+}\ell_{2}^{-}$
330 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+}\ell_{2}^{-}$ anomalous HVV couplings
340 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}\gamma \to \ell_{1}^{+} \nu_{\ell_{1}} \gamma$ anomalous gauge couplings
350 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}\gamma \to \ell_{1}^{-} \bar{\nu}_{\ell_{1}} \gamma$
360 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z\gamma \to \ell_{1}^{+} \ell_{1}^{-} \gamma$ anomalous HVV couplings
370 $p \overset{\tiny{\mbox{(—)}}}{p} \to \gamma\gamma $

Processes with semi-leptonic decays:

Process ID Process BSM Options
301 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \to q \bar{q} \, \ell^{-}\bar{\nu}_{\ell} $ anomalous HVV and gauge couplings
302 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \to \ell^{+} \nu_{\ell} \, q \bar{q} $
312 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \to q \bar{q} \, \ell^{+} \ell^{-} $ anomalous gauge couplings
313 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \to \ell^{+} \nu_{\ell} \, q \bar{q}$
322 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \to q \bar{q} \, \ell^{+} \ell^{-}$
323 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \to \ell^{-} \bar{\nu}_{\ell} \, q \bar{q}$
331 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \to q \bar{q} \, \ell^{-} \ell^{+}$ anomalous HVV couplings


Triple vector boson production

Processes with fully leptonic decays:

Process ID Process BSM Options
400 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}Z \to \ell_{1}^{+}\nu_{\ell_{1}} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} {\ell_3}^{+} {\ell_3}^{-}$ anomalous gauge couplings, Kaluza-Klein models
410 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{+} \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} {\ell_3}^{+} \nu_{\ell_3}$
420 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{-} \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} {\ell_3}^{-} \bar{\nu}_{\ell_3}$
430 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}W^{+} \to \ell_{1}^{+}\nu_{\ell_1} \ell_{2}^{-} \bar{\nu}_{\ell_2} {\ell_3}^{+}\nu_{\ell_3}$
440 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{+}W^{-} \to \ell_{1}^{-} \bar{\nu}_{\ell_1}\ell_{2}^{+}\nu_{\ell_2} {\ell_3}^{-} \bar{\nu}_{\ell_3}$
450 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZZ \to \ell_{1}^{-} \ell_{1}^{+} \ell_{2}^{-} \ell_{2}^{+} {\ell_3}^{-} {\ell_3}^{+}$ anomalous gauge couplings
460 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{+} \gamma \to \ell_{1}^{-} \bar{\nu}_{\ell_1} \ell_{2}^{+}\nu_{\ell_2} \gamma$
470 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z Z \gamma \to \ell_{1}^{-} \ell_{1}^{+} \ell_{2}^{-} \ell_{2}^{+} \gamma$
480 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} Z \gamma \to \ell_{1}^{+}\nu_{\ell_1} \ell_{2}^{-} \ell_{2}^{+} \gamma$
490 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} Z \gamma \to \ell_{1}^{-} \bar{\nu}_{\ell_1} \ell_{2}^{-} \ell_{2}^{+} \gamma$
500 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} \gamma \gamma \to {\ell}^{+}\nu_{\ell} \gamma \gamma$
510 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} \gamma \gamma \to {\ell}^{-} \bar{\nu}_{\ell} \gamma \gamma$
520 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \gamma \gamma \to {\ell}^{-} {\ell}^{+} \gamma \gamma$
521 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \gamma \gamma \to \nu_{\ell} \bar{\nu}_{\ell} \gamma \gamma$
530 $p \overset{\tiny{\mbox{(—)}}}{p} \to \gamma \gamma \gamma$

Processes with semi-leptonic decays:

