Index: /Selma/Latex-Ex-JCAP-EPS/campagne.aux
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.aux	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.aux	(revision 464)
@@ -0,0 +1,424 @@
+\relax 
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+\citation{Bueno:2004dv}
+\@writefile{toc}{\contentsline {section}{\numberline {9}Indirect searches for the Dark Matter of the Universe}{31}}
+\newlabel{sec:DM}{{9}{31}}
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+\citation{Choubey:2004bf}
+\newlabel{fig:GLACIERdm1}{{13}{32}}
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+\newlabel{sec:Reactor}{{10}{32}}
+\citation{Petcov:2006gy}
+\newlabel{fig:GLACIERdm2}{{14}{33}}
+\citation{Petcov:2006gy}
+\citation{Ishitsuka:2005qi}
+\newlabel{fig:LENAMEMPHYS-reac-histo}{{15}{34}}
+\@writefile{toc}{\contentsline {section}{\numberline {11}Neutrinos from particle accelerator beams}{34}}
+\newlabel{sec:oscillation}{{11}{34}}
+\citation{Acquafredda:2006ki}
+\citation{Meregaglia:2006du}
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+\citation{Meregaglia:2006du}
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+\citation{Ishitsuka:2005qi}
+\newlabel{fig:reactor-MEMPHYS-threshold}{{17}{36}}
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+\newlabel{fig:fract_disc_dm}{{19}{37}}
+\citation{Maltoni:2004ei}
+\citation{Campagne:2006yx}
+\citation{Gerigk:2006qi}
+\citation{Campagne:2006yx}
+\citation{Baldini:2006fi}
+\citation{ISS06}
+\citation{Catanesi:2001gi}
+\newlabel{fig:Phys-SPL-atm-params}{{20}{38}}
+\citation{Campagne:2006yx}
+\citation{Campagne:2006yx}
+\citation{Zucchelli:2002sa}
+\citation{Campagne:2006yx}
+\citation{Baldini:2006fi}
+\citation{ISS06}
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+\newlabel{fig:Phys-SPLBB-CPV}{{22}{40}}
+\citation{Rubbia:2006pi}
+\citation{Bernabeu:2005jh}
+\citation{Sato:2005ma}
+\citation{Campagne:2006yx}
+\citation{Burguet-Castell:2001ez}
+\citation{Minakata:2001qm}
+\citation{Fogli:1996pv}
+\newlabel{fig:Phys-SPLBB-th13-5years}{{23}{41}}
+\citation{Campagne:2006yx}
+\citation{Campagne:2006yx}
+\citation{Campagne:2006yx}
+\newlabel{fig:Phys-SPLBB-degeneracies_5years}{{24}{42}}
+\citation{Badertscher:2005te}
+\citation{Ereditato:2005yx}
+\citation{Bueno:2000fg}
+\citation{Bueno:2000fg}
+\citation{Bueno:2001jd}
+\newlabel{tab:rates}{{11}{43}}
+\citation{Bueno:2001jd}
+\newlabel{fig:t13sensitivity}{{25}{44}}
+\@writefile{toc}{\contentsline {section}{\numberline {12}Conclusions and outlook}{44}}
+\newlabel{sec:Phys-Summary}{{12}{44}}
+\newlabel{fig:cpsensitivity}{{26}{45}}
+\newlabel{RF2}{46}
+\newlabel{tab:Phys-potential-summary1}{{12}{46}}
+\bibdata{campagne}
+\bibcite{Pati:1973rp}{1}
+\bibcite{Nath:2006ut}{2}
+\bibcite{Kobayashi:2005pe}{3}
+\bibcite{Davis:1968cp}{4}
+\bibcite{Hirata:1989zj}{5}
+\bibcite{Anselmann:1992um}{6}
+\bibcite{Abdurashitov:1994bc}{7}
+\bibcite{Smy:2002rz}{8}
+\bibcite{Aharmim:2005gt}{9}
+\bibcite{Altmann:2005ix}{10}
+\bibcite{Hirata:1987hu}{11}
+\bibcite{Bionta:1987qt}{12}
+\bibcite{Alekseev:1988gp}{13}
+\bibcite{Aglietta:1988be}{14}
+\bibcite{Hirata:1988uy}{15}
+\bibcite{Hirata:1992ku}{16}
+\bibcite{Becker-Szendy:1992hq}{17}
+\bibcite{Daum:1994bf}{18}
+\bibcite{Allison:1999ms}{19}
+\bibcite{Ashie:2005ik}{20}
+\bibcite{Fukuda:1998mi}{21}
+\bibcite{Kajita:2006cy}{22}
+\bibcite{TabarellideFatis:2002ni}{23}
+\bibcite{Araki:2005qa}{24}
+\bibcite{Back:2004zn}{25}
+\bibcite{Araki:2004mb}{26}
+\bibcite{Amerio:2004ze}{27}
+\bibcite{Arneodo:2001tx}{28}
+\bibcite{deBellefon:2006vq}{29}
+\bibcite{Oberauer:2005kw}{30}
+\bibcite{Marrodan:2006}{31}
+\bibcite{Rubbia:2004tz}{32}
+\bibcite{Rubbia:2004yq}{33}
+\bibcite{Ereditato:2004ru}{34}
+\bibcite{Ereditato:2005ru}{35}
+\bibcite{Ereditato:2005yx}{36}
+\bibcite{Campagne:2006yx}{37}
+\bibcite{Rubbia:2006pi}{38}
+\bibcite{Volpe:2006in}{39}
+\bibcite{Hirata:1988ad}{40}
+\bibcite{Wurm:2007cy}{41}
+\bibcite{Beacom:2003nk}{42}
+\bibcite{Dorsner:2004xa}{43}
+\bibcite{Georgi:1974sy}{44}
+\bibcite{Dorsner:2005fq}{45}
+\bibcite{Dorsner:2005ii}{46}
+\bibcite{Lee:1994vp}{47}
+\bibcite{Murayama:2001ur}{48}
+\bibcite{Bajc:2002bv}{49}
+\bibcite{Bajc:2002pg}{50}
+\bibcite{Emmanuel-Costa:2003pu}{51}
+\bibcite{Babu:1992ia}{52}
+\bibcite{Aulakh:2003kg}{53}
+\bibcite{Fukuyama:2004pb}{54}
+\bibcite{Goh:2003nv}{55}
+\bibcite{Friedmann:2002ty}{56}
+\bibcite{Bajc:2006ia}{57}
+\bibcite{Perez:2007rm}{58}
+\bibcite{Bueno:2007um}{59}
+\bibcite{KearnSnowmass:2001}{60}
+\bibcite{Agostinelli:2002hh}{61}
+\bibcite{Undagoitia:1-2uu}{62}
+\bibcite{Jung:1999jq}{63}
+\bibcite{Nakaya:2005nk}{64}
+\bibcite{Dighe:1999bi}{65}
+\bibcite{Aglietta:1987we}{66}
+\bibcite{Cadonati:2000kq}{67}
+\bibcite{Beacom:2002hs}{68}
+\bibcite{Kachelriess:2004ds}{69}
+\bibcite{Gil-Botella:2004bv}{70}
+\bibcite{Gil-Botella:2003sz}{71}
+\bibcite{Schirato:2002tg}{72}
+\bibcite{Fogli:2003dw}{73}
+\bibcite{Fogli:2004ff}{74}
+\bibcite{Tomas:2004gr}{75}
+\bibcite{Barger:2005it}{76}
+\bibcite{Fogli:2006xy}{77}
+\bibcite{Friedland:2006ta}{78}
+\bibcite{Lunardini:2001pb}{79}
+\bibcite{PhysRevD.65.073008}{80}
+\bibcite{PhysRevD.66.039901}{81}
+\bibcite{Dighe:2003jg}{82}
+\bibcite{Dighe:2003be}{83}
+\bibcite{Mirizzi:2006xx}{84}
+\bibcite{Duan:2006an}{85}
+\bibcite{Hannestad:2006nj}{86}
+\bibcite{Raffelt:2007cb}{87}
+\bibcite{Tomas:2003xn}{88}
+\bibcite{Antonioli:2004zb}{89}
+\bibcite{Odrzywolek:2003vn}{90}
+\bibcite{Ando:2005ka}{91}
+\bibcite{Fukugita:2002qw}{92}
+\bibcite{Ando:2004sb}{93}
+\bibcite{Ando:2003ie}{94}
+\bibcite{Fogli:2004gy}{95}
+\bibcite{Malek:2002ns}{96}
+\bibcite{Strigari:2005hu}{97}
+\bibcite{Hopkins:2006bw}{98}
+\bibcite{Cocco:2004ac}{99}
+\bibcite{Yuksel:2005ae}{100}
+\bibcite{Totani:1997vj}{101}
+\bibcite{Thompson:2002mw}{102}
+\bibcite{Keil:2002in}{103}
+\bibcite{Alimonti:1998aa}{104}
+\bibcite{Alimonti:1998nt}{105}
+\bibcite{Ianni:2005ki}{106}
+\bibcite{Hagner:2000xb}{107}
+\bibcite{Back:2006vc}{108}
+\bibcite{Gonzalez-Garcia:2002dz}{109}
+\bibcite{Ambrosio:2001je}{110}
+\bibcite{Ahn:2006zz}{111}
+\bibcite{Tagg:2006sx}{112}
+\bibcite{Itow:2001ee}{113}
+\bibcite{Ayres:2004js}{114}
+\bibcite{huber-2005-71}{115}
+\bibcite{Kim:1998bv}{116}
+\bibcite{Peres:1999yi}{117}
+\bibcite{Gonzalez-Garcia:2004wg}{118}
+\bibcite{Hochmuth:2005nh}{119}
+\bibcite{Bueno:2004dv}{120}
+\bibcite{Petcov:2006gy}{121}
+\bibcite{Choubey:2004bf}{122}
+\bibcite{Ishitsuka:2005qi}{123}
+\bibcite{Acquafredda:2006ki}{124}
+\bibcite{Meregaglia:2006du}{125}
+\bibcite{Maltoni:2004ei}{126}
+\bibcite{Gerigk:2006qi}{127}
+\bibcite{Baldini:2006fi}{128}
+\bibcite{ISS06}{129}
+\bibcite{Catanesi:2001gi}{130}
+\bibcite{Zucchelli:2002sa}{131}
+\bibcite{Bernabeu:2005jh}{132}
+\bibcite{Sato:2005ma}{133}
+\bibcite{Burguet-Castell:2001ez}{134}
+\bibcite{Minakata:2001qm}{135}
+\bibcite{Fogli:1996pv}{136}
+\bibcite{Badertscher:2005te}{137}
+\bibcite{Bueno:2000fg}{138}
+\bibcite{Bueno:2001jd}{139}
Index: /Selma/Latex-Ex-JCAP-EPS/campagne.bbl
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.bbl	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.bbl	(revision 464)
@@ -0,0 +1,863 @@
+\providecommand{\href}[2]{#2}\begingroup\raggedright\begin{thebibliography}{10%
+0}
+
+\bibitem{Pati:1973rp}
+J.~C. Pati and A.~Salam, ``Is Baryon Number Conserved?'' {\em Phys. Rev. Lett.}
+  {\bf 31} (1973) 661--664.
+%%CITATION = PRLTA,31,661;%%
+
+\bibitem{Nath:2006ut}
+P.~Nath and P.~Fileviez~Pérez, ``Proton stability in grand unified theories, in
+  strings, and in branes'' {\em Phys. Rept.} {\bf 441} (2007) 191--317
+  [\href{http://arXiv.org/abs/hep-ph/0601023}{{\tt hep-ph/0601023}}].
+%%CITATION = HEP-PH/0601023;%%
+
+\bibitem{Kobayashi:2005pe}
+{\bf Super-Kamiokande} Collaboration, K.~Kobayashi {\em et.~al.}, ``Search for
+  nucleon decay via modes favored by supersymmetric grand unification models in
+  Super-Kamiokande-I'' {\em Phys. Rev.} {\bf D72} (2005) 052007
+  [\href{http://arXiv.org/abs/hep-ex/0502026}{{\tt hep-ex/0502026}}].
+%%CITATION = HEP-EX 0502026;%%
+
+\bibitem{Davis:1968cp}
+J.~Davis, Raymond, D.~S. Harmer and K.~C. Hoffman, ``Search for neutrinos from
+  the sun'' {\em Phys. Rev. Lett.} {\bf 20} (1968) 1205--1209.
+%%CITATION = PRLTA,20,1205;%%
+
+\bibitem{Hirata:1989zj}
+{\bf Kamiokande-II} Collaboration, K.~S. Hirata {\em et.~al.}, ``Observation of
+  B-8 solar neutrinos in the Kamiokande-II detector'' {\em Phys. Rev. Lett.}
+  {\bf 63} (1989) 16.
+%%CITATION = PRLTA,63,16;%%
+
+\bibitem{Anselmann:1992um}
+{\bf GALLEX} Collaboration, P.~Anselmann {\em et.~al.}, ``Solar neutrinos
+  observed by GALLEX at Gran Sasso.'' {\em Phys. Lett.} {\bf B285} (1992)
+  376--389.
+%%CITATION = PHLTA,B285,376;%%
+
+\bibitem{Abdurashitov:1994bc}
+D.~N. Abdurashitov {\em et.~al.}, ``Results from SAGE'' {\em Phys. Lett.} {\bf
+  B328} (1994) 234--248.
+%%CITATION = PHLTA,B328,234;%%
+
+\bibitem{Smy:2002rz}
+{\bf Super-Kamiokande} Collaboration, M.~B. Smy, ``Solar neutrino precision
+  measurements using all 1496 days of Super-Kamiokande-I data'' {\em Nucl.
+  Phys. Proc. Suppl.} {\bf 118} (2003) 25--32
+  [\href{http://arXiv.org/abs/hep-ex/0208004}{{\tt hep-ex/0208004}}].
+%%CITATION = HEP-EX 0208004;%%
+
+\bibitem{Aharmim:2005gt}
+{\bf SNO} Collaboration, B.~Aharmim {\em et.~al.}, ``Electron energy spectra,
+  fluxes, and day-night asymmetries of B-8 solar neutrinos from the 391-day
+  salt phase SNO data set'' {\em Phys. Rev.} {\bf C72} (2005) 055502
+  [\href{http://arXiv.org/abs/nucl-ex/0502021}{{\tt nucl-ex/0502021}}].
+%%CITATION = NUCL-EX 0502021;%%
+
+\bibitem{Altmann:2005ix}
+{\bf GNO} Collaboration, M.~Altmann {\em et.~al.}, ``Complete results for five
+  years of GNO solar neutrino observations'' {\em Phys. Lett.} {\bf B616}
+  (2005) 174--190 [\href{http://arXiv.org/abs/hep-ex/0504037}{{\tt
+  hep-ex/0504037}}].
+%%CITATION = HEP-EX 0504037;%%
+
+\bibitem{Hirata:1987hu}
+{\bf Kamiokande-II} Collaboration, K.~Hirata {\em et.~al.}, ``Observation of a
+  neutrino burs from the supernova SN1987a'' {\em Phys. Rev. Lett.} {\bf 58}
+  (1987) 1490--1493.
+%%CITATION = PRLTA,58,1490;%%
+
+\bibitem{Bionta:1987qt}
+R.~M. Bionta {\em et.~al.}, ``Observation of a neutrino burst in coincidence
+  with supernova SN1987A in the Large Magellanic Clound'' {\em Phys. Rev.
+  Lett.} {\bf 58} (1987) 1494.
+%%CITATION = PRLTA,58,1494;%%
+
+\bibitem{Alekseev:1988gp}
+E.~N. Alekseev, L.~N. Alekseeva, I.~V. Krivosheina and V.~I. Volchenko,
+  ``Detection of the neutrino signal from SN1987A in the LMC using the INR
+  Baksan underground scintillator telescope'' {\em Phys. Lett.} {\bf B205}
+  (1988) 209--214.
+%%CITATION = PHLTA,B205,209;%%
+
+\bibitem{Aglietta:1988be}
+{\bf The NUSEX} Collaboration, M.~Aglietta {\em et.~al.}, ``Experimental study
+  of atmospheric neutrino flux in the NUSEX experiment'' {\em Europhys. Lett.}
+  {\bf 8} (1989) 611--614.
+%%CITATION = EULEE,8,611;%%
+
+\bibitem{Hirata:1988uy}
+{\bf Kamiokande-II} Collaboration, K.~S. Hirata {\em et.~al.}, ``Experimental
+  study of the atmospheric neutrino flux'' {\em Phys. Lett.} {\bf B205} (1988)
+  416.
+%%CITATION = PHLTA,B205,416;%%
+
+\bibitem{Hirata:1992ku}
+{\bf Kamiokande-II} Collaboration, K.~S. Hirata {\em et.~al.}, ``Observation of
+  a small atmospheric $\nu_\mu / \nu_e $ ratio in Kamiokande'' {\em Phys.
+  Lett.} {\bf B280} (1992) 146--152.
+%%CITATION = PHLTA,B280,146;%%
+
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+S.~Hannestad, G.~G. Raffelt, G.~Sigl and Y.~Y.~Y. Wong, ``Self-induced
+  conversion in dense neutrino gases: Pendulum in flavour space'' {\em Phys.
+  Rev.} {\bf D74} (2006) 105010
+  [\href{http://arXiv.org/abs/astro-ph/0608695}{{\tt astro-ph/0608695}}].
+%%CITATION = ASTRO-PH 0608695;%%
+
+\bibitem{Raffelt:2007cb}
+G.~G. Raffelt and A.~Y. Smirnov, ``Self-induced spectral splits in supernova
+  neutrino fluxes'' \href{http://arXiv.org/abs/arXiv:0705.1830 [hep-ph]}{{\tt
+  arXiv:0705.1830 [hep-ph]}}.
+%%CITATION = ARXIV:0705.1830;%%
+
+\bibitem{Tomas:2003xn}
+R.~Tomas, D.~Semikoz, G.~G. Raffelt, M.~Kachelriess and A.~S. Dighe,
+  ``Supernova pointing with low- and high-energy neutrino detectors'' {\em
+  Phys. Rev.} {\bf D68} (2003) 093013
+  [\href{http://arXiv.org/abs/hep-ph/0307050}{{\tt hep-ph/0307050}}].
+%%CITATION = HEP-PH 0307050;%%
+
+\bibitem{Antonioli:2004zb}
+P.~Antonioli {\em et.~al.}, ``SNEWS: The SuperNova Early Warning System'' {\em
+  New J. Phys.} {\bf 6} (2004) 114
+  [\href{http://arXiv.org/abs/astro-ph/0406214}{{\tt astro-ph/0406214}}].
+%%CITATION = ASTRO-PH 0406214;%%
+
+\bibitem{Odrzywolek:2003vn}
+A.~Odrzywolek, M.~Misiaszek and M.~Kutschera, ``Detection possibility of the
+  pair-annihilation neutrinos from the neutrino-cooled pre-supernova star''
+  {\em Astropart. Phys.} {\bf 21} (2004) 303--313
+  [\href{http://arXiv.org/abs/astro-ph/0311012}{{\tt astro-ph/0311012}}].
+%%CITATION = ASTRO-PH 0311012;%%
+
+\bibitem{Ando:2005ka}
+S.~Ando, J.~F. Beacom and H.~Yuksel, ``Detection of neutrinos from supernovae
+  in nearby galaxies'' {\em Phys. Rev. Lett.} {\bf 95} (2005) 171101
+  [\href{http://arXiv.org/abs/astro-ph/0503321}{{\tt astro-ph/0503321}}].
+%%CITATION = ASTRO-PH 0503321;%%
+
+\bibitem{Fukugita:2002qw}
+M.~Fukugita and M.~Kawasaki, ``Constraints on the star formation rate from
+  supernova relic neutrino observations'' {\em Mon. Not. Roy. Astron. Soc.}
+  {\bf 340} (2003) L7 [\href{http://arXiv.org/abs/astro-ph/0204376}{{\tt
+  astro-ph/0204376}}].
+%%CITATION = ASTRO-PH 0204376;%%
+
+\bibitem{Ando:2004sb}
+S.~Ando, ``Cosmic star formation history and the future observation of
+  supernova relic neutrinos'' {\em Astrophys. J.} {\bf 607} (2004) 20--31
+  [\href{http://arXiv.org/abs/astro-ph/0401531}{{\tt astro-ph/0401531}}].
+%%CITATION = ASTRO-PH 0401531;%%
+
+\bibitem{Ando:2003ie}
+S.~Ando, ``Decaying neutrinos and implications from the supernova relic
+  neutrino observation'' {\em Phys. Lett.} {\bf B570} (2003) 11
+  [\href{http://arXiv.org/abs/hep-ph/0307169}{{\tt hep-ph/0307169}}].
+%%CITATION = HEP-PH 0307169;%%
+
+\bibitem{Fogli:2004gy}
+G.~L. Fogli, E.~Lisi, A.~Mirizzi and D.~Montanino, ``Three-generation flavor
+  transitions and decays of supernova relic neutrinos'' {\em Phys. Rev.} {\bf
+  D70} (2004) 013001 [\href{http://arXiv.org/abs/hep-ph/0401227}{{\tt
+  hep-ph/0401227}}].
+%%CITATION = HEP-PH 0401227;%%
+
+\bibitem{Malek:2002ns}
+{\bf Super-Kamiokande} Collaboration, M.~Malek {\em et.~al.}, ``Search for
+  supernova relic neutrinos at Super-Kamiokande'' {\em Phys. Rev. Lett.} {\bf
+  90} (2003) 061101 [\href{http://arXiv.org/abs/hep-ex/0209028}{{\tt
+  hep-ex/0209028}}].
+%%CITATION = HEP-EX 0209028;%%
+
+\bibitem{Strigari:2005hu}
+L.~E. Strigari, J.~F. Beacom, T.~P. Walker and P.~Zhang, ``The concordance
+  cosmic star formation rate: Implications from and for the supernova neutrino
+  and gamma ray backgrounds'' {\em JCAP} {\bf 0504} (2005) 017
+  [\href{http://arXiv.org/abs/astro-ph/0502150}{{\tt astro-ph/0502150}}].
+%%CITATION = ASTRO-PH/0502150;%%
+
+\bibitem{Hopkins:2006bw}
+A.~M. Hopkins and J.~F. Beacom, ``On the normalisation of the cosmic star
+  formation history'' {\em Astrophys. J.} {\bf 651} (2006) 142
+  [\href{http://arXiv.org/abs/astro-ph/0601463}{{\tt astro-ph/0601463}}].
+%%CITATION = ASTRO-PH/0601463;%%
+
+\bibitem{Cocco:2004ac}
+A.~G. Cocco, A.~Ereditato, G.~Fiorillo, G.~Mangano and V.~Pettorino,
+  ``Supernova relic neutrinos in liquid argon detectors'' {\em JCAP} {\bf 0412}
+  (2004) 002 [\href{http://arXiv.org/abs/hep-ph/0408031}{{\tt
+  hep-ph/0408031}}].
+%%CITATION = HEP-PH 0408031;%%
+
+\bibitem{Yuksel:2005ae}
+H.~Yuksel, S.~Ando and J.~F. Beacom, ``Direct measurement of supernova neutrino
+  emission parameters with a gadolinium enhanced Super-Kamiokande detector''
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+%%CITATION = ASTRO-PH 0509297;%%
+
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+T.~A. Thompson, A.~Burrows and P.~A. Pinto, ``Shock breakout in core-collapse
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+%%CITATION = ASTRO-PH 0211194;%%
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+M.~T. Keil, G.~G. Raffelt and H.-T. Janka, ``Monte Carlo study of supernova
+  neutrino spectra formation'' {\em Astrophys. J.} {\bf 590} (2003) 971--991
+  [\href{http://arXiv.org/abs/astro-ph/0208035}{{\tt astro-ph/0208035}}].
+%%CITATION = ASTRO-PH 0208035;%%
+
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+  in liquid scintillator detectors'' {\em Phys. Lett.} {\bf B627} (2005) 38--48
+  [\href{http://arXiv.org/abs/physics/0506171}{{\tt physics/0506171}}].
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+T.~Hagner {\em et.~al.}, ``Muon induced production of radioactive isotopes in
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+H.~Back {\em et.~al.}, ``CNO and pep neutrino spectroscopy in Borexino:
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+%%CITATION = PHRVA,C74,045805;%%
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+M.~C. Gonzalez-Garcia and Y.~Nir, ``Developments in neutrino physics'' {\em
+  Rev. Mod. Phys.} {\bf 75} (2003) 345--402
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+%%CITATION = HEP-PH 0202058;%%
+
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+  hep-ex/0106049}}].
+%%CITATION = HEP-EX 0106049;%%
+
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+{\bf K2K} Collaboration, M.~H. Ahn {\em et.~al.}, ``Measurement of neutrino
+  oscillation by the K2K experiment''
+  \href{http://arXiv.org/abs/hep-ex/0606032}{{\tt hep-ex/0606032}}.
+%%CITATION = HEP-EX 0606032;%%
+
+\bibitem{Tagg:2006sx}
+{\bf MINOS} Collaboration, N.~Tagg, ``First MINOS results from the NuMI beam''
+  {\em ECONF} {\bf C060409} (2006) 019
+  [\href{http://arXiv.org/abs/hep-ex/0605058}{{\tt hep-ex/0605058}}].
+%%CITATION = HEP-EX 0605058;%%
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+Y.~Itow {\em et.~al.}, ``The JHF-Kamioka neutrino project''
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+
+\bibitem{Ayres:2004js}
+{\bf NOvA} Collaboration, D.~S. Ayres {\em et.~al.}, ``NOvA proposal to build a
+  30-kiloton off-axis detector to study neutrino oscillations in the Fermilab
+  NuMI beamline'' \href{http://arXiv.org/abs/hep-ex/0503053}{{\tt
+  hep-ex/0503053}}.
+%%CITATION = HEP-EX 0503053;%%
+
+\bibitem{huber-2005-71}
+P.~Huber, M.~Maltoni and T.~Schwetz, ``Resolving parameter degeneracies in
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+M.~C. Gonzalez-Garcia and M.~Maltoni, ``Atmospheric neutrino oscillations and
+  new physics'' {\em Phys. Rev.} {\bf D70} (2004) 033010
+  [\href{http://arXiv.org/abs/hep-ph/0404085}{{\tt hep-ph/0404085}}].
+%%CITATION = HEP-PH 0404085;%%
+
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+K.~A. Hochmuth {\em et.~al.}, ``Probing the Earth's interior with a
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+  hep-ph/0509136}}].
+%%CITATION = HEP-PH/0509136;%%
+
+\bibitem{Bueno:2004dv}
+A.~Bueno, R.~Cid, S.~Navas-Concha, D.~Hooper and T.~J. Weiler, ``Indirect
+  detection of dark matter WIMPs in a Liquid Argon TPC'' {\em JCAP} {\bf 0501}
+  (2005) 001 [\href{http://arXiv.org/abs/hep-ph/0410206}{{\tt
+  hep-ph/0410206}}].
+%%CITATION = HEP-PH 0410206;%%
+
+\bibitem{Petcov:2006gy}
+S.~T. Petcov and T.~Schwetz, ``Precision measurement of solar neutrino
+  oscillation parameters by a long-baseline reactor neutrino experiment in
+  Europe'' {\em Phys. Lett.} {\bf B642} (2006) 487--494
+  [\href{http://arXiv.org/abs/hep-ph/0607155}{{\tt hep-ph/0607155}}].
+%%CITATION = HEP-PH/0607155;%%
+
+\bibitem{Choubey:2004bf}
+S.~Choubey and S.~T. Petcov, ``Reactor anti-neutrino oscillations and
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+  (2004) 333--346 [\href{http://arXiv.org/abs/hep-ph/0404103}{{\tt
+  hep-ph/0404103}}].
+%%CITATION = HEP-PH 0404103;%%
+
+\bibitem{Ishitsuka:2005qi}
+M.~Ishitsuka, T.~Kajita, H.~Minakata and H.~Nunokawa, ``Resolving neutrino mass
+  hierarchy and CP degeneracy by two identical detectors with different
+  baselines'' {\em Phys. Rev.} {\bf D72} (2005) 033003
+  [\href{http://arXiv.org/abs/hep-ph/0504026}{{\tt hep-ph/0504026}}].
+%%CITATION = HEP-PH 0504026;%%
+
+\bibitem{Acquafredda:2006ki}
+{\bf OPERA} Collaboration, R.~Acquafredda {\em et.~al.}, ``First events from
+  the CNGS neutrino beam detected in the OPERA experiment'' {\em New J. Phys.}
+  {\bf 8} (2006) 303 [\href{http://arXiv.org/abs/hep-ex/0611023}{{\tt
+  hep-ex/0611023}}].
+%%CITATION = HEP-EX 0611023;%%
+
+\bibitem{Meregaglia:2006du}
+A.~Meregaglia and A.~Rubbia, ``Neutrino oscillation physics at an upgraded CNGS
+  with large next generation liquid argon TPC detectors'' {\em JHEP} {\bf 11}
+  (2006) 032 [\href{http://arXiv.org/abs/hep-ph/0609106}{{\tt
+  hep-ph/0609106}}].
+%%CITATION = HEP-PH/0609106;%%
+
+\bibitem{Maltoni:2004ei}
+M.~Maltoni, T.~Schwetz, M.~A. Tortola and J.~W.~F. Valle, ``Status of global
+  fits to neutrino oscillations'' {\em New J. Phys.} {\bf 6} (2004) 122
+  [\href{http://arXiv.org/abs/hep-ph/0405172}{{\tt hep-ph/0405172}}].
+%%CITATION = HEP-PH 0405172;%%
+
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+{\bf BENE Steering Group} Collaboration, A.~Baldini {\em et.~al.}, ``Beams for
+  European Neutrino Experiments (BENE): Midterm scientific report''.
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+M.~G. Catanesi {\em et.~al.}, ``Proposal for hadron production measurements
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+P.~Zucchelli, ``A novel concept for a $\bar{\nu}_e/\nu_e$ neutrino factory: The
+  beta beam'' {\em Phys. Lett.} {\bf B532} (2002) 166--172.
+%%CITATION = PHLTA,B532,166;%%
+
+\bibitem{Bernabeu:2005jh}
+J.~Bernabeu, J.~Burguet-Castell, C.~Espinoza and M.~Lindroos, ``Monochromatic
+  neutrino beams'' {\em JHEP} {\bf 12} (2005) 014
+  [\href{http://arXiv.org/abs/hep-ph/0505054}{{\tt hep-ph/0505054}}].
+%%CITATION = HEP-PH 0505054;%%
+
+\bibitem{Sato:2005ma}
+J.~Sato, ``Monoenergetic neutrino beam for long baseline experiments'' {\em
+  Phys. Rev. Lett.} {\bf 95} (2005) 131804
+  [\href{http://arXiv.org/abs/hep-ph/0503144}{{\tt hep-ph/0503144}}].
+%%CITATION = HEP-PH 0503144;%%
+
+\bibitem{Burguet-Castell:2001ez}
+J.~Burguet-Castell, M.~B. Gavela, J.~J. Gomez-Cadenas, P.~Hernandez and
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+  {\bf B608} (2001) 301--318 [\href{http://arXiv.org/abs/hep-ph/0103258}{{\tt
+  hep-ph/0103258}}].
+%%CITATION = HEP-PH 0103258;%%
+
+\bibitem{Minakata:2001qm}
+H.~Minakata and H.~Nunokawa, ``Exploring neutrino mixing with low energy
+  superbeams'' {\em JHEP} {\bf 10} (2001) 001
+  [\href{http://arXiv.org/abs/hep-ph/0108085}{{\tt hep-ph/0108085}}].
+%%CITATION = HEP-PH 0108085;%%
+
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+G.~L. Fogli and E.~Lisi, ``Tests of three-flavor mixing in long-baseline
+  neutrino oscillation experiments'' {\em Phys. Rev.} {\bf D54} (1996)
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+  hep-ph/9604415}}].
+%%CITATION = HEP-PH 9604415;%%
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+\bibitem{Badertscher:2005te}
+A.~Badertscher, M.~Laffranchi, A.~Meregaglia, A.~Muller and A.~Rubbia, ``First
+  results from a liquid argon time projection chamber in a magnetic field''
+  {\em Nucl. Instrum. Meth.} {\bf A555} (2005) 294--309
+  [\href{http://arXiv.org/abs/physics/0505151}{{\tt physics/0505151}}].
+%%CITATION = PHYSICS 0505151;%%
+
+\bibitem{Bueno:2000fg}
+A.~Bueno, M.~Campanelli and A.~Rubbia, ``Physics potential at a neutrino
+  factory: Can we benefit from more than just detecting muons?'' {\em Nucl.
+  Phys.} {\bf B589} (2000) 577--608
+  [\href{http://arXiv.org/abs/hep-ph/0005007}{{\tt hep-ph/0005007}}].
+%%CITATION = HEP-PH 0005007;%%
+
+\bibitem{Bueno:2001jd}
+A.~Bueno, M.~Campanelli, S.~Navas-Concha and A.~Rubbia, ``On the energy and
+  baseline optimization to study effects related to the delta-phase
+  (CP-T-violation) in neutrino oscillations at a neutrino factory'' {\em Nucl.
+  Phys.} {\bf B631} (2002) 239--284
+  [\href{http://arXiv.org/abs/hep-ph/0112297}{{\tt hep-ph/0112297}}].
+%%CITATION = HEP-PH 0112297;%%
+
+\end{thebibliography}\endgroup
Index: /Selma/Latex-Ex-JCAP-EPS/campagne.bib
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.bib	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.bib	(revision 464)
@@ -0,0 +1,1808 @@
+%JEC 17/10/06 version 0 from old biblio.tex file
+%
+%%%%%%%Introduction %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
+@Article{Volpe:2006in,
+     author    = "Volpe, Cristina",
+     title     = "Topical review on 'beta-beams'",
+     journal   = "J. Phys.",
+     volume    = "G34",
+     year      = "2007",
+     pages     = "R1-R44",
+     eprint    = "hep-ph/0605033",
+     SLACcitation  = "%%CITATION = HEP-PH/0605033;%%"
+}
+
+@Article{Hirata:1987hu,
+     author    = "Hirata, K. and others",
+ collaboration = "Kamiokande-II",
+     title     = "Observation of a neutrino burs from the supernova
+                  SN1987a",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "58",
+     year      = "1987",
+     pages     = "1490-1493",
+     SLACcitation  = "%%CITATION = PRLTA,58,1490;%%"
+}
+
+@Article{Hirata:1988ad,
+     author    = "Hirata, K. S. and others",
+     title     = "Observation in the Kamiokande-II detector of the neutrino burst from supernova SN1987A",
+     journal   = "Phys. Rev.",
+     volume    = "D38",
+     year      = "1988",
+     pages     = "448-458",
+     SLACcitation  = "%%CITATION = PHRVA,D38,448;%%"
+}
+
+@Article{Acquafredda:2006ki,
+     author    = "Acquafredda, R. and others",
+ collaboration = "OPERA",
+     title     = "First events from the CNGS neutrino beam detected in the
+                  OPERA experiment",
+     journal   = "New J. Phys.",
+     volume    = "8",
+     year      = "2006",
+     pages     = "303",
+     eprint    = "hep-ex/0611023",
+     SLACcitation  = "%%CITATION = HEP-EX 0611023;%%"
+}
+
+%SN1987AIMB
+@Article{Aglietta:1987we,
+     author    = "Aglietta, M. and others",
+     title     = "Comments on the two events observed in neutrino detectors
+                  during the supernova 1987a outburst",
+     journal   = "Europhys. Lett.",
+     volume    = "3",
+     year      = "1987",
+     pages     = "1321-1324",
+     SLACcitation  = "%%CITATION = EULEE,3,1321;%%"
+}
+
+@Article{Bionta:1987qt,
+     author    = "Bionta, R. M. and others",
+     title     = "Observation of a neutrino burst in coincidence with supernova SN1987A in the Large Magellanic Clound",
+      journal   = "Phys. Rev. Lett.",
+     volume    = "58",
+     year      = "1987",
+     pages     = "1494",
+     SLACcitation  = "%%CITATION = PRLTA,58,1494;%%"
+}
+
+%G. Raffelt 10/1/07 START
+@Article{Alekseev:1988gp,
+     author    = "Alekseev, E. N. and Alekseeva, L. N. and Krivosheina, I. V.
+                  and Volchenko, V. I.",
+     title     = "Detection of the neutrino signal from SN1987A in the LMC using the INR Baksan underground scintillator telescope",
+     journal   = "Phys. Lett.",
+     volume    = "B205",
+     year      = "1988",
+     pages     = "209-214",
+     SLACcitation  = "%%CITATION = PHLTA,B205,209;%%"
+}
+%G. Raffelt 10/1/07 END
+
+
+%SUNKamioka
+@Article{Hirata:1989zj,
+     author    = "Hirata, K. S. and others",
+ collaboration = "Kamiokande-II",
+     title     = "Observation of B-8 solar neutrinos in the Kamiokande-II detector",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "63",
+     year      = "1989",
+     pages     = "16",
+     SLACcitation  = "%%CITATION = PRLTA,63,16;%%"
+}
+
+%AtmKamioka
+@Article{Hirata:1988uy,
+     author    = "Hirata, K. S. and others",
+ collaboration = "Kamiokande-II",
+     title     = "Experimental study of the atmospheric neutrino flux",
+     journal   = "Phys. Lett.",
+     volume    = "B205",
+     year      = "1988",
+     pages     = "416",
+     SLACcitation  = "%%CITATION = PHLTA,B205,416;%%"
+}
+
+%AtmSuperKamioka
+@Article{Fukuda:1998mi,
+     author    = "Fukuda, Y. and others",
+ collaboration = "Super-Kamiokande",
+     title     = "Evidence for oscillation of atmospheric neutrinos",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "81",
+     year      = "1998",
+     pages     = "1562-1567",
+     eprint    = "hep-ex/9807003",
+     SLACcitation  = "%%CITATION = HEP-EX 9807003;%%"
+}
+
+@Article{Kajita:2006cy,
+     author    = "Kajita, T.",
+     title     = "Discovery of neutrino oscillations",
+     journal   = "Rept. Prog. Phys.",
+     volume    = "69",
+     year      = "2006",
+     pages     = "1607-1635",
+     SLACcitation  = "%%CITATION = RPPHA,69,1607;%%"
+}
+
+%K2K
+@Article{Aliu:2004sq,
+     author    = "Aliu, E. and others",
+ collaboration = "K2K",
+     title     = "Evidence for muon neutrino oscillation in an accelerator-
+                  based  experiment",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "94",
+     year      = "2005",
+     pages     = "081802",
+     eprint    = "hep-ex/0411038",
+     SLACcitation  = "%%CITATION = HEP-EX 0411038;%%"
+}
+
+GLACIER
+@Article{Rubbia:2004tz,
+     author    = "Rubbia, A.",
+     title     = "Experiments for CP-violation: A giant liquid argon
+                  scintillation,  Cherenkov and charge imaging experiment?",
+     year      = "2004",
+     eprint    = "hep-ph/0402110",
+     SLACcitation  = "%%CITATION = HEP-PH 0402110;%%"
+}
+
+@Article{Rubbia:2004yq,
+     author    = "Rubbia, A.",
+     title     = "Review of massive underground detectors",
+     year      = "2004",
+     eprint    = "hep-ph/0407297",
+     SLACcitation  = "%%CITATION = HEP-PH 0407297;%%"
+}
+@Article{Ereditato:2004ru,
+     author    = "Ereditato, A. and Rubbia, A.",
+     title     = "Ideas for future liquid argon detectors",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "139",
+     year      = "2005",
+     pages     = "301-310",
+     eprint    = "hep-ph/0409143",
+     SLACcitation  = "%%CITATION = HEP-PH 0409143;%%"
+}
+
+@Article{Ereditato:2005ru,
+     author    = "Ereditato, A. and Rubbia, A.",
+     title     = "The liquid argon TPC: A powerful detector for future
+                  neutrino experiments and proton decay searches",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "154",
+     year      = "2006",
+     pages     = "163-178",
+     eprint    = "hep-ph/0509022",
+     SLACcitation  = "%%CITATION = HEP-PH 0509022;%%"
+}
+
+@Article{Ereditato:2005yx,
+     author    = "Ereditato, A. and Rubbia, A.",
+     title     = "Conceptual design of a scalable multi-kton superconducting
+                  magnetized liquid argon TPC",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "155",
+     year      = "2006",
+     pages     = "233-236",
+     eprint    = "hep-ph/0510131",
+     SLACcitation  = "%%CITATION = HEP-PH 0510131;%%"
+}
+
+%Ob05
+@Article{Oberauer:2005kw,
+     author    = "Oberauer, L. and von Feilitzsch, F. and Potzel, W.",
+     title     = "A large liquid scintillator detector for low-energy
+                  neutrino astronomy",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "138",
+     year      = "2005",
+     pages     = "108-111",
+     SLACcitation  = "%%CITATION = NUPHZ,138,108;%%"
+}
+
+%TMar Prog. Part. Nucl. Phys. 2006
+@Article{Marrodan:2006,
+     author    = "{Marrod\'an Undagoitia}, T. and others",
+     title     = "Low energy neutrino astronomy with the large liquid scintillator detector LENA",
+     journal   = "Prog. Part. Nucl. Phys.",
+     volume    = "57",
+     year      = "2006",
+     pages     = "283",
+     eprint    = "hep-ph/0605229",
+}
+
+%TMarPRD05 the tag was 'Undagoitia:1, 2uu' which is strange...
+@Article{Undagoitia:1-2uu,
+     author    = "{Marrod\'an Undagoitia}, T. and others",
+     title     = "Search for the proton decay $p\leftarrow K^+ + \bar{\nu}$ in the large
+                  liquid  scintillator low energy neutrino astronomy detector
+                  LENA",
+     journal   = "Phys. Rev.",
+     volume    = "D72",
+     year      = "2005",
+     pages     = "075014",
+     eprint    = "hep-ph/0511230",
+     SLACcitation  = "%%CITATION = HEP-PH 0511230;%%"
+}
+
+%MEMPHYS: EOI not well referenced in SPIRES
+@Article{deBellefon:2006vq,
+     author    = "de Bellefon, Alain and others",
+     title     = "MEMPHYS: A large scale water Cherenkov detector at Fréjus",
+     year      = "2006",
+     eprint    = "hep-ex/0607026",
+     SLACcitation  = "%%CITATION = HEP-EX 0607026;%%"
+}
+
+%t600paper
+@Article{Amerio:2004ze,
+     author    = "Amerio, S. and others",
+ collaboration = "ICARUS",
+     title     = "Design, construction and tests of the ICARUS T600
+                  detector",
+     journal   = "Nucl. Instrum. Meth.",
+     volume    = "A527",
+     year      = "2004",
+     pages     = "329-410",
+     SLACcitation  = "%%CITATION = NUIMA,A527,329;%%"
+}
+
+%CTF
+@Article{Back:2004zn,
+     author    = "Back, H. O. and others",
+ collaboration = "Borexino",
+     title     = "Phenylxylylethane (PXE): A high-density, high-flashpoint
+                  organic liquid  scintillator for applications in low-energy
+                  particle and astrophysics  experiments",
+     year      = "2004",
+     eprint    = "physics/0408032",
+     SLACcitation  = "%%CITATION = PHYSICS 0408032;%%"
+}
+
+
+%PXE: reference created
+@Article{Wurm:2005thesis,
+     author    = "Wurm, M",
+ collaboration = "Borexino",
+     title     = "Diploma Thesis",
+     year      = "2005",
+     eprint    = "",
+     SLACcitation  = ""
+}
+
+@Article{Beacom:2003nk,
+     author    = "Beacom, John F. and Vagins, Mark R.",
+     title     = "GADZOOKS! Antineutrino spectroscopy with large water
+                  Cherenkov  detectors",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "93",
+     year      = "2004",
+     pages     = "171101",
+     eprint    = "hep-ph/0309300",
+     SLACcitation  = "%%CITATION = HEP-PH 0309300;%%"
+}
+
+%%%%%%%%%%%%% PDK Section %%%%%%%%%%%%%%%%%%%%%
+@Article{KearnSnowmass:2001,
+	author = "Kearns, E",
+	title  = "Review of Proton Decay Results",
+	journal = "Snowmass",
+	year   = "2001",
+	pages    = "http://hep.bu.edu/\~{}kearns/pub/kearns-pdk-snowmass.pdf"
+}
+
+
+@Article{Nath:2006ut,
+     author    = "Nath, Pran and Fileviez Pérez, Pavel ",
+     title     = "Proton stability in grand unified theories, in strings, and
+                  in branes",
+     journal   = "Phys. Rept.",
+     volume    = "441",
+     year      = "2007",
+     pages     = "191-317",
+     eprint    = "hep-ph/0601023",
+     SLACcitation  = "%%CITATION = HEP-PH/0601023;%%"
+}
+
+@Article{Dorsner:2004xa,
+     author    = "Dorsner, Ilja and Fileviez Pérez, Pavel",
+     title     = "How long could we live?",
+     journal   = "Phys. Lett.",
+     volume    = "B625",
+     year      = "2005",
+     pages     = "88-95",
+     eprint    = "hep-ph/0410198",
+     SLACcitation  = "%%CITATION = HEP-PH 0410198;%%"
+}
+
+%GG
+@Article{Georgi:1974sy,
+     author    = "Georgi, H. and Glashow, S. L.",
+     title     = "Unity of all elementary particle forces",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "32",
+     year      = "1974",
+     pages     = "438-441",
+     SLACcitation  = "%%CITATION = PRLTA,32,438;%%"
+}
+
+@Article{Dorsner:2005fq,
+     author    = "Dorsner, Ilja and Fileviez Pérez, Pavel",
+     title     = "Unification without supersymmetry: Neutrino mass, proton
+                  decay and  light leptoquarks",
+     journal   = "Nucl. Phys.",
+     volume    = "B723",
+     year      = "2005",
+     pages     = "53-76",
+     eprint    = "hep-ph/0504276",
+     SLACcitation  = "%%CITATION = HEP-PH 0504276;%%"
+}
+
+
+@Article{Lee:1994vp,
+     author    = "Lee, Dae-Gyu and Mohapatra, R. N. and Parida, M. K. and
+                  Rani, Merostar",
+     title     = "Predictions for proton lifetime in minimal
+                  nonsupersymmetric SO(10) models: An update",
+     journal   = "Phys. Rev.",
+     volume    = "D51",
+     year      = "1995",
+     pages     = "229-235",
+     eprint    = "hep-ph/9404238",
+     SLACcitation  = "%%CITATION = HEP-PH 9404238;%%"
+}
+
+
+%Dorsner:2005ii was merged with Dorsner:2005fq
+@Article{Dorsner:2005ii,
+     author    = "Dorsner, Ilja and Fileviez Pérez, Pavel and Gonzalez
+                  Felipe, Ricardo",
+     title     = "Phenomenological and cosmological aspects of a minimal GUT
+                  scenario",
+     journal   = "Nucl. Phys.",
+     volume    = "B747",
+     year      = "2006",
+     pages     = "312-327",
+     eprint    = "hep-ph/0512068",
+     SLACcitation  = "%%CITATION = HEP-PH 0512068;%%"
+}
+
+%%%%SUSYSU(5) START: how to merge all this???
+
+
+@Article{Murayama:2001ur,
+     author    = "Murayama, Hitoshi and Pierce, Aaron",
+     title     = "Not even decoupling can save minimal supersymmetric SU(5)",
+     journal   = "Phys. Rev.",
+     volume    = "D65",
+     year      = "2002",
+     pages     = "055009",
+     eprint    = "hep-ph/0108104",
+     SLACcitation  = "%%CITATION = HEP-PH 0108104;%%"
+}
+@Article{Bajc:2002bv,
+     author    = "Bajc, Borut and Fileviez Perez, Pavel and Senjanovic, Goran
+                  ",
+     title     = "Proton decay in minimal supersymmetric SU(5)",
+     journal   = "Phys. Rev.",
+     volume    = "D66",
+     year      = "2002",
+     pages     = "075005",
+     eprint    = "hep-ph/0204311",
+     SLACcitation  = "%%CITATION = HEP-PH 0204311;%%"
+}
+
+@Article{Bajc:2002pg,
+     author    = "Bajc, Borut and Fileviez Perez, Pavel and Senjanovic, Goran
+                  ",
+     title     = "Minimal supersymmetric SU(5) theory and proton decay: Where
+                  do we stand?",
+     year      = "2002",
+     eprint    = "hep-ph/0210374",
+     SLACcitation  = "%%CITATION = HEP-PH 0210374;%%"
+}
+
+@Article{Emmanuel-Costa:2003pu,
+     author    = "Emmanuel-Costa, D. and Wiesenfeldt, S.",
+     title     = "Proton decay in a consistent supersymmetric SU(5) GUT
+                  model",
+     journal   = "Nucl. Phys.",
+     volume    = "B661",
+     year      = "2003",
+     pages     = "62-82",
+     eprint    = "hep-ph/0302272",
+     SLACcitation  = "%%CITATION = HEP-PH 0302272;%%"
+}
+%%%%SUSYSU(5) END
+
+
+%%%%SO10M START
+@Article{Babu:1992ia,
+     author    = "Babu, K. S. and Mohapatra, R. N.",
+     title     = "Predictive neutrino spectrum in minimal SO(10) grand
+                  unification",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "70",
+     year      = "1993",
+     pages     = "2845-2848",
+     eprint    = "hep-ph/9209215",
+     SLACcitation  = "%%CITATION = HEP-PH 9209215;%%"
+}
+
+@Article{Aulakh:2003kg,
+     author    = "Aulakh, Charanjit S. and Bajc, Borut and Melfo, Alejandra
+                  and Senjanovic, Goran and Vissani, Francesco",
+     title     = "The minimal supersymmetric grand unified theory",
+     journal   = "Phys. Lett.",
+     volume    = "B588",
+     year      = "2004",
+     pages     = "196-202",
+     eprint    = "hep-ph/0306242",
+     SLACcitation  = "%%CITATION = HEP-PH 0306242;%%"
+}
+
+@Article{Fukuyama:2004pb,
+     author    = "Fukuyama, Takeshi and Ilakovac, Amon and Kikuchi, Tatsuru
+                  and Meljanac, Stjepan and Okada, Nobuchika",
+     title     = "Detailed analysis of proton decay rate in the minimal
+                  supersymmetric  SO(10) model",
+     journal   = "JHEP",
+     volume    = "09",
+     year      = "2004",
+     pages     = "052",
+     eprint    = "hep-ph/0406068",
+     SLACcitation  = "%%CITATION = HEP-PH 0406068;%%"
+}
+
+@Article{Goh:2003nv,
+     author    = "Goh, H. S. and Mohapatra, R. N. and Nasri, S. and Ng,
+                  Siew-Phang",
+     title     = "Proton decay in a minimal SUSY SO(10) model for neutrino
+                  mixings",
+     journal   = "Phys. Lett.",
+     volume    = "B587",
+     year      = "2004",
+     pages     = "105-116",
+     eprint    = "hep-ph/0311330",
+     SLACcitation  = "%%CITATION = HEP-PH 0311330;%%"
+}
+
+%%%%SO10M END
+
+@Article{Friedmann:2002ty,
+     author    = "Friedmann, Tamar and Witten, Edward",
+     title     = "Unification scale, proton decay, and manifolds of G(2)
+                  holonomy",
+     journal   = "Adv. Theor. Math. Phys.",
+     volume    = "7",
+     year      = "2003",
+     pages     = "577-617",
+     eprint    = "hep-th/0211269",
+     SLACcitation  = "%%CITATION = HEP-TH 0211269;%%"
+}
+
+@Article{Agostinelli:2002hh,
+     author    = "Agostinelli, S. and others",
+ collaboration = "GEANT4",
+     title     = "GEANT4: A simulation toolkit",
+     journal   = "Nucl. Instrum. Meth.",
+     volume    = "A506",
+     year      = "2003",
+     pages     = "250-303",
+     SLACcitation  = "%%CITATION = NUIMA,A506,250;%%"
+}
+
+%reference created
+@Article{Birk,
+			author    = "Birks, J. M.",
+			booktitle = "The theory and Practice of Scintillation Counting",
+			publisher = "Pergamon Press, London", 
+			year      = "1964"
+}
+
+%UNO
+@Article{Jung:1999jq,
+     author    = "Jung, Chang Kee",
+     title     = "Feasibility of a next generation underground water
+                  Cherenkov detector:  UNO",
+     journal   = "AIP Conf. Proc.",
+     volume    = "533",
+     year      = "2000",
+     pages     = "29-34",
+     eprint    = "hep-ex/0005046",
+     SLACcitation  = "%%CITATION = HEP-EX 0005046;%%"
+}
+
+%Hakaya05
+@Article{Nakaya:2005nk,
+     author    = "Nakaya, T.",
+     title     = "Next-generation nucleon decay experiments",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "138",
+     year      = "2005",
+     pages     = "376-382",
+     SLACcitation  = "%%CITATION = NUPHZ,138,376;%%"
+}
+
+%Super05
+@Article{Kobayashi:2005pe,
+     author    = "Kobayashi, K. and others",
+ collaboration = "Super-Kamiokande",
+     title     = "Search for nucleon decay via modes favored by
+                  supersymmetric grand  unification models in Super-Kamiokande-I",
+     journal   = "Phys. Rev.",
+     volume    = "D72",
+     year      = "2005",
+     pages     = "052007",
+     eprint    = "hep-ex/0502026",
+     SLACcitation  = "%%CITATION = HEP-EX 0502026;%%"
+}
+
+%T. Marrodan Undagoitia 13/12/06 START
+@Article{MarrodanUndagoitia:2006qn,
+     author    = "{Marrod\'an Undagoitia}, T. and others",
+     title     = "Proton decay in the large liquid scintillator detector LENA: Study of the background",
+     journal   = "J. Phys. Conf. Ser.",
+     volume    = "269",
+     year      = "2006",
+     SLACcitation = "%%CITATION = 00462,39,269;%%"
+}
+%T. Marrodan Undagoitia 13/12/06 END
+
+%JEC 31/1/07 was GLACIER_pdk
+%JEC 4/5/07 updated as published in JHEP (A. Rubbia)
+@Article{Bueno:2007um,
+     author    = "Bueno, A. and others",
+     title     = "Nucleon decay searches with large liquid argon TPC
+                  detectors at shallow depths: Atmospheric neutrinos and
+                  cosmogenic backgrounds",
+     journal   = "JHEP",
+     volume    = "04",
+     year      = "2007",
+     page      = "041",
+     eprint    = "hep-ph/0701101",
+     SLACcitation  = "%%CITATION = HEP-PH 0701101;%%"
+}
+
+
+%%%%%%%%%%%%%% SN Section %%%%%%%%%%%%%%%%%%%%%
+@Article{PhysRevD.65.073008,
+  title = {Supernova neutrino oscillations: A simple analytical approach},
+  author = {Fogli, G. L. and Lisi, E.  and Montanino, D.  and Palazzo, A. },
+  journal = {Phys. Rev. D},
+  volume = {65},
+  number = {7},
+  pages = {073008},
+  numpages = {12},
+  year = {2002},
+  month = {Mar},
+  doi = {10.1103/PhysRevD.65.073008},
+  publisher = {American Physical Society}
+}
+
+@Article{PhysRevD.66.039901,
+  title = {Erratum: Supernova neutrino oscillations: A simple analytical approach [Phys. Rev. D 65, 073008 (2002)]},
+  author = {Fogli, G. L. and Lisi, E.  and Montanino, D.  and Palazzo, A. },
+  journal = {Phys. Rev. D},
+  volume = {66},
+  number = {3},
+  pages = {039901},
+  numpages = {1},
+  year = {2002},
+  month = {Aug},
+  doi = {10.1103/PhysRevD.66.039901},
+  publisher = {American Physical Society}
+}
+
+
+@Article{Dighe:1999bi,
+     author    = "Dighe, Amol S. and Smirnov, Alexei Yu.",
+     title     = "Identifying the neutrino mass spectrum from the neutrino
+                  burst from a  supernova",
+     journal   = "Phys. Rev.",
+     volume    = "D62",
+     year      = "2000",
+     pages     = "033007",
+     eprint    = "hep-ph/9907423",
+     SLACcitation  = "%%CITATION = HEP-PH 9907423;%%"
+}
+
+%SNBorex
+@Article{Cadonati:2000kq,
+     author    = "Cadonati, L. and Calaprice, F. P. and Chen, M. C.",
+     title     = "Supernova neutrino detection in Borexino",
+     journal   = "Astropart. Phys.",
+     volume    = "16",
+     year      = "2002",
+     pages     = "361-372",
+     eprint    = "hep-ph/0012082",
+     SLACcitation  = "%%CITATION = HEP-PH 0012082;%%"
+}
+
+%SNelasP
+@Article{Beacom:2002hs,
+     author    = "Beacom, John F. and Farr, Will M. and Vogel, Petr",
+     title     = "Detection of supernova neutrinos by neutrino proton elastic
+                  scattering",
+     journal   = "Phys. Rev.",
+     volume    = "D66",
+     year      = "2002",
+     pages     = "033001",
+     eprint    = "hep-ph/0205220",
+     SLACcitation  = "%%CITATION = HEP-PH 0205220;%%"
+}
+
+@Article{Fogli:2004ff,
+     author    = "Fogli, G. L. and Lisi, E. and Mirizzi, A. and Montanino, D.",
+     title     = "Probing supernova shock waves and neutrino flavor
+                  transitions in  next-generation water-Cherenkov detectors",
+     journal   = "JCAP",
+     volume    = "0504",
+     year      = "2005",
+     pages     = "002",
+     eprint    = "hep-ph/0412046",
+     SLACcitation  = "%%CITATION = HEP-PH 0412046;%%"
+}
+
+@Article{Kachelriess:2004ds,
+     author    = "Kachelriess, M. and others",
+     title     = "Exploiting the neutronization burst of a galactic
+                  supernova",
+     journal   = "Phys. Rev.",
+     volume    = "D71",
+     year      = "2005",
+     pages     = "063003",
+     eprint    = "astro-ph/0412082",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0412082;%%"
+}
+
+@Article{Gil-Botella:2004bv,
+     author    = "Gil-Botella, I. and Rubbia, A.",
+     title     = "Decoupling supernova and neutrino oscillation physics with
+                  LAr TPC  detectors",
+     journal   = "JCAP",
+     volume    = "0408",
+     year      = "2004",
+     pages     = "001",
+     eprint    = "hep-ph/0404151",
+     SLACcitation  = "%%CITATION = HEP-PH 0404151;%%"
+}
+
+@Article{Gil-Botella:2003sz,
+     author    = "Gil-Botella, I. and Rubbia, A.",
+     title     = "Oscillation effects on supernova neutrino rates and spectra
+                  and  detection of the shock breakout in a liquid argon
+                  TPC",
+     journal   = "JCAP",
+     volume    = "0310",
+     year      = "2003",
+     pages     = "009",
+     eprint    = "hep-ph/0307244",
+     SLACcitation  = "%%CITATION = HEP-PH 0307244;%%"
+}
+
+@Article{Schirato:2002tg,
+     author    = "Schirato, Richard C. and Fuller, George M.",
+     title     = "Connection between supernova shocks, flavor transformation,
+                  and the  neutrino signal",
+     year      = "2002",
+     eprint    = "astro-ph/0205390",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0205390;%%"
+}
+
+@Article{Fogli:2003dw,
+     author    = "Fogli, G. L. and Lisi, E. and Montanino, D. and Mirizzi, A.",
+     title     = "Analysis of energy- and time-dependence of supernova shock
+                  effects on  neutrino crossing probabilities",
+     journal   = "Phys. Rev.",
+     volume    = "D68",
+     year      = "2003",
+     pages     = "033005",
+     eprint    = "hep-ph/0304056",
+     SLACcitation  = "%%CITATION = HEP-PH 0304056;%%"
+}
+
+@Article{Tomas:2004gr,
+     author    = "Tomas, R. and others",
+     title     = "Neutrino signatures of supernova shock and reverse shock
+                  propagation",
+     journal   = "JCAP",
+     volume    = "0409",
+     year      = "2004",
+     pages     = "015",
+     eprint    = "astro-ph/0407132",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0407132;%%"
+}
+
+@Article{Barger:2005it,
+     author    = "Barger, V. and Huber, Patrick and Marfatia, Danny",
+     title     = "Supernova neutrinos can tell us the neutrino mass hierarchy
+                  independently of flux models",
+     journal   = "Phys. Lett.",
+     volume    = "B617",
+     year      = "2005",
+     pages     = "167-173",
+     eprint    = "hep-ph/0501184",
+     SLACcitation  = "%%CITATION = HEP-PH 0501184;%%"
+}
+
+@Article{Lunardini:2001pb,
+     author    = "Lunardini, C. and Smirnov, A. Yu.",
+     title     = "Supernova neutrinos: Earth matter effects and neutrino mass
+                  spectrum",
+     journal   = "Nucl. Phys.",
+     volume    = "B616",
+     year      = "2001",
+     pages     = "307-348",
+     eprint    = "hep-ph/0106149",
+     SLACcitation  = "%%CITATION = HEP-PH 0106149;%%"
+}
+
+@Article{Dighe:2003jg,
+     author    = "Dighe, Amol S. and Keil, Mathias T. and Raffelt, Georg G.",
+     title     = "Identifying earth matter effects on supernova neutrinos at
+                  a single  detector",
+     journal   = "JCAP",
+     volume    = "0306",
+     year      = "2003",
+     pages     = "006",
+     eprint    = "hep-ph/0304150",
+     SLACcitation  = "%%CITATION = HEP-PH 0304150;%%"
+}
+
+@Article{Dighe:2003be,
+     author    = "Dighe, Amol S. and Keil, Mathias T. and Raffelt, Georg G.",
+     title     = "Detecting the neutrino mass hierarchy with a supernova at
+                  IceCube",
+     journal   = "JCAP",
+     volume    = "0306",
+     year      = "2003",
+     pages     = "005",
+     eprint    = "hep-ph/0303210",
+     SLACcitation  = "%%CITATION = HEP-PH 0303210;%%"
+}
+
+@Article{Lunardini:2003eh,
+     author    = "Lunardini, Cecilia and Smirnov, Alexei Yu.",
+     title     = "Probing the neutrino mass hierarchy and the 13-mixing with
+                  supernovae",
+     journal   = "JCAP",
+     volume    = "0306",
+     year      = "2003",
+     pages     = "009",
+     eprint    = "hep-ph/0302033",
+     SLACcitation  = "%%CITATION = HEP-PH 0302033;%%"
+}
+
+@Article{Tomas:2003xn,
+     author    = "Tomas, R. and Semikoz, D. and Raffelt, G. G. and
+                  Kachelriess, M. and Dighe, A. S.",
+     title     = "Supernova pointing with low- and high-energy neutrino
+                  detectors",
+     journal   = "Phys. Rev.",
+     volume    = "D68",
+     year      = "2003",
+     pages     = "093013",
+     eprint    = "hep-ph/0307050",
+     SLACcitation  = "%%CITATION = HEP-PH 0307050;%%"
+}
+
+@Article{Antonioli:2004zb,
+     author    = "Antonioli, Pietro and others",
+     title     = "SNEWS: The SuperNova Early Warning System",
+     journal   = "New J. Phys.",
+     volume    = "6",
+     year      = "2004",
+     pages     = "114",
+     eprint    = "astro-ph/0406214",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0406214;%%"
+}
+
+@Article{Odrzywolek:2003vn,
+     author    = "Odrzywolek, A. and Misiaszek, Marcin and Kutschera, M.",
+     title     = "Detection possibility of the pair-annihilation neutrinos
+                  from the  neutrino-cooled pre-supernova star",
+     journal   = "Astropart. Phys.",
+     volume    = "21",
+     year      = "2004",
+     pages     = "303-313",
+     eprint    = "astro-ph/0311012",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0311012;%%"
+}
+
+@Article{Ando:2005ka,
+     author    = "Ando, Shin'ichiro and Beacom, John F. and Yuksel, Hasan",
+     title     = "Detection of neutrinos from supernovae in nearby galaxies",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "95",
+     year      = "2005",
+     pages     = "171101",
+     eprint    = "astro-ph/0503321",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0503321;%%"
+}
+
+@Article{Fukugita:2002qw,
+     author    = "Fukugita, M. and Kawasaki, M.",
+     title     = "Constraints on the star formation rate from supernova relic
+                  neutrino  observations",
+     journal   = "Mon. Not. Roy. Astron. Soc.",
+     volume    = "340",
+     year      = "2003",
+     pages     = "L7",
+     eprint    = "astro-ph/0204376",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0204376;%%"
+}
+
+@Article{Ando:2003ie,
+     author    = "Ando, Shin'ichiro",
+     title     = "Decaying neutrinos and implications from the supernova
+                  relic neutrino  observation",
+     journal   = "Phys. Lett.",
+     volume    = "B570",
+     year      = "2003",
+     pages     = "11",
+     eprint    = "hep-ph/0307169",
+     SLACcitation  = "%%CITATION = HEP-PH 0307169;%%"
+}
+
+@Article{Fogli:2004gy,
+     author    = "Fogli, G. L. and Lisi, E. and Mirizzi, A. and Montanino, D.
+                  ",
+     title     = "Three-generation flavor transitions and decays of supernova
+                  relic  neutrinos",
+     journal   = "Phys. Rev.",
+     volume    = "D70",
+     year      = "2004",
+     pages     = "013001",
+     eprint    = "hep-ph/0401227",
+     SLACcitation  = "%%CITATION = HEP-PH 0401227;%%"
+}
+
+@Article{Malek:2002ns,
+     author    = "Malek, M. and others",
+ collaboration = "Super-Kamiokande",
+     title     = "Search for supernova relic neutrinos at Super-Kamiokande",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "90",
+     year      = "2003",
+     pages     = "061101",
+     eprint    = "hep-ex/0209028",
+     SLACcitation  = "%%CITATION = HEP-EX 0209028;%%"
+}
+
+@Article{Ando:2004sb,
+     author    = "Ando, Shin'ichiro",
+     title     = "Cosmic star formation history and the future observation of
+                  supernova  relic neutrinos",
+     journal   = "Astrophys. J.",
+     volume    = "607",
+     year      = "2004",
+     pages     = "20-31",
+     eprint    = "astro-ph/0401531",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0401531;%%"
+}
+
+%LL
+@Article{Totani:1997vj,
+     author    = "Totani, T. and Sato, K. and Dalhed, H. E. and Wilson, J. R.