Process ID Process BSM Options
401 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}Z \to q \bar{q} \, \ell_{1}^{-} \bar{\nu}_{\ell_{1}} \ell_{2}^{+} \ell_{2}^{-} $ anomalous gauge couplings
402 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}Z \to \ell_{1}^{+}\nu_{\ell_{1}} \, q \bar{q} \, \ell_{2}^{+} \ell_{2}^{-} $
403 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}Z \to \ell_{1}^{+}\nu_{\ell_{1}} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} \, q \bar{q} $
411 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{+} \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} \, q \bar{q} $
412 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{+} \to q \bar{q} \, \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \nu_{\ell_{2}} $
421 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{-} \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} \, q \bar{q} $
422 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZW^{-} \to q \bar{q} \, \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{-} \bar{\nu}_{\ell_{2}}$
431 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}W^{+} \to q \bar{q} \, \ell_{1}^{-} \bar{\nu}_{\ell_1} \ell_{2}^{+}\nu_{\ell_{2}}$
432 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-}W^{+} \to \ell_{1}^{+}\nu_{\ell_1} \, q \bar{q} \, \ell_{2}^{+}\nu_{\ell_{2}}$
441 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{+}W^{-} \to \ell_{1}^{-} \bar{\nu}_{\ell_1} \, q \bar{q} \, \ell_{2}^{-} \bar{\nu}_{\ell_{2}} $
442 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{+}W^{-} \to q \bar{q} \, \ell_{1}^{+}\nu_{\ell_1} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} $
451 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZZ \to q \bar{q} \, \ell_{1}^{-} \ell_{1}^{+} \ell_{2}^{-} \ell_{2}^{+} $
461 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \gamma \to q \bar{q} \, \ell^{-}\bar{\nu}_{\ell} \gamma$
462 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} \gamma \to \ell^{+} \nu_{\ell} \, q \bar{q} \, \gamma$
471 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z Z \gamma \to \ell^{-} \ell^{+} \, q \bar{q} \, \gamma$
481 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} Z \gamma \to q \bar{q} \, \ell^{-} \ell^{+} \gamma$
482 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} Z \gamma \to \ell^{+}\nu_{\ell} \, q \bar{q} \, \gamma$
491 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} Z \gamma \to q \bar{q} \, \ell^{-} \ell^{+} \gamma$
492 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} Z \gamma \to \ell^{-} \bar{\nu}_{\ell} \, q \bar{q} \, \gamma$


Double vector boson production in association with a hadronic jet
Process ID Process BSM Options
600 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} W^{-} j \to \ell_{1}^{+}\nu_{\ell_1} \ell_{2}^{-} \bar{\nu}_{\ell_2} j $ anomalous HVV couplings
610 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} \gamma j \to \ell^{-} \bar \nu_{\ell} \gamma j$ anomalous gauge couplings
620 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} \gamma j \to \ell^{+} \nu_{\ell} \gamma j$
630 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} Z j \to \ell_{1}^{-} \bar \nu_{\ell_1} \ell_{2}^{-} \ell_{2}^{+} j$
640 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} Z j \to \ell_{1}^{+}\nu_{\ell_1} \ell_{2}^{-}\ell_{2}^{+}j$
650 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z Z j \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} j $ anomalous HVV couplings


Triple vector boson production in association with a hadronic jet
Process ID Process BSM Options
800 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} \gamma \gamma j \to \ell^{+} \nu_{\ell} \gamma \gamma j$ anomalous gauge couplings
810 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} \gamma \gamma j \to \ell^{-} \bar \nu_{\ell} \gamma \gamma j$


WH production
Process ID Process BSM Options
1300 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to \ell^+\nu_{\ell} H $ anomalous gauge couplings
1301 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to \ell^+\nu_{\ell} \gamma\gamma $
1302 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to \ell^+\nu_{\ell} \mu^+\mu^- $
1303 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to \ell^+\nu_{\ell} \tau^+\tau^- $
1304 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to \ell^+\nu_{\ell} b\bar{b} $
1305 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to W^+ W^{+}W^{-} \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+\nu_{\ell_{2}} \ell_{3}^- \bar{\nu}_{\ell_{3}}$
1306 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to W^+ ZZ \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \ell_{3}^+ \ell_{3}^-$
1307 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \to W^+ ZZ \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \nu_{\ell_{3}} \bar{\nu}_{\ell_{3}}$
1310 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to \ell^- \bar{\nu}_{\ell} H $
1311 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to \ell^- \bar{\nu}_{\ell} \gamma\gamma $
1312 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to \ell^- \bar{\nu}_{\ell} \mu^+\mu^- $
1313 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to \ell^- \bar{\nu}_{\ell} \tau^+\tau^- $
1314 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to \ell^- \bar{\nu}_{\ell} b\bar{b} $
1315 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to W^- W^{+}W^{-} \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+\nu_{\ell_{2}} \ell_{3}^- \bar{\nu}_{\ell_{3}}$
1316 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to W^- ZZ \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \ell_{3}^+ \ell_{3}^-$
1317 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \to W^- ZZ \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \nu_{\ell_{3}} \bar{\nu}_{\ell_{3}}$