+                  ",
+     title     = "Future detection of supernova neutrino burst and explosion
+                  mechanism",
+     journal   = "Astrophys. J.",
+     volume    = "496",
+     year      = "1998",
+     pages     = "216-225",
+     eprint    = "astro-ph/9710203",
+     SLACcitation  = "%%CITATION = ASTRO-PH 9710203;%%"
+}
+
+%TBP
+@Article{Thompson:2002mw,
+     author    = "Thompson, Todd A. and Burrows, Adam and Pinto, Philip A.",
+     title     = "Shock breakout in core-collapse supernovae and its neutrino
+                  signature",
+     journal   = "Astrophys. J.",
+     volume    = "592",
+     year      = "2003",
+     pages     = "434",
+     eprint    = "astro-ph/0211194",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0211194;%%"
+}
+
+%KRJ
+@Article{Keil:2002in,
+     author    = "Keil, Mathias Th. and Raffelt, Georg G. and Janka,
+                  Hans-Thomas",
+     title     = "Monte Carlo study of supernova neutrino spectra formation",
+     journal   = "Astrophys. J.",
+     volume    = "590",
+     year      = "2003",
+     pages     = "971-991",
+     eprint    = "astro-ph/0208035",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0208035;%%"
+}
+
+@Article{Yuksel:2005ae,
+     author    = "Yuksel, Hasan and Ando, Shin'ichiro and Beacom, John F.",
+     title     = "Direct measurement of supernova neutrino emission
+                  parameters with a  gadolinium enhanced Super-Kamiokande
+                  detector",
+     journal   = "Phys. Rev.",
+     volume    = "C74",
+     year      = "2006",
+     pages     = "015803",
+     eprint    = "astro-ph/0509297",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0509297;%%"
+}
+
+@Article{Cocco:2004ac,
+     author    = "Cocco, A. G. and Ereditato, A. and Fiorillo, G. and
+                  Mangano, G. and Pettorino, V.",
+     title     = "Supernova relic neutrinos in liquid argon detectors",
+     journal   = "JCAP",
+     volume    = "0412",
+     year      = "2004",
+     pages     = "002",
+     eprint    = "hep-ph/0408031",
+     SLACcitation  = "%%CITATION = HEP-PH 0408031;%%"
+}
+
+@Article{Wurm:2007cy,
+     author    = "Wurm, M. and others",
+     title     = "Detection potential for the diffuse supernova neutrino
+                  background in the large liquid-scintillator detector LENA",
+     journal   = "Phys. Rev.",
+     volume    = "D75",
+     year      = "2007",
+     pages     = "023007",
+     eprint    = "astro-ph/0701305",
+     SLACcitation  = "%%CITATION = ASTRO-PH/0701305;%%"
+}
+
+%G Raffelt 10/1/07 START
+@Article{Duan:2006an,
+     author    = "Duan, Huaiyu and Fuller, George M. and Carlson, J and Qian,
+                  Yong-Zhong",
+     title     = "Simulation of coherent non-linear neutrino flavor
+                  transformation in the  supernova environment. I: Correlated
+                  neutrino trajectories",
+     journal   = "Phys. Rev.",
+     volume    = "D74",
+     year      = "2006",
+     pages     = "105014",
+     eprint    = "astro-ph/0606616",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0606616;%%"
+}
+
+@Article{Raffelt:2007cb,
+     author    = "Raffelt, Georg G. and Smirnov, Alexei Yu.",
+     title     = "Self-induced spectral splits in supernova neutrino fluxes",
+     year      = "2007",
+     eprint    = "arXiv:0705.1830 [hep-ph]",
+     SLACcitation  = "%%CITATION = ARXIV:0705.1830;%%"
+}
+
+
+@Article{Hannestad:2006nj,
+     author    = "Hannestad, Steen and Raffelt, Georg G. and Sigl, Gunter and
+                  Wong, Yvonne Y. Y.",
+     title     = "Self-induced conversion in dense neutrino gases: Pendulum
+                  in flavour space",
+     journal   = "Phys. Rev.",
+     volume    = "D74",
+     year      = "2006",
+     pages     = "105010",
+     eprint    = "astro-ph/0608695",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0608695;%%"
+}
+
+%G Raffelt 10/1/07 END
+
+
+%%%%%%%%%%%%% Solar Section %%%%%%%%%%%%%%%%%%%%%%
+
+@Article{Hagner:2000xb,
+     author    = "Hagner, T. and others",
+     title     = "Muon induced production of radioactive isotopes in
+                  scintillation  detectors",
+     journal   = "Astropart. Phys.",
+     volume    = "14",
+     year      = "2000",
+     pages     = "33-47",
+     SLACcitation  = "%%CITATION = APHYE,14,33;%%"
+}
+
+@Article{Back:2006vc,
+     author    = "Back, H. and others",
+     title     = "CNO and pep neutrino spectroscopy in Borexino: Measurement
+                  of the deep-underground production of cosmogenic C11 in an
+                  organic liquid scintillator",
+     journal   = "Phys. Rev.",
+     volume    = "C74",
+     year      = "2006",
+     pages     = "045805",
+     SLACcitation  = "%%CITATION = PHRVA,C74,045805;%%"
+}
+
+@Article{Smy:2002rz,
+     author    = "Smy, M. B.",
+ collaboration = "Super-Kamiokande",
+     title     = "Solar neutrino precision measurements using all 1496 days
+                  of Super-Kamiokande-I data",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "118",
+     year      = "2003",
+     pages     = "25-32",
+     eprint    = "hep-ex/0208004",
+     SLACcitation  = "%%CITATION = HEP-EX 0208004;%%"
+}
+
+%AlmontiSolar START
+@Article{Alimonti:1998aa,
+     author    = "Alimonti, G. and others",
+ collaboration = "Borexino",
+     title     = "Ultra-low background measurements in a large volume
+                  underground detector",
+     journal   = "Astropart. Phys.",
+     volume    = "8",
+     year      = "1998",
+     pages     = "141-157",
+     SLACcitation  = "%%CITATION = APHYE,8,141;%%"
+}
+
+@Article{Alimonti:1998nt,
+     author    = "Alimonti, G. and others",
+     title     = "A large-scale low-background liquid scintillation detector:
+                  The counting test facility at Gran Sasso",
+     journal   = "Nucl. Instrum. Meth.",
+     volume    = "A406",
+     year      = "1998",
+     pages     = "411-426",
+     SLACcitation  = "%%CITATION = NUIMA,A406,411;%%"
+}
+
+%AlmontiSolar END
+
+%13C
+@Article{Ianni:2005ki,
+     author    = "Ianni, A. and Montanino, D. and Villante, F. L.",
+     title     = "How to observe B-8 solar neutrinos in liquid scintillator
+                  detectors",
+     journal   = "Phys. Lett.",
+     volume    = "B627",
+     year      = "2005",
+     pages     = "38-48",
+     eprint    = "physics/0506171",
+     SLACcitation  = "%%CITATION = PHYSICS 0506171;%%"
+}
+
+%ICARUS2001
+@Article{Arneodo:2001tx,
+     author    = "Arneodo, F. and others",
+ collaboration = "ICARUS",
+     title     = "The ICARUS experiment, a second-generation proton decay
+                  experiment and  neutrino observatory at the Gran Sasso
+                  Laboratory",
+     year      = "2001",
+     eprint    = "hep-ex/0103008",
+     SLACcitation  = "%%CITATION = HEP-EX 0103008;%%"
+}
+
+@Article{Aharmim:2005gt,
+     author    = "Aharmim, B. and others",
+ collaboration = "SNO",
+     title     = "Electron energy spectra, fluxes, and day-night asymmetries
+                  of B-8 solar  neutrinos from the 391-day salt phase SNO
+                  data set",
+     journal   = "Phys. Rev.",
+     volume    = "C72",
+     year      = "2005",
+     pages     = "055502",
+     eprint    = "nucl-ex/0502021",
+     SLACcitation  = "%%CITATION = NUCL-EX 0502021;%%"
+}
+
+%
+%%%%%%%%%%%%% Atmosperic Section %%%%%%%%%%%%%%%%%%%%%%
+%
+@Article{Gonzalez-Garcia:2002dz,
+     author    = "Gonzalez-Garcia, M. C. and Nir, Yosef",
+     title     = "Developments in neutrino physics",
+     journal   = "Rev. Mod. Phys.",
+     volume    = "75",
+     year      = "2003",
+     pages     = "345-402",
+     eprint    = "hep-ph/0202058",
+     SLACcitation  = "%%CITATION = HEP-PH 0202058;%%"
+}
+
+@Article{Daum:1994bf,
+     author    = "Daum, K. and others",
+ collaboration = "Fréjus",
+     title     = "Determination of the atmospheric neutrino spectra with the
+                  Fréjus detector",
+     journal   = "Z. Phys.",
+     volume    = "C66",
+     year      = "1995",
+     pages     = "417-428",
+     SLACcitation  = "%%CITATION = ZEPYA,C66,417;%%"
+}
+
+@Article{Aglietta:1988be,
+     author    = "Aglietta, M. and others",
+ collaboration = "The NUSEX",
+     title     = "Experimental study of atmospheric neutrino flux in the
+                  NUSEX experiment",
+     journal   = "Europhys. Lett.",
+     volume    = "8",
+     year      = "1989",
+     pages     = "611-614",
+     SLACcitation  = "%%CITATION = EULEE,8,611;%%"
+}
+
+@Article{Becker-Szendy:1992hq,
+     author    = "Becker-Szendy, R. and others",
+     title     = "The Electron-neutrino and muon-neutrino content of the
+                  atmospheric flux",
+     journal   = "Phys. Rev.",
+     volume    = "D46",
+     year      = "1992",
+     pages     = "3720-3724",
+     SLACcitation  = "%%CITATION = PHRVA,D46,3720;%%"
+}
+
+@Article{Hirata:1992ku,
+     author    = "Hirata, K. S. and others",
+ collaboration = "Kamiokande-II",
+     title     = "Observation of a small atmospheric $\nu_\mu / \nu_e $ ratio
+                  in Kamiokande",
+     journal   = "Phys. Lett.",
+     volume    = "B280",
+     year      = "1992",
+     pages     = "146-152",
+     SLACcitation  = "%%CITATION = PHLTA,B280,146;%%"
+}
+
+@Article{Allison:1999ms,
+     author    = "Allison, W. W. M. and others",
+ collaboration = "Soudan-2",
+     title     = "The atmospheric neutrino flavor ratio from a 3.9 fiducial
+                  kiloton-year  exposure of Soudan 2",
+     journal   = "Phys. Lett.",
+     volume    = "B449",
+     year      = "1999",
+     pages     = "137-144",
+     eprint    = "hep-ex/9901024",
+     SLACcitation  = "%%CITATION = HEP-EX 9901024;%%"
+}
+
+@Article{Ambrosio:2001je,
+     author    = "Ambrosio, M. and others",
+ collaboration = "MACRO",
+     title     = "Matter effects in upward-going muons and sterile neutrino
+                  oscillations",
+     journal   = "Phys. Lett.",
+     volume    = "B517",
+     year      = "2001",
+     pages     = "59-66",
+     eprint    = "hep-ex/0106049",
+     SLACcitation  = "%%CITATION = HEP-EX 0106049;%%"
+}
+
+@Article{Ashie:2005ik,
+     author    = "Ashie, Y. and others",
+ collaboration = "Super-Kamiokande",
+     title     = "A measurement of atmospheric neutrino oscillation
+                  parameters by  Super-Kamiokande I",
+     journal   = "Phys. Rev.",
+     volume    = "D71",
+     year      = "2005",
+     pages     = "112005",
+     eprint    = "hep-ex/0501064",
+     SLACcitation  = "%%CITATION = HEP-EX 0501064;%%"
+}
+
+@Article{Ahn:2006zz,
+     author    = "Ahn, M. H. and others",
+ collaboration = "K2K",
+     title     = "Measurement of neutrino oscillation by the K2K experiment",
+     year      = "2006",
+     eprint    = "hep-ex/0606032",
+     SLACcitation  = "%%CITATION = HEP-EX 0606032;%%"
+}
+
+@Article{Tagg:2006sx,
+     author    = "Tagg, Nathaniel",
+ collaboration = "MINOS",
+     title     = "First MINOS results from the NuMI beam",
+     journal   = "ECONF",
+     volume    = "C060409",
+     year      = "2006",
+     pages     = "019",
+     eprint    = "hep-ex/0605058",
+     SLACcitation  = "%%CITATION = HEP-EX 0605058;%%"
+}
+
+@Article{Itow:2001ee,
+     author    = "Itow, Y. and others",
+     title     = "The JHF-Kamioka neutrino project",
+     year      = "2001",
+     eprint    = "hep-ex/0106019",
+     SLACcitation  = "%%CITATION = HEP-EX 0106019;%%"
+}
+
+@Article{Ayres:2004js,
+     author    = "Ayres, D. S. and others",
+ collaboration = "NOvA",
+     title     = "NOvA proposal to build a 30-kiloton off-axis detector to
+                  study neutrino  oscillations in the Fermilab NuMI
+                  beamline",
+     year      = "2004",
+     eprint    = "hep-ex/0503053",
+     SLACcitation  = "%%CITATION = HEP-EX 0503053;%%"
+}
+
+%Kim:1998bv START
+@Article{Kim:1998bv,
+     author    = "Kim, C. W. and Lee, U. W.",
+     title     = "Comment on the possible electron-neutrino excess in the
+                  Super-Kamiokande atmospheric neutrino experiment",
+     journal   = "Phys. Lett.",
+     volume    = "B444",
+     year      = "1998",
+     pages     = "204-207",
+     eprint    = "hep-ph/9809491",
+     SLACcitation  = "%%CITATION = HEP-PH 9809491;%%"
+}
+
+@Article{Peres:1999yi,
+     author    = "Peres, O. L. G. and Smirnov, A. Yu.",
+     title     = "Testing the solar neutrino conversion with atmospheric
+                  neutrinos",
+     journal   = "Phys. Lett.",
+     volume    = "B456",
+     year      = "1999",
+     pages     = "204-213",
+     eprint    = "hep-ph/9902312",
+     SLACcitation  = "%%CITATION = HEP-PH 9902312;%%"
+}
+%Kim:1998bv END
+
+@Article{Gonzalez-Garcia:2004wg,
+     author    = "Gonzalez-Garcia, M. C. and Maltoni, Michele",
+     title     = "Atmospheric neutrino oscillations and new physics",
+     journal   = "Phys. Rev.",
+     volume    = "D70",
+     year      = "2004",
+     pages     = "033010",
+     eprint    = "hep-ph/0404085",
+     SLACcitation  = "%%CITATION = HEP-PH 0404085;%%"
+}
+
+%JEC 8/1/07 START citation from Th. Schwetz
+@ARTICLE{huber-2005-71,
+  author = {P. Huber and M. Maltoni and T. Schwetz},
+  title = {Resolving parameter degeneracies in long-baseline experiments by  atmospheric neutrino data},
+  journal = {Physical Review D},
+  volume = {71},
+  pages = {053006},
+  url = {doi:10.1103/PhysRevD.71.053006},
+  year = {2005}
+}
+%JEC END
+%
+%%%%%%%%%%%%% GeoNeutrino Section %%%%%%%%%%%%%%%%%%%%%%
+%
+%KAMLANDGeo
+@Article{Araki:2005qa,
+     author    = "Araki, T. and others",
+     title     = "Experimental investigation of geologically produced
+                  antineutrinos with KamLAND",
+     journal   = "Nature",
+     volume    = "436",
+     year      = "2005",
+     pages     = "499-503",
+     SLACcitation  = "%%CITATION = NATUA,436,499;%%"
+}
+
+%SuperKNIM
+@Article{Fukuda:2002uc,
+     author    = "Fukuda, Y. and others",
+     title     = "The Super-Kamiokande detector",
+     journal   = "Nucl. Instrum. Meth.",
+     volume    = "A501",
+     year      = "2003",
+     pages     = "418-462",
+     SLACcitation  = "%%CITATION = NUIMA,A501,418;%%"
+}
+
+
+@Article{Hochmuth:2005nh,
+     author    = "Hochmuth, Kathrin A. and others",
+     title     = "Probing the Earth's interior with a large-volume liquid
+                  scintillator detector",
+     journal   = "Astropart. Phys.",
+     volume    = "27",
+     year      = "2007",
+     pages     = "21-29",
+     eprint    = "hep-ph/0509136",
+     SLACcitation  = "%%CITATION = HEP-PH/0509136;%%"
+}
+
+
+
+%T. Marrodan Undagoitia 12/12/06 END
+
+@Article{Bueno:2004dv,
+     author    = "Bueno, A. and Cid, R. and Navas-Concha, S. and Hooper, D.
+                  and Weiler, T. J.",
+     title     = "Indirect detection of dark matter WIMPs in a Liquid Argon
+                  TPC",
+     journal   = "JCAP",
+     volume    = "0501",
+     year      = "2005",
+     pages     = "001",
+     eprint    = "hep-ph/0410206",
+     SLACcitation  = "%%CITATION = HEP-PH 0410206;%%"
+}
+
+%%%%%%%%%%%%% Reactor Section %%%%%%%%%%%%%%%%%%%%%%
+%KAMLANDReact
+@Article{Araki:2004mb,
+     author    = "Araki, T. and others",
+ collaboration = "KamLAND",
+     title     = "Measurement of neutrino oscillation with KamLAND: Evidence
+                  of spectral  distortion",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "94",
+     year      = "2005",
+     pages     = "081801",
+     eprint    = "hep-ex/0406035",
+     SLACcitation  = "%%CITATION = HEP-EX 0406035;%%"
+}
+%PetcovReacSKGd
+@Article{Choubey:2004bf,
+     author    = "Choubey, Sandhya and Petcov, S. T.",
+     title     = "Reactor anti-neutrino oscillations and gadolinium loaded
+                  Super-Kamiokande detector",
+     journal   = "Phys. Lett.",
+     volume    = "B594",
+     year      = "2004",
+     pages     = "333-346",
+     eprint    = "hep-ph/0404103",
+     SLACcitation  = "%%CITATION = HEP-PH 0404103;%%"
+}
+
+@Article{Petcov:2006gy,
+     author    = "Petcov, S. T. and Schwetz, T.",
+     title     = "Precision measurement of solar neutrino oscillation
+                  parameters by a  long-baseline reactor neutrino experiment
+                  in Europe",
+     journal   = "Phys. Lett.",
+     volume    = "B642",
+     year      = "2006",
+     pages     = "487-494",
+     eprint    = "hep-ph/0607155",
+     SLACcitation  = "%%CITATION = HEP-PH/0607155;%%"
+}
+
+@Article{Schwetz:2006private,
+     author    = "Schwetz, T.",
+     title     = "private communication",
+     year      = "2006"
+}
+
+%
+%%%%%%%%%%%%% Oscillation Section %%%%%%%%%%%%%%%%%%%%%%
+%
+%ABueno 3/11/06
+
+
+@Article{Meregaglia:2006du,
+     author    = "Meregaglia, A. and Rubbia, A.",
+     title     = "Neutrino oscillation physics at an upgraded CNGS with large
+                  next  generation liquid argon TPC detectors",
+     journal   = "JHEP",
+     volume    = "11",
+     year      = "2006",
+     pages     = "032",
+     eprint    = "hep-ph/0609106",
+     SLACcitation  = "%%CITATION = HEP-PH/0609106;%%"
+}
+
+@Article{Ishitsuka:2005qi,
+     author    = "Ishitsuka, Masaki and Kajita, Takaaki and Minakata,
+                  Hisakazu and Nunokawa, Hiroshi",
+     title     = "Resolving neutrino mass hierarchy and CP degeneracy by two
+                  identical  detectors with different baselines",
+     journal   = "Phys. Rev.",
+     volume    = "D72",
+     year      = "2005",
+     pages     = "033003",
+     eprint    = "hep-ph/0504026",
+     SLACcitation  = "%%CITATION = HEP-PH 0504026;%%"
+}
+
+%ABueno 3/11/06 END
+
+%SPL
+@Article{Gerigk:2006qi,
+     author    = "Gerigk, F. and others",
+     title     = "Conceptual design of the SPL II, a high-power
+                  superconducting H- linac at CERN",
+     note     = "CERN-2006-006",
+     year     = "2006"
+
+}
+
+@Article{Maltoni:2004ei,
+     author    = "Maltoni, M. and Schwetz, T. and Tortola, M. A. and Valle,
+                  J. W. F.",
+     title     = "Status of global fits to neutrino oscillations",
+     journal   = "New J. Phys.",
+     volume    = "6",
+     year      = "2004",
+     pages     = "122",
+     eprint    = "hep-ph/0405172",
+     SLACcitation  = "%%CITATION = HEP-PH 0405172;%%"
+}
+
+%JECMaltoniMezzetoSchwetz
+
+@Article{Campagne:2006yx,
+     author    = "Campagne, J. E. and Maltoni, M. and Mezzetto, M. and
+                  Schwetz, T.",
+     title     = "Physics potential of the CERN-MEMPHYS neutrino oscillation
+                  project",
+     journal   = "JHEP",
+     volume    = "04",
+     year      = "2007",
+     pages     = "003",
+     eprint    = "hep-ph/0603172",
+     SLACcitation  = "%%CITATION = HEP-PH/0603172;%%"
+}
+
+%Harp
+@Article{Catanesi:2001gi,
+     author    = "Catanesi, M. G. and others",
+     title     = "Proposal for hadron production measurements using the NA49
+                  detector for  use in long-baseline and atmospheric neutrino
+                  flux calculations",
+     note     = "CERN-SPSC-2001-017",
+     year     = "2001"
+}
+
+
+
+%BENE06
+@Article{Baldini:2006fi,
+     author    = "Baldini, A. and others",
+ collaboration = "BENE Steering Group",
+     title     = "Beams for European Neutrino Experiments (BENE): Midterm
+                  scientific report",
+     year      = "2006"
+}
+
+%ISS06
+@Article{ISS06,
+     author    = "Dornan, P. and others",
+		 year      = "2006",		
+ collaboration = "International Scoping Study",
+      journal  = "in preparation"
+}
+
+@Article{Rubbia:2006pi,
+     author    = "Rubbia, C. and Ferrari, A. and Kadi, Y. and Vlachoudis, V.
+                  ",
+     title     = "Beam cooling with ionisation losses",
+     year      = "2006",
+     eprint    = "hep-ph/0602032",
+     SLACcitation  = "%%CITATION = HEP-PH 0602032;%%"
+}
+
+%Bernabeu
+@Article{Bernabeu:2005jh,
+     author    = "Bernabeu, J. and Burguet-Castell, J. and Espinoza, C. and
+                  Lindroos, M.",
+     title     = "Monochromatic neutrino beams",
+     journal   = "JHEP",
+     volume    = "12",
+     year      = "2005",
+     pages     = "014",
+     eprint    = "hep-ph/0505054",
+     SLACcitation  = "%%CITATION = HEP-PH 0505054;%%"
+}
+
+%Sato
+@Article{Sato:2005ma,
+     author    = "Sato, Joe",
+     title     = "Monoenergetic neutrino beam for long baseline experiments",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "95",
+     year      = "2005",
+     pages     = "131804",
+     eprint    = "hep-ph/0503144",
+     SLACcitation  = "%%CITATION = HEP-PH 0503144;%%"
+}
+
+%LBLdegeneracies START
+
+@Article{Burguet-Castell:2001ez,
+     author    = "Burguet-Castell, J. and Gavela, M. B. and Gomez-Cadenas, J.
+                  J. and Hernandez, P. and Mena, Olga",
+     title     = "On the measurement of leptonic CP violation",
+     journal   = "Nucl. Phys.",
+     volume    = "B608",
+     year      = "2001",
+     pages     = "301-318",
+     eprint    = "hep-ph/0103258",
+     SLACcitation  = "%%CITATION = HEP-PH 0103258;%%"
+}
+
+@Article{Minakata:2001qm,
+     author    = "Minakata, Hisakazu and Nunokawa, Hiroshi",
+     title     = "Exploring neutrino mixing with low energy superbeams",
+     journal   = "JHEP",
+     volume    = "10",
+     year      = "2001",
+     pages     = "001",
+     eprint    = "hep-ph/0108085",
+     SLACcitation  = "%%CITATION = HEP-PH 0108085;%%"
+}
+
+@Article{Fogli:1996pv,
+     author    = "Fogli, Gian Luigi and Lisi, E.",
+     title     = "Tests of three-flavor mixing in long-baseline neutrino
+                  oscillation  experiments",
+     journal   = "Phys. Rev.",
+     volume    = "D54",
+     year      = "1996",
+     pages     = "3667-3670",
+     eprint    = "hep-ph/9604415",
+     SLACcitation  = "%%CITATION = HEP-PH 9604415;%%"
+}
+
+%LBLdegeneracies END
+
+@Article{Badertscher:2005te,
+     author    = "Badertscher, A. and Laffranchi, M. and Meregaglia, A. and
+                  Muller, A. and Rubbia, A.",
+     title     = "First results from a liquid argon time projection chamber
+                  in a magnetic  field",
+     journal   = "Nucl. Instrum. Meth.",
+     volume    = "A555",
+     year      = "2005",
+     pages     = "294-309",
+     eprint    = "physics/0505151",
+     SLACcitation  = "%%CITATION = PHYSICS 0505151;%%"
+}
+
+@Article{Bueno:2000fg,
+     author    = "Bueno, A. and Campanelli, Mario and Rubbia, A.",
+     title     = "Physics potential at a neutrino factory: Can we benefit
+                  from more than  just detecting muons?",
+     journal   = "Nucl. Phys.",
+     volume    = "B589",
+     year      = "2000",
+     pages     = "577-608",
+     eprint    = "hep-ph/0005007",
+     SLACcitation  = "%%CITATION = HEP-PH 0005007;%%"
+}
+
+@Article{Bueno:2001jd,
+     author    = "Bueno, A. and Campanelli, Mario and Navas-Concha, S. and
+                  Rubbia, A.",
+     title     = "On the energy and baseline optimization to study effects
+                  related to the  delta-phase (CP-T-violation) in neutrino
+                  oscillations at a neutrino  factory",
+     journal   = "Nucl. Phys.",
+     volume    = "B631",
+     year      = "2002",
+     pages     = "239-284",
+     eprint    = "hep-ph/0112297",
+     SLACcitation  = "%%CITATION = HEP-PH 0112297;%%"
+}
+
+%%%%%%%%% Site %%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
+@Article{Mei:2005gm,
+     author    = "Mei, Dongming and Hime, A.",
+     title     = "Muon-induced background study for underground
+                  laboratories",
+     journal   = "Phys. Rev.",
+     volume    = "D73",
+     year      = "2006",
+     pages     = "053004",
+     eprint    = "astro-ph/0512125",
+     SLACcitation  = "%%CITATION = ASTRO-PH 0512125;%%"
+}
+
+@Article{SETECSTONE,
+	   author   = "STONE s.p.a",
+	   title    = "EXTENSION OF THE LABORATORY
+TO A SERIES OF CAVERNS OF 1 MILLION
+CUBIC METRES
+PRELIMINARY FEASIBILITY STUDY: GEOTECHNICAL REPORT",
+      year    = "2005"
+}
+
+
+
+%%%% Added Solar neutrino experiments (JP 1.11.2006)
+
+@Article{Davis:1968cp,
+     author    = "Davis, Raymond, Jr. and Harmer, Don S. and Hoffman, Kenneth
+                  C.",
+     title     = "Search for neutrinos from the sun",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "20",
+     year      = "1968",
+     pages     = "1205-1209",
+     SLACcitation  = "%%CITATION = PRLTA,20,1205;%%"
+}
+
+
+@Article{Anselmann:1992um,
+     author    = "Anselmann, P. and others",
+ collaboration = "GALLEX",
+     title     = "Solar neutrinos observed by GALLEX at Gran Sasso.",
+     journal   = "Phys. Lett.",
+     volume    = "B285",
+     year      = "1992",
+     pages     = "376-389",
+     SLACcitation  = "%%CITATION = PHLTA,B285,376;%%"
+}
+
+@Article{Cribier:1999am,
+     author    = "Cribier, M.",
+ collaboration = "GALLEX",
+     title     = "Results of the whole GALLEX experiment",
+     journal   = "Nucl. Phys. Proc. Suppl.",
+     volume    = "70",
+     year      = "1999",
+     pages     = "284-291",
+     SLACcitation  = "%%CITATION = NUPHZ,70,284;%%"
+}
+
+@Article{Altmann:2005ix,
+     author    = "Altmann, M. and others",
+ collaboration = "GNO",
+     title     = "Complete results for five years of GNO solar neutrino
+                  observations",
+     journal   = "Phys. Lett.",
+     volume    = "B616",
+     year      = "2005",
+     pages     = "174-190",
+     eprint    = "hep-ex/0504037",
+     SLACcitation  = "%%CITATION = HEP-EX 0504037;%%"
+}
+
+
+@Article{Abdurashitov:1994bc,
+     author    = "Abdurashitov, Dzh. N. and others",
+     title     = "Results from SAGE",
+     journal   = "Phys. Lett.",
+     volume    = "B328",
+     year      = "1994",
+     pages     = "234-248",
+     SLACcitation  = "%%CITATION = PHLTA,B328,234;%%"
+}
+
+@Article{Zucchelli:2002sa,
+     author    = "Zucchelli, P.",
+     title     = "A novel concept for a $\bar{\nu}_e/\nu_e$ neutrino factory:
+                  The beta beam",
+     journal   = "Phys. Lett.",
+     volume    = "B532",
+     year      = "2002",
+     pages     = "166-172",
+     SLACcitation  = "%%CITATION = PHLTA,B532,166;%%"
+}
+
+@Article{Strigari:2005hu,
+     author    = "Strigari, Louis E. and Beacom, John F. and Walker, Terry P.
+                  and Zhang, Pengjie",
+     title     = "The concordance cosmic star formation rate: Implications
+                  from and for  the supernova neutrino and gamma ray
+                  backgrounds",
+     journal   = "JCAP",
+     volume    = "0504",
+     year      = "2005",
+     pages     = "017",
+     eprint    = "astro-ph/0502150",
+     SLACcitation  = "%%CITATION = ASTRO-PH/0502150;%%"
+}
+
+@Article{Hopkins:2006bw,
+     author    = "Hopkins, Andrew M. and Beacom, John F.",
+     title     = "On the normalisation of the cosmic star formation history",
+     journal   = "Astrophys. J.",
+     volume    = "651",
+     year      = "2006",
+     pages     = "142",
+     eprint    = "astro-ph/0601463",
+     SLACcitation  = "%%CITATION = ASTRO-PH/0601463;%%"
+}
+
+@Article{Pati:1973rp,
+     author    = "Pati, Jogesh C. and Salam, Abdus",
+     title     = "Is Baryon Number Conserved?",
+     journal   = "Phys. Rev. Lett.",
+     volume    = "31",
+     year      = "1973",
+     pages     = "661-664",
+     SLACcitation  = "%%CITATION = PRLTA,31,661;%%"
+}
+
+@Article{TabarellideFatis:2002ni,
+     author    = "Tabarelli de Fatis, T.",
+     title     = "Prospects of measuring $sin^2(2\theta_{13})$ and the sign of
+                  $\Delta m^2$  with a massive magnetized detector for
+                  atmospheric neutrinos",
+     journal   = "Eur. Phys. J.",
+     volume    = "C24",
+     year      = "2002",
+     pages     = "43-50",
+     eprint    = "hep-ph/0202232",
+     SLACcitation  = "%%CITATION = HEP-PH/0202232;%%"
+}
+
+@Article{Bajc:2006ia,
+     author    = "Bajc, Borut and Senjanovic, Goran",
+     title     = "Seesaw at LHC",
+     year      = "2006",
+     eprint    = "hep-ph/0612029",
+     SLACcitation  = "%%CITATION = HEP-PH/0612029;%%"
+}
+
+@Article{Perez:2007rm,
+     author    = " Fileviez Perez, Pavel",
+     title     = "Renormalizable Adjoint SU(5)",
+     year      = "2007",
+     eprint    = "hep-ph/0702287",
+     SLACcitation  = "%%CITATION = HEP-PH/0702287;%%"
+}
+
+@Article{Fogli:2006xy,
+     author    = "Fogli, Gianluigi L. and Lisi, Eligio and Mirizzi,
+                  Alessandro and Montanino, Daniele",
+     title     = "Damping of supernova neutrino transitions in stochastic
+                  shock-wave  density profiles",
+     journal   = "JCAP",
+     volume    = "0606",
+     year      = "2006",
+     pages     = "012",
+     eprint    = "hep-ph/0603033",
+     SLACcitation  = "%%CITATION = HEP-PH/0603033;%%"
+}
+
+
+@Article{Friedland:2006ta,
+     author    = "Friedland, Alexander and Gruzinov, Andrei",
+     title     = "Neutrino signatures of supernova turbulence",
+     year      = "2006",
+     eprint    = "astro-ph/0607244",
+     SLACcitation  = "%%CITATION = ASTRO-PH/0607244;%%"
+}
+
+@Article{Mirizzi:2006xx,
+     author    = "Mirizzi, Alessandro and Raffelt, G. G. and Serpico, P. D.",
+     title     = "Earth matter effects in supernova neutrinos: Optimal
+                  detector  locations",
+     journal   = "JCAP",
+     volume    = "0605",
+     year      = "2006",
+     pages     = "012",
+     eprint    = "astro-ph/0604300",
+     SLACcitation  = "%%CITATION = ASTRO-PH/0604300;%%"
+}
+
+
+
Index: /Selma/Latex-Ex-JCAP-EPS/campagne.blg
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.blg	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.blg	(revision 464)
@@ -0,0 +1,5 @@
+This is BibTeX, Version 0.99cThe top-level auxiliary file: E:\Presentations\Selma\Latex-Ex-JCAP-EPS\campagne.aux
+The style file: Campagne.bst
+Database file #1: campagne.bib
+Warning--empty title in ISS06
+(There was 1 warning)
Index: /Selma/Latex-Ex-JCAP-EPS/campagne.bst
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.bst	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.bst	(revision 464)
@@ -0,0 +1,1108 @@
+% UT Physics bibliographic style, ver. 1.2. Based on:
+%
+%X     IEEE Transactions bibliography style (29-Jan-88 version)
+%X       numeric labels, order-of-reference, IEEE abbreviations,
+%X       quotes around article titles, commas separate all fields
+%X       except after book titles and before "notes".  Otherwise,
+%X       much like the "plain" family, from which this is adapted.
+%X
+%X       History
+%X       9/30/85	(HWT)	Original version, by Howard Trickey.
+%X       1/29/88	(OP&HWT) Updated for BibTeX version 0.99a, Oren Patashnik;
+%X       THIS `ieeetr' VERSION DOES NOT WORK WITH BIBTEX 0.98i.
+%
+%  Modifications: 1) added hypertex support and "archive" and "eprint" fields.
+%                 2) parentheses around dates, and no "pp." for article entries
+%                 3) "publisher, address" instead of "address: publisher"
+%                 4) added "report" field for article entries.
+%                 5) particle physics-oriented abbreviations, rather than ieee.
+%                 6) added "collaboration" field, as per 
+%                    Jonathan Flynn' suggestion. SPIRES now supports this field.
+%
+%    Modified by Jacques Distler, 7/97
+%           History: ver 1.0  9/96
+%                    ver 1.1 10/96 - added "collaboration" field
+%                    ver 1.2  7/97 - added a "\providecommand{\href}[2]{#2}"
+%                                    to handle case where \href is not defined
+%
+% HyperTeX Wizardry:
+%
+% The following are equivalent:
+%   archive  = "hep-th"
+%   eprint   = "9605023"
+% and
+%   eprint   = "hep-th/9605023"
+% both produce 
+%    \href{http://arXiv.org/abs/hep-th/9605023}{{\tt hep-th/9605023}}
+% in the bibliographic output at the appropriate point. If you are using a
+% hypertex macropackage, like hyperref.sty, this will create a link to Los
+% Alamos. 
+%
+% The bibtex output produced by SPIRES, while far from perfect, is pretty
+% suitable for use with this style. Indeed, this style was designed with
+% SPIRES in mind.
+%
+% modified by jonivar skullerud, october 2001
+% 1) added SLACcitation field (with SPIRES in mind).