W production
Process ID Process BSM Options
1330 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ \to \ell^+\nu_{\ell} $
1340 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- \to \ell^- \bar{\nu}_{\ell} $


WH production in association with a hadronic jet
Process ID Process BSM Options
1600 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to \ell^+\nu_{\ell} H \, j $ anomalous gauge couplings
1601 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to \ell^+\nu_{\ell} \gamma\gamma \, j $
1602 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to \ell^+\nu_{\ell} \mu^+\mu^- \, j $
1603 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to \ell^+\nu_{\ell} \tau^+\tau^- \, j $
1604 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to \ell^+\nu_{\ell} b\bar{b} \, j $
1605 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to W^+ W^{+}W^{-} \, j \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+\nu_{\ell_{2}} \ell_{3}^- \bar{\nu}_{\ell_{3}}\, j $
1606 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to W^+ ZZ \, j \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \ell_{3}^+ \ell_{3}^-\, j $
1607 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ H \, j \to W^+ ZZ \, j \to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \nu_{\ell_{3}} \bar{\nu}_{\ell_{3}}\, j $
1610 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to \ell^- \bar{\nu}_{\ell} H \, j $
1611 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to \ell^- \bar{\nu}_{\ell} \gamma\gamma \, j $
1612 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to \ell^- \bar{\nu}_{\ell} \mu^+\mu^- \, j $
1613 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to \ell^- \bar{\nu}_{\ell} \tau^+\tau^- \, j $
1614 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to \ell^- \bar{\nu}_{\ell} b\bar{b} \, j $
1615 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to W^- W^{+}W^{-} \, j \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+\nu_{\ell_{2}} \ell_{3}^- \bar{\nu}_{\ell_{3}}\, j $
1616 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to W^- ZZ \, j \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \ell_{3}^+ \ell_{3}^-\, j $
1617 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- H \, j \to W^- ZZ \, j \to \ell_{1}^-\bar{\nu}_{\ell_{1}} \ell_{2}^+ \ell_{2}^- \nu_{\ell_{3}} \bar{\nu}_{\ell_{3}}\, j $


W production in association with a hadronic jet
Process ID Process BSM Options
1630 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^+ \, j \to \ell^+\nu_{\ell} \, j $
1640 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^- \, j\to \ell^- \bar{\nu}_{\ell} \, j $


QCD induced production of a vector boson in association with two jets
Process ID Process BSM Options
3120 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \, jj\to \ell^{+} \ell^{-} \, jj$
3121 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z \, jj\to \nu_{\ell} \bar{\nu}_{\ell} \, jj$
3130 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+} \, jj\to \ell^{+} \nu_\ell \, jj$
3140 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-} \, jj\to \ell^{-} \bar{\nu}_\ell \, jj$


QCD induced diboson production in association with two jets
Process ID Process BSM Options
3210 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \, jj\to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+} \ell_{2}^{-} \, jj$
3211 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ \, jj\to \ell_{1}^{+} \ell_{1}^{-} \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \, jj$
3220 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}Z \, jj\to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{+} \ell_{2}^{-} \, jj$
3230 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}Z \, jj\to \ell_{1}^{-} \bar{\nu}_{\ell _{1}} \ell_{2}^{+} \ell_{2}^{-} \, jj$
3250 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{+} \, jj\to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{+} \nu_{\ell_{2}} \, jj$
3260 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}W^{-} \, jj\to \ell_{1}^{-} \bar{\nu}_{\ell_{1}} \ell_{2}^{-} \bar{\nu}_{\ell_{2}} \, jj$
3270 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}\gamma \, jj\to \ell^{+} \nu_{\ell} \gamma \, jj$
3280 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{-}\gamma \, jj\to \ell^{-} \bar{\nu}_{\ell} \gamma \, jj$
3290 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z\gamma \, jj\to \ell^{+} \ell^{-} \gamma \, jj$
3291 $p \overset{\tiny{\mbox{(—)}}}{p} \to Z\gamma \, jj\to \nu_{\ell} \bar{\nu}_{\ell} \gamma\, jj$