+% 2) removed comma before square brackets enclosing eprint number
+% 3) changed xxx.lanl.gov to arXiv.org
+% 4) removed comma before and in author lists
+
+ENTRY
+  { address
+    author
+    booktitle
+    chapter
+    edition
+    editor
+    howpublished
+    institution
+    journal
+    key
+    month
+    note
+    number
+    organization
+    pages
+    publisher
+    school
+    series
+    title
+    type
+    volume
+    year
+    archive
+    eprint
+    report
+    collaboration
+    SLACcitation
+  }
+  {}
+  { label }
+
+INTEGERS { output.state before.all mid.sentence after.quote after.sentence
+		after.quoted.block after.block }
+
+FUNCTION {init.state.consts}
+{ #0 'before.all :=
+  #1 'mid.sentence :=
+  #2 'after.quote :=
+  #3 'after.sentence :=
+  #4 'after.quoted.block :=
+  #5 'after.block :=
+}
+
+STRINGS { s t }
+
+FUNCTION {output.nonnull}
+{ 's :=
+  output.state mid.sentence =
+    { ", " * write$ }
+    { output.state after.quote =
+	{ " " * write$ }
+	{ output.state after.block =
+	    { add.period$ write$
+	      newline$
+	      "\newblock " write$
+	    }
+	    { output.state before.all =
+		'write$
+		{ output.state after.quoted.block =
+		    { write$
+		      newline$
+		      "\newblock " write$
+		    }
+		    { add.period$ " " * write$ }
+		  if$
+		}
+	      if$
+	    }
+	  if$
+	}
+      if$
+      mid.sentence 'output.state :=
+    }
+  if$
+  s
+}
+
+FUNCTION {output}
+{ duplicate$ empty$
+    'pop$
+    'output.nonnull
+  if$
+}
+
+FUNCTION {output.check}
+{ 't :=
+  duplicate$ empty$
+    { pop$ "empty " t * " in " * cite$ * warning$ }
+    'output.nonnull
+  if$
+}
+
+FUNCTION {output.bibitem}
+{ newline$
+  "\bibitem{" write$
+  cite$ write$
+  "}" write$
+  newline$
+  ""
+  before.all 'output.state :=
+}
+
+FUNCTION {blank.sep}
+{ after.quote 'output.state :=
+}
+
+FUNCTION {fin.entry}
+{ output.state after.quoted.block =
+    'skip$
+    'add.period$
+  if$
+  write$
+% modified to add SLACcitation field if present
+SLACcitation empty$
+  'skip$
+  { newline$ SLACcitation write$ }
+  if$
+% end of modification
+  newline$
+}
+
+FUNCTION {new.block}
+{ output.state before.all =
+    'skip$
+    { output.state after.quote =
+	{ after.quoted.block 'output.state := }
+	{ after.block 'output.state := }
+      if$
+    }
+  if$
+}
+
+FUNCTION {new.sentence}
+{ output.state after.block =
+    'skip$
+    { output.state before.all =
+	'skip$
+	{ after.sentence 'output.state := }
+      if$
+    }
+  if$
+}
+
+FUNCTION {not}
+{   { #0 }
+    { #1 }
+  if$
+}
+
+FUNCTION {and}
+{   'skip$
+    { pop$ #0 }
+  if$
+}
+
+FUNCTION {or}
+{   { pop$ #1 }
+    'skip$
+  if$
+}
+
+FUNCTION {new.block.checka}
+{ empty$
+    'skip$
+    'new.block
+  if$
+}
+
+FUNCTION {new.block.checkb}
+{ empty$
+  swap$ empty$
+  and
+    'skip$
+    'new.block
+  if$
+}
+
+FUNCTION {new.sentence.checka}
+{ empty$
+    'skip$
+    'new.sentence
+  if$
+}
+
+FUNCTION {field.or.null}
+{ duplicate$ empty$
+    { pop$ "" }
+    'skip$
+  if$
+}
+
+FUNCTION {emphasize}
+{ duplicate$ empty$
+    { pop$ "" }
+    { "{\em " swap$ * "}" * }
+  if$
+}
+
+INTEGERS { nameptr namesleft numnames }
+
+FUNCTION {format.names}
+{ 's :=
+  #1 'nameptr :=
+  s num.names$ 'numnames :=
+  numnames 'namesleft :=
+    { namesleft #0 > }
+    { s nameptr "{f.~}{vv~}{ll}{, jj}" format.name$ 't :=
+      nameptr #1 >
+	{ namesleft #1 >
+	    { ", " * t * }
+	    {
+%	      numnames #2 >
+%		{ "," * }
+%		'skip$
+%	      if$
+	      t "others" =
+		{ " {\em et.~al.}" * }
+		{ " and " * t * }
+	      if$
+	    }
+	  if$
+	}
+	't
+      if$
+      nameptr #1 + 'nameptr :=
+      namesleft #1 - 'namesleft :=
+    }
+  while$
+}
+
+FUNCTION {format.authors}
+{ author empty$
+    { "" }
+    { author format.names }
+  if$
+}
+
+FUNCTION {format.eprint}
+{ eprint empty$
+     { ""}
+     { archive empty$
+          {"\href{http://arXiv.org/abs/" eprint * "}" * 
+             "{{\tt " * eprint * "}}" *}
+          {"\href{http://arXiv.org/abs/" archive *  "/" * eprint * "}" * 
+             "{{\tt " * archive * "/" * eprint * "}}" *}
+       if$
+     }
+     if$
+}
+
+FUNCTION {format.eprint.paren}
+{ eprint missing$ { "" } { eprint empty$ { "" } 
+					 {"[" format.eprint * "]" *} 
+    			   if$ 
+			  } 
+  if$
+}
+
+
+
+FUNCTION {format.report}
+{ report empty$
+     { ""}
+     { report}
+     if$
+}
+
+
+
+FUNCTION {format.editors}
+{ editor empty$
+    { "" }
+    { editor format.names
+      editor num.names$ #1 >
+	{ ", eds." * }
+	{ ", ed." * }
+      if$
+    }
+  if$
+}
+
+%%FUNCTION {format.title}
+%%{ title empty$
+%%    { "" }
+%%    { "{\it " title "t" change.case$ * "}, " * }
+%%  if$
+%%}
+%%
+%%
+%%FUNCTION {format.title.p}
+%%{ title empty$
+%%    { "" }
+%%    { "``" title "t" change.case$ * ".''" * }
+%%  if$
+%%}
+
+
+FUNCTION {format.title}
+{ title empty$
+    { "" }
+    { "``" title * "''" * }
+  if$
+}
+
+FUNCTION {format.title.p}
+{ title empty$
+    { "" }
+    { "``" title * "''" * }
+  if$
+}
+
+FUNCTION {n.dashify}
+{ 't :=
+  ""
+    { t empty$ not }
+    { t #1 #1 substring$ "-" =
+	{ t #1 #2 substring$ "--" = not
+	    { "--" *
+	      t #2 global.max$ substring$ 't :=
+	    }
+	    {   { t #1 #1 substring$ "-" = }
+		{ "-" *
+		  t #2 global.max$ substring$ 't :=
+		}
+	      while$
+	    }
+	  if$
+	}
+	{ t #1 #1 substring$ *
+	  t #2 global.max$ substring$ 't :=
+	}
+      if$
+    }
+  while$
+}
+
+FUNCTION {format.date}
+{ year empty$
+    { month empty$
+	{ "" }
+	{ "there's a month but no year in " cite$ * warning$
+	  month
+	}
+      if$
+    }
+    { month empty$
+	'year
+	{ month ", " * year * }
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.date.paren}
+{ year empty$
+    { month empty$
+	{ "" }
+	{ "there's a month but no year in " cite$ * warning$
+	  month
+	}
+      if$
+    }
+    { month empty$
+	{"(" year * ")" *}
+	{"(" month * ", " * year * ")" *}
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.collaboration}
+{ collaboration empty$
+    { "" }
+    { "{\bf " collaboration * "} " * "Collaboration" * }
+  if$
+}
+
+
+FUNCTION {format.btitle}
+{ title emphasize
+}
+
+FUNCTION {tie.or.space.connect}
+{ duplicate$ text.length$ #3 <
+    { "~" }
+    { " " }
+  if$
+  swap$ * *
+}
+
+FUNCTION {either.or.check}
+{ empty$
+    'pop$
+    { "can't use both " swap$ * " fields in " * cite$ * warning$ }
+  if$
+}
+
+FUNCTION {format.bvolume}
+{ volume empty$
+    { "" }
+    { "vol.~" volume *
+      series empty$
+	'skip$
+	{ " of " * series emphasize * }
+      if$
+      "volume and number" number either.or.check
+    }
+  if$
+}
+
+FUNCTION {format.number.series}
+{ volume empty$
+    { number empty$
+	{ series field.or.null }
+	{ output.state mid.sentence =
+	    { "no.~" }
+	    { "No.~" }
+	  if$
+	  number *
+	  series empty$
+	    { "there's a number but no series in " cite$ * warning$ }
+	    { " in " * series * }
+	  if$
+	}
+      if$
+    }
+    { "" }
+  if$
+}
+
+FUNCTION {format.edition}
+{ edition empty$
+    { "" }
+    { edition "l" change.case$ "~ed." * }
+  if$
+}
+
+INTEGERS { multiresult }
+
+FUNCTION {multi.page.check}
+{ 't :=
+  #0 'multiresult :=
+    { multiresult not
+      t empty$ not
+      and
+    }
+    { t #1 #1 substring$
+      duplicate$ "-" =
+      swap$ duplicate$ "," =
+      swap$ "+" =
+      or or
+	{ #1 'multiresult := }
+	{ t #2 global.max$ substring$ 't := }
+      if$
+    }
+  while$
+  multiresult
+}
+
+FUNCTION {format.pages}
+{ pages empty$
+    { "" }
+    { pages multi.page.check
+	{ "pp.~" pages n.dashify * }
+	{ "p.~" pages * }
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.pages.nopp}
+{ pages empty$
+    { "" }
+    { pages multi.page.check
+	{ pages n.dashify  }
+	{ pages }
+      if$
+    }
+  if$
+}
+
+
+FUNCTION {format.volume}
+{ volume empty$
+    { "" }
+    { "{\bf " volume * "}" * }
+  if$
+}
+
+FUNCTION {format.number}
+{ number empty$
+    { "" }
+    { "no.~" number * }
+  if$
+}
+
+FUNCTION {format.chapter.pages}
+{ chapter empty$
+    'format.pages
+    { type empty$
+	{ "ch.~" chapter * }
+	{ type "l" change.case$ chapter tie.or.space.connect }
+      if$
+      pages empty$
+	'skip$
+	{ ", " * format.pages * }
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.in.ed.booktitle}
+{ booktitle empty$
+    { "" }
+    { "in " booktitle emphasize *
+      editor empty$
+	'skip$
+	{ " (" * format.editors * ")" * }
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.thesis.type}
+{ type empty$
+    'skip$
+    { pop$
+      output.state after.block =
+	{ type "t" change.case$ }
+	{ type "l" change.case$ }
+      if$
+    }
+  if$
+}
+
+FUNCTION {empty.misc.check}
+{ author empty$ title empty$ howpublished empty$
+  month empty$ year empty$ note empty$
+  and and and and and
+    { "all relevant fields are empty in " cite$ * warning$ }
+    'skip$
+  if$
+}
+
+FUNCTION {format.tr.number}
+{ type empty$
+    { "Tech. Rep." }
+    'type
+  if$
+  number empty$
+    { "l" change.case$ }
+    { number tie.or.space.connect }
+  if$
+}
+
+FUNCTION {format.paddress}
+{ address empty$
+    { "" }
+    { "(" address * ")" * }
+  if$
+}
+
+FUNCTION {format.article.crossref}
+{ key empty$
+    { journal empty$
+	{ "need key or journal for " cite$ * " to crossref " * crossref *
+	  warning$
+	  ""
+	}
+	{ "in {\em " journal * "\/}" * }
+      if$
+    }
+    { "in " key * }
+  if$
+  " \cite{" * crossref * "}" *
+}
+
+FUNCTION {format.crossref.editor}
+{ editor #1 "{vv~}{ll}" format.name$
+  editor num.names$ duplicate$
+  #2 >
+    { pop$ " {\em et.~al.}" * }
+    { #2 <
+	'skip$
+	{ editor #2 "{ff }{vv }{ll}{ jj}" format.name$ "others" =
+	    { " {\em et.~al.}" * }
+	    { " and " * editor #2 "{vv~}{ll}" format.name$ * }
+	  if$
+	}
+      if$
+    }
+  if$
+}
+
+FUNCTION {format.book.crossref}
+{ volume empty$
+    { "empty volume in " cite$ * "'s crossref of " * crossref * warning$
+      "In "
+    }
+    { "Vol.~" volume *
+      " of " *
+    }
+  if$
+  editor empty$
+  editor field.or.null author field.or.null =
+  or
+    { key empty$
+	{ series empty$
+	    { "need editor, key, or series for " cite$ * " to crossref " *
+	      crossref * warning$
+	      "" *
+	    }
+	    { "{\em " * series * "\/}" * }
+	  if$
+	}
+	{ key * }
+      if$
+    }
+    { format.crossref.editor * }
+  if$
+  " \cite{" * crossref * "}" *
+}
+
+FUNCTION {format.incoll.inproc.crossref}
+{ editor empty$
+  editor field.or.null author field.or.null =
+  or
+    { key empty$
+	{ booktitle empty$
+	    { "need editor, key, or booktitle for " cite$ * " to crossref " *
+	      crossref * warning$
+	      ""
+	    }
+	    { "in {\em " booktitle * "\/}" * }
+	  if$
+	}
+	{ "in " key * }
+      if$
+    }
+    { "in " format.crossref.editor * }
+  if$
+  " \cite{" * crossref * "}" *
+}
+
+FUNCTION {article}
+{ output.bibitem
+  format.collaboration output
+  format.authors "author" output.check
+  format.title "title" output.check
+  blank.sep
+  crossref missing$
+  { journal missing$
+    { format.eprint output }
+    { journal empty$ { format.eprint output } {
+      journal emphasize "journal" output.check
+      blank.sep
+      format.volume output
+      blank.sep
+      format.date.paren "year" output.check
+      month empty$ { format.number output }
+        		  'skip$ if$ 
+      blank.sep
+      format.pages.nopp output }
+      if$
+      }
+    if$
+    report missing$
+            { journal empty$ {} { blank.sep format.eprint.paren output} if$ }
+            {blank.sep format.report output format.eprint.paren output}
+            if$
+    }
+    { format.article.crossref output.nonnull
+      format.pages output
+      format.eprint.paren output
+    }
+  if$
+  new.sentence
+  note output
+  fin.entry
+}
+
+FUNCTION {book}
+{ output.bibitem
+  format.collaboration output
+  author empty$
+    { format.editors "author and editor" output.check }
+    { format.authors output.nonnull
+      crossref missing$
+	{ "author and editor" editor either.or.check }
+	'skip$
+      if$
+    }
+  if$
+  format.btitle "title" output.check
+  crossref missing$
+    { format.bvolume output
+      new.block
+      format.number.series output
+      new.sentence
+      publisher "publisher" output.check
+      address output
+    }
+    { new.block
+      format.book.crossref output.nonnull
+    }
+  if$
+  format.edition output
+  format.date "year" output.check
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {booklet}
+{ output.bibitem
+  format.collaboration output
+  format.authors output
+  title empty$
+    { "empty title in " cite$ * warning$
+      howpublished new.sentence.checka
+    }
+    { howpublished empty$ not
+      address empty$ month empty$ year empty$ and and
+      or
+	{ format.title.p output.nonnull }
+	{ format.title output.nonnull }
+      if$
+      blank.sep
+    }
+  if$
+  howpublished output
+  address output
+  format.date output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {inbook}
+{ output.bibitem
+  format.collaboration output
+  author empty$
+    { format.editors "author and editor" output.check }
+    { format.authors output.nonnull
+      crossref missing$
+	{ "author and editor" editor either.or.check }
+	'skip$
+      if$
+    }
+  if$
+  format.btitle "title" output.check
+  crossref missing$
+    { format.bvolume output
+      format.chapter.pages "chapter and pages" output.check
+      new.block
+      format.number.series output
+      new.block
+      publisher "publisher" output.check
+      address output
+    }
+    { format.chapter.pages "chapter and pages" output.check
+      new.block
+      format.book.crossref output.nonnull
+    }
+  if$
+  format.edition output
+  format.date "year" output.check
+  new.block
+  format.eprint output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {incollection}
+{ output.bibitem
+  format.collaboration output
+  format.authors "author" output.check
+  format.title "title" output.check
+  blank.sep
+  crossref missing$
+    { format.in.ed.booktitle "booktitle" output.check
+      format.bvolume output
+      format.number.series output
+      format.chapter.pages output
+      new.block
+      publisher "publisher" output.check
+      address output
+      format.edition output
+      format.date "year" output.check
+    }
+    { format.incoll.inproc.crossref output.nonnull
+      format.chapter.pages output
+    }
+  if$
+  new.block
+  format.eprint output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {inproceedings}
+{ output.bibitem
+  format.collaboration output
+  format.authors "author" output.check
+  format.title "title" output.check
+  blank.sep
+  crossref missing$
+    { format.in.ed.booktitle "booktitle" output.check
+      format.bvolume output
+      format.number.series output
+      format.paddress output
+      format.pages output
+      organization output
+      publisher output
+      format.date "year" output.check
+    }
+    { format.incoll.inproc.crossref output.nonnull
+      format.pages output
+    }
+  if$
+  new.block
+  format.eprint output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {conference} { inproceedings }
+
+FUNCTION {manual}
+{ output.bibitem
+  format.collaboration output
+  author empty$
+    { organization empty$
+	'skip$
+	{ organization output.nonnull
+	  address output
+	}
+      if$
+    }
+    { format.authors output.nonnull }
+  if$
+  format.btitle "title" output.check
+  author empty$
+    { organization empty$
+	{ address new.block.checka
+	  address output
+	}
+	'skip$
+      if$
+    }
+    { organization address new.block.checkb
+      organization output
+      address output
+    }
+  if$
+  format.edition output
+  format.date output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {mastersthesis}
+{ output.bibitem
+  format.authors "author" output.check
+  format.title "title" output.check
+  blank.sep
+  "Master's thesis" format.thesis.type output.nonnull
+  school "school" output.check
+  address output
+  format.date "year" output.check
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {misc}
+{ output.bibitem
+  format.collaboration output
+  format.authors output
+  title empty$
+    { howpublished new.sentence.checka }
+    { howpublished empty$ not
+      month empty$ year empty$ and
+      or
+	{ format.title.p output.nonnull }
+	{ format.title output.nonnull }
+      if$
+      blank.sep
+    }
+  if$
+  howpublished output
+  format.date output
+  new.block
+  note output
+  fin.entry
+  empty.misc.check
+}
+
+FUNCTION {phdthesis}
+{ output.bibitem
+  format.authors "author" output.check
+  format.btitle "title" output.check
+  new.block
+  "PhD thesis" format.thesis.type output.nonnull
+  school "school" output.check
+  address output
+  format.date "year" output.check
+  new.block
+  format.eprint output
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {proceedings}
+{ output.bibitem
+  editor empty$
+    { organization output }
+    { format.editors output.nonnull }
+  if$
+  format.btitle "title" output.check
+  format.bvolume output
+  format.number.series output
+  format.paddress output
+  editor empty$
+    'skip$
+    { organization output }
+  if$
+  publisher output
+  format.date "year" output.check
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {techreport}
+{ output.bibitem
+  format.collaboration output
+  format.authors "author" output.check
+  format.title "title" output.check
+  blank.sep
+  format.tr.number output.nonnull
+  institution "institution" output.check
+  address output
+  format.date "year" output.check
+  new.block
+  note output
+  fin.entry
+}
+
+FUNCTION {unpublished}
+{ output.bibitem
+  format.collaboration output
+  format.authors "author" output.check
+  format.title.p "title" output.check
+  blank.sep
+  note "note" output.check
+  format.date output
+  fin.entry
+}
+
+FUNCTION {default.type} { misc }
+
+MACRO {jan} {"Jan."}
+
+MACRO {feb} {"Feb."}
+
+MACRO {mar} {"Mar."}
+
+MACRO {apr} {"Apr."}
+
+MACRO {may} {"May"}
+
+MACRO {jun} {"June"}
+
+MACRO {jul} {"July"}
+
+MACRO {aug} {"Aug."}
+
+MACRO {sep} {"Sept."}
+
+MACRO {oct} {"Oct."}
+
+MACRO {nov} {"Nov."}
+
+MACRO {dec} {"Dec."}
+
+MACRO {nup} {"Nucl. Phys."}
+
+MACRO {cmp} {"Comm. Math. Phys."}
+
+MACRO {prl} {"Phys. Rev. Lett."}
+
+MACRO {pl} {"Phys. Lett."}
+
+MACRO {rmp} {"Rev. Mod. Phys."}
+
+MACRO {ijmp} {"Int. Jour. Mod. Phys."}
+
+MACRO {mpl} {"Mod. Phys. Lett."}
+
+MACRO {pr} {"Phys. Rev."}
+
+READ
+
+STRINGS { longest.label }
+
+INTEGERS { number.label longest.label.width }
+
+FUNCTION {initialize.longest.label}
+{ "" 'longest.label :=
+  #1 'number.label :=
+  #0 'longest.label.width :=
+}
+
+FUNCTION {longest.label.pass}
+{ number.label int.to.str$ 'label :=
+  number.label #1 + 'number.label :=
+  label width$ longest.label.width >
+    { label 'longest.label :=
+      label width$ 'longest.label.width :=
+    }
+    'skip$
+  if$
+}
+
+EXECUTE {initialize.longest.label}
+
+ITERATE {longest.label.pass}
+
+FUNCTION {begin.bib}
+{ preamble$ empty$
+    'skip$
+    { preamble$ write$ newline$ }
+  if$
+  "\providecommand{\href}[2]{#2}"
+  "\begingroup\raggedright\begin{thebibliography}{" * longest.label  * 
+  "}" * write$ newline$ }
+
+EXECUTE {begin.bib}
+
+EXECUTE {init.state.consts}
+
+ITERATE {call.type$}
+
+FUNCTION {end.bib}
+{ newline$
+  "\end{thebibliography}\endgroup" write$ newline$
+}
+
+EXECUTE {end.bib}
+
+
Index: /Selma/Latex-Ex-JCAP-EPS/campagne.log
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/campagne.log	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/campagne.log	(revision 464)
@@ -0,0 +1,258 @@
+This is pdfTeX, Version 3.1415926-1.40.9 (MiKTeX 2.7) (preloaded format=latex 2009.3.17)  9 JUN 2009 13:27
+entering extended mode
+**campagne.tex
+(campagne.tex
+LaTeX2e <2005/12/01>
+Babel <v3.8l> and hyphenation patterns for english, dumylang, nohyphenation, german, ngerman, german-x-2008-06-18, ngerm
+an-x-2008-06-18, french, loaded.
+(iopart.cls
+Document Class: iopart 1996/06/10 v0.0 IOP Journals LaTeX article class
+(iopart10.clo
+File: iopart10.clo 1997/01/13 v1.0 IOP Book file (size option)
+)
+\c@jnl=\count79
+\c@section=\count80
+\c@subsection=\count81
+\c@subsubsection=\count82
+\c@paragraph=\count83
+\c@subparagraph=\count84
+\c@figure=\count85
+\c@table=\count86
+\abovecaptionskip=\skip41
+\belowcaptionskip=\skip42
+\indentedwidth=\skip43
+\mathindent=\dimen102
+\c@eqnval=\count87
+) (iopams.sty
+Package: iopams 1997/02/13 v1.0
+ ("E:\Program Files\MiKTeX 2.7\tex\latex\amsmath\amsgen.sty"
+File: amsgen.sty 1999/11/30 v2.0
+\@emptytoks=\toks14
+\ex@=\dimen103
+)
+("E:\Program Files\MiKTeX 2.7\tex\latex\amsfonts\amsfonts.sty"
+Package: amsfonts 2001/10/25 v2.2f
+\symAMSa=\mathgroup4
+\symAMSb=\mathgroup5
+LaTeX Font Info:    Overwriting math alphabet `\mathfrak' in version `bold'
+(Font)                  U/euf/m/n --> U/euf/b/n on input line 132.
+)
+("E:\Program Files\MiKTeX 2.7\tex\latex\amsfonts\amssymb.sty"
+Package: amssymb 2002/01/22 v2.2d
+) ("E:\Program Files\MiKTeX 2.7\tex\latex\amsmath\amsbsy.sty"
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+
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+Package: keyval 1999/03/16 v1.13 key=value parser (DPC)
+\KV@toks@=\toks15
+)
+("E:\Program Files\MiKTeX 2.7\tex\latex\graphics\graphics.sty"
+Package: graphics 2006/02/20 v1.0o Standard LaTeX Graphics (DPC,SPQR)
+ ("E:\Program Files\MiKTeX 2.7\tex\latex\graphics\trig.sty"
+Package: trig 1999/03/16 v1.09 sin cos tan (DPC)
+) ("E:\Program Files\MiKTeX 2.7\tex\latex\00miktex\graphics.cfg"
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+)
+Package graphics Info: Driver file: dvips.def on input line 90.
+
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+File: dvips.def 1999/02/16 v3.0i Driver-dependant file (DPC,SPQR)
+))
+\Gin@req@height=\dimen105
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+) ("E:\Program Files\MiKTeX 2.7\tex\latex\base\fontenc.sty"
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+++ /Selma/Latex-Ex-JCAP-EPS/campagne.tex	(revision 464)
@@ -0,0 +1,2372 @@
+\documentclass[a4paper]{iopart}
+\usepackage{iopams}
+\usepackage{graphicx}
+\usepackage[T1]{fontenc}
+\usepackage{eurosym}
+\usepackage{rotating}
+\usepackage[dvips]{color}
+
+%used explicitly in the text
+\newcommand{\be}{\begin{equation}}
+\newcommand{\ee}{\end{equation}}
+\newcommand{\delCP}{\ensuremath{\delta_{\rm CP}}}
+\newcommand{\nubarmu}{\ensuremath{\bar{\nu}_{\mu}}}
+\newcommand{\stheta}{\sin^22\theta_{13}}
+\newcommand{\thetaot}{\ensuremath{\theta_{13}}\,}
+\newcommand{\nue}{\ensuremath{\nu_{e}}}
+\newcommand{\nubare}{\ensuremath{\bar{\nu}_{e}}}
+\newcommand{\He}{\ensuremath{^6{\mathrm{He}\,}}}
+\newcommand{\Ne}{\ensuremath{^{18}{\mathrm{Ne}\,}}}
+\newcommand{\numu}{\ensuremath{\nu_{\mu}}}
+\newcommand{\anue}{\overline{{\mathrm\nu}}_{\mathrm e}}
+\newcommand{\anumu}{\overline{{\mathrm\nu}}_{\mathrm \mu}}
+\newcommand{\REDBLA}[1]{\color{red}#1\color{black}}
+\newcommand{\nunubar}[1]{\mbox{\raisebox{0ex}{$\stackrel{\scriptscriptstyle (-)}{\displaystyle \nu_#1}$}}}
+\newcommand{\WC}{water Cherenkov}
+\newcommand{\degree}    {^{\circ}}
+\newcommand{\flux}{\mbox{$ \mathrm{cm}^{-2}~\mathrm{s}^{-1}$}}
+\newcommand{\BB}{$\beta$B}
+\newcommand{\refTab}[1]{Tab.~\ref{#1}}
+\newcommand{\refFig}[1]{Fig.~\ref{#1}}
+\newcommand{\refSec}[1]{Sec.~\ref{#1}}
+
+
+
+\begin{document}
+%use BST file provided by SPIRES for JHEP and modify it to forbid "to lower case" title
+\bibliographystyle{Campagne}
+
+\title[Large underground, liquid based detectors for astro-particle physics in Europe]{Large underground, liquid based detectors for astro-particle physics in Europe: scientific case and prospects}
+%
+\author{
+D~Autiero~$^1$,
+J~\"Ayst\"o~$^2$,
+A~Badertscher~$^3$,
+L~Bezrukov~$^4$,
+J~Bouchez~$^5$,
+A~Bueno~$^6$,
+J~Busto~$^7$,
+J-E~Campagne~$^8$,
+Ch~Cavata~$^9$,
+L~Chaussard~$^1$,
+A~de~Bellefon~$^{10}$,
+Y~Déclais~$^1$, 
+J~Dumarchez~$^{11}$,
+J~Ebert~$^{12}$,
+T~Enqvist~$^{13}$,
+A~Ereditato~$^{14}$,
+F~von~Feilitzsch~$^{15}$,
+P~Fileviez~Perez~$^{16}$,
+M~G\"oger-Neff~$^{17}$,
+S~Gninenko~$^4$,
+W~Gruber~$^3$,
+C~Hagner~$^{12}$,
+M~Hess~$^{14}$,
+K~A~Hochmuth~$^{17}$,
+J~Kisiel~$^{18}$,
+L~Knecht~$^3$,	
+I~Kreslo~$^{14}$,
+V~A~Kudryavtsev~$^{19}$,
+P~Kuusiniemi~$^{13}$,
+T~Lachenmaier~$^{15}$,
+M~Laffranchi~$^3$,
+B~Lefievre~$^{10}$,
+P~K~Lightfoot~$^{19}$,
+M~Lindner~$^{20}$,
+J~Maalampi~$^2$,
+M~Maltoni~$^{21}$,
+A~Marchionni~$^3$,
+T~Marrodán~Undagoitia~$^{15}$,
+J~Marteau~$^1$,
+A~Meregaglia~$^3$,
+M~Messina~$^{14}$,
+M~Mezzetto~$^{22}$,
+A~Mirizzi~$^{17,23}$,
+L~Mosca~$^9$,
+U~Moser~$^{14}$,
+A~Müller~$^3$,
+G~Natterer~$^3$,
+L~Oberauer~$^{15}$,
+P~Otiougova~$^3$,
+T~Patzak~$^{10}$,
+J~Peltoniemi~$^{13}$,
+W~Potzel~$^{15}$,
+C~Pistillo~$^{14}$,
+G~G~Raffelt~$^{17}$,
+E~Rondio~$^{24}$,
+M~Roos~$^{25}$,
+B~Rossi~$^{14}$,
+A~Rubbia~$^3$,
+N~Savvinov~$^{14}$,
+T~Schwetz~$^{26}$,
+J~Sobczyk~$^{27}$,
+N~J~C~Spooner~$^{19}$,
+D~Stefan~$^{28}$,
+A~Tonazzo~$^{10}$,
+W~Trzaska~$^2$,
+J~Ulbricht~$^3$,
+C~Volpe~$^{29}$,
+J~Winter~$^{15}$,
+M~Wurm~$^{15}$,
+A~Zalewska~$^{28}$
+and
+R~Zimmermann~$^{12}$
+}
+\address{$^1$ IPNL, Université Claude Bernard Lyon 1, CNRS/IN2P3, 69622 Villeurbanne, France}
+\address{$^2$ Department of Physics, University of Jyv\"askyl\"a, Finland}
+\address{$^3$ Institut f\"{u}r Teilchenphysik,  ETHZ, Z\"{u}rich, Switzerland}
+\address{$^4$ Institute for Nuclear Research, Russian Academy of Sciences, Moscow, Russia}
+\address{$^5$ CEA - Saclay, Gif sur Yvette and APC Paris, France}
+\address{$^6$ Dpto Fisica Teorica y del Cosmos \& C.A.F.P.E., Universidad de Granada, Spain}
+\address{$^7$ Centre de Physique des Particules de Marseille (CPPM), IN2P3-CNRS et Université d'Aix-Marseille II, Marseille, France}
+\address{$^8$ LAL, Université Paris-Sud, IN2P3/CNRS, Orsay, France}
+\address{$^9$ CEA - Saclay, Gif sur Yvette, France}
+\address{$^{10}$ Astroparticule et Cosmologie (APC), CNRS, Université Paris VII, CEA, Observatoire de Paris, Paris, France}
+\address{$^{11}$ Laboratoire de Physique Nucléaire et des Hautes Energies (LPNHE), IN2P3-CNRS et Universités Paris VI et Paris VII, Paris, France}
+\address{$^{12}$ Universität Hamburg, Institut für Experimentalphysik, Hamburg, Germany}
+\address{$^{13}$ CUPP, University of Oulu, Finland}
+\address{$^{14}$ Laboratorium f\"{u}r  Hochenergie Physik, Bern Universit\"at, Bern, Switzerland}
+\address{$^{15}$ Technische Universit\"at M\"unchen, Physik-Department E15, Garching, Germany}
+\address{$^{16}$ Centro de Fisica Teorica de Particulas, Instituto Superior Tecnico, Departamento de Fisica, Lisboa, Portugal}
+\address{$^{17}$ Max-Planck-Institut f\"ur Physik (Werner-Heisenberg-Institut), M\"unchen, Germany}
+\address{$^{18}$ Institute of Physics, University of Silesia, Katowice, Poland}
+\address{$^{19}$ Department of Physics and Astronomy, University of Sheffield, Sheffield, United Kingdom}
+\address{$^{20}$ Max-Planck-Institut fuer Kernphysik, Heidelberg, Germany}
+\address{$^{21}$ Departamento de F\'{\i}sica Te\'orica \& Instituto de F\'{\i}sica
+Te\'orica, Facultad de Ciencias C-XI, Universidad Aut\'onoma de Madrid, Cantoblanco, Madrid, Spain}
+\address{$^{22}$ INFN Sezione di Padova, Padova, Italy}
+\address{$^{23}$ INFN Sezione di Bari and Dipartimento di Fisica, Università di Bari, Bari, Italy}
+\address{$^{24}$ A. Soltan Institute for Nuclear Studies, Warsaw, Poland}
+\address{$^{25}$ Department of Physical Sciences, University of Helsinki, Finland}
+\address{$^{26}$ CERN, Physics Department, Theory Division, Geneva, Switzerland}
+\address{$^{27}$ Institute of Theoretical Physics, Wroclaw University, Wroclaw, Poland}
+\address{$^{28}$ H. Niewodniczanski Institute of Nuclear Physics, Krakow, Poland}
+\address{$^{29}$ Institut de Physique Nucleaire d'Orsay (IPNO), Groupe de Physique Theorique, Université de Paris-Sud XI, Orsay, France}
+\ead{campagne@lal.in2p3.fr}
+
+
+%\date{\today}
+
+\begin{abstract}
+
+This document reports on a series of experimental and theoretical studies conducted to 
+assess the astro-particle physics potential of three future large-scale particle detectors 
+proposed in Europe as next generation underground observatories. 
+The proposed apparatus employ three different and, to some extent, complementary detection techniques: 
+GLACIER (liquid Argon TPC), LENA (liquid scintillator) and MEMPHYS (\WC), based on the use of large mass of liquids
+as active detection media.
+The results of these studies are presented along with a critical discussion of the performance attainable by the three proposed 
+approaches coupled to existing or planned underground laboratories, 
+in relation to open and outstanding physics issues such as the search for matter instability, the detection
+of astrophysical- and geo-neutrinos and to the possible use of these detectors in future high-intensity
+neutrino beams.\\
+
+\noindent{\bf Keywords \/ }:
+neutrino detectors, 
+neutrino experiments, 
+neutrino properties, 
+solar and atmospheric neutrinos, 
+supernova neutrinos,
+proton decay,
+wimp 
+\end{abstract}
+
+\pacs{13.30.a,14.20.Dh,14.60.Pq,26.65.t+,29.40.Gx,29.40.Ka,29.40.Mc,95.55.Vj,95.85.Ry, 
+97.60.Bw}
+
+\submitto{Journal of Cosmology and Astroparticle Physics}
+
+
+\maketitle
+
+\section{Physics motivation}
+\label{sec:Phys-Intro}
+
+Several outstanding physics goals could be achieved by the next generation of large underground observatories
+in the domain of astro-particle and particle physics, neutrino astronomy and cosmology.
+Proton decay \cite{Pati:1973rp}, in particular, is one of the most exciting prediction of Grand Unified Theories 
+(for a review see \cite{Nath:2006ut}) aiming at the 
+unification of fundamental forces in Nature. It remains today one of the most relevant open questions
+of particle physics. Its discovery would certainly represent a fundamental milestone, contributing to clarifying our
+understanding of the past and future evolution of the Universe.  
+
+Several experiments have been built and conducted to search for proton decay but they only yielded lower limits to the proton lifetime. 
+The window between the predicted proton lifetime (in the simplest models typically below $10^{37} $ years) and that excluded 
+ by experiments \cite{Kobayashi:2005pe}
+($O$($10^{33}$) years, depending on the channel) is within reach, 
+and the demand to fill the gap grows with the progress in other domains of particle physics, astro-particle physics and cosmology. 
+To some extent, also a negative result from next generation high-sensitivity experiments
+would be relevant to rule-out some of the
+theoretical models based on SU(5) and SO(10) gauge symmetry or to further constrain the range of allowed parameters.
+Identifying unambiguously proton decay and measuring its lifetime would set a firm scale for any Unified Theory, narrowing
+the phase space for possible models and their parameters. This will be a mandatory step to go forward 
+beyond the Standard Model of elementary particles and interactions.
+
+Another important physics subject is the physics of 
+%natural (A. Mirizzi 15may07)
+astrophysical
+neutrinos, as those from supernovae, from the Sun and from the interaction of primary cosmic-rays with the Earth's atmosphere. Neutrinos are above all important messengers from stars. 
+Neutrino astronomy has a glorious although recent history, from the detection of solar neutrinos 
+ \cite{Davis:1968cp,Hirata:1989zj,Anselmann:1992um,Abdurashitov:1994bc,Smy:2002rz,Aharmim:2005gt,Altmann:2005ix} 
+to the observation of neutrinos from supernova explosion, \cite{Hirata:1987hu,Bionta:1987qt,Alekseev:1988gp},
+acknowledged by the Nobel Prizes awarded to M. Koshiba and R. Davis.
+These observations have given valuable information for a better understanding of the functioning
+of stars and of the properties of neutrinos. However, much more information could be obtained if the energy spectra of
+stellar neutrinos were known with higher accuracy.
+Specific neutrino observations could give detailed information on the conditions of the production zone, 
+whether in the Sun or in a supernova. 
+A supernova explosion in our galaxy would be extremely important as the evolution mechanism of the collapsed star 
+is still a puzzle for astrophysics.
+An even more fascinating challenge would be observing neutrinos from extragalactic supernovae, either from identified sources 
+or from a diffuse flux due to unidentified past supernova explosions.
+
+Observing neutrinos produced in the atmosphere as cosmic-ray secondaries
+\cite{Aglietta:1988be,Hirata:1988uy,Hirata:1992ku,Becker-Szendy:1992hq,Daum:1994bf,Allison:1999ms,Ashie:2005ik} 
+gave the first compelling evidence
+for neutrino oscillation \cite{Fukuda:1998mi,Kajita:2006cy}, a process that unambiguously points to the existence of new physics. 
+While today the puzzle of missing atmospheric neutrinos can be considered solved, 
+there remain challenges related to the sub-dominant oscillation phenomena. In particular, precise measurements of
+atmospheric neutrinos with high statistics and small systematic errors \cite{TabarellideFatis:2002ni}
+would help in resolving ambiguities and degeneracies that hamper the interpretation 
+of other experiments, as those planned for future long baseline neutrino oscillation measurements.
+
+Another example of outstanding open questions is that of the knowledge of the interior of the Earth.  
+It may look hard to believe, but we know much better what happens inside the Sun than inside our own planet. 
+There are very few messengers that can provide information, while a mere theory is not sufficient for building a credible model for the Earth. However, there is a new unexploited window to the Earth's interior,
+by observing neutrinos produced in the radioactive decays of heavy elements in the matter. Until now, only the KamLAND 
+experiment  \cite{Araki:2005qa} has been able to study these so-called geo-neutrinos opening the way to a completely new
+field of research.  The small event rate, however,  does not allow to draw significant conclusions. 
+
+The fascinating physics phenomena outlined above, in addition to other important subjects that we will address in the following,
+could be investigated by a new generation of multipurpose 
+experiments based on improved detection techniques. 
+The envisioned detectors must necessarily be very massive (and consequently large) 
+due to the smallness of the cross-sections and to the low rate of signal events,
+and able to provide very low experimental background. 
+The required signal to noise ratio can only be achieved in underground laboratories suitably shielded against cosmic-rays
+and environmental radioactivity.
+We can identify three different and, to large extent, complementary technologies capable to meet the challenge, based
+on large scale use of liquids for building large-size, volume-instrumented detectors
+
+\begin{itemize}
+\item Water Cherenkov.
+As the cheapest available (active) target material, water is the only liquid that is realistic for extremely large detectors, 
+up to several hundreds or thousands of ktons; \WC\ detectors have sufficiently good resolution in energy, 
+position and angle. The technology is well proven, as previously used for the IMB, Kamiokande and Super-Kamiokande
+experiments.
+
+\item Liquid scintillator.
+Experiments using a liquid scintillator as active target
+provide high-energy resolution and offer low-energy threshold.  They are
+particularly attractive for low energy particle detection, as for example solar
+neutrinos and geo-neutrinos.  Also liquid scintillator detectors feature a well established technology, 
+already successfully applied at relatively large scale to the Borexino
+\cite{Back:2004zn} and KamLAND \cite{Araki:2004mb} experiments. 
+
+
+\item Liquid Argon Time Projection Chambers (LAr TPC).
+This detection technology has among the three the best performance in identifying the topology of
+interactions and decays of particles, thanks to the bubble-chamber-like imaging performance. 
+Liquid Argon TPCs are very versatile and work well with a wide particle energy range.
+Experience on such detectors has been gained within the ICARUS project \cite{Amerio:2004ze,Arneodo:2001tx}.
+\end{itemize}
+
+Three experiments are proposed to employ the above detection techniques: MEMPHYS \cite{deBellefon:2006vq} for \WC,
+LENA \cite{Oberauer:2005kw, Marrodan:2006} for liquid scintillator 
+and GLACIER \cite{Rubbia:2004tz,Rubbia:2004yq,Ereditato:2004ru,Ereditato:2005ru,Ereditato:2005yx} for Liquid Argon. 
+In this paper we report on the study of the physics potential of the experiments and identify features of complementarity 
+amongst the three techniques. 
+
+Needless to say, the availability of future neutrino beams from particle accelerators 
+would provide an additional bonus to the above experiments.
+Measuring oscillations with artificial neutrinos (of well known kinematical features)
+with a sufficiently long baseline would allow to accurately determine the oscillation parameters
+(in particular the mixing angle $\theta_{13}$ and the possible
+CP violating phase in the mixing matrix). 
+The envisaged detectors may then be used for observing neutrinos from the future Beta Beams and Super Beams
+in the optimal energy range for each experiment. A common example 
+%C Volpe 19/10/07 is a low-energy Beta Beam from CERN to MEMPHYS at Frejus, 130 km away 
+is a Beta Beam from CERN to MEMPHYS at Frejus, 130 km away \cite{Campagne:2006yx}. 
+High energy beams have been suggested \cite{Rubbia:2006pi}, 
+favoring longer baselines of up to $O$(2000~km). 
+%add C. Volpe review
+An exhaustive review on the different Beta Beam scenario can be found in the reference \cite{Volpe:2006in}. 
+The ultimate Neutrino Factory facility will require a magnetized detector to fully exploit the simultaneous availability of 
+neutrinos and antineutrinos. This subject is however beyond the scope of the present study.
+
+Finally, there is a possibility of (and the hope for) unexpected
+discoveries. The history of physics has shown that 
+several experiments have made their glory with discoveries in research fields that were outside the original goals of the experiments. 
+Just to quote an example, we can mention the Kamiokande detector, mainly designed to search for proton decay
+and actually contributing to the observation of atmospheric neutrino oscillations, to the clarification of the solar neutrino puzzle and 
+to the first observation of supernova neutrinos \cite{Hirata:1987hu,Hirata:1988ad,Hirata:1989zj,Hirata:1988uy,
+Fukuda:1998mi}.
+All the three proposed experiments, thanks to their
+outstanding boost in mass and performance, will certainly provide a significant potential for surprises and unexpected discoveries.
+
+\section{Description of the three detectors}
+\label{sec:Phys-detector}
+
+The three detectors' basic parameters are listed in \refTab{tab:Phys-detector-summary}. 
+All of them have active targets of tens to hundreds kton mass and are to be installed in underground laboratories to be protected against background induced by cosmic-rays. As already said,
+the large size of the detectors is motivated by the extremely low cross-section of neutrinos and/or by the rareness of the 
+interesting events searched for. Some details of the detectors are discussed in the following, while the matters related to the possible underground site are presented in Section~\ref{sec:Phys-Sites}.
+
+%\begin{sidewaystable}
+\begin{table}
+\caption{\label{tab:Phys-detector-summary}Basic parameters of the three detector (baseline) design.} 
+%\begin{indented}
+%\item[]
+\lineup
+\begin{tabular}{@{}llll}
+\br
+
+                   &    GLACIER            &   LENA    &    MEMPHYS\\
+\mr
+
+\multicolumn{4}{@{}l}{Detector dimensions}          \\
+type of cylinder              &  $1$ vert.    & $1$ horiz.    & $3\div5$ vert. \\
+    diam. (m) & $\0 70$ & $\0 30$ & $\0 65$ \\	  
+    length (m) & $\0 20$ & $100$ & $\0 65$ \\	  
+typical mass (kton)   & $100$  &  $\0 50$  & $600\div800$\\
+\mr
+\multicolumn{4}{@{}l}{Active target and readout}          \\
+	type of target  & liq. Argon      &liq. scintillator  & water \\
+	                & (boiling)         &                      & (opt. 0.2\% GdCl$_3$) \\
+readout type      & \parbox[t]{3cm}{
+%																		\begin{itemize}
+%																		\item[$e^-$ drift] 2 perp. views, $10^5$ channels, ampli. in gas phase 
+%																		\item[\v{C} light] 27,000 8" PMTs, $\sim 20\%$ coverage
+%																		\item[Scint. light] 1,000 8" PMTs
+%																		\end{itemize}																	
+																		$e^-$ drift: 2 perp. views, $10^5$ channels, ampli. in gas phase;\\ 
+																		Cher. light: $27\ 000$ 8" PMTs, $\sim 20\%$ coverage;\\
+																		Scint. light: $1000$ 8" PMTs
+																		}
+                  & \parbox[t]{25mm}{$12\ 000$\\ 20" PMTs\\ $\gtrsim 30\%$ coverage} 
+                  & \parbox[t]{25mm}{$81\ 000$\\ 12" PMTs\\$\sim 30\%$ coverage} \\
+\br
+\end{tabular}
+%\end{indented}
+\end{table}
+%\end{sidewaystable}
+%
+\subsection{Liquid Argon TPC}
+
+GLACIER (Fig.~\ref{fig:Phys-GLACIERdetector}) is the foreseen extrapolation up to $100$~kton 
+of the liquid Argon Time Projection Chamber technique. 
+The detector can be mechanically subdivided into two parts,
+the liquid Argon tank and the inner detector instrumentation.
+For simplicity, we assume at this stage that the two aspects can be largely decoupled.
+ 
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig1-T100K_3d.eps}
+\end{center}
+\caption{\label{fig:Phys-GLACIERdetector} Artistic view of a 100~kton single-tank liquid Argon TPC detector. 
+The electronic crates are located at the top of the dewar.}	
+\end{figure}
+
+The basic idea behind this detector is to use a single 100~kton boiling liquid Argon cryogenic tank with
+cooling directly performed with liquid Argon (self-refrigerating). Events are reconstructed in 3D by using the 
+information provided by ionization in liquid. The imaging capabilities and the excellent space resolution
+of the device make this detector an "electronic bubble chamber". 
+The signal from scintillation and Cherenkov light readout complete the information contributing to the event reconstruction. 
+
+As far as light collection is concerned one can profit from the ICARUS R\&D program that
+has shown that it is possible to operate photomultipliers (PMTs) directly immersed in the liquid Argon \cite{Amerio:2004ze}. 
+In order to be sensitive to deep UV (DUV) scintillation ($< 300$nm), PMTs are coated with a wavelength shifter (WLS), for instance
+tetraphenyl-butadiene.
+About 1000~immersed phototubes with WLS would
+be used to identify the (isotropic and bright) scintillation light. To detect 
+Cherenkov radiation about $27\ 000$~8''-phototubes without WLS would provide a 20\% coverage of the detector surface.
+The latter PMTs should have single photon
+counting capabilities in order to count the number of Cherenkov photons.
+
+Charge amplification and an extreme  liquid purity against electronegative compounds
+(although attainable by commercial purification systems) is needed to allow long drift distances of the ionization/imaging electrons
+ ($\approx 20\rm\ m$). For this reason,
+the detector will run in the so-called bi-phase mode. Namely, drifting electrons produced in the liquid phase 
+are extracted into the gas phase with
+the help of an electric field and amplified in order to compensate the charge loss due to 
+attenuation along the drift path.
+The final charge signal is then read out  by means of Large Electron Multiplier (LEM) devices, providing X-Y information. The Z coordinate
+is given by the drift time measurement, proportional to the drift length.
+A possible extension of the present detector design envisages the immersion of the sensitive volume in an external magnetic 
+field \cite{Ereditato:2005yx}.
+Existing experience from specialized Liquified Natural Gases (LNG) companies and studies conducted in collaboration with
+Technodyne LtD UK,  have been ingredients for a first step in assessing the feasibility of the detector and of its operation
+in an underground site.
+
+\subsection{Liquid scintillator detector}
+
+The LENA detector is cylindrical in shape with a length of about 100\,m and 30\,m diameter (\refFig{fig:Phys-LENAdetector}). 
+The inner volume corresponding to a radius of 13\,m 
+contains approximately $5 \times 10^4$\,m$^3$ of liquid scintillator.
+The outer part of the volume is filled with water, acting as a
+veto for identifying muons entering the detector from outside. 
+Both the outer and the inner volume are enclosed in steel tanks
+of 3 to 4\,cm wall thickness. For most purposes, a fiducial volume is defined by excluding
+the volume corresponding to 1\,m distance to the inner tank walls. The fiducial volume so defined amounts
+to 88\,$\%$ of the total detector volume.
+
+In the current design, the main axis of the cylinder is placed horizontally. A tunnel-shaped
+cavern housing the detector is considered as realistically feasible for most of the envisioned detector locations. In
+respect to accelerator physics, the axis could be oriented towards
+the neutrino source in order to contain the full length of
+muon and electron tracks produced in charged-current neutrino interactions in the liquid scintillator.
+
+The baseline configuration for the light detection in the inner volume foresees 
+$12\ 000$~PMTs of 20'' diameter mounted onto
+the inner cylinder wall and covering about 30\,$\%$ of the surface. As
+an option, light concentrators can be installed in front of the PMTs,
+hence increasing the surface coverage $c$ to values larger than
+50\,$\%$. Alternatively, $c=30\,\%$ can be reached by equipping
+8'' PMTs with light concentrators, thereby reducing the cost when comparing to
+the baseline configuration. Additional PMTs are supplied in the outer
+veto to detect (and reject) the Cherenkov light from events due to incoming cosmic muons.
+Possible candidates as liquid scintillator material are pure
+phenyl-o-xylylethane (PXE), a mixture of 20\,$\%$ PXE and 80\,$\%$
+Dodecane, and linear Alkylbenzene (LAB). All three liquids exhibit low 
+toxicity and provide high flash and inflammation points.
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig2-LenaPictureNov06.eps}
+\end{center}
+\caption{\label{fig:Phys-LENAdetector}Schematic drawing of the LENA detector. Reprinted figure with the permission from \cite{Wurm:2007cy}.}	
+\end{figure}
+
+\subsection{Water Cherenkov}
+
+The MEMPHYS detector (\refFig{fig:Phys-MEMPHYSdetector}) is an extrapolation of the  \WC\ Super-Kamiokande
+detector to a mass as large as $730$~kton. 
+The detector is composed of up to 5 shafts containing separate tanks. 
+3 tanks are enough to total 440~kton fiducial mass. This is the configuration which is used hereafter. 
+Each shaft has 65~m diameter and 65~m height representing an increase by a factor 8 with respect to Super-Kamiokande. 
+
+The Cherenkov light rings produced by fast particles moving within the inner water volume are reconstructed by PMTs placed
+on the inner tank wall.
+The PMT housing surface starts at  2~m from the outer wall and is covered with about $81\ 000$ 12" PMTs to reach a 30\% surface coverage,
+in or alternatively equivalent to a 40\% coverage with 20" PMTs. 
+The fiducial volume is defined by an additional conservative guard of 2~m. 
+The outer volume  between the PMT surface and the water vessel is instrumented with 8" PMTs. 
+If not otherwise stated, the Super-Kamiokande analysis procedures for efficiency calculations, background reduction, etc.  are 
+used in computing the physics potential of MEMPHYS. 
+In USA and Japan, two analogous projects (UNO and Hyper-Kamiokande) have been proposed. 
+These detectors are similar in many respects and the physics potential presented hereafter may well be transposed to them.
+Specific characteristics that are not identical in the proposed projects are the distance from 
+available or envisaged accelerators and nuclear reactors, sources of artificial neutrino fluxes, and the depth of the host laboratory. 
+
+Currently, there is a very promising ongoing R\&D activity concerning 
+the possibility of introducing Gadolinium salt (GdCl${}_3$) inside Super-Kamiokande. 
+The physics goal is to decrease the background for many physics channels by detecting and tagging neutrons produced in 
+the Inverse Beta Decay (IBD) interaction of $\bar{\nu}_e$ on free protons. 
+For instance, 100~tons of GdCl${}_3$ in Super-Kamiokande would yield more then 90\% neutron captures on Gd  \cite{Beacom:2003nk}. 
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig3-MEMPHYS.eps}
+\end{center}
+\caption{\label{fig:Phys-MEMPHYSdetector}Layout of the MEMPHYS detector in the future Fréjus laboratory.}	
+\end{figure}
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Underground sites}
+\label{sec:Phys-Sites}
+
+The proposed large detectors require underground laboratories of adequate size and depth, naturally protected against 
+cosmic-rays that represent a potential source of background events mainly for non-accelerator experiments, that cannot exploit
+the peculiar time stamp provided by the accelerator beam spill.
+
+Additional characteristics of these sites contributing to their qualification as candidates for the proposed experiments 
+are: the type and quality of the rock allowing the practical feasibility of large caverns at reasonable cost and within reasonable time, 
+the distance from existing (or future) accelerators and nuclear reactors, the type and quality of the access, the geographical position, the environmental conditions, etc.
+
+The presently identified worldwide candidate sites are located in three geographical regions: North-America, far-east Asia 
+and Europe. In this paper we consider the European region, where, at this stage, the following sites 
+are assumed as candidates: Boulby (UK), Canfranc (Spain), Fréjus (France/Italy), Gran Sasso (Italy), 
+Pyhäsalmi (Finland) and Sieroszewice (Poland). 
+Most of the sites are existing national or international underground laboratories with associated infrastructure
+and experimental halls already used for experiments.
+The basic features of the sites are presented on \refTab{tab:Phys-site-parameters}. 
+For the Gran Sasso Laboratory a  possible new (additional) site 
+is envisaged to be located 10 km away from the present underground laboratory, 
+outside the protected area of the neighboring Gran Sasso National Park.
+The possibility of under-water solutions, such as for instance Pylos for the LENA project, is not taken into account here.
+The identification and measurement of the different background components in the candidate sites (muons, fast neutrons 
+from muon interactions, slow neutrons from nuclear reactions in the rock, gammas, electrons/positrons and alphas from 
+radioactive decays,\dots) is underway, mainly in the context of the ILIAS European (JRA) Network ($http://ilias.in2p3.fr/$). 
+%The collection of the presently known values for these background components are reported in \refTab{tab:Phys-site-parameters}.
+
+None of the existing sites has yet a sufficiently large cavity able to accommodate the foreseen detectors.
+For two of the sites (Fréjus and Pyhäsalmi) a preliminary feasibility study for large excavation at deep depth 
+has already been performed. For the Fréjus site the main conclusion drawn from simulations constrained by a series 
+of rock parameter measurements made during the Fréjus road tunnel excavation is that the "shaft shape" is strongly preferred 
+compared to the "tunnel shape", as long as large cavities are required. As mentioned above, 
+several (up to 5) of such shaft cavities with a diameter of about 65~m 
+(for a corresponding volume of $250\ 000$~m${}^3$) each, seem feasible in the region around the middle of the Fréjus tunnel, at a depth of 4800~m.w.e.
+For the Pyhäsalmi site, the preliminary study has been performed for two main cavities with tunnel shape and 
+dimensions of $(20 \times 20 \times 120)$~m${}^3$ and $(20 \times 20 \times 50)$~m${}^3$, respectively, 
+and for one shaft-shaped cavity with 25~m in diameter and 25~m in height, all at a depth of about 1430~m of rock (4000~m.w.e.). 
+
+\begin{sidewaystable}
+%\begin{table}
+\caption{\label{tab:Phys-site-parameters} 
+Summary of characteristics of some underground sites envisioned for the proposed detectors.} 
+% 
+\begin{tabular}{@{}lllllll} 
+\br 
+Site &     Boulby      &       Canfranc          &      Fréjus     &  Gran Sasso   &   Pyh\"asalmi  & Sieroszowice\\ 
+\mr 
+Location &    UK       &      Spain           &   Italy-France border &      Italy  &      Finland  &  Poland     \\ 
+Dist. from CERN (km)&  1050  &  630          &          130       &     730        &     2300     &    950       \\ 
+Type of access&  Mine  &  Somport tunnel     &  Fréjus tunnel     & Highway\\ tunnel &  Mine        &   Shaft      \\ 
+Vert. depth (m.w.e)&  2800 & 2450           &    4800           &   3700       &  4000         &  2200       \\ 
+Type of rock& salt     &   hard rock          &  hard rock         & hard rock     & hard rock      &  salt \& rock \\ 
+ Type of cavity&       &                       &   shafts          &               &   tunnel       &    shafts    \\ 
+Size of cavity &       &                       & $\Phi = 65~\mathrm{m}$ &          & $(20\times20\times 120)\mathrm{m^3}$          & $\Phi = 74~\mathrm{m}$             \\ 
+         &             &                         & $H=80~\mathrm{m}$ &             &                & $H=37~\mathrm{m}$ \\ 
+$\mu$ Flux (m$^{-2}$day$^{-1}$)&  34 & 406 &             4         &    24         &      9          &  not available            \\ 
+\br
+\end{tabular} 
+%
+%\end{table} 
+\end{sidewaystable}
+%
+%n Flux ($10^{-6}$~cm$^{-2}$s$^{-1}$)  & $O(1)$ &  \parbox{3cm}{\center{1.6 (0-0.63~eV)\\ 4.0 (2-6~MeV)}}                                                                                                                                                & *
+
+%                                                                                                                                                &  \parbox{3cm}{\center{2.8 (>100~keV)\\ 1.3 (>1~MeV)}}
+
+%                                                                                                                                                & 3.82 (integral) & * \\
+
+%$\gamma$ Flux (cm$^{-2}$s$^{-1}$)    & * & 7.0 (>4~MeV)  & * & * & $2 \times 10^{-2}$  & *\\ 
+%$^{238}$U (ppm) Rock/Cavern  & ? & 0.84/1.90   & 28-44 Bq/m$^3$   & 0.07      & 30 Bq/kg & $0.017 \pm 0.003$ Bq/kg\\ 
+%$^{232}$Th (ppm) Rock/Cavern  & ? & 2.45/1.40   & 4-19 Bq/m$^3$   & 0.12      & 76 Bq/kg & $0.008 \pm 0.001$ Bq/kg\\ 
+%K (Bq/kg)          Rock/Cavern  & ? & 213/77     & 267-625 Bq/m$^3$   & 1130      & 680 & $4.0 \pm 0.9$ Bq/kg\\ 
+%Rn (Bq/m$^3$) Cavern (Vent. ON/OFF) &?  & 15-150    &  10-148     &  *  & 50-100 Bq/kg & $10-50$\\ 
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Matter instability: sensitivity to proton decay}
+
+For all relevant aspects of the proton stability in Grand Unified Theories, 
+in strings and in branes we refer to~\cite{Nath:2006ut}.   
+Since proton decay is the most dramatic prediction coming
+from theories of the unification of fundamental interactions, there is a realistic hope to be able to test these scenarios with next 
+generation experiments exploiting the above mentioned large mass, underground detectors.
+For this reason, the knowledge of a theoretical upper bound on the lifetime of the proton is very 
+helpful in assessing the potential of future experiments.   
+Recently, a model-independent upper bound on the proton decay lifetime has 
+been worked out~\cite{Dorsner:2004xa}
+
+%\begin{widetext}
+\begin{equation}
+\fl
+	\tau_p^{upper} = 	
+		\left\{\begin{array}{lr}
+	6.0 \times 10^{39} & (\mathrm{Majorana}) 
+         \\ 
+         2.8 \times 10^{37}  & (\mathrm{Dirac})
+	\end{array}\right\}
+                 \times 
+	 \frac{\left(M_X/10^{16}GeV\right)^4}{\alpha_{GUT}^2} \times \left( \frac{0.003GeV^3}{\alpha} \right)^2 \ \mathrm{years}         
+\end{equation}
+%\end{widetext}
+%%Modif by JEC according to PFP 14May07
+%%where $M_X$ is the mass of the superheavy gauge bosons, the parameter $\alpha_{GUT}= g_{GUT}^2 / 4 \pi$, 
+%%$g_{GUT}$ is the gauge coupling at the Grand Unified scale and $\alpha$ is the matrix element. 
+where $M_X$ is the mass of the superheavy gauge bosons mediating 
+proton decay, the parameter $\alpha_{GUT}= g_{GUT}^2 / 4 \pi$, 
+with $g_{GUT}$ the gauge coupling at the grand unified scale 
+and $\alpha$ is the relevant matrix element.
+\refFig{fig:Phys-PDK-Majorana} shows the present parameter space allowed by experiments
+in the case of Majorana neutrinos.
+
+Most of the models (Super-symmetric or non Super-symmetric) predict a proton lifetime $\tau_p$ below 
+those upper bounds ($10^{33-37}$~years). This is  particularly interesting since this falls within the possible 
+range of the proposed experiments. 
+In order to have a better idea of the proton decay predictions, we list 
+the results from different models in \refTab{tab:Phys-PDK-Models}.
+
+No specific simulations for MEMPHYS have been carried out yet. Therefore,
+here we rely on the studies done for the similar UNO detector, adapting the results to MEMPHYS, which, however, features
+an overall better PMT coverage. 
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig4-PavelMajoranaNew.eps}
+\end{center}
+\caption{\label{fig:Phys-PDK-Majorana} Isoplot for the upper bounds on the total
+proton lifetime in years in the Majorana neutrino case in the
+$M_X$--$\alpha_{GUT}$ plane. The value of the unifying coupling
+constant is varied from $1/60$ to $1/10$. The conventional values
+for $M_X$ and $\alpha_{GUT}$ in SUSY GUTs are marked with thick
+lines. The experimentally excluded region is given in black. Reprinted figure with permission from~\cite{Dorsner:2004xa}.}
+\end{figure}
+
+\begin{table}
+\caption{\label{tab:Phys-PDK-Models}
+Summary of several predictions for the proton partial lifetimes (years). References for the 
+different models are: (1) \cite{Georgi:1974sy}, (2) \cite{Dorsner:2005fq,Dorsner:2005ii}, (3) \cite{Lee:1994vp},  
+(4)  \cite{Murayama:2001ur,Bajc:2002bv,Bajc:2002pg,Emmanuel-Costa:2003pu}, 
+(5) \cite{Babu:1992ia,Aulakh:2003kg,Fukuyama:2004pb,Goh:2003nv}, 
+(6) \cite{Friedmann:2002ty},
+(7) \cite{Bajc:2006ia},
+(8) \cite{Perez:2007rm}.}
+\begin{tabular}{@{}llll} \br
+Model       &   Decay modes     &  Prediction   &  References \\ \mr
+Georgi-Glashow model & - &  ruled out      &        (1)        \\ 
+\parbox{4cm}{\center{Minimal realistic\\ non-SUSY $SU(5)$}} & all channels & $\tau_p^{upper} = 1.4 \times 10^{36}$ & (2)
+\\[6mm]
+Two Step Non-SUSY $SO(10)$ &  $p \to e^+ \pi^0$ &  $\approx 10^{33-38}$ & (3)  \\[5mm] 
+Minimal SUSY $SU(5)$   &   $p \to  \bar{\nu}K^+$  &  $\approx 10^{32-34}$  & (4)
+\\ 
+\\[-5mm]
+\parbox{4cm}{\center{SUSY $SO(10)$ \\ with $10_H$, and $126_H$}} & $p \to \bar{\nu} K^+$ & $\approx 10^{33-36}$ &  (5)  
+\\[6mm]
+M-Theory($G_2$)   & $p \to e^+\pi^0$    &  $\approx 10^{33-37}$    & (6)  \\[4mm]
+ $SU(5)$ with $24_F$  & $p \to \pi^0 e^+ $ & $\approx 10^{35-36}$   & (7)\\[4mm]
+ Renormalizable Adjoint $SU(5)$ & $p \to \pi^0 e^+ $ & $\approx 10^{35-36}$   & (8)\\
+\br
+		\end{tabular}
+\end{table}
+
+In order to assess the physics potential of a large liquid Argon Time Projection Chambers such as GLACIER, 
+a detailed simulation of signal efficiency and
+background sources, including atmospheric neutrinos and cosmogenic
+backgrounds was carried out \cite{Bueno:2007um}. Liquid Argon TPCs,
+offering high space granularity and energy resolution, low-energy detection threshold,
+and excellent background discrimination, should  
+yield  large signal over background ratio for many of the possible proton
+decay modes, hence allowing reaching partial lifetime sensitivities in
+the range of $10^{34}-10^{35}$~years for exposures up to 1000~kton year.
+This can often be accomplished in quasi background-free conditions optimal for discoveries 
+at the few events level, corresponding
+to atmospheric neutrino background rejections of the order of $10^5$.
+
+Multi-prong decay modes like $p\rightarrow \mu^- \pi^+ K^+$
+or $p\rightarrow e^+\pi^+\pi^-$ and channels involving kaons like
+$p\rightarrow K^+\bar\nu$, $p\rightarrow e^+K^0$ and $p\rightarrow \mu^+K^0$
+are particularly appealing, since liquid Argon imaging
+provides typically one order of magnitude efficiency increase for similar
+or better background conditions, compared to water Cherenkov detectors.
+%From GLACIER after referee
+%Up to a factor of two improvement in efficiency is expected for modes like $p\rightarrow e^+\gamma$
+%and $p\rightarrow \mu^+\gamma$, thanks to the clean photon identification
+%and separation from $\pi^0$. 
+Thanks to the clean photon identification
+and separation from $\pi^0$, it is expected an efficiency of $98\%$ for both the channels 
+$p\rightarrow e^+\gamma$ and $p\rightarrow \mu^+\gamma$ which constitute an improvement %A  Bueno 14/10/07 following referee of $35\%$ and $92\%$ respectively compared to Super-Kamiokande present result. 
+of $38\%$ and $63\%$ respectively compared to Super-Kamiokande results \cite{KearnSnowmass:2001}. 
+Channels such as $p\rightarrow e^+\pi^0$ and $p\rightarrow \mu^+\pi^0$,
+dominated by intrinsic nuclear effects,
+yield similar performance as water Cherenkov detectors. 
+
+An important feature of GLACIER is that thanks to the self-shielding 
+and 3D-imaging properties, the above expected performance
+remains valid even at shallow depths, where cosmogenic background sources are important.
+The possibility of using a very large-area, annular, muon-veto active shielding, to
+further suppress cosmogenic backgrounds at shallow depths is also a very promising 
+option to complement the GLACIER detector.
+
+In order to quantitatively estimate the potential of the LENA detector
+in measuring proton lifetime, a Monte Carlo simulation for the
+decay channel $p\to K^{+}\overline{{\nu}}$ has been performed. For
+this purpose, the GEANT4 simulation toolkit \cite{Agostinelli:2002hh} has been
+used, including optical processes as scintillation, Cherenkov light
+production, Rayleigh scattering and light absorption. From these simulations one obtains
+a light yield  of $\sim 110$~p.e./MeV \cite{Undagoitia:1-2uu} for an event in the
+center of the detector. In  addition, the semi-empirical Birk's formula
+has been introduced into the code in order to take into account the so-called quenching effects.
+
+Following studies performed for the UNO detector, the detection efficiency for $p \rightarrow e^+\pi^0$
+is $43\%$ for a 20" PMT coverage of 40\% or its equivalent, as envisioned for
+MEMPHYS. The corresponding estimated
+atmospheric neutrino induced background is at the level of $2.25$~events/Mton year. 
+From these efficiencies and background levels,
+proton decay sensitivity as a function of detector exposure can be
+estimated. A $10^{35}$ years partial
+lifetime ($\tau_p/B$) could be reached at the 90\% C.L. for a 5~Mton year exposure (10~years) with MEMPHYS
+(similar to case A in \refFig{fig:pdk1} compiled by the UNO collaboration \cite{Jung:1999jq}). Beyond that exposure, tighter cuts may be envisaged to further reduce the atmospheric neutrino background to $0.15$~events/Mton year, by selecting quasi exclusively the free proton decays.
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig5-epi0-WC-Shiozawa.eps}
+\end{center}
+\caption{\label{fig:pdk1} Sensitivity to the $e^+\pi^0$ proton decay mode
+compiled by the UNO collaboration. MEMPHYS corresponds to case (A). Reprinted figure with permission from~\cite{Jung:1999jq}.}
+\end{figure}
+
+The positron and the two photons issued from the $\pi^0$ gives clear events 
+in the GLACIER detector. The $\pi^0$ is absorbed by the nucleus
+in $45\%$ of the cases. Assuming a perfect particle and track identification, 
+one may expect a $45\%$ efficiency and a background level of $1$~event/Mton year. 
+For a 1~Mton year (10~years) exposure with GLACIER one 
+reaches $\tau_p/B > 0.4 \times 10^{35}$~years at the 90$\%$ C.L. (Fig.~\ref{fig:GLACIERpdk}). 
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig6-limit_pdk_expo.eps}
+\end{center}
+\caption{\label{fig:GLACIERpdk} Expected proton decay lifetime limits ($\tau / B$ at 90\% C.L.) 
+as a function of exposure for GLACIER. Only atmospheric neutrino background 
+has been taken into account. Reprinted figure with permission from~\cite{Bueno:2007um}.}
+\end{figure}
+
+In a liquid scintillator detector such as LENA the decay $p\to e^{+}\pi^{0}$ would
+produce a $938$~MeV signal coming from the $e^{+}$ and the $\pi^{0}$
+shower. Only atmospheric neutrinos are expected to cause background
+events in this energy range. Using the fact that showers from both
+$e^{+}$ and $\pi^{0}$ propagate 4~m in opposite directions
+before being stopped, atmospheric neutrino background can be
+reduced. Applying this method, the current limit for this channel
+($\tau_p/B=5.4~10^{33}$~years \cite{Nakaya:2005nk}) could be improved.
+%
+In LENA, proton decay events via the mode $p\to K^{+}\overline{{\nu}}$
+have a very clear signature. The kaon causes a prompt monoenergetic
+signal of 105~MeV together with a larger delayed signal from its decay.
+The kaon has a lifetime of 12.8~ns and two main decay channels: with a
+probability of 63.43~$\%$ it decays via $K^{+}\to\mu^{+}{\nu_{\mu}}$
+and with 21.13\%, via \mbox{$K^{+}\to\pi^{+} \pi^{0}$}.
+
+Simulations of proton decay events and atmospheric neutrino background
+have  been performed and a pulse shape analysis has been applied.
+From this analysis an efficiency of 65\% for
+the detection of a proton decay has been determined and a
+background  suppression of $\sim2 \times10^{4}$ has  been
+achieved \cite{Undagoitia:1-2uu}. A detail study of background implying pion and
+kaon production in atmospheric  neutrino reactions has been performed
+leading to a background rate of $0.064~\mathrm{year}^{-1}$ due to the reaction
+${\nu}_{\mu}+p\to \mu^{-}+K^{+}+p$.
+
+For the current proton lifetime limit for the channel considered
+($\tau_p/B=2.3 \times 10^{33}$~year) \cite{Kobayashi:2005pe}, about 40.7 proton decay
+events would be observed in LENA after ten years
+with less than 1 background event. If no signal is seen in the detector
+within ten years, the lower limit for the lifetime of the proton
+will be set at $\tau_p/B>4~\times10^{34}$~years at the $90\%$~C.L. 
+
+For GLACIER, the latter is a quite clean
+channel due to the presence of a strange meson and no other particles in
+the final state. Using $dE/dx$ versus range as the discriminating variable 
+in a Neural Network algorithm, less than $1\%$ of the kaons are mis-identified as protons. 
+For this channel, the selection efficiency is high ($97\%$) 
+for an atmospheric neutrino background $< 1$~event/Mton year. 
+In case of absence of signal and for a detector location at a depth of 
+1~km.w.e., one expects for 1~Mton~year (10~years) exposure one background event due to cosmogenic sources. This translates into a limit 
+$\tau_p/B > 0.6 \times 10^{35}$~years at 90\% C.L. This result remains 
+valid even at shallow depths where
+cosmogenic background sources are a very important limiting factor for proton 
+decay searches. 
+For example, the study done in \cite{Bueno:2007um} shows that 
+a three-plane active veto at a shallow
+depth of about 200~m rock overburden under a hill yields
+similar sensitivity for $p\rightarrow K^+\bar\nu$ as a 3000~m.w.e. deep detector.
+
+For MEMPHYS one should rely on the detection of the decay products of the $K^+$
+since its momentum ($340$~MeV/c) is below the water Cherenkov threshold of $570$~MeV/c: a 236~MeV/c muon and its 
+decay electron (type I) or a 205~MeV/c $\pi^+$ and $\pi^0$
+(type II), with the possibility of a delayed (12~ns) coincidence
+with the 6~MeV ${}^{15}\mathrm{N}$ de-excitation prompt $\gamma$ (Type III).
+Using the known imaging and timing performance of Super-Kamiokande, the efficiency for the reconstruction of
+$p \rightarrow \overline{\nu}K^+$ is 33\% (I), 6.8\% (II)
+and 8.8\% (III), and the background is 2100, 22 and 6 events/Mton year, respectively. For the
+prompt $\gamma$ method, the background is dominated by
+miss-reconstruction. As stated by the UNO Collaboration \cite{Jung:1999jq}, there are good 
+reasons to believe that this background can be lowered by at least a factor of two, corresponding
+to the atmospheric neutrino interaction $\nu p \rightarrow \nu
+\Lambda K^+$. In these conditions, and taking into account the Super-Kamiokande performance,
+a 5~Mton year exposure for MEMPHYS would allow reaching $\tau_p/B > 2 \times 10^{34}$~years (\refFig{fig:pdk9_jbz}).
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig7-Knu-WC-Shiozawa.eps}
+\end{center}
+\caption{\label{fig:pdk9_jbz}
+Expected sensitivity to the $\nu K^+$ proton decay mode as a function of
+exposure compiled by the UNO collaboration which may be applied for the MEMPHYS detector (see text for details). Reprinted figure with permission from~\cite{Jung:1999jq}.}
+\end{figure}
+%
+
+A preliminary comparison between the performance of  three detectors has been carried out 
+(Tab.~\ref{tab:Phys-PDK-Summary}). 
+For the $e^+ \pi^0$ channel, the Cherenkov detector gets a better limit due to the
+higher mass. However, it should be noted that GLACIER, although five times smaller 
+in mass than MEMPHYS,  can reach a limit that is only a factor two smaller. 
+Liquid Argon TPCs and liquid scintillator detectors obtain better results for the
+$\bar{\nu} K^+$ channel, due to their higher detection efficiency.
+The techniques look therefore quite complementary. 
+We have also seen that GLACIER does not necessarily requires very deep underground 
+laboratories, like those currently existing or future planned sites, in order to perform high 
+sensitivity nucleon decay searches.
+
+\begin{table}
+\caption{\label{tab:Phys-PDK-Summary}Summary of the $e^+\pi^0$ and $\bar{\nu}K^+$ decay
+discovery potential for the three detectors. 
+The $e^+\pi^0$ channel is not yet simulated for LENA.}
+\begin{indented}
+\item[]\begin{tabular}{@{}llll}\br
+						& GLACIER             &      LENA              &  MEMPHYS \\ \mr
+$e^+\pi^0$	&                     &                        &          \\
+$\epsilon (\%)
+/ \mathrm{Bkgd (Mton~year)}$ & $45/1$  &         -               &   $43/2.25$ \\
+$\tau_p/B$ (90\% C.L., 10~years) & 	$0.4\times 10^{35}$ & -           &  $1.0\times 10^{35}$ \\ \mr
+
+$\bar{\nu}K^+$                    &                         &              \\
+$\epsilon (\%)
+/ \mathrm{Bkgd (Mton~ year)}$ & $97/1$  &         $65/1$               &   $8.8/3$ \\
+$\tau_p/B$ (90\% C.L., 10~years) & 	$0.6\times 10^{35}$ & $0.4\times 10^{35}$            &  $0.2\times 10^{35}$ \\
+ \br
+\end{tabular}
+\end{indented}
+\end{table}
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Supernova neutrinos}
+\label{sec:SN}
+
+The detection of supernova (SN) neutrinos represents one of the next
+frontiers of neutrino physics and astrophysics. It will provide invaluable
+information on the astrophysics of the core-collapse explosion
+phenomenon and on the neutrino mixing parameters. In particular,
+neutrino flavor transitions in the SN envelope might be sensitive
+to the value of $\theta_{13}$ and to the type of mass hierarchy. 
+These two main issues are discussed in detail in the following Sections.
+
+%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
+\subsection{SN neutrino emission, oscillation and detection}
+%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%%
+
+A core-collapse supernova marks the evolutionary end of a massive star
+($M\gtrsim 8\,M_\odot$) which becomes inevitably unstable at the end
+of its life. The star collapses and ejects its outer mantle in a shock-wave
+driven explosion.  The collapse to a neutron star ($M \simeq M_\odot
+$, $R\simeq 10$~km) liberates a gravitational binding energy of
+$\approx 3 \times10^{53}~{\rm erg} $, 99\% of which is transferred to 
+(anti) neutrinos of all the flavors and only 1\% to the
+kinetic energy of the explosion. Therefore, a core-collapse SN
+represents one of the most powerful sources of (anti) neutrinos in the Universe.
+In general, numerical simulations of SN explosions provide the
+original neutrino spectra in energy and time $F^0_{\nu}$. Such initial
+distributions are in general modified by flavor transitions in the SN
+envelope, in vacuum (and eventually in Earth matter): $F^0_\nu {\longrightarrow} F_\nu$
+and must be convoluted with the differential interaction cross-section
+$\sigma_e$ for electron or positron production, as well as with the
+detector resolution function $R_e$ and the efficiency $\varepsilon$,
+in order to finally get observable event rates $N_e = F_\nu \otimes \sigma_e \otimes R_e \otimes \varepsilon $.
+
+Regarding the initial neutrino distributions $F^0_{\nu}$, a SN
+collapsing core is roughly a black-body source of thermal neutrinos,
+emitted on a timescale of $\sim 10$~s.  Energy spectra parametrizations
+are typically cast in the form of quasi-thermal distributions, with
+typical average energies: $ \langle E_{\nu_e} \rangle= 9-12$~MeV,
+$\langle E_{\bar{\nu}_e} \rangle= 14-17$~MeV, $\langle E_{\nu_x}
+\rangle= 18-22$~MeV, where $\nu_x$ indicates any non-electron flavor.
+
+The oscillated neutrino fluxes arriving on Earth may be
+written in terms of the energy-dependent  survival probability
+ $p$ ($\bar{p}$) for neutrinos (antineutrinos) as \cite{Dighe:1999bi}
+
+\begin{eqnarray}
+F_{\nu_e} & = & p F_{\nu_e}^0 + (1-p) F_{\nu_x}^0  \nonumber \\ 
+F_{\bar\nu_e} & =  &\bar{p} F_{\bar\nu_e}^0 + (1-\bar{p}) F_{\nu_x}^0 \label{eqfluxes1-3} \\
+4 F_{\nu_x} & = & (1-p) F_{\nu_e}^0 + (1-\bar{p}) F_{\bar\nu_e}^0 +
+(2 + p + \bar{p}) F_{\nu_x}^0 \nonumber
+\end{eqnarray}
+
+where $\nu_x$ stands for either $\nu_\mu$ or $\nu_\tau$.  The
+probabilities $p$ and $\bar{p}$ crucially depend on the neutrino mass
+hierarchy and on the unknown value of the mixing angle $\theta_{13}$
+as shown in \refTab{tab:Phys-SN-Flux}.
+
+\begin{table}
+		\caption{\label{tab:Phys-SN-Flux}Values of the $p$ and $\bar{p}$ parameters used in
+ Eq.~\ref{eqfluxes1-3} in different scenario of mass hierarchy and  $\sin^2 \theta_{13}$.}
+\begin{indented}
+\item[]\begin{tabular}{@{}llll} \br
+		Mass Hierarchy        & $\sin^2\theta_{13}$ & $p$     & $\bar{p}$ \\ \mr
+		Normal                & $\gtrsim 10^{-3}$              & 0        & $\cos^2 \theta_{12}$ \\ 
+		Inverted		          & $\gtrsim 10^{-3}$              & $\sin^2 \theta_{12}$ & 0 \\
+		Any                   &  $\lesssim 10^{-5}$             & $\sin^2 \theta_{12}$ & $\cos^2 \theta_{12}$ \\
+\br
+		\end{tabular}
+\end{indented}
+\end{table}
+%
+Galactic core-collapse supernovae are rare, perhaps a few per century. 
+Up to now, SN neutrinos have been detected only once
+during the SN~1987A explosion in the Large Magellanic Cloud in 1987 ($d=50$~kpc).
+Due to the relatively small masses of the detectors operational at that time,  only few events were detected:
+11 in Kamiokande \cite{Hirata:1987hu,Hirata:1988ad} and 8 in IMB \cite{Aglietta:1987we,Bionta:1987qt}. 
+The  three proposed large-volume neutrino observatories can guarantee continuous exposure for 
+several decades, so that  a high-statistics SN neutrino signal could be eventually observed.
+The expected number of events for GLACIER, LENA and MEMPHYS
+are reported in \refTab{tab:Phys-SN-DetectorRates} for a typical galactic SN distance
+of $10$~kpc. 
+The total number of events is shown in the upper panel, while the lower part refers to the $\nu_e$ signal detected
+during the prompt neutronization burst, with a duration of $\sim 25$~ms, just after the core bounce. 
+
+%\begin{sidewaystable}
+\begin{table}
+		\caption{\label{tab:Phys-SN-DetectorRates} Summary of the expected neutrino interaction 
+rates in the different detectors for a typical SN.