Higgs boson production plus two jets via Gluon Fusion
Process ID Process BSM Options
4100 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj$ MSSM, general 2HDM
4101 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \gamma\gamma \, jj$ MSSM
4102 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \mu^+\mu^- \, jj$
4103 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to \tau^+\tau^- \, jj$
4104 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to b\bar{b} \, jj$
4105 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to W^{+}W^{-} \, jj\to \ell_{1}^+\nu_{\ell_{1}} \ell_{2}^- \bar{\nu}_{\ell_{2}} \, jj$ MSSM, general 2HDM, anomalous HVV couplings
4106 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \ell_{2}^+ \ell_{2}^- \, jj$
4107 $p \overset{\tiny{\mbox{(—)}}}{p} \to H \, jj\to ZZ \, jj\to \ell_{1}^+ \ell_{1}^- \nu_{\ell_{2}} \bar{\nu}_{\ell_{2}} \, jj$


Gluon-induced diboson production

Processes with fully leptonic decays:

Process ID Process BSM Options
4300 $gg \to W^{+}W^{-} \to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{-}\bar{\nu}_{\ell_{2}}$ anomalous HVV couplings
4330 $gg \to ZZ \to \ell_{1}^{+} \ell_{1}^{-} \ell_{2}^{+}\ell_{2}^{-}$
4360 $gg \to Z\gamma \to \ell_{1}^{+} \ell_{1}^{-} \gamma$
4370 $gg \to \gamma\gamma $

Processes with semi-leptonic decays:

Process ID Process BSM Options
4301 $gg \to W^{+}W^{-} \to q \bar{q} \, \ell^{-}\bar{\nu}_{\ell} $ anomalous HVV couplings
4332 $gg \to W^{+}W^{-} \to \ell^{+} \nu_{\ell} \, q \bar{q} $
4331 $gg \to ZZ \to q \bar{q} \, \ell^{-} \ell^{+} $


Gluon-induced diboson production in association with a hadronic jet
Process ID Process BSM Options
4600 $p \overset{\tiny{\mbox{(—)}}}{p} \to W^{+}W^{-} j \to \ell_{1}^{+} \nu_{\ell_{1}} \ell_{2}^{-}\bar{\nu}_{\ell_{2}} j $ anomalous HVV couplings
4650 $p \overset{\tiny{\mbox{(—)}}}{p} \to ZZ j \to \ell_{1}^{-} \ell_{1}^{+} \ell_{2}^{-} \ell_{2}^{+} j $



Installation

VBFNLO includes a GNU conforming build system for portability and an easy build and installation procedure.


Prerequisites

The basic installation requires GNU make, a FORTRAN 95 (we have tested gfortran and ifort) and a C++ compiler. VBFNLO offers the possibility of using the LHAPDF library for parton distribution functions. In order to include the electroweak corrections, the program LoopTools is required. Additionally, FeynHiggs can be linked to the code in order to calculate the Higgs boson sector of the MSSM, although a SLHA file can be used as an alternative. If the simulation of Kaluza-Klein resonances is enabled, an installation of the GNU Scientific Library GSL is required. VBFNLO can also be linked to ROOT and HepMC to produce histograms and event files in those formats.