+%$8 M_\odot$ SN located at 10~kpc (Galactic center). A. Mirizzi 15may07 
+The following notations have been used: CC, NC, IBD, $e$ES and pES stand for Charged Current, Neutral Current, Inverse Beta Decay, 
+electron and proton Elastic Scattering, respectively. The final state nuclei are generally unstable and decay either 
+radiatively (notation ${}^*$), or by $\beta^-/\beta^+$ weak interaction (notation ${}^{-,+}$).
+The rates of the different reaction channels are listed, and for LENA they have been obtained by scaling
+the predicted rates from \cite{Cadonati:2000kq, Beacom:2002hs}.}
+%
+%\begin{indented}
+%\item[]
+\lineup
+\begin{tabular}{@{}llllll} \br
+		\multicolumn{2}{@{}c}{MEMPHYS} & \multicolumn{2}{c}{LENA} & \multicolumn{2}{c}{GLACIER} \\ \ns
+		Interaction    & Rates  & Interaction    & Rates  & Interaction    & Rates  \\ \mr
+		$\bar{\nu}_e$ IBD & $2 \times 10^{5}$ &
+		$\bar{\nu}_e$ IBD & $9.0 \times 10^{3}$ &
+		$\nu_e^{CC}({}^{40}Ar,{}^{40}K^*)$ & $2.5 \times 10^{4}$ \\
+%		
+		$\nunubar{e}{}^{CC} ({}^{16}O,X) $ & $1\times10^{4}$ &
+		$\nu_x$ pES  & $7.0 \times 10^{3}$ &
+		$\nu_x^{NC}({}^{40}Ar^{*})$ & $3.0 \times 10^{4}$ \\		 
+%		
+		$\nu_x$ $e$ES  & $1\times10^{3}$ &
+		$\nu_x^{NC} ({}^{12}C^{*})$ & $3.0 \times 10^{3}$ &
+		$\nu_x$ $e$ES & $1.0\times10^{3}$ \\
+%
+		& & 
+		$\nu_x$ $e$ES & $6.0\times 10^2$ &
+		$\bar{\nu}_e^{CC}({}^{40}Ar,{}^{40}Cl^*)$ & $5.4 \times 10^2$ \\
+%		
+	  &		&
+		$\bar{\nu}_e^{CC} ({}^{12}C,{}^{12}B^{+})$ & $5.0\times10^2$ & &\\
+%		
+		& &
+		$\nu_e^{CC} ({}^{12}C,{}^{12}N^{-})$ & $8.5 \times 10^1$  & & \\
+%
+		\mr
+		\multicolumn{6}{@{}l}{Neutronization Burst rates}\\
+		  MEMPHYS & $\0 60$ & ${\nu}_e$ eES & & & \\
+		    LENA & 
+		    $\0 70$ & $\nu_e$ eES/pES & &  & \\
+%%		    & $\nu_e^{CC} ({}^{12}C,{}^{12}N^{\beta^-})$ & &  & \\
+		    
+		    GLACIER & $380$ & $\nu_x^{NC}({}^{40}Ar^{*})$ & & & \\
+		\br
+		\end{tabular}
+%		\end{indented}
+\end{table}
+%\end{sidewaystable}
+
+The $\bar{\nu}_e$ detection by Inverse Beta Decay (IBD) 
+is the golden channel for MEMPHYS and LENA. In addition, the electron neutrino signal can be detected by LENA
+thanks to the interaction on $^{12}$C.  The three charged-current reactions would provide 
+information on $\nu_e$ and $\bar{\nu}_{e}$ fluxes and spectra while the three neutral-current processes,
+sensitive to all neutrino flavours, would give information on the total flux.
+GLACIER has also the opportunity to detect $\nu_e$ by charged-current
+interactions on ${}^{40}\rm{Ar}$ with a very low energy threshold. 
+The detection complementarity between $\nu_e$ and $\bar{\nu}_e$ is of
+great interest and would assure a unique way of probing the SN explosion
+mechanism as well as assessing intrinsic neutrino properties.  Moreover, the
+huge statistics would allow spectral studies in time and in energy domain.
+
+We wish to stress that it will be difficult to establish SN neutrino
+oscillation effects solely on the basis of a $\bar\nu_e$ or $\nu_e$
+spectral hardening, relative to theoretical expectations. Therefore, in the recent literature the importance of
+model-independent signatures has been emphasized. Here we focus
+mainly on signatures associated to the prompt $\nu_e$
+neutronization burst, the shock-wave propagation and the Earth matter crossing.
+
+The analysis of the time structure of the SN signal during the first few tens of milliseconds
+after the core bounce can provide a clean indication if the full $\nu_e$ burst is present or
+absent, and therefore allows distinguishing between different mixing scenarios, as indicated by the
+third column of \refTab{tab:Phys-SN-SummaryOscNeut}. For example, if the mass
+ordering is normal and $\theta_{13}$ is large, the $\nu_e$ burst
+will fully oscillate into $\nu_x$.  If $\theta_{13}$ turns out to be relatively large
+one could be able to distinguish between normal and inverted neutrino mass hierarchy.  
+
+As discussed above, MEMPHYS is mostly sensitive to the IBD, although
+the $\nu_e$ channel can be measured by the elastic scattering reaction
+$\nu_x+e^-\to e^-+\nu_x$ \cite{Kachelriess:2004ds}. Of course, the
+identification of the neutronization burst is the 
+cleanest with a detector exploiting the charged-current absorption of $\nu_e$ neutrinos, such as
+GLACIER.  Using its unique features of measuring $\nu_e$ CC (Charged Current) events it is
+possible to probe oscillation physics during the early stage of the SN explosion, while with NC (Neutral Current) events one can 
+decouple the SN
+mechanism from the oscillation physics \cite{Gil-Botella:2004bv,Gil-Botella:2003sz}. 
+
+A few seconds after core bounce, the SN shock wave will pass the density region in the stellar envelope relevant for oscillation matter
+effects, causing a transient modification of the survival probability and thus a time-dependent signature in the neutrino signal
+\cite{Schirato:2002tg,Fogli:2003dw}.  This would produce a characteristic
+dip when the shock wave passes \cite{Fogli:2004ff}, or a double-dip if a reverse shock occurs \cite{Tomas:2004gr}. The
+detectability of such a signature has been studied in a large \WC\
+detector like MEMPHYS by the IBD \cite{Fogli:2004ff}, and in a
+liquid Argon detector like GLACIER by Argon CC interactions
+\cite{Barger:2005it}. The shock wave effects would certainly be
+visible also in a large volume scintillator such as LENA. Such observations
+would test our theoretical understanding of the core-collapse SN phenomenon, in addition to identifying the actual 
+neutrino mixing scenario.
+ 
+%The (A. Mirizzi 15may07)
+Nevertheless, the supernova matter profile need not be smooth. Behind the
+shock-wave, convection and turbulence can cause significant stochastic density
+fluctuations which tend to cast a shadow by making other features, such as the shock front, 
+unobservable in the density range covered by the turbulence \cite{Fogli:2006xy,Friedland:2006ta}. The quantitative
+relevance of this effect remains to be understood. 
+
+A unambiguous indication of oscillation effects would be the energy-dependent modulation of the survival probability 
+$ p(E)$ caused by Earth matter effects \cite{Lunardini:2001pb}. 
+%These effects can be revealed by wiggles in the energy spectra. (A. Mirizzi 15may07)
+Under the assumption of a definite mass hierarchy (either normal or inverted), the calculation of neutrino conversion probability in Earth can be reduced to a 2 $\nu$ problem,  so that \refTab{tab:Phys-SN-Flux} and Eq.~\ref{eqfluxes1-3}, one can substitute $\cos^2 \theta_{12} \rightarrow 1-P_E$ and $\sin^2 \theta_{12} \rightarrow P_E$, where $P_E=P(\nu_e \rightarrow \nu_2)$ in the Earth. Analytical expression for $P_E$ can be given for particularly simple (or approximated) situations of Earth matter crossing \cite{PhysRevD.65.073008,PhysRevD.66.039901}. These effects can be revealed by peculiar wiggles in the energy spectra, due
+to neutrino oscillations in Earth crossing.
+In this respect, LENA benefits from a better energy resolution than MEMPHYS, which may be partially compensated by 
+10 times more statistics
+\cite{Dighe:2003jg}.  The Earth effect would show up in the $\bar{\nu}_e$ channel for the normal mass hierarchy, assuming 
+that $\theta_{13}$ is large (\refTab{tab:Phys-SN-SummaryOscNeut}). Another possibility to establish the presence of Earth 
+effects is to use the signal from two detectors if one of them sees the SN shadowed by the
+Earth and the other not. A comparison between the signal normalization in the two detectors might reveal Earth 
+effects \cite{Dighe:2003be}.
+The probability for observing a Galactic SN shadowed by the Earth as
+a function of the detector's geographic latitude depends only mildly
+on details of the Galactic SN distribution \cite{Mirizzi:2006xx}. A location at the
+North Pole would be optimal with a shadowing probability of about
+60\%, but a far-northern location such as Pyh\"asalmi in Finland, the
+proposed site for LENA, is almost equivalent (58\%). One particular
+scenario consists of a large-volume scintillator detector located in
+Pyh\"asalmi to measure the geo-neutrino flux in a continental
+location and another detector in Hawaii to measure it in an oceanic
+location. The probability that only one of them is shadowed exceeds
+50\% whereas the probability that at least one is shadowed is about 80\%.
+%%A Mirizzi 15may07
+%%The shock wave propagation can influence the Earth matter effect, producing a delayed effect $5-7$~s after the core-bounce, 
+%%in some particular situations \cite{Lunardini:2003eh} (\refTab{tab:Phys-SN-SummaryOscNeut}).
+
+As an important caveat, we mention that very recently it has been recognized that nonlinear oscillation effects caused by
+neutrino-neutrino interactions can have a dramatic impact on the
+neutrino flavor evolution for approximately the first 100~km above the
+neutrino sphere \cite{Duan:2006an,Hannestad:2006nj}. 
+%%A. Mirizzi 15may07
+%%The impact
+%%of these novel effects on the observable oscillation signatures has
+%%not yet been systematically studied. 
+The impact of these novel effects and of their observable signatures  is 
+currently under investigation. However, from recent numerical simulations \cite{Duan:2006an}
+and analytical studies \cite{Raffelt:2007cb}, it results that the effects of these non-linear 
+effects would produce a spectral  swap $\nu_e \bar{\nu}_e \leftarrow \nu_x \bar{\nu}_x$
+at $r \lesssim 400$~km, for inverted neutrino mass hierarchy. 
+%In particular, for $\bar{\nu}$ A. Mirizzi 15may07
+%One would observe a complete spectral swapping, while $\nu$ spectra would show a 
+%peculiar bimodal split. A. Mirizzi 4july07
+An would observe a complete spectral
+swapping in the $\bar{\nu}$ fluxes, while $\nu$ spectra would show a peculiar
+stepwise  splitting.
+These effect would appear also for
+astonishingly small values of $\theta_{13}$. 
+These new results suggests once more that one needs complementary detection
+techniques to be sensitive to both neutrino and anti neutrino channels.
+
+Other interesting ideas have been studied in the literature, as the pointing of a SN by neutrinos \cite{Tomas:2003xn},
+determining its distance from the deleptonization burst that 
+plays the role of a standard candle \cite{Kachelriess:2004ds},
+an early alert for an SN observatory exploiting the neutrino
+signal \cite{Antonioli:2004zb}, and the detection of neutrinos from
+the last phases of a 
+%burning star A.Mirizzi 15may07
+presupernova star \cite{Odrzywolek:2003vn}.
+
+So far, we have investigated SN in our Galaxy, but the calculated
+rate of supernova explosions within a distance of 10~Mpc is about 1/year. 
+Although the number of events from a single explosion at
+such large distances would be small, the signal could be separated from the background with the condition to observe at least 
+two events within a time window comparable to the neutrino emission time-scale ($\sim 10$~sec), together with the full 
+energy and time distribution of the events \cite{Ando:2005ka}. In the MEMPHYS detector, with at least
+two neutrinos observed, a SN could be identified without optical confirmation, so that the start of the light curve could be
+forecast by a few hours, along with a short list of probable host
+galaxies. This would also allow the detection of supernovae which are either heavily obscured by dust or are optically 
+faint due to prompt black hole formation.
+
+%
+\begin{table}
+		\caption{\label{tab:Phys-SN-SummaryOscNeut}Summary
+ of the effect of the neutrino properties on $\nu_e$ and $\bar{\nu}_e$ signals.}
+%
+		\begin{tabular}{@{}lllll}\br
+		\parbox[b]{2cm}{Mass\\ Hierarchy}   & $\sin^2\theta_{13}$ & \parbox[b]{3cm}{$\nu_e$ neutronization\\peak} & Shock wave & Earth effect 
+		\\
+%		\\[2mm] 
+		\mr
+%A Mirizzi 15may07
+%%		Normal    & $\gtrsim 10^{-3}$ & Absent  & $\nu_e$   & $\bar{\nu}_e$; $\nu_e$ delayed \\
+%%		Inverted    & $\gtrsim 10^{-3}$ & Present  & $\bar{\nu}_e$   & $\nu_e$; $\bar{\nu}_e$ delayed \\
+%%		Any    & $\lesssim 10^{-5}$ & Present  & -   & both $\bar{\nu}_e$ $\nu_e$ \\
+		Normal    & $\gtrsim 10^{-3}$ & Absent  & $\nu_e$   & $\bar{\nu}_e$\\
+		Inverted    & $\gtrsim 10^{-3}$ & Present  & $\bar{\nu}_e$   & $\nu_e$ \\
+		Any    & $\lesssim 10^{-5}$ & Present  & -   & both $\bar{\nu}_e$ $\nu_e$ \\
+		%[2mm]
+\br
+		\end{tabular}
+\end{table}
+%
+\subsection{Diffuse supernova neutrino background} 
+
+As mentioned above, a galactic SN explosion would be a spectacular source of neutrinos, 
+so that a variety of neutrino and SN properties could be
+assessed.  However, only one such explosion is expected in 20 to 100
+years by now.  
+%Alternatively or in addition, A. Mirizzi 15may07 
+Waiting for the next galactic SN, one can detect the cumulative neutrino flux from all the past SN in the Universe, 
+the so-called Diffuse Supernova Neutrino Background (DSNB). In particular, there is an energy window around 
+$10-40$~MeV where the DSNB signal can emerge above other sources, so that the proposed detectors may well 
+measure this flux after some years of exposure.
+
+\begin{table}
+	\caption{\label{tab:Phys-SN-DiffuseRates}DSNB expected
+	rates. The larger numbers of expected signal events are computed with the present limit
+	on the flux by the Super-Kamiokande Collaboration. The smaller
+	numbers are computed for typical models. The background
+	from reactor plants has been computed for specific sites
+	for LENA and MEMPHYS. For MEMPHYS, the Super-Kamiokande
+	background has been scaled by the exposure.}
+
+	\begin{tabular}{@{}llll}\br
+	Interaction & Exposure     &  Energy Window &  Signal/Bkgd \\ \mr 
+\multicolumn{4}{@{}l}{GLACIER}\\
+ $\nu_e + {}^{40}Ar \rightarrow e^- + {}^{40}K^*$ &
+\parbox{2cm}{0.5~Mton~year\\5~years} &
+$[16-40]$~MeV & (40-60)/30 \\
+%			
+\multicolumn{4}{@{}l}{LENA at Pyh\"asalmi} \\
+\parbox{25mm}{$\bar{\nu}_e + p \rightarrow n + e^+$\\$n+p\rightarrow d+ \gamma$ (2~MeV, $200~\mu$s)} &
+\parbox{2cm}{0.4~Mton~year\\10~years} & 
+$[9.5-30]$~MeV & (20-230)/8 \\
+%
+\multicolumn{4}{@{}l}{1 MEMPHYS module + 0.2\% Gd (with bkgd at Kamioka)} \\
+\parbox{3cm}{$\bar{\nu}_e + p \rightarrow n + e^+$\\$n+Gd\rightarrow \gamma$\\(8~MeV, $20~\mu$s)} &
+\parbox{2cm}{0.7~Mton~year\\5~years} & 
+$[15-30]$~MeV & (43-109)/47 \\
+%
+\br
+		\end{tabular}
+\end{table}
+ 
+The DSNB signal, although weak, is not only  guaranteed, but can also allow 
+probing physics different from that of a galactic SN, including
+processes which occur on cosmological scales in time or space. 
+For instance, the DSNB signal is sensitive to the evolution of the SN
+rate, which in turn is closely related to the star formation rate
+\cite{Fukugita:2002qw,Ando:2004sb}. In addition, neutrino decay
+scenarios with cosmological lifetimes could be analyzed and
+constrained \cite{Ando:2003ie} as proposed in \cite{Fogli:2004gy}.
+An upper limit on the DSNB flux has been set by the Super-Kamiokande
+experiment \cite{Malek:2002ns}
+
+\begin{equation}
+	\phi_{\bar{\nu}_e}^{\mathrm{DSNB}} < 1.2~ \flux (E_\nu > 19.3~\mathrm{MeV}).
+\end{equation}
+
+An upper limit based on the non observation of distortions of the expected
+ background spectra in the same energy range. The most recent
+ theoretical estimates  (see for example \cite{Strigari:2005hu,Hopkins:2006bw})  predict a DSNB flux very close to the SK upper limit,
+ suggesting that the DSNB is on the verge of the detection if a
+ significant background reduction is achieved such as Gd loading \cite{Beacom:2003nk}.  
+ With a careful reduction of backgrounds, the proposed large detectors would
+ not only be able to detect the DSNB, but to study its spectral
+ properties with some precision.  In particular, MEMPHYS and LENA would be sensitive
+ mostly to the $\bar{\nu}_e$ component of DSNB,  through $\bar{\nu}_e$ IBD, 
+ while GLACIER would probe  $\nu_e$ flux, trough   $\nu_e + {}^{40}Ar     
+\rightarrow e^-  + {}^{40}K^*$ (and the  associated gamma cascade) \cite{Cocco:2004ac}.
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig8-dsnspec1.eps}
+\end{center}
+\caption{DSNB signal and background in the LENA detector in 10 years of exposure. The shaded regions give the uncertainties of all curves. An observational window between $\sim 9.5$ to 25~MeV that is almost free of background can be identified 
+(for the Pyh\"asalmi site). The DSN neutrino rates are shown for different models of core-collapse supernova simulation performed by the Lawrence Livermore (LL) , Keil, Raffelt and Janka (KRJ) and Thompson, Burrows and Pinto (TBP) groups. Reprinted figure with permission from~\cite{Wurm:2007cy}.}
+\label{fig:Phys-SN-LENAsnr}
+\end{figure}
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig9-GdSKtemp-expect-bis.eps}
+\end{center}
+\caption{Possible 90\% C.L. measurements of the emission parameters
+of supernova electron antineutrino emission after 5
+years running of a Gadolinium-enhanced SK detector or 1 year of one Gadolinium-enhanced MEMPHYS tanks.
+Reprinted figure with permission from~\cite{Yuksel:2005ae}.}
+\label{fig:Phys-DSN-sndpar}
+\end{figure}
+%
+
+The DSNB signal energy window is constrained from above by the atmospheric neutrinos and from below by 
+either the nuclear reactor $\bar{\nu}_e$ (I), the spallation production of unstable radionuclei
+by cosmic-ray muons (II), the decay of "invisible" muons into electrons (III), solar
+%A Mirizzi suggests a Vth bkgd
+ $\nu_e$ neutrinos (IV), and low energy atmospheric $\nu_e$ and $\bar{\nu}_e$ neutrinos interactions (V). The three detectors
+are affected differently by these backgrounds.
+% A Mirizzi adds bkgd V to Glacier and I,II,V to MEMPHYS 15may07
+GLACIER looking at $\nu_e$ is mainly affected by types IV and V. MEMPHYS filled with pure water is affected by types I, II, V and III due to the 
+fact that the muons may not have enough energy to produce Cherenkov light. As pointed out in \cite{Fogli:2004ff}, with the addition of Gadolinium \cite{Beacom:2003nk} the detection of the captured neutron releasing 8~MeV gamma after 
+$\sim20~\mu$s (10 times faster than in pure water) would give the possibility to reject  the "invisible" muon (type III) 
+as well as the spallation background (type II). 
+LENA taking benefit from the delayed neutron capture in $\bar{\nu}_e + p \rightarrow n + e^+$, is mainly concerned with
+reactor neutrinos (I), which impose to choose an underground site far from nuclear plants.
+If LENA was installed at the Center for Underground Physics in Pyh\"asalmi (CUPP, Finland),
+there would be an observational window from $\sim 9.7$ to 25~MeV that is almost free of background. The expected rates of signal and background are presented in \refTab{tab:Phys-SN-DiffuseRates}.
+According to current DSNB models \cite{Ando:2004sb} that are using
+different SN simulations (\cite{Totani:1997vj, Thompson:2002mw, Keil:2002in}) for the
+prediction of the DSNB energy spectrum and flux, the detection of $\sim$10 DSNB events per year is realistic for LENA. Signal rates
+corresponding to different DSNB models and the background rates due to reactor and atmospheric neutrinos are shown in
+\refFig{fig:Phys-SN-LENAsnr} for 10 years exposure at CUPP.
+
+Apart from the mere detection, spectroscopy of DSNB events in LENA will constrain the parameter space of core-collapse models. 
+If the SN rate signal is known with sufficient precision, the spectral slope of the DSNB can be used to determine 
+the hardness of the initial SN neutrino spectrum. For the currently favoured value of the SN rate, the discrimination between core-collapse models will be possible at 2.6$\sigma$ after 10 years of measuring time \cite{Wurm:2007cy}.
+In addition, by the analysis of the flux in the energy region from 10
+to 14~MeV the SN rate for $z<2$ could be constrained with high significance, as in this energy regime the DSNB flux is only weakly dependent on the assumed SN model. 
+The detection of the redshifted DSNB from $z>1$ is limited by the flux of the reactor $\bar\nu_e$ background. In Pyhäsalmi, a lower threshold of 9.5~MeV resuls in a spectral contribution of 25\% DSNB from $z>1$.
+
+The analysis of the expected DSNB spectrum that would be observed
+with a Gadolinium-loaded \WC\ detector has been carried out in \cite{Yuksel:2005ae}. 
+The possible measurements of the parameters (integrated luminosity and average energy) of
+SN $\bar\nu_e$ emission have been computed for 5 years running of
+a Gd-enhanced Super-Kamiokande detector, which would correspond to 1 year
+of one Gd-enhanced MEMPHYS tank. The results are shown in \refFig{fig:Phys-DSN-sndpar}.
+Even if detailed studies on the characterization of the background are needed, the DSNB events provide the first neutrino detection originating from cosmological distances.
+%may be 
+%%as powerful as A. Mirizzi 15may07 
+%a complementary source of results
+%to those made by Kamioka and IMB with SN1987A $\bar\nu_e$ events. 
+
+%}
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Solar neutrinos}
+\label{sec:Solar}
+%
+In the past years water Cherenkov detectors have measured the high energy tail ($E>5$~MeV)
+of the solar $^{8}$B neutrino flux using electron-neutrino elastic scattering \cite{Smy:2002rz}. 
+Since such detectors could record the time of an interaction and reconstruct 
+the energy and direction of the recoiling electron, unique information 
+on the spectrum and time variation of the solar neutrino flux were extracted. 
+This provided further insights into the "solar neutrino problem'', 
+the deficit of the neutrino flux (measured by several experiments) 
+with respect to the flux expected by solar models, contributing to the assessment of
+the oscillation scenario for solar neutrinos \cite{Davis:1968cp,Hirata:1989zj,Anselmann:1992um,Abdurashitov:1994bc,Smy:2002rz,Aharmim:2005gt,Altmann:2005ix} .
+
+With MEMPHYS,  Super-Kamiokande's measurements obtained from 1258 days 
+of data taking could be repeated in about half a year, while the seasonal flux variation 
+measurement will obviously require a full year. In particular, the first 
+measurement of the flux of the rare $hep$ neutrinos may be possible.
+Elastic neutrino-electron scattering is strongly forward peaked. 
+In order to separate the solar neutrino signal from the isotropic background events (mainly due to low radioactivity), this 
+directional correlation is exploited, although the angular resolution is limited 
+by multiple scattering.  The reconstruction algorithms first reconstruct 
+the vertex from the PMT timing information and then the direction, by assuming a single 
+Cherenkov cone originating from the reconstructed vertex. 
+Reconstructing 7~MeV events in MEMPHYS seems not to be a problem, but decreasing this 
+threshold would imply serious consideration of the PMT dark current rate as well as the laboratory and detector radioactivity level.
+
+With LENA, a large amount of neutrinos from ${}^{7}$Be (around $\sim5.4\times10^3$/day, $\sim 2.0\times10^6$/year) would be
+detected. Depending on the signal to background ratio, this could provide a sensitivity to time variations in the $^{7}$Be neutrino
+flux of $\sim 0.5$\% during one month of measuring time. Such a sensitivity can give unique information on helioseismology
+(pressure or temperature fluctuations in the center of the Sun) and on a possible magnetic moment interaction 
+with a timely varying solar magnetic field.
+The {\it pep} neutrinos are expected to be recorded at a
+rate of $210$/day ($\sim 7.7\times10^4$/y). These events would
+provide a better understanding of the global solar neutrino
+luminosity, allowing to probe (due to their peculiar energy)  the
+transition region of vacuum to matter-dominated neutrino oscillation.
+
+The neutrino flux from the CNO cycle is theoretically
+predicted with a large uncertainty (30\%). Therefore, LENA would provide a new opportunity for a detailed
+study of solar physics. However, the observation of such solar
+neutrinos in these detectors, $i.e.$ through elastic scattering, is not
+a simple task, since neutrino events cannot be separated from the background, and it can be accomplished only if the detector
+contamination will be kept very low \cite{Alimonti:1998aa,Alimonti:1998nt}. Moreover, only
+mono-energetic sources as those mentioned can be detected, taking
+advantage of the Compton-like shoulder edge produced in the event spectrum.
+
+Recently, the possibility to detect ${}^8$B solar neutrinos by means of charged-current interaction with the
+${}^{13}$C \cite{Ianni:2005ki} nuclei naturally contained in organic scintillators has been investigated. Even if signal events do not
+keep the directionality of the neutrino, they can be separated from background by exploiting the time and space coincidence with the
+subsequent decay of the produced ${}^{13}$N nuclei. The residual background amounts to about $60$/year 
+corresponding to a reduction factor of
+$\sim 3 \times10^{-4}$ \cite{Ianni:2005ki}. Around 360~events of this type
+per year can be estimated for LENA. A deformation due to the MSW matter effect
+should be observable in the low-energy regime after a couple of years of measurements.
+
+%LENA after referee
+%For the proposed location of LENA in Pyh\"asalmi ($\sim 4000$~m.w.e.),
+%the cosmogenic background will be sufficiently low for the above mentioned
+%measurements. 
+For the proposed location of LENA in Pyh\'asalmi ($\sim 4000$~m.w.e.), the  cosmogenic background will produce $^{11}$C which contribute to the CNO and pep neutrino measurements. At the Pyh\"almi site, the signal to background ratio is estimated to be $\sim 1$ \cite{Hagner:2000xb}. Event by event, background rejection can be achieved by registration of the neutron capture which follows $^{11}$C production by spallation processes induced by cosmic muons. This technique has been successfully demonstrated in the Counting Test Facility for Borexino (CTF) \cite{Back:2006vc}.
+Notice that the Fréjus site would also be adequate for this
+case ($\sim 4800$~m.w.e.). The radioactivity of the detector would
+have to be kept very low ($10^{-17}$~g/g level U-Th) as in the KamLAND detector.
+
+Solar neutrinos can be detected by GLACIER through the elastic scattering $\nu_x + e^- \rightarrow \nu_x + e^-$ (ES) and the absorption 
+reaction $\nu_e + {}^{40}Ar \rightarrow e^- + {}^{40}K^*$ (ABS) followed by $\gamma$-ray emission. 
+Even if these reactions have low energy threshold ($1.5$~MeV for the second one), 
+one expects to operate in practice with a threshold set at 5~MeV on the primary electron kinetic energy,
+in order to reject background from neutron capture followed by gamma emission, which constitutes the main background for some
+of the underground laboratories \cite{Arneodo:2001tx}. 
+These neutrons are induced by the spontaneous fission and ($\alpha$,n)
+reactions in rock. In the case of a salt mine this background can be smaller.
+The fact that salt has smaller U/Th concentrations does not necessarily mean that the neutron flux is smaller. The flux depends on the rock
+composition since (alpha,n) reactions may contribute significantly to the flux.
+The expected raw event rate is $330\ 000$/year (66\% from ABS, 25\% from ES and 9\% from neutron background induced events) 
+assuming the above mentioned threshold on the final electron energy. 
+By applying further offline cuts to purify separately the ES sample and the ABS sample, one obtains 
+the rates shown on \refTab{tab:GLACIER-Solar}.
+
+\begin{table}
+		\caption{\label{tab:GLACIER-Solar} Number of events expected in GLACIER per year, compared with the computed background (no oscillation) from the Gran Sasso rock radioactivity ($0.32~10^{-6}$~n \flux ($> 2.5$~MeV). The absorption channel has 
+been split into the contributions of events from Fermi and Gamow-Teller transitions of the ${}^{40}$Ar to the different ${}^{40}$K excited levels and that can be separated using the emitted gamma energy and multiplicity.} 
+\lineup
+\begin{indented}
+\item[]\begin{tabular}{@{}ll}\br
+							& Events/year \\ \mr
+Elastic channel ($E\geq5$~MeV)                &   $\045\ 300$ \\
+Neutron background          						      &	  $\0\0\ 1400$ \\
+Absorption events contamination               & $\0\0\ 1100$ \\ \mr
+Absorption channel (Gamow-Teller transition)	& $101\ 700$ \\
+Absorption channel (Fermi transition)	        & $\059\ 900$ \\
+Neutron background          						      & $\0\0\ 5500$ \\						
+Elastic events contamination                  & $\0\0\ 1700$ \\		
+			\br
+		\end{tabular}
+		\end{indented}
+\end{table}
+
+A possible way to combine the ES and the ABS channels similar to the NC/CC flux ratio measured by SNO collaboration \cite{Aharmim:2005gt}, is to compute the following ratio
+
+\begin{equation}
+	R = \frac{N^{ES}/N^{ES}_0}{\frac{1}{2}\left( N^{Abs-GT}/N^{Abs-GT}_0 + N^{Abs-F}/N^{Abs-F}_0\right)}
+\end{equation}
+
+where the numbers $N^{ES}$, $N^{Abs-GT}$ and $N^{Abs-F}$ are the measured event rates (elastic, absorption Gamow-Teller transition and absorption pure Fermi transition respectively), and the expected events without neutrino oscillations are labeled with a $0$). This double ratio has two advantages.
+First, it is independent of the ${}^{8}$B total neutrino flux, predicted by different solar models, 
+and second, it is free from experimental threshold energy bias and of the adopted cross-sections 
+for the different channels. 
+With the present fit to solar neutrino experiments and KamLAND data, one expects a value of $R = 1.30\pm 0.01$ after one 
+year of data taking with GLACIER.  The quoted error for R only takes into account statistics. 
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Atmospheric neutrinos}
+\label{sec:Phys-Atm-neut}
+%
+
+Atmospheric neutrinos originate from the decay chain initiated by the collision of 
+primary cosmic-rays with the upper layers of Earth's atmosphere.
+The primary cosmic-rays are mainly protons
+and helium nuclei producing secondary particles such
+$\pi$ and $K$, which in turn decay producing electron- and muon-
+neutrinos and antineutrinos.
+
+%
+\begin{figure}
+\begin{center}
+    \includegraphics[width=0.7\columnwidth]{Fig10-fig.octant.eps}
+\end{center}
+    \caption{ \label{fig:octant} %
+      Discrimination of the wrong octant solution as a function of
+      $\sin^2\theta_{23}^\mathrm{true}$, for
+      $\theta_{13}^\mathrm{true} = 0$. We have assumed 10 years of
+      data taking with a 440 kton detector. Reprinted figure with permission from~\cite{Campagne:2006yx}.}
+\end{figure}
+
+%
+At low energies the main contribution comes from $\pi$ mesons, and
+the decay chain $\pi \to \mu + \nu_\mu$ followed by $\mu \to e + \nu_e
++ \nu_\mu$ produces essentially two $\nu_\mu$ for each $\nu_e$.  As
+the energy increases, more and more muons reach the ground before
+decaying, and therefore the $\nu_\mu / \nu_e$ ratio increases.
+%
+For $E_\nu \gtrsim 1$~GeV the dependence of the total neutrino flux on
+the neutrino energy is well described by a power law, $d\Phi / dE
+\propto E^{-\gamma}$ with $\gamma = 3$ for $\nu_\mu$ and $\gamma=3.5$
+for $\nu_e$, whereas for sub-GeV energies the dependence becomes more
+complicated because of the effects of the solar wind and of Earth's magnetic field \cite{Gonzalez-Garcia:2002dz}. As for the
+zenith dependence, for energies larger than a few GeV the neutrino
+flux is enhanced in the horizontal direction, since pions and muons can travel a longer distance before
+losing energy in interactions (pions) or reaching the ground (muons),
+and therefore have more chances to decay producing energetic neutrinos.
+
+Historically, the atmospheric neutrino problem originated in the 80's as a discrepancy between the 
+atmospheric neutrino flux measured
+with different experimental techniques and the expectations. In the last years, a
+number of detectors had been built, which could detect neutrinos through the observation of the charged lepton produced in charged-current neutrino-nucleon interactions inside the detector material.
+These detectors could be divided into two classes: \emph{iron calorimeters}, which reconstruct the track or the 
+electromagnetic shower induced by the lepton, and \emph{water Cherenkov}, which measure the Cherenkov light 
+emitted by the lepton as it moved faster
+than light in water filling the detector volume.
+%
+The first iron calorimeters, Frejus \cite{Daum:1994bf} and NUSEX \cite{Aglietta:1988be}, found no discrepancy between the
+observed flux and the theoretical predictions, whereas the two \WC\ detectors, IMB \cite{Becker-Szendy:1992hq} and
+Kamiokande \cite{Hirata:1992ku}, observed a clear deficit compared to the predicted $\nu_\mu / \nu_e$ ratio.
+The problem was finally solved in 1998, when the already mentioned water Cherenkov
+Super-Kamiokande detector \cite{Fukuda:1998mi} allowed to establish with high
+statistical accuracy that there was indeed a zenith- and energy-dependent deficit in the muon-neutrino flux with respect to the
+theoretical predictions, and that this deficit was compatible with the
+hypothesis of  $\nu_\mu \to \nu_\tau$ oscillations. The independent confirmation of this effect from the calorimeter
+experiments Soudan-II \cite{Allison:1999ms} and
+MACRO \cite{Ambrosio:2001je} eliminated the original discrepancy between the
+two experimental techniques.
+
+Despite providing the first solid evidence for neutrino oscillations,
+atmospheric neutrino experiments suffer from two important limitations.
+Firstly, the sensitivity of an atmospheric neutrino experiments is
+strongly limited by the large uncertainties in the knowledge of
+neutrino fluxes and neutrino-nucleon cross-section. Such uncertainties can be as large as 20\%.
+Secondly, water Cherenkov detectors do not allow an accurate
+    reconstruction of the neutrino energy and direction if none of the
+    two is known a priori. This strongly limits the sensitivity to
+    $\Delta m^2$, which is very sensitive to the resolution of $L/E$.
+
+During its phase-I, Super-Kamiokande has collected 4099 electron-like
+and 5436 muon-like contained neutrino events \cite{Ashie:2005ik}. With
+only about one hundred events each, the accelerator experiments K2K \cite{Ahn:2006zz} and
+MINOS \cite{Tagg:2006sx} already provide a stronger bound on the atmospheric mass-squared difference $\Delta m_{31}^2$. The present
+value of the mixing angle $\theta_{23}$ is still dominated by Super-Kamiokande data, being statistically the most important factor for
+such a measurement. However, large improvements are expected from the next
+generation of long-baseline experiments such as T2K \cite{Itow:2001ee} and
+NO$\nu$A \cite{Ayres:2004js}, sensitive to the same oscillation parameters as atmospheric neutrino experiments.
+
+\begin{figure}
+\begin{center}
+    \includegraphics[width=0.7\columnwidth]{Fig11-SPLBBMEMPHYS-fig16.eps}
+\end{center}
+    \caption{ \label{fig:hierarchy} %
+      Sensitivity to the mass hierarchy at $2\sigma$ ($\Delta\chi^2 =
+      4$) as a function of $\sin^22\theta_{13}^\mathrm{true}$ and
+      $\delta_\mathrm{CP}^\mathrm{true}$ (left), and the fraction of
+      true values of $\delta_\mathrm{CP}^\mathrm{true}$ (right). The
+      solid curves are the sensitivities from the combination of
+      long-baseline and atmospheric neutrino data, the dashed curves
+      correspond to long-baseline data only. We have assumed 10 years
+      of data taking with a 440~kton mass detector. Reprinted figure with permission from~\cite{Campagne:2006yx}.}
+\end{figure}
+%
+
+\begin{figure}
+\begin{center}
+    \includegraphics[width=0.7\columnwidth]{Fig12-theta13.eps}
+\end{center}
+    \caption{ \label{fig:theta13} %
+      Sensitivity to $\sin^22\theta_{13}$ as a function of
+      $\sin^2\theta_{23}^\mathrm{true}$ for LBL data only (dashed),
+      and the combination beam and atmospheric neutrino data (solid). In the left and central
+      panels we restrict the fit of $\theta_{23}$ to the octant
+      corresponding to $\theta_{23}^\mathrm{true}$ and $\pi/2 -
+      \theta_{23}^\mathrm{true}$, respectively, whereas the right
+      panel shows the overall sensitivity taking into account both
+      octants. We have assumed 8 years of beam and 9 years of atmospheric neutrino data
+      taking with the T2HK beam and a 1~Mton detector. Reprinted figure with permission from~\cite{huber-2005-71}.}
+\end{figure}
+
+%
+Despite the above limitations, atmospheric neutrino detectors can still play a leading role in the future of neutrino physics due to the huge range
+in energy (from 100~MeV to 10~TeV and above) and distance (from 20~km to more than $12\ 000$~km) covered by the data. 
+This unique feature, as well as the very large statistics expected for a detector such as
+MEMPHYS ($20\div 30$ times the present Super-Kamiokande event rate), will allow a
+very accurate study of the subdominant modification to the leading
+oscillation pattern, thus providing complementary information to
+accelerator-based experiments. More concretely, atmospheric neutrino
+data will be extremely valuable for
+%
+\begin{itemize}
+  \item Resolving the octant ambiguity. Although future accelerator
+    experiments are expected to considerably improve the measurement
+    of the absolute value of the small quantity $D_{23} \equiv
+    \sin^2\theta_{23} - 1/2$, they will have practically no
+    sensitivity on its sign.  On the other hands, it has been pointed
+    out \cite{Kim:1998bv,Peres:1999yi} that the $\nu_\mu \to \nu_e$ conversion
+    signal induced by the small but finite value of $\Delta m_{21}^2$
+    can resolve this degeneracy. However, observing such a conversion
+    requires a very long baseline and low energy neutrinos, and
+    atmospheric sub-GeV electron-like events are particularly suitable
+    for this purpose. In \refFig{fig:octant} we show the potential
+    of different experiments to exclude the octant degenerate
+    solution.
+
+  \item Resolving the hierarchy degeneracy. If $\theta_{13}$ is not
+    too small, matter effect will produce resonant conversion in the
+    $\nu_\mu \leftrightarrow \nu_e$ channel for neutrinos
+    (antineutrinos) if the mass hierarchy is normal (inverted). The
+    observation of this enhanced conversion would allow the
+    determination of the mass hierarchy. Although a magnetized
+    detector would be the best solution for this task, it is possible
+    to extract useful information also with a conventional detector
+    since the event rates expected for atmospheric neutrinos and
+    antineutrinos are quite different. This is clearly visible from
+    \refFig{fig:hierarchy}, where we show how the sensitivity to the
+    mass hierarchy of different beam experiments is drastically
+    increased when the atmospheric neutrino data collected by the same detector are
+    also included in the fit.
+
+  \item Measuring or improving the bound on $\theta_{13}$. Although
+    atmospheric data alone are not expected to be competitive with the
+    next generation of long-baseline experiments in the sensitivity to
+    $\theta_{13}$, they will contribute indirectly by eliminating the
+    octant degeneracy, which is an important source of uncertainty for beam experiments.
+    In particular, if $\theta_{23}^\mathrm{true}$ is larger than
+    $45^\circ$ then the inclusion of atmospheric data will
+    considerably improve the accelerator experiment sensitivity to $\theta_{13}$, as can
+    be seen from the right panel of \refFig{fig:theta13} \cite{huber-2005-71}.
+\end{itemize}
+
+%At energies above 1 GeV, we expect unoscillated events to be
+%quasi-symmetric with respect to the horizontal plane. In contrast,
+%in the case of oscillations, we know that $\nu_\tau, \ \bar{\nu}_\tau$ induced events come from 
+%below the horizon (upward going events). Therefore, 
+%the presence of $\nu_\tau$, $\bar{\nu}_\tau$ events can be revealed by a
+%measured excess of upward going events. Hereafter, we assume that {$\nu_\mu$} and 
+%{$\mathbf \nu_\tau$} are maximally mixed and their mass 
+%squared difference is {$ \Delta m^2 = 3. \times 10^{-3}$} eV{$^2$}.
+
+In GLACIER, the search for $\nu_\tau$ appearance is based on the information provided by the event kinematics and takes advantage of the special characteristics of $\nu_\tau$ CC and the subsequent
+decay of the produced $\tau$ lepton when compared to CC and NC interactions 
+of $\nu_\mu$ and $\nu_e$, i.e. by making use of $\vec{P}_{candidate}$ 
+and $\vec{P}_{hadron}$. 
+Due to the large background induced by atmospheric muon and electron
+neutrinos and antineutrinos, the measurement of a statistically
+significant excess of $\nu_\tau$ 
+events is very unlikely for the  $\tau \to e$ and  $\tau \to \mu$ decay modes.
+
+The situation is much more advantageous for the hadronic channels. 
+One can consider tau-decays to one prong (single pion, $\rho$) and to three
+prongs ($\pi^\pm \pi^0 \pi^0 $ and three charged pions). In order to select the signal, 
+one can exploit the kinematical variables $E_{visible}$, 
+$y_{bj}$ (the ratio between the total hadronic energy and
+$E_{visible}$) and $Q_T$ (defined as the transverse momentum of the $\tau$
+candidate with respect to the total measured momentum) that are not completely independent one from another but show
+some correlation. These correlations can be exploited to reduce the
+background. In order to maximize the separation between signal 
+and background, one can use three dimensional likelihood functions 
+${\cal L}(Q_T,E_{visible}, y_{bj})$ where
+correlations are taken into account. For each channel, three
+dimensional likelihood functions are built 
+for both signal (${\cal L}^S_\pi, \ {\cal L}^S_\rho, \ 
+{\cal L}^S_{3\pi}$) and background (${\cal L}^B_\pi, \ {\cal L}^B_\rho, \ 
+{\cal L}^B_{3\pi}$). In order to enhance the separation of $\nu_\tau$ induced 
+events from $\nu_\mu, \ \nu_e$ interactions, the ratio of 
+likelihoods is taken as the sole discriminant variable
+$\ln \lambda_i \equiv \ln({\cal L}^S_i / {\cal L}^B_i)$ where $i=\pi,\ \rho, \ 3\pi$.
+
+To further improve the sensitivity of the $\nu_\tau$ appearance search, one can combine
+the three independent hadronic analyses into a single one. Events that are common to at least 
+two analyses are counted only once and a survey of all possible combinations, for a restricted set of  values of the likelihood 
+ratios, is performed. Table \ref{tab:combi} illustrates the  statistical significance achieved by several selected combinations of the 
+likelihood ratios for an exposure equivalent to 100 kton year. 
+
+\begin{table}
+\caption{\label{tab:combi}Expected GLACIER background and signal events for different
+combinations of the $\pi$, $\rho$ and $3\pi$ analyses. The considered
+statistical sample corresponds to an exposure of 100
+kton year.}
+\lineup
+\begin{indented}
+\item[]\begin{tabular}{@{}lllllll}\br
+$\ln \lambda_\pi$ & $\ln \lambda_\rho$ & $\ln \lambda_{3\pi}$ & 
+Top & Bottom & $P_\alpha$ ($\%$) & $P_\beta$ ($\%$) \\
+Cut & Cut & Cut & Events & Events &  \\ \mr
+0.0 & $\m0.5$ & $\m 0.0$ & $223$ & $223 + 43 = 266$ & $16.9$ & $2 \times 10^{-1}$ ($3.1\sigma$)\\
+1.5 & $\m1.5$ & $\m 0.0$ & $\0 92$ & $\0 92 + 35= 127$ & $\0 9.7$ & $2 \times 10^{-2}$ ($3.7\sigma$)\\
+3.0 & $-1.0$ & $\m 0.0$ & $\0 87$ & $\0 87 + 33 = 120 $ & $10.2$ & $3 \times 10^{-2}$ ($3.6\sigma$)\\
+3.0 & $\m0.5$ & $\m 0.0$ & $\0 25$ & {$\0 25 + 22= 47$} & $\0 6.1$ & {$2 \times 10^{-3}$ $(4.3\sigma)$} \\ 
+3.0 & $\m1.5$ & $\m 0.0$ & $\0 20$ & $\0 20 + 19 = 39$ & $\0 7.3$ & $4 \times 10^{-3}$ ($4.1\sigma$)\\
+3.0 & $\m0.5$ & $-1.0$ & $\0 59$ & $\0 59 + 30 = 89$ & $\0 7.7$ & $9 \times 10^{-3}$ ($3.9\sigma$)\\
+3.0 & $\m0.5$ & $\m 1.0$ & $\0 18$ & $\0 18 + 17 = 35$ & $\0 8.9$ & $1 \times 10^{-2}$ ($3.8\sigma$)\\ \br
+\end{tabular}
+\end{indented}
+\end{table}
+
+The best combination for a 100 kton year exposure is achieved for the 
+following set of cuts: {$\ln \lambda_\pi > 3$, $\ln \lambda_\rho > 0.5$} and {$\ln \lambda_{3\pi} > 0$}. 
+The expected number of NC background events amounts to 25 (top) 
+while 25+22 = 47 are expected. 
+%Remove and replace by A. Bueno & Anselmo Meregaglia 16th July 07 but introduced 21th Aug. JEC after resubmission (mail cancelation problem)
+%%$P_\beta$ is the Poisson probability 
+%%for the measured excess of upward going events to be due to a
+%%statistical fluctuation as a function of the exposure. 
+We use a suitable discriminant variable to enhance the signal to background ratio of the analyses. After cuts, two sets of events are built: $n_b$ (the number of expected downward going background) and $n_t = n_b + n_s$ (the number of expected upward going events, where $n_s$ is the number of taus). A statistical treatment of the data is performed by building two Poissonian probability density functions:
+\begin{equation}
+f_b(r) \equiv \frac{e^{-n_b} n_b^r}{r!}
+\end{equation}
+with mean $n_b$ and
+\begin{equation}
+f_t(r) \equiv \frac{e^{-n_t} n_t^r}{r!}     
+\end{equation}
+with mean $n_t$.
+The statistical significance of the expected $n_s$ excess is evaluated following two procedures:
+\begin{itemize}
+\item The pdf $f_b$ and $f_t$ are integrated over the whole spectrum of possible measured $r$ values and the overlap between the two is computed:
+$P_\alpha \equiv \int_0^\infty min(f_b(r), \ f_t(r)) dr$.
+The smaller the overlap integrated probability ($P_\alpha$) the larger the significance of the expected excess.
+\item We compute the probability $P_\beta
+\equiv \int_{n_t}^\infty \frac{e^{-n_b} n_b^r}{r!} dr$ that, due to a statistical fluctuation of the unoscillated data, we measure $n_t$ events or more when $n_b$ are expected.
+\end{itemize} 
+As a result, an effect larger than $4\sigma$ is obtained for an 
+exposure of 100 kton year (one year of data taking with GLACIER).
+
+Last but not least, it is worth noting that atmospheric neutrino fluxes are
+themselves an important subject of investigation, and in the light of
+the precise determination of the oscillation parameters provided by
+long baseline experiments, the atmospheric neutrino data accumulated by
+the proposed detectors could be used as a direct measurement of the incoming
+neutrino flux, and therefore as an indirect measurement of the primary cosmic-rays flux. 
+
+The appearance  of subleading features in the main oscillation pattern can also be
+    a hint for New Physics. The huge range of energies probed by
+    atmospheric data will allow to set very strong bounds on
+    mechanisms which predict deviation from the $1/E$ law behavior. For
+    example, the bound on non-standard neutrino-matter interactions
+    and on other types of New Physics (such as violation of the
+    equivalence principle, or violation of the Lorentz invariance)
+    which can be derived from present data is already the
+    strongest which can be put on these
+    mechanisms \cite{Gonzalez-Garcia:2004wg}. 
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Geo-neutrinos}
+\label{sec:Geo}
+
+The total power dissipated from the Earth (heat flow) has been
+measured with thermal techniques to be $44.2\pm1.0$~TW. Despite this
+small quoted error, a more recent evaluation of the same data
+(assuming much lower hydrothermal heat flow near mid-ocean ridges) has
+led to a lower figure of $31\pm1$~TW.
+On the basis of studies of
+chondritic meteorites the calculated radiogenic power is thought to be
+19~TW (about half of the total power), 84\% of which is produced by
+${}^{238}$U and ${}^{232}$Th decay which in turn produce $\bar{\nu}_e$
+by beta-decays (geo-neutrinos).
+It is then of prime importance to measure the
+$\bar{\nu}_e$ flux coming from the Earth to get geophysical
+information, with possible applications in the interpretation of the geomagnetism.
+
+The KamLAND collaboration has recently reported the first observation
+of the geo-neutrinos \cite{Araki:2005qa}. The events are identified by
+the time and distance coincidence between the prompt $e^+$ and the
+delayed (200~$\mu$s) neutron capture produced by $\bar{\nu}_e + p
+\rightarrow n + e^+$ and emiting a 2.2~MeV gamma. The energy window
+to search for the geo-neutrino events is $[1.7,3.4]$~MeV. The lower bound
+corresponds to the reaction threshold while the upper bound is
+constrained by nuclear reactor induced background events.
+The measured rate in the 1~kton liquid scintillator detector located at
+the Kamioka mine, where the Kamiokande detector was previously installed,
+is $25^{+19}_{-18}$ for a total background of $127\pm 13$ events. 
+
+The background is composed by $2/3$ of $\bar{\nu}_e$ events from
+the nuclear reactors in Japan and Korea.
+These events have been actually used by KamLAND to confirm and precisely measure the Solar driven
+neutrino oscillation parameters (see Section \ref{sec:Solar}).
+The residual $1/3$ of the events originates
+from neutrons of 7.3~MeV produced in ${}^{13}$C$(\alpha,n){}^{16}$O reactions and captured as in the
+IBD reaction. 
+The $\alpha$ particles come from the ${}^{210}$Po decays, a ${}^{222}$Rn daughter which is of natural
+radioactivity origin.  The measured geo-neutrino events can be
+converted in a rate of $5.1^{+3.9}_{-3.6} \times 10^{-31}$ $\bar{\nu}_e$ per
+target proton per year corresponding to a mean flux of
+$5.7 \times 10^{6}\flux$, or this can be transformed into a $99\%$ C.L. upper
+bound of $1.45 \times 10^{-30}$ $\bar{\nu}_e$ per target proton per year
+($1.62 \times 10^{7}\flux$ and 60~TW for the radiogenic power).
+
+%JEC 4/7/07 propose to cancel this part very weak
+%In MEMPHYS, one expects 10 times more geo-neutrino events but this would imply to decrease the trigger 
+%threshold to 2~MeV which seems very challenging with respect to the present Super-Kamiokande threshold, set to 
+%4.6~MeV due to high level of raw trigger rate \cite{Fukuda:2002uc}. 
+%This trigger rate is driven by a number of factors as dark current of the 
+%PMTs, $\gamma$s from the rock surrounding the detector, radioactive decay in the PMT glass itself and Radon 
+%contamination in the water. 
+
+In LENA at CUPP a geo-neutrino rate of
+roughly 1000/year~\cite{Hochmuth:2005nh} from the dominant $ \bar\nu_e+p\to
+e^+ + n $ IBD reaction is expected. The delayed
+coincidence measurement of the positron and the 2.2 MeV gamma event, following neutron capture on protons in 
+the scintillator provides a very efficient tool to reject background events.
+The threshold energy of 1.8 MeV allows the measurement of geo-neutrinos
+from the Uranium and Thorium series, but not from $^{40}$K.
+A reactor background rate of about 240 events per year for LENA at CUPP in the relevant energy window from 1.8~MeV to
+3.2~MeV has been calculated.
+This background can be subtracted statistically using the information
+on the entire reactor neutrino spectrum up to $\simeq$~8 MeV.  
+
+As it was shown in KamLAND, a serious background source may come from radio
+impurities. There the correlated background from the isotope
+$^{210}$Po is dominating. However, with an enhanced radiopurity of the
+scintillator, the background can be significantly reduced. 
+Taking the radio purity levels of the Borexino CTF detector
+at Gran Sasso, where a $^{210}$Po activity
+of $35\pm12/\rm{m^3 day}$ in PXE has been observed, this background would
+be reduced by a factor of about 150 compared to KamLAND and would
+account to less than 10 events per year in the LENA detector.  
+
+An additional background that fakes the geo-neutrino signal is due to
+$^9$Li, which is produced by cosmic-muons in spallation reactions with
+$^{12}$C and decays in a $\beta$-neutron cascade.  
+Only a small part of the $^9$Li decays falls into the energy window which is relevant
+for geo-neutrinos. KamLAND estimates this background to be $0.30 \pm
+0.05$ \cite{Araki:2005qa}.
+
+At CUPP the muon reaction rate would be
+reduced by a factor $\simeq 10$ due to better shielding and this
+background rate should be at the negligible level of $\simeq$~1 event per year in LENA.
+From these considerations it follows that LENA would be a very capable
+detector for measuring geo-neutrinos.  Different Earth models could
+be tested with great significance. The sensitivity of LENA for probing
+the unorthodox idea of a geo-reactor in the Earth's core was estimated,
+too. At the CUPP underground laboratory the neutrino
+background with energies up to $\simeq 8$~MeV due to nuclear power
+plants was calculated to be around 2200 events per year.  A
+2~TW geo-reactor in the Earth's core would contribute 420 events per
+year and could be identified at a statistical level of better than
+$3\sigma$ after only one year of measurement.
+
+Finally, in GLACIER the $\bar{\nu}_e + {}^{40}Ar \rightarrow e^+ + {}^{40}Cl^*$ has a threshold 
+of $~7.5$~MeV, which is too high for geo-neutrino detection. 
+
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Indirect searches for the Dark Matter of the Universe}
+\label{sec:DM}
+
+The Weakly Interacting Massive Particles (WIMPs) that likely
+constitute the halo of the Milky Way can occasionally interact with massive objects, 
+such as stars or planets. When they scatter off such an object, 
+they can potentially lose enough energy that they become gravitationally bound and 
+eventually will settle in the center of the celestial body. In
+particular, WIMPs can be captured by and accumulate in the core of the Sun. 
+
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig13-wimp_senal_fondo_10gev.eps}
+\end{center}
+\caption{\label{fig:GLACIERdm1} 
+Expected number of signal and background events as a function of the
+ WIMP elastic scattering production cross-section in the Sun, with a cut 
+of 10 GeV on the minimum neutrino energy. Reprinted figure with permission from~\cite{Bueno:2004dv}.} 
+\end{figure}
+
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig14-jasp_dislimit_10gev.eps}
+\end{center}
+\caption{\label{fig:GLACIERdm2} Minimum number of years required to claim a discovery WIMP signal
+ from the Sun in a 100~kton LAr detector as function of $\sigma_{\rm{elastic}}$
+ for three values of the WIMP mass. Reprinted figure with permission from~\cite{Bueno:2004dv}.}
+\end{figure}
+%
+
+As far as the next generation of large underground observatories is concerned, although not specifically dedicated to the
+search for WIMP particles, one could discuss the capability of GLACIER in identifying, 
+in a model-independent way, 
+neutrino signatures coming from the products of WIMP annihilations in the core 
+of the Sun \cite{Bueno:2004dv}. 
+
+Signal events will consist of energetic electron- (anti)neutrinos coming from the decay
+of $\tau$ leptons and $b$ quarks produced in WIMP annihilation in 
+the core of the Sun. Background contamination from atmospheric neutrinos is expected to be low. 
+One cannot consider the possibility of observing neutrinos from WIMPs accumulated in the Earth. 
+Given the smaller mass of the Earth and the fact that only scalar interactions contribute, 
+the capture rates for our planet are not enough to produce a statistically
+significant signal in GLACIER.
+
+The search method takes advantage of the excellent angular reconstruction and 
+superb electron identification capabilities GLACIER offers in looking for an excess of 
+energetic electron- (anti)neutrinos pointing in the direction of the
+Sun. The expected signal and background event rates have been evaluated, as said above in
+a model independent way, as a function of the WIMP elastic scattering cross-section for a range of masses up to 100~GeV.
+The detector discovery potential, namely the number of years needed to
+claim a WIMP signal has been discovered, is shown in Figs.~\ref{fig:GLACIERdm1} 
+and \ref{fig:GLACIERdm2}. With the assumed set-up and thanks to the low background environment 
+provided by the LAr TPC, a clear WIMP signal would be detected
+provided the elastic scattering cross-section in the Sun is above $\sim 10^{-4}$~pb.
+
+
+%%%%%%%%%%%%%%%%%%%%%%%
+\section{Neutrinos from nuclear reactors}
+\label{sec:Reactor}
+
+The KamLAND 1~kton liquid scintillator detector located at Kamioka measured the neutrino flux from 53 power reactors corresponding to
+701~Joule/cm${}^{2}$ \cite{Araki:2004mb}. An event rate of $365.2\pm23.7$ above 2.6~MeV for an 
+exposure of 766~ton year from the
+nuclear reactors was expected. The observed rate was 258 events
+with a total background of $17.8\pm7.3$. The significant deficit combined with the solar experiment results,
+interpreted in terms of neutrino oscillations, enables a measurement
+of $\theta_{12}$, the neutrino 1-2 family mixing angle
+($\sin^2\theta_{12} = 0.31^{+0.02}_{-0.03}$) as well as the mass
+squared difference $\Delta m^2_{12} = (7.9\pm0.3)~\times 10^{-5}$eV${}^2$.
+
+Future precision measurements are currently being investigated. Running KamLAND
+for 2-3 more years would gain 30\% (4\%) reduction in the spread of
+$\Delta m^2_{12}$ ($\theta_{12}$). Although it has been shown in Sections \ref{sec:SN} and \ref{sec:Geo}
+that $\bar{\nu}_e$ originated from nuclear reactors can be a serious
+background for diffuse supernova neutrino and geo-neutrino detection,
+the Fréjus site can take benefit of the nuclear reactors located in
+the Rh\^one valley to measure $\Delta m_{21}^2$ and $\sin^2\theta_{12}$.
+In fact, approximately 67\% of the total reactor
+$\bar{\nu}_e$ flux at Fréjus originates from four nuclear power plants
+in the Rhone valley, located at distances between 115~km and 160~km. 
+The indicated baselines are particularly suitable for
+the study of the $\bar{\nu}_e$ oscillations driven by $\Delta m_{21}^2$. 
+The authors of \cite{Petcov:2006gy} have investigated the possibility of using
+one module of MEMPHYS (147~kton fiducial mass) 
+doped with Gadolinium or the LENA detector, updating the previous work of \cite{Choubey:2004bf}. 
+Above 3~MeV (2.6~MeV) the event rate is $59\ 980$ ($16\ 670$) events/year for
+MEMPHYS (LENA), which is 2 orders of magnitude larger than the
+KamLAND event rate.  
+  
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig15-LENAMEMPHYS-reac-histogram.eps}
+\end{center}
+%
+  \caption{The ratio of the event spectra in positron energy 
+  in the case of oscillations with $\Delta m_{21}^2 = 7.9\times 10^{-5}$~eV$^2$ and
+  $\sin^2\theta_{12} = 0.30$ and in the absence of oscillations, 
+  determined using one year data of MEMPHYS-Gd and LENA located at Frejus. 
+  The error bars correspond to $1\sigma$ statistical error. Reprinted figure with permission from~\cite{Petcov:2006gy}.}
+%  
+\label{fig:LENAMEMPHYS-reac-histo}
+\end{figure}
+
+In order to test the sensitivity of the experiments, the prompt energy 
+spectrum is subdivided into 20 bins between 3~MeV
+and 12~MeV for MEMPHYS-Gd and Super-Kamiokande-Gd, and into 25 bins between 2.6~MeV and
+10~MeV for LENA (\refFig{fig:LENAMEMPHYS-reac-histo}). 
+A $\chi^2$ analysis taking into account the statistical and systematical errors shows that each of the two
+detectors, MEMPHYS-Gd and LENA if placed at Fréjus, can be exploited to yield a
+precise determination of the solar neutrino oscillation
+parameters $\Delta m_{21}^2$ and $\sin^2\theta_{12}$.  Within one year, the
+3$\sigma$ uncertainties on $\Delta m_{21}^2$ and $\sin^2\theta_{12}$ can be
+reduced respectively to less than 3\% and to approximately 20\% (\refFig{fig:reactor-sensitivities}). 
+In comparison, the Gadolinium doped Super-Kamiokande detector that might be envisaged in a near future would reach
+a similar precision only with a much longer data taking time.
+Several years of reactor $\bar{\nu}_e$ data collected by 
+MEMPHYS-Gd or LENA would allow a determination 
+of $\Delta m_{21}^2$ and $\sin^2\theta_{12}$ with
+uncertainties of approximately 1\% and 10\% at 3$\sigma$, respectively. 
+
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig16-memphys-sk-sol-lena.eps}
+\end{center}
+%
+  \caption{Accuracy of the determination of $\Delta m_{21}^2$ and
+  $\sin^2\theta_{12}$, for one year data taking
+  of MEMPHYS-Gd and LENA at Frejus, and Super-Kamiokande-Gd,
+  compared to the current precision from solar neutrino and KamLAND
+  data. The allowed regions at $3\sigma$ (2 d.o.f.) in the
+  $\Delta m_{21}^2-\sin^2\theta_{12}$ plane, as well as the projections of the
+  $\chi^2$ for each parameter are shown. Reprinted figure with permission from ~\cite{Petcov:2006gy}.}
+%  
+\label{fig:reactor-sensitivities}
+\end{figure}
+%
+
+However, some caveat are worth to be mentioned. The prompt energy trigger of 3~MeV requires a very low PMT dark 
+current rate in the case of the MEMPHYS detector. If the energy threshold is higher,  the parameter precision decreases as can 
+be seen in \refFig{fig:reactor-MEMPHYS-threshold}. The systematic uncertainties are also an 
+important factor in the experiments under consideration, especially the determination of the
+mixing angle, as those on the energy scale and the overall normalization.
+
+Anyhow, the accuracy in the knowledge of the solar neutrino oscillation parameters, which can be
+obtained in the high statistics experiments considered here, are
+comparable to those that can be reached for the atmospheric neutrino
+oscillation parameters $\Delta m_{31}^2$ and $\sin^2\theta_{23}$ with the future
+long-baseline Super beam experiments such as T2HK or T2KK \cite{Ishitsuka:2005qi} in Japan, or SPL from
+CERN to MEMPHYS. Hence, such reactor measurements would complete the
+program of the high precision determination of the leading neutrino
+oscillation parameters. 
+
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig17-MEMPHYSGdreactorthreshold.eps}
+\end{center}
+%
+  \caption{The accuracy of the determination of $\Delta m_{21}^2$ and
+  $\sin^2\theta_{12}$, which can be obtained using one year of data
+  from MEMPHYS-Gd as a function of the prompt energy threshold.}
+%  
+\label{fig:reactor-MEMPHYS-threshold}
+\end{figure}
+%
+
+%%%%%%%%%%%%%%%%%%%%%%%%
+\section{Neutrinos from particle accelerator beams}
+\label{sec:oscillation}
+%
+Although the main physics goals of the proposed liquid-based detectors will be in the domain
+of astro-particle physics, it would be economical and also very interesting from the physics point of view,
+considering their possible use as "far" detectors for the future
+neutrino facilities planned or under discussion in Europe, also given the large financial investment represented by
+the detectors.
+In this Section we review the physics program of the proposed observatories when using different accelerator 
+neutrino beams. The main goals will be pushing the search for a non-zero (although very small) $\theta_{13}$ angle 
+or its measurement in the case of a discovery previously made by one of the planned reactor or accelerator experiments
+(Double-CHOOZ or T2K); searching for possible leptonic CP violation ($\delCP$); 
+determining the mass hierarchy (the sign of $\Delta m^2_{31}$) and the $\theta_{23}$ octant 
+($\theta_{23}>45^\circ$ or $\theta_{23}<45^\circ$). 
+For this purpose we consider here 
+the potentiality of a liquid Argon detector in an upgraded version of the existing CERN to Gran Sasso (CNGS) neutrino
+beam, and of the MEMPHYS detector at the Fréjus using a possible new CERN proton driver (SPL) to upgrade to 4 MW the 
+conventional neutrino beams (Super Beams). Another scheme contemplates a pure electron- (anti)neutrino production 
+by radioactive ion decays (Beta Beam). Note that LENA is also a good candidate detector for the latter beam option. 
+Finally, as an ultimate beam facility, one may think of producing very intense neutrino beams by means of 
+muon decays (Neutrino Factory) that may well be detected with a liquid Argon detector such as GLACIER.  
+
+The determination of the missing $U_{e3}$ ($\theta_{13}$ ) element of the neutrino mixing matrix is possible via the detection of
+$\nu_\mu\rightarrow\nu_e$ oscillations at a baseline $L$ and energy $E$ given by the atmospheric neutrino signal, 
+corresponding to a mass squared difference $E/L \sim \Delta m^2\simeq 2.5\times 10^{-3}\ eV^2$. 
+The current layout of the CNGS beam from CERN to the Gran Sasso Laboratory has been optimized for a 
+$\tau$-neutrino appearance search to be performed by the OPERA experiment \cite{Acquafredda:2006ki}.
+This beam configuration provides limited sensitivity to the measurement of $U_{e3}$. 
+
+Therefore,  we discuss the physics potential 
+of an intensity-upgraded and energy-reoptimized CNGS neutrino beam coupled to an off-axis GLACIER
+detector \cite{Meregaglia:2006du}. This idea is based on the possible upgrade of the
+CERN PS or on a new machine (PS+) to deliver protons of 50~GeV/c
+with a power of 200~kW. Post acceleration to SPS energies followed 
+by extraction to the CNGS target region should allow to reach MW power, with neutrino energies peaked around 2 GeV.
+In order to evaluate the physics potential one assumes five years of
+running in the neutrino horn polarity plus five additional years in
+the anti-neutrino mode. A systematic error on the
+knowledge of the $\nu_e$ component of 5$\%$ is assumed. Given the excellent $\pi^0$
+particle identification capabilities of GLACIER, the contamination of $\pi^0$ is negligible.
+
+\begin{figure}[p]
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig18-CNGS_Fraction_th13Disc_NH.eps}
+\end{center}
+\caption{\label{fig:fract_disc_theta}
+GLACIER in the upgraded CNGS beam. Sensitivity to the discovery of $\theta_{13}$:
+fraction of $\delta_{CP}$ coverage as a function of $\sin^22\theta_{13}$. Reprinted figure with permission from~\cite{Meregaglia:2006du}.}
+\end{figure}
+\begin{figure}[p]
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig19-CNGS850_1050_Fraction_excMass_NH.eps}
+\end{center}
+\caption{\label{fig:fract_disc_dm}
+Upgraded CNGS beam: mass hierarchy determination for a two detector configuration at
+baselines of 850~km and 1050~km. Reprinted figure with permission from~\cite{Meregaglia:2006du}.}
+\end{figure}
+
+
+An off-axis beam search for $\nu_e$ appearance is performed with the
+GLACIER detector located at 850 km from CERN. For an off-axis angle of
+0.75$^o$,  $\theta_{13}$ can be discovered for full $\delta_{CP}$ coverage for $\sin^22\theta_{13}>0.004$ at
+$3\sigma$ (Fig.~\ref{fig:fract_disc_theta}). 
+At this rather modest baseline, the effect of CP violation and matter effects 
+cannot be disentangled. In fact, the determination of the mass hierarchy
+with half-coverage (50$\%$) is reached only for $\sin^22\theta_{13}>0.03$ at
+$3\sigma$. A longer baseline (1050~km) and a larger off-axis angle
+(1.5$^o$) would allow the detector to be sensitive to the first minimum and the second
+maximum of the oscillation. This is the key to resolve the issue of mass
+hierarchy. With this detector configuration, full coverage 
+for $\delta_{CP}$ to determine the mass
+hierarchy can be reached for $\sin^22\theta_{13}>0.04$ at
+$3\sigma$. The sensitivity to mass hierarchy determination can be
+improved by considering two off-axis detectors: one of 30 kton at 850
+km and off-axis angle 0.75$^o$, a second one of 70 kton at 1050 km and
+1.5$^0$ off-axis. Full coverage  for $\delta_{CP}$ to determine the mass
+hierarchy can be reached for $\sin^22\theta_{13}>0.02$ at
+$3\sigma$ (Fig.~\ref{fig:fract_disc_dm}). 
+This two-detector configuration reaches very similar sensitivities to the ones of the T2KK proposal \cite{Ishitsuka:2005qi}.  
+
+
+\begin{figure}
+\begin{center}
+  \includegraphics[width=0.7\columnwidth]{Fig20-SPLBBMEMPHYS-fig8.eps}
+\end{center}
+  \caption{\label{fig:Phys-SPL-atm-params} Allowed regions of $\Delta
+  m^2_{31}$ and $\sin^2\theta_{23}$ at 99\%~C.L. (2 d.o.f.)  after 5~years
+  of neutrino data taking for ATM+SPL, T2K phase~I, ATM+T2HK, and the
+  combination of SPL with 5~years of atmospheric neutrino data in the
+  MEMPHYS detector. For the true parameter values we use $\Delta
+  m^2_{31} = 2.2\, (2.6) \times 10^{-3}~\mathrm{eV}^2$ and
+  $\sin^2\theta_{23} = 0.5 \, (0.37)$ for the test point 1 (2), and
+  $\theta_{13} = 0$ and the solar parameters as: $\Delta m^2_{21} = 7.9 \times 10^{-5}~\mathrm{eV}^2$,
+  $\sin^2\theta_{12} = 0.3$. The shaded region corresponds to the
+  99\%~C.L. region from present SK and K2K data~\cite{Maltoni:2004ei}. Reprinted figure with permission from~\cite{Campagne:2006yx}.}
+\end{figure}
+
+Another notable possibility is the CERN-SPL Super Beam project.  
+It is a conventional neutrino beam featuring a 4 MW SPL (Super-conducting Proton Linac) \cite{Gerigk:2006qi}
+driver delivering protons onto a liquid Mercury target to generate 
+an intense $\pi^+$ ($\pi^-$) beam with small contamination of kaons. 
+The use of near and far detectors will allow both $\nu_{\mu}$ disappearance and
+ $\nu_{\mu} \rightarrow \nu_e$ appearance studies.
+The physics potential of the SPL Super Beam with MEMPHYS has been extensively studied \cite{Campagne:2006yx,Baldini:2006fi,ISS06}. However, the beam simulations will need some retuning after the forthcoming results of the CERN HARP 
+experiment \cite{Catanesi:2001gi} on hadro-production.
+ 
+After 5 years exposure in $\nu_\mu$ disappearance mode, a $3\sigma$ accuracy of (3-4)\% 
+can be achieved on $\Delta m^2_{31}$, and an accuracy of 22\% (5\%) on $\sin^2\theta_{23}$ if the true value is $0.5$ (0.37), namely in case of maximal or non-maximal mixing (\refFig{fig:Phys-SPL-atm-params}). The use of atmospheric neutrinos can contribute to solving
+the octant ambiguity in case of non-maximal mixing as it is shown in \refFig{fig:Phys-SPL-atm-params}. Note however, 
+that thanks to a higher energy beam ($\sim 750$~MeV), the T2HK project\footnote{Here, we  to the project where a 
+4 MW proton driver is built at KEK to deliver an intense neutrino beam detected by a large \WC\ detector.} can benefit from a much lower dependence on the Fermi motion to obtain a better energy resolution.
+
+In appearance mode (2 years $\nu_\mu$ plus
+8 years \nubarmu), a $3\sigma$ discovery of non-zero $\theta_{13}$, irrespective of the actual true value of $\delCP$, is achieved 
+for $\stheta\gtrsim 4\ 10^{-3}$ ($\thetaot \gtrsim 3.6^\circ$) as shown in \refFig{fig:Phys-SPLBB-th13}. For maximal CP violation 
+($\delCP^\mathrm{true} = \pi/2, \, 3\pi/2$) the same discovery level can be achieved for $\stheta\gtrsim 8\ 10^{-4}$ 
+($\thetaot \gtrsim 0.8^\circ$). The best sensitivity for testing CP violation ($i.e$ the data cannot be fitted with $\delCP =0$ nor $\delCP=\pi$) is achieved for $\stheta\approx 10^{-3}$ ($\thetaot \approx 0.9^\circ$) as shown in \refFig{fig:Phys-SPLBB-CPV}. The maximum sensitivity is achieved for $\stheta\sim 10^{-2}$ where the CP violation can be established at 3$\sigma$ for 73\% of all the $\delCP^\mathrm{true}$.
+%
+\begin{figure}[p]
+\begin{center}
+  \includegraphics[width=0.7\columnwidth]{Fig21-SPLBBMEMPHYS-fig9.eps}
+\end{center}
+  \caption{$3\sigma$ discovery sensitivity to $\stheta$ for
+  Beta Beam, SPL, and T2HK as a function of the true value of \delCP\
+  (left panel) and as a function of the fraction of all possible
+  values of \delCP\ (right panel). The width of the bands corresponds
+  to values for the systematical errors between 2\% and 5\%. The
+  dashed curve corresponds to the Beta Beam sensitivity with the fluxes reduced by a factor 2. Reprinted figure with permission from~\cite{Campagne:2006yx}.\label{fig:Phys-SPLBB-th13}}
+\end{figure}
+%
+\begin{figure}[p]
+\begin{center}
+   \includegraphics[width=0.7\columnwidth]{Fig22-SPLBBMEMPHYS-fig11.eps}
+\end{center}
+   \caption{CP violation discovery potential for Beta Beam, SPL, and T2HK: For
+   parameter values inside the ellipse-shaped curves CP conserving
+   values of $\delCP=0,\pi$\ can be excluded at $3\sigma$ $(\Delta\chi^2>9)$.