Compilation and installation

After unpacking the source archive and entering the source directory, the configure script can be invoked with several options, a complete list being available via ./configure --help. Among these, the most important ones are:

  • --prefix=[path]
    Install Vbfnlo in the location given by [path].
  • --enable-processes=[list]
    By default, the code for processes that do not contain hexagons (i.e. all processes except triboson + jet processes) is compiled. Optionally, [list] gives a comma-separated list of selected processes to be compiled. Possible process names are:
    • vbf — Vector boson fusion processes
    • qcdvjj — QCD-induced vector boson plus two jet production
    • qcdvvjj — QCD-induced vector boson pair plus two jet production
    • diboson — Double gauge boson production, including W and WH production
    • triboson — Triple gauge boson production
    • dibosonjet — Double gauge boson production with a hadronic jet, including Wj and WHj production
    • tribosonjet — Triple gauge boson production with a hadronic jet
    • hjjj — Higgs boson plus three jet production in vector boson fusion
    • ggf — Higgs boson plus two jets via gluon fusion
    • all_except_hexagons — All the above processes except those with hexagon contributions (default)
    • all — All of the above processes
  • FC=/path/to/fortran/compiler
    choose a specific fortran compiler, like gfortran or ifort
  • --disable-NLO
    Disable the next-to-leading order QCD corrections.
  • --enable-kk
    Enable simulation of Kaluza-Klein resonances. Disabled by default, the Kaluza-Klein option requires the installation of the GNU Scientific Library, which can be specified via --with-gsl.
  • --enable-spin2
    Enable simulation of spin-2 resonances. Disabled by default.
  • --with-gsl=[path]
    Enable use of the GNU Scientific Library. [path] specifies the location of the GSL installation. If the GSL is available directly from the system libraries this flag can be omitted.
  • --with-LHAPDF=[path]
    Enable the use of LHAPDF instead of the built-in PDF sets. Disabled by default. [path] specifies the location of the LHAPDF installation.
  • --with-LOOPTOOLS=[path]
    Enable the use of LoopTools in order to calculate the electroweak corrections. If this option is not specified, the electroweak corrections cannot be included. Disabled by default. [path] specifies the location of the LoopTools installation.
  • --with-FEYNHIGGS=[path]
    Enable the use of FeynHiggs to calculate the MSSM Higgs sector parameters. Disabled by default. [path] specifies the location of the FeynHiggs installation.
  • --with-root=[path]
    Enable the use of Root. [path] specifies the location of the Root installation.
  • --with-hepmc=[path]
    Enable the production of HepMC format event files. [path] specifies the location of the HepMC installation.

Note that, by default, both LoopTools and FeynHiggs are installed as static libraries. If this is the case, configure must be run with the option --enable-shared=no. Also note that, in order to link to an external program such as LoopTools, the external program needs to have been compiled using the same compiler (e.g. gfortran) as VBFNLO. Once configure has finished successfully, the make and make install commands will compile and install VBFNLO, respectively.

The source does not need to be modified to change the simulation parameters. VBFNLO offers several kinematic cuts and scale choices via input files. These are described in the manual. In addition, it provides a few basic histograms. Cuts, histograms and scale choices not already provided may be added in the utilities/cuts.F, utilities/histograms.F and utilities/scales.F files.


Installation directory layout

The installation is performed in a standard Unix-layout, i.e. the directory specified with the --prefix option of the configure script contains the following directories:

  • bin/: vbfnlo and ggflo executables.
  • include/VBFNLO/: VBFNLO header files.
  • lib/VBFNLO/: VBFNLO modules as dynamically loadable libraries. These can also be used independently from one of the main programs.
  • share/VBFNLO/: Input files and internal PDF tables.


Running the program

Both the vbfnlo and ggflo executables contained in the bin directory of the installation path look for input files in their current working directory. An alternative path to input files may be specified explicitly by passing the --input=path argument to the programs, with path denoting the full path where input files are located.
I.e. in order to run VBFNLO from the installation (prefix) directory, the command is

./bin/vbfnlo --input=[path]

The input files contained in the share/VBFNLO directory are meant to represent default settings and should not be changed. We therefore recommend that the user copies the input files to a separate directory. Here, special settings may be chosen in the input files and the program can be run in that directory without specifying further options.

VBFNLO outputs a running 'log' to the terminal, containing information about the settings used. In addition, a file (named, by default, xsection.out) is produced, which contains only the LO and NLO cross sections, with the associated errors. Histograms and event files, in various forms, can be output as described in the manual.

Last modified:: 2012/03/21 11:23