+   The width of the bands corresponds to values for the systematic
+   errors from 2\% to 5\%. The dashed curve is described in \refFig{fig:Phys-SPLBB-th13}. Reprinted figure with permission from~\cite{Campagne:2006yx}.
+   \label{fig:Phys-SPLBB-CPV}}
+\end{figure}
+
+Although quite powerful, the proposed SPL Super Beam is a conventional neutrino beam with known limitations due to the low 
+production rate of anti-neutrinos compared to neutrinos which, in addition to a smaller charged-current cross-section, 
+imposes to run 4 times longer in anti-neutrino mode, and implies difficulty to set up an accurate beam simulation, and to 
+design a non-trivial near detector setup mastering the background level. Thus, a new type of neutrino beam, the so-called Beta Beam is being considered. 
+The idea is to generate pure, well collimated and intense \nue  (\nubare) beams by producing, collecting, and accelerating 
+radioactive ions \cite{Zucchelli:2002sa}.
+The resulting Beta Beam  spectra can be easily computed knowing the beta-decay spectrum of the parent
+ion and the Lorentz boost factor $\gamma$, and these beams are virtually free from other 
+background flavors. The best ion candidates so far are  $^{18}$Ne  and $^6$He for \nue and \nubare,  respectively.
+A baseline study for the Beta Beam has been initiated at CERN, and is now going on within the European FP6 design study for EURISOL. 
+
+The potential of such Beta Beam sent to MEMPHYS has been studied in the context of the baseline scenario, using reference fluxes of $5.8 \times 10^{18}$ \He\ useful decays/year and $2.2 \times10^{18}$ \Ne\  decays/year, corresponding to a
+reasonable estimate by experts in the field of the ultimately
+achievable fluxes.  The optimal values is actually $\gamma = 100$
+for both species, and the corresponding performance have been recently reviewed in \cite{Campagne:2006yx,Baldini:2006fi,ISS06}.
+
+In Figs.~\ref{fig:Phys-SPLBB-th13},\ref{fig:Phys-SPLBB-CPV} the results of running a Beta Beam during 10 years (5 years with neutrinos and 5 years with anti-neutrinos) is shown and prove to be far better compared to an SPL Super beam run, especially for maximal CP violation  where a non-zero $\thetaot$ value can be stated at $3\sigma$ for $\stheta\gtrsim 2\ 10^{-4}$ ($\thetaot \gtrsim 0.4^\circ$). Moreover, it is noticeable that the Beta Beam is less affected by systematic errors of the background compared to the SPL Super beam and T2HK.
+
+Before combining the two possible CERN beam options, relevant for the proposed European underground observatories,
+let us consider LENA as potential detector. LENA, with a fiducial volume of $\sim 45$~kton, can as well be used as
+detector for a low-energy Beta Beam oscillation experiment. In the energy
+range $0.2-1.2$~GeV, the performed simulations show that muon events are 
+separable from electron events due to their different track
+lengths in the detector and due to the electron emitted in the muon decay.
+For high energies, muons travel longer than electrons, as the latter undergo scattering and bremsstrahlung. This results in different
+distributions of the number of photons and the timing pattern, which can be used to distinguish between the two classes of events. For low energies, muons can be recognized by observing the electron of its
+succeeding decay after a mean time of 2.2~$\mu$s. By using both criteria, an efficiency of $\sim 90$~\% for muon appearance
+has been calculated with acceptance of 1~\% electron background. The advantage of using a liquid scintillator detector for such an
+experiment is the good energy reconstruction of the neutrino beam.
+However, neutrinos of these energies can produce $\Delta$ resonances
+which subsequently decay into a nucleon and a pion. In \WC\ detectors,
+pions with energies under the Cherenkov threshold contribute to the
+uncertainty of the neutrino energy. In LENA these particles can be
+detected. The effect of pion production and similar reactions is currently under investigation in order to estimate the actual energy
+resolution.
+
+We also mention a very recent development of the Beta Beam concept \cite{Rubbia:2006pi} 
+based on a very promising alternative for the 
+production of ions and on the possibility of having monochromatic, single-flavor neutrino beams
+by using ions decaying through the electron capture process \cite{Bernabeu:2005jh,Sato:2005ma}.
+In particular, such beams would be suitable to precisely measure neutrino cross-sections in a near detector with the
+possibility of an energy scan by varying the $\gamma$ value of the ions.
+Since a Beta Beam uses only a small fraction of the protons available from the
+SPL, Super and Beta Beams can be run at the same time. The combination of a Super Beam and a Beta Beam 
+offers advantages from the experimental point of view since the
+same parameters $\theta_{13}$ and $\delta_{CP}$ can be measured in many
+different ways, using 2 pairs of CP related channels, 2 pairs of T related
+channels, and 2 pairs of CPT related channels which should all give
+coherent results. In this way, the estimates of systematic errors,
+different for each beam, will be experimentally cross-checked.
+Needless to say, the unoscillated data for a given beam will provide a large
+sample of events corresponding to the small searched-for signal with the
+other beam, adding more handles to the understanding of the detector
+response.
+
+The combination of the Beta Beam and the Super Beam
+will allow to use neutrino modes only: $\nu_\mu$ for SPL and $\nu_e$ for Beta Beam. 
+If CPT symmetry is assumed, all the information can be 
+obtained as $P_{\bar\nu_e\to\bar\nu_\mu} = P_{\nu_\mu\to\nu_e}$ and $P_{\bar\nu_\mu\to\bar\nu_e} = P_{\nu_e\to\nu_\mu}$. We illustrate this synergy in \refFig{fig:Phys-SPLBB-th13-5years}. In this scenario, time consuming anti-neutrino running can be avoided keeping the same physics discovery potential. 
+
+%
+\begin{figure}
+\begin{center}
+   \includegraphics[width=0.7\columnwidth]{Fig23-SPLBBMEMPHYS-fig14.eps}
+\end{center}
+%   
+   \caption{Discovery potential of a finite value of $\stheta$ at
+   $3\sigma$ $(\Delta\chi^2>9)$ for 5~years neutrino data from
+   Beta Beam, SPL, and the combination of Beta Beam + SPL compared to
+   10~years data from T2HK (2~years neutrinos + 8~years antineutrinos). Reprinted figure with permission from~\cite{Campagne:2006yx}.
+   \label{fig:Phys-SPLBB-th13-5years}}
+\end{figure}
+%
+
+One can also combine SPL, Beta Beam and the atmospheric neutrino experiments to reduce the
+parameter degeneracies which lead to disconnected regions on the multi-dimensional space of oscillation parameters.
+One can look at \cite{Burguet-Castell:2001ez,Minakata:2001qm,Fogli:1996pv} for the definitions of {\it intrinsic}, {\it hierarchy}, and {\it octant} degeneracies. As we have seen above, atmospheric neutrinos, mainly multi-GeV $e$-like events, are sensitive to the
+neutrino mass hierarchy if $\theta_{13}$ is sufficiently large due to
+Earth matter effects, whilst sub-GeV $e$-like events provide sensitivity to the octant of
+$\theta_{23}$ due to oscillations with $\Delta m^2_{21}$.
+
+The result of running during 5 years in neutrino mode for SPL and Beta Beam, adding further the 
+atmospheric neutrino data, is shown in \refFig{fig:Phys-SPLBB-degeneracies_5years} \cite{Campagne:2006yx}. 
+One can appreciate that practically all degeneracies can be eliminated as only the solution with the wrong sign 
+survives with a $\Delta \chi^2 = 3.3$. 
+This last degeneracy can be completely eliminated by using a neutrino running mode combined with anti-neutrino mode and ATM 
+data \cite{Campagne:2006yx}. However, the example shown is a favorable case with $\sin^2\theta_{23}=0.6$ and in general, 
+for $\sin^2\theta_{23}<0.5$, the impact of the atmospheric data is weaker. 
+So, as a generic case, for the CERN-MEMPHYS project, one is left with the four intrinsic degeneracies. 
+However, the important observation in \refFig{fig:Phys-SPLBB-degeneracies_5years} is that
+degeneracies have only a very small impact on the CP violation discovery, in the sense that if the true solution is CP violating also
+the fake solutions are located at CP violating values of
+$\delCP$. Therefore, thanks to the relatively short baseline without matter effect, even if degeneracies
+affect the precise determination of $\theta_{13}$ and $\delCP$, they
+have only a small impact on the CP violation discovery potential. Furthermore, one would quote explicitly the four possible sets of parameters with their respective confidential level. It is also clear from the figure that the sign($\Delta
+m^2_{31}$) degeneracy has practically no effect on the $\theta_{13}$
+measurement, whereas the octant degeneracy has very little impact on the determination of $\delCP$.
+%
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig24-SPLBBMEMPHYS-fig7.eps}
+\end{center}
+%
+  \caption{Allowed regions in $\sin^22\theta_{13}$ and
+  $\delta_{CP}$ for 5~years data (neutrinos only) from Beta Beam,
+  SPL, and the combination. $\mathrm{H^{tr/wr} (O^{tr/wr})}$ refers to
+  solutions with the true/wrong mass hierarchy (octant of
+  $\theta_{23}$). For the colored regions in the left panel also
+  5~years of atmospheric data are included; the solution with the
+  wrong hierarchy has $\Delta\chi^2 = 3.3$. The true parameter
+  values are $\delta_{CP} = -0.85 \pi$, $\sin^22\theta_{13} =
+  0.03$, $\sin^2\theta_{23} = 0.6$. For the Beta Beam
+  only analysis (middle panel) an external accuracy of 2\% (3\%) for
+  $|\Delta m^2_{31}|$ ($\theta_{23}$) has been assumed, whereas for
+  the left and right panel the default value of 10\% has been used. Reprinted figure with permission from~\cite{Campagne:2006yx}.}
+\label{fig:Phys-SPLBB-degeneracies_5years}
+\end{figure}
+%
+
+Some other features of the atmospheric neutrino data are presented in \refSec{sec:Phys-Atm-neut}.
+In order to fully exploit the possibilities offered by a Neutrino
+Factory, the detector should be capable of identifying  and measuring all three charged lepton flavors
+produced in charged-current interactions and of measuring 
+their charges in order to identify the incoming neutrino helicity. 
+The GLACIER concept in its non-magnetized option provides a background-free identification of electron-neutrino charged-current events and a kinematical selection of tau-neutrino charged-current interactions.
+We can assume that charge discrimination is available for muons reaching an external magnetized-Fe spectrometer.
+
+Another interesting and extremely challenging possibility would consist in magnetizing the whole 
+liquid Argon volume \cite{Badertscher:2005te,Ereditato:2005yx}. This set-up would allow the clean classification of events 
+into electrons, right-sign muons, wrong-sign muons and no-lepton categories.
+In addition, high granularity permits a clean detection of quasi-elastic events, which
+provide a selection of the neutrino electron helicity by detecting the final state proton,
+without the need of an electron charge measurement. 
+Table~\ref{tab:rates} summarizes the expected rates for GLACIER and $10^{20}$ muon decays at a neutrino factory with stored muons 
+having an energy of 30 GeV \cite{Bueno:2000fg}.  $N_{tot}$ is the total number of events and $N_{qe}$ is the number
+of quasi-elastic events. 
+
+\begin{table}
+\caption{\label{tab:rates}Expected events rates for GLACIER in a Neutrino Factory beam,
+assuming no oscillations and for $10^{20}$ muon decays (E$_\mu$=30 GeV).  
+$N_{tot}$ is the total number of events and $N_{qe}$ is the number of quasi-elastic events.}
+\lineup
+%\begin{tabular}{|cc|c|c|c|c|c|c|}
+%\begin{tabular}{cccccccc}
+\begin{tabular}{@{}llllllll}
+\br
+\multicolumn{8}{@{}c}{Event rates for various baselines} \\ 
+%\mr
+\mr
+ & & \multicolumn{2}{@{}c}{$L=732$~km} & \multicolumn{2}{c}{$L=2900$~km} & 
+\multicolumn{2}{@{}c}{$L=7400$~km} \\
+%\cline{3-8}
+ & & $N_{tot}$ & $N_{qe}$ & $N_{tot}$ & $N_{qe}$ & $N_{tot}$ & $N_{qe}$ \\
+ %\mr
+ & $\numu$ CC & 2260\ 000 & 90\ 400 & 144\ 000 & 5760 & 22\ 700 & 900 \\
+$\mu^-$ & $\numu$ NC & \phantom{0}673\ 000 & --- &  \phantom{0}41\ 200 & --- & \phantom{0}\ 6800 & ---  \\
+$10^{20}$ decays & $\anue$ CC &  \phantom{0}871\ 000 & 34\ 800 & \phantom{0}55\ 300 & 2200 & \phantom{0}\ 8750 & 350 \\
+ & $\anue$ NC & \phantom{0}302\ 000 & ---  & \phantom{0}19\ 900 & ---  &  \phantom{0}\ 3000 & ---  \\ \mr
+ %\mr
+ & $\anumu$ CC & 1010\ 000 & 40\ 400 & \phantom{0}63\ 800 & 2550 & 10\ 000 & 400 \\
+$\mu^+$ & $\anumu$ NC &  \phantom{0}353\ 000 & --- & \phantom{0}22\ 400 & --- &  \phantom{0}\ 3500 & --- \\
+$10^{20}$ decays & $\nue$ CC &  1970\ 000 & 78\ 800 & 129\ 000 & 5160 & 19\ 800 & 800 \\
+ & $\nue$ NC &  \phantom{0}579\ 000 & --- & \phantom{0}36\ 700 & --- &  \phantom{0}\ 5800 & --- \\
+ \br
+\end{tabular}
+\end{table}
+
+Figure~\ref{fig:t13sensitivity} 
+shows the expected sensitivity in the measurement of $\theta_{13}$ 
+for a baseline of  7400 km. The maximal sensitivity to $\theta_{13}$ is achieved for very small
+background levels, since one is looking in this case for small signals; most of the information is coming from the clean
+wrong-sign muon class and from quasi-elastic events.  On the other hand,  if its value is not too small, for a 
+measurement of $\theta_{13}$, the signal/background ratio could be not so crucial, and also the other event classes can contribute to this measurement.
+
+A Neutrino Factory should aim to over-constrain the oscillation pattern, in order to look for
+unexpected new physics effects. This can be achieved in global fits of the parameters, where the unitarity of the mixing matrix is 
+not strictly assumed. Using a detector able to identify the $\tau$ lepton production via
+kinematic means, it is possible to verify the unitarity in 
+$\nu_\mu\to\nu_\tau$ and $\nu_e\to\nu_\tau$ transitions. 
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig25-s2_l7400_sensi_t13.eps}
+\end{center}
+\caption{\label{fig:t13sensitivity} GLACIER sensitivity to the measurement of $\theta_{13}$. Reprinted figure with permission from~\cite{Bueno:2000fg}.}
+\end{figure}
+
+The study of CP violation in the lepton system probably is the most ambitious goal of  an experiment at a Neutrino Factory. 
+Matter effects can mimic CP violation; however, a multi-parameter fit
+at the right baseline can allow a simultaneous determination of
+matter and CP violating parameters. To detect CP violation effects, the most favorable choice of 
+neutrino energy $E_\nu$ and baseline $L$ is in the region of  the first maximum, given by $(L/E_\nu)^{max}\simeq 500$ km/GeV 
+for $|\Delta m^2_{32}|=2.5\times 10^{-3}\rm\ eV^2$ \cite{Bueno:2001jd}. 
+To study oscillations in this region, one has to require that the energy of the "first-maximum'' be smaller than 
+the MSW resonance energy: $2\sqrt{2}G_Fn_eE^{max}_\nu\lesssim\Delta m^2_{32}\cos 2\theta_{13}$. 
+This fixes a limit on the baseline $L_{max} \approx 5000$~km 
+beyond which matter effects spoil the sensitivity.
+
+As an example, \refFig{fig:cpsensitivity} shows the sensitivity 
+to the CP violating phase $\delta_{CP}$ for two concrete cases. 
+The events are classified in the five categories previously mentioned, 
+assuming an electron charge confusion of 0.1$\%$. The exclusion 
+regions in the $\Delta m^2_{12} - \delta_{CP}$ plane are determined by fitting the 
+visible energy distributions, provided that the electron detection efficiency is $\sim 20\%$. The excluded regions 
+extend up to values of $|\delta_{CP}|$ close to $\pi$,  even when $\theta_{13}$ is left free.
+
+\begin{figure}
+\begin{center}
+\includegraphics[width=0.7\columnwidth]{Fig26-CPsensi.eps}
+\end{center}
+\caption{\label{fig:cpsensitivity} GLACIER 90\%~C.L. sensitivity on the $CP$-phase $\delta_{CP}$ as a function of
+$\Delta m^2_{21}$ for the two considered baselines. In contrast to \refFig{fig:Phys-SPLBB-CPV} only the conserving phase  $\delta_{CP}=0$ is considered and the other reference oscillation parameters are
+$\Delta m^2_{32}=3\times 10^{-3}\ \rm eV^2$,
+$\sin^2 \theta_{23} = 0.5$,
+$\sin^2 \theta_{12} = 0.5$ and
+$\sin^2 2\theta_{13} = 0.05$.
+The lower curves are made fixing all parameters to the reference values
+while for the upper curves $\theta_{13}$ is free. Reprinted figure with permission from~\cite{Bueno:2001jd}.}
+\end{figure}
+
+
+%%%%%%%%%%%%%%%%%%%%%%%
+\section{Conclusions and outlook}
+\label{sec:Phys-Summary}
+
+In this paper we discuss the importance of outstanding
+physics phenomena such as the possible instability of matter (proton decay), the production of neutrinos
+in supernovae, in the Sun and in the interior of the Earth, as well as the recently discovered 
+process of neutrino oscillations, also detectable through artificial neutrinos produced by nuclear reactors and
+particle accelerators.
+
+All the above physics subjects, key issues for particle physics, astro-particle physics, astrophysics and cosmology,
+call for a new generation of multipurpose, underground observatories based on improved detection techniques. 
+
+The envisioned detectors must necessarily be very massive (and consequently large) and 
+able to provide very low experimental background. 
+The required signal to noise ratio can only be achieved in underground laboratories suitably shielded against cosmic-rays
+and environmental radioactivity. Some candidate sites in Europe have been identified and we are progressing
+in assessing in detail their capabilities.
+
+We have identified three different and, to a large extent, complementary technologies capable of meeting the challenge, based
+on large scale use of liquids for building large-size, volume-instrumented detectors.
+The three proposed large-mass, liquid-based
+detectors for future underground observatories for particle physics in Europe (GLACIER, LENA and MEMPHYS),
+although based on completely different detection techniques 
+(liquid Argon, liquid scintillator and \WC), share a similar, very rich physics program. For some cases of interest their 
+detection properties are quite complementary.  
+A summary of the scientific case presented in this paper is given for astro-particle physics topics 
+in Table \ref{tab:Phys-potential-summary1}.
+
+%
+\begin{sidewaystable}
+%\begin{table}
+\caption{\label{tab:Phys-potential-summary1}
+Summary of the physics potential of the proposed detectors for astro-particle physics topics.  The (*) stands for the case where 
+Gadolinium salt is added to the water of one of the MEMPHYS shafts.}
+%
+\begin{indented}
+\item[]
+\begin{tabular}{@{}llll}
+\br
+Topics             &       GLACIER            &    {LENA}    &      {MEMPHYS}\\
+                   &         100~kton                    &      50~kton        & 440~kton \\
+\mr
+%
+\multicolumn{4}{@{}l}{{Proton decay}}  \\ 
+$e^+\pi^0$ & 	$0.5\times 10^{35}$ & ---           &  $1.0\times 10^{35}$ \\
+$\bar{\nu}K^+$  & 	$1.1\times 10^{35}$ & $0.4\times 10^{35}$            &  $0.2\times 10^{35}$ \\
+
+\mr
+
+%
+\multicolumn{4}{@{}l}{{SN $\nu$ (10~kpc)}}          \\
+CC & $2.5\times10^4 (\nue)$ & $9.0\times10^3 (\nubare)$ & $2.0\times10^5 (\nubare)$ \\
+NC & $3.0\times10^4$ & $3.0\times10^3$ & --- \\
+ES & $1.0\times10^3 (e)$ & $7.0\times10^3 (p)$ & $1.0\times10^3 (e)$ \\    
+\mr
+
+
+{DSNB $\nu$}
+
+(S/B 5 years) & 40-60/30 & 9-110/7  & 43-109/47 (*) \\
+
+\mr
+
+%
+
+\multicolumn{4}{@{}l}{{Solar $\nu$ (Evts. 1 year)}}  \\ 
+$^8$B ES      & $ 4.5\times10^4$ & $1.6\times10^4$ & $1.1\times10^5$ \\
+$^8$B CC     &           ---              & $360$           & ---\\
+$^7$Be          &            ---             & $2.0\times10^6$ &  ---\\
+$pep$             &              ---           & $7.7\times10^4$ &    ---\\
+\mr
+
+
+%
+{Atmospheric $\nu$}
+(Evts. 1 year)   &  $1.1\times10^4$                &     ---    &   $4.0\times10^4$ (1-ring only) \\  
+\mr
+
+%
+{Geo $\nu$}
+(Evts. 1 year)   &   below threshold                   &    $\approx 1000$ & need 2~MeV threshold \\
+\mr
+
+%
+{Reactor $\nu$}
+(Evts. 1 year))  &  ---                      &    $1.7\times10^4$        &  $6.0\times10^4$ (*) \\
+\mr
+
+%
+{Dark Matter}
+(Evts. 10 years)   &  \parbox[t]{4cm}{3 events\\ ($\sigma_{ES}=10^{-4}$,$M>20$~GeV)} & ---   & --- \\
+\br
+\end{tabular}
+\end{indented}
+%\end{table}
+\end{sidewaystable}
+%
+\ack
+%\begin{acknowledgments}
+
+We wish to warmly acknowledge support from all the various funding agencies.  We wish to thank the EU framework 6 project ILIAS for providing assistance particularly regarding underground site aspects (contract 8R113-CT-2004-506222).
+
+%\end{acknowledgments}
+\newpage
+\section*{References}
+\bibliography{campagne}
+\end{document}
+
+
Index: /Selma/Latex-Ex-JCAP-EPS/iopams.sty
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--- /Selma/Latex-Ex-JCAP-EPS/iopams.sty	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/iopams.sty	(revision 464)
@@ -0,0 +1,87 @@
+%% 
+%% This is file `iopams.sty'
+%% File to include AMS fonts and extra definitions for bold greek 
+%% characters for use with iopart.cls
+%%
+\NeedsTeXFormat{LaTeX2e}
+\ProvidesPackage{iopams}[1997/02/13 v1.0]
+\RequirePackage{amsgen}[1995/01/01]
+\RequirePackage{amsfonts}[1995/01/01]
+\RequirePackage{amssymb}[1995/01/01]
+\RequirePackage{amsbsy}[1995/01/01]
+%
+\iopamstrue   % \newif\ifiopams in iopart.cls & iopbk2e.cls
+%             % allows optional text to be in author guidelines
+%
+% Bold lower case Greek letters
+%
+\newcommand{\balpha}{\boldsymbol{\alpha}}
+\newcommand{\bbeta}{\boldsymbol{\beta}}
+\newcommand{\bgamma}{\boldsymbol{\gamma}}
+\newcommand{\bdelta}{\boldsymbol{\delta}}
+\newcommand{\bepsilon}{\boldsymbol{\epsilon}}
+\newcommand{\bzeta}{\boldsymbol{\zeta}}
+\newcommand{\bfeta}{\boldsymbol{\eta}}
+\newcommand{\btheta}{\boldsymbol{\theta}}
+\newcommand{\biota}{\boldsymbol{\iota}}
+\newcommand{\bkappa}{\boldsymbol{\kappa}}
+\newcommand{\blambda}{\boldsymbol{\lambda}}
+\newcommand{\bmu}{\boldsymbol{\mu}}
+\newcommand{\bnu}{\boldsymbol{\nu}}
+\newcommand{\bxi}{\boldsymbol{\xi}}
+\newcommand{\bpi}{\boldsymbol{\pi}}
+\newcommand{\brho}{\boldsymbol{\rho}}
+\newcommand{\bsigma}{\boldsymbol{\sigma}}
+\newcommand{\btau}{\boldsymbol{\tau}}
+\newcommand{\bupsilon}{\boldsymbol{\upsilon}}
+\newcommand{\bphi}{\boldsymbol{\phi}}
+\newcommand{\bchi}{\boldsymbol{\chi}}
+\newcommand{\bpsi}{\boldsymbol{\psi}}
+\newcommand{\bomega}{\boldsymbol{\omega}}
+\newcommand{\bvarepsilon}{\boldsymbol{\varepsilon}}
+\newcommand{\bvartheta}{\boldsymbol{\vartheta}}
+\newcommand{\bvaromega}{\boldsymbol{\varomega}}
+\newcommand{\bvarrho}{\boldsymbol{\varrho}}
+\newcommand{\bvarzeta}{\boldsymbol{\varsigma}}  %NB really sigma
+\newcommand{\bvarsigma}{\boldsymbol{\varsigma}}
+\newcommand{\bvarphi}{\boldsymbol{\varphi}}
+%
+% Bold upright capital Greek letters
+%
+\newcommand{\bGamma}{\boldsymbol{\Gamma}}
+\newcommand{\bDelta}{\boldsymbol{\Delta}}
+\newcommand{\bTheta}{\boldsymbol{\Theta}}
+\newcommand{\bLambda}{\boldsymbol{\Lambda}}
+\newcommand{\bXi}{\boldsymbol{\Xi}}
+\newcommand{\bPi}{\boldsymbol{\Pi}}
+\newcommand{\bSigma}{\boldsymbol{\Sigma}}
+\newcommand{\bUpsilon}{\boldsymbol{\Upsilon}}
+\newcommand{\bPhi}{\boldsymbol{\Phi}}
+\newcommand{\bPsi}{\boldsymbol{\Psi}}
+\newcommand{\bOmega}{\boldsymbol{\Omega}}
+%
+% Bold versions of miscellaneous symbols
+%
+\newcommand{\bpartial}{\boldsymbol{\partial}}
+\newcommand{\bell}{\boldsymbol{\ell}}
+\newcommand{\bimath}{\boldsymbol{\imath}}
+\newcommand{\bjmath}{\boldsymbol{\jmath}}
+\newcommand{\binfty}{\boldsymbol{\infty}}
+\newcommand{\bnabla}{\boldsymbol{\nabla}}
+\newcommand{\bdot}{\boldsymbol{\cdot}}
+%
+% Symbols for caption
+%
+\renewcommand{\opensquare}{\mbox{$\square$}}
+\renewcommand{\opentriangle}{\mbox{$\vartriangle$}}
+\renewcommand{\opentriangledown}{\mbox{$\triangledown$}}
+\renewcommand{\opendiamond}{\mbox{$\lozenge$}}
+\renewcommand{\fullsquare}{\mbox{$\blacksquare$}}
+\newcommand{\fulldiamond}{\mbox{$\blacklozenge$}}
+\newcommand{\fullstar}{\mbox{$\bigstar$}}
+\newcommand{\fulltriangle}{\mbox{$\blacktriangle$}}
+\newcommand{\fulltriangledown}{\mbox{$\blacktriangledown$}}
+
+\endinput
+%% 
+%% End of file `iopams.sty'.
Index: /Selma/Latex-Ex-JCAP-EPS/iopart.cls
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/iopart.cls	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/iopart.cls	(revision 464)
@@ -0,0 +1,1010 @@
+%% 
+%% This is file `iopart.cls'
+%% 
+%% This file is distributed in the hope that it will be useful, 
+%% but WITHOUT ANY WARRANTY; without even the implied warranty of 
+%% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. 
+%% 
+%% \CharacterTable
+%%  {Upper-case    \A\B\C\D\E\F\G\H\I\J\K\L\M\N\O\P\Q\R\S\T\U\V\W\X\Y\Z
+%%   Lower-case    \a\b\c\d\e\f\g\h\i\j\k\l\m\n\o\p\q\r\s\t\u\v\w\x\y\z
+%%   Digits        \0\1\2\3\4\5\6\7\8\9
+%%   Exclamation   \!     Double quote  \"     Hash (number) \#
+%%   Dollar        \$     Percent       \%     Ampersand     \&
+%%   Acute accent  \'     Left paren    \(     Right paren   \)
+%%   Asterisk      \*     Plus          \+     Comma         \,
+%%   Minus         \-     Point         \.     Solidus       \/
+%%   Colon         \:     Semicolon     \;     Less than     \<
+%%   Equals        \=     Greater than  \>     Question mark \?
+%%   Commercial at \@     Left bracket  \[     Backslash     \\
+%%   Right bracket \]     Circumflex    \^     Underscore    \_
+%%   Grave accent  \`     Left brace    \{     Vertical bar  \|
+%%   Right brace   \}     Tilde         \~}
+%
+\NeedsTeXFormat{LaTeX2e}
+\ProvidesClass{iopart}[1996/06/10 v0.0 IOP Journals LaTeX article class]
+\newcommand\@ptsize{0}
+\newif\if@restonecol
+\newif\if@titlepage
+\newif\ifiopams
+\@titlepagefalse
+\DeclareOption{a4paper}
+   {\setlength\paperheight {297mm}%
+    \setlength\paperwidth  {210mm}}
+\DeclareOption{letterpaper}
+   {\setlength\paperheight {11in}%
+    \setlength\paperwidth  {8.5in}}
+\DeclareOption{landscape}
+   {\setlength\@tempdima   {\paperheight}%
+    \setlength\paperheight {\paperwidth}%
+    \setlength\paperwidth  {\@tempdima}}
+\DeclareOption{10pt}{\renewcommand\@ptsize{0}}
+\DeclareOption{11pt}{\renewcommand\@ptsize{2}} % No 11pt version
+\DeclareOption{12pt}{\renewcommand\@ptsize{2}}
+\DeclareOption{draft}{\setlength\overfullrule{5pt}}
+\DeclareOption{final}{\setlength\overfullrule{0pt}}
+\DeclareOption{titlepage}{\@titlepagetrue}
+\DeclareOption{notitlepage}{\@titlepagefalse}
+\ExecuteOptions{letterpaper,final}
+\ProcessOptions
+\DeclareMathAlphabet{\bi}{OML}{cmm}{b}{it}
+\DeclareMathAlphabet{\bcal}{OMS}{cmsy}{b}{n}
+\input{iopart1\@ptsize.clo}
+\setlength\lineskip{1\p@}
+\setlength\normallineskip{1\p@}
+\renewcommand\baselinestretch{}
+\setlength\parskip{0\p@ \@plus \p@}
+\@lowpenalty   51
+\@medpenalty  151
+\@highpenalty 301
+\setlength\parindent{2em}
+\setcounter{topnumber}{8}
+\renewcommand\topfraction{1}
+\setcounter{bottomnumber}{3}
+\renewcommand\bottomfraction{.99}
+\setcounter{totalnumber}{8}
+\renewcommand\textfraction{0.01}
+\renewcommand\floatpagefraction{.8}
+\setcounter{dbltopnumber}{6}
+\renewcommand\dbltopfraction{1}
+\renewcommand\dblfloatpagefraction{.8}
+%
+\pretolerance=5000
+\tolerance=8000
+%
+% Headings for all pages apart from first
+%
+\def\ps@headings{\let\@oddfoot\@empty
+      \let\@evenfoot\@empty
+      \def\@evenhead{\thepage\hfil\itshape\rightmark}%
+      \def\@oddhead{{\itshape\leftmark}\hfil\thepage}%
+      \let\@mkboth\markboth
+      \let\sectionmark\@gobble
+      \let\subsectionmark\@gobble}
+%
+% Headings for first page
+%
+\def\ps@myheadings{\let\@oddfoot\@empty\let\@evenfoot\@empty
+    \let\@oddhead\@empty\let\@evenhead\@empty
+    \let\@mkboth\@gobbletwo
+    \let\sectionmark\@gobble
+    \let\subsectionmark\@gobble}
+%
+% \maketitle just ends page
+%
+\newcommand\maketitle{\newpage}
+%
+% Article titles
+%
+% Usage: \title[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\renewcommand{\title}{\@ifnextchar[{\@stitle}{\@ftitle}}
+\def\@stitle[#1]#2{\markboth{#1}{#1}%
+    \thispagestyle{myheadings}%
+    \vspace*{3pc}{\exhyphenpenalty=10000\hyphenpenalty=10000 
+    \Large\raggedright\noindent
+    \bf#2\par}}
+\def\@ftitle#1{\markboth{#1}{#1}%
+    \thispagestyle{myheadings}%
+    \vspace*{3pc}{\exhyphenpenalty=10000\hyphenpenalty=10000 
+    \Large\raggedright\noindent
+    \bf#1\par}}
+%
+% Can use \paper instead of \title
+%
+\let\paper=\title
+%
+% Generic title command for articles other than papers
+%
+% Usage: \article[Short title]{ARTICLE TYPE}{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\newcommand{\article}{\@ifnextchar[{\@sarticle}{\@farticle}}
+\def\@sarticle[#1]#2#3{\markboth{#1}{#1}%
+    \thispagestyle{myheadings}%
+     \vspace*{.5pc}%
+    {\parindent=\mathindent \bf #2\par}%
+     \vspace*{1.5pc}%
+    {\exhyphenpenalty=10000\hyphenpenalty=10000
+     \Large\raggedright\noindent
+     \bf#3\par}}%
+\def\@farticle#1#2{\markboth{#2}{#2}%
+    \thispagestyle{myheadings}%
+     \vspace*{.5pc}%
+    {\parindent=\mathindent \bf #1\par}%
+     \vspace*{1.5pc}%
+    {\exhyphenpenalty=10000\hyphenpenalty=10000
+     \Large\raggedright\noindent
+     \bf#2\par}}%
+%
+% Letters to the Editor
+%
+% Usage \letter{Full title}
+% No short title is required for Letters
+%
+\def\letter#1{\article[Letter to the Editor]{LETTER TO THE EDITOR}{#1}}
+%
+% Review articles
+%
+% Usage: \review[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\review{\@ifnextchar[{\@sreview}{\@freview}}
+\def\@sreview[#1]#2{\@sarticle[#1]{REVIEW ARTICLE}{#2}}
+\def\@freview#1{\@farticle{REVIEW ARTICLE}{#1}}
+%
+% Topical Review
+%
+% Usage: \topical[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\topical{\@ifnextchar[{\@stopical}{\@ftopical}}
+\def\@stopical[#1]#2{\@sarticle[#1]{TOPICAL REVIEW}{#2}}
+\def\@ftopical#1{\@farticle{TOPICAL REVIEW}{#1}}
+%
+% Comments
+%
+% Usage: \comment[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\comment{\@ifnextchar[{\@scomment}{\@fcomment}}
+\def\@scomment[#1]#2{\@sarticle[#1]{COMMENT}{#2}}
+\def\@fcomment#1{\@farticle{COMMENT}{#1}}
+%
+% Rapid Communications
+%
+% Usage: \rapid[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\rapid{\@ifnextchar[{\@srapid}{\@frapid}}
+\def\@srapid[#1]#2{\@sarticle[#1]{RAPID COMMUNICATION}{#2}}
+\def\@frapid#1{\@farticle{RAPID COMMUNICATION}{#1}}
+%
+% Notes
+%
+% Usage: \note[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\note{\@ifnextchar[{\@snote}{\@fnote}}
+\def\@snote[#1]#2{\@sarticle[#1]{NOTE}{#2}}
+\def\@fnote#1{\@farticle{NOTE}{#1}}
+%
+% Preliminary Communications
+%
+% Usage: \prelim[Short title]{Full title}
+% [Short title] is optional; use where title is too long
+% or contains footnotes, 50 characters maximum 
+%
+\def\prelim{\@ifnextchar[{\@sprelim}{\@fprelim}}
+\def\@sprelim[#1]#2{\@sarticle[#1]{PRELIMINARY COMMUNICATION}{#2}}
+\def\@fprelim#1{\@farticle{PRELIMINARY COMMUNICATION}{#1}}
+%
+% List of authors
+%
+% Usage \author[Short form]{List of all authors}
+% The short form excludes footnote symbols linking authors to addresses 
+% and is used for running heads in printed version (but not on preprints)
+%
+\renewcommand{\author}{\@ifnextchar[{\@sauthor}{\@fauthor}}
+\def\@sauthor[#1]#2{\markright{#1}    % for production only
+   \vspace*{1.5pc}%
+   \begin{indented}%
+   \item[]\normalsize\bf\raggedright#2
+   \end{indented}%
+   \smallskip}
+\def\@fauthor#1{%\markright{#1}         for production only
+   \vspace*{1.5pc}%
+   \begin{indented}%
+   \item[]\normalsize\bf\raggedright#1
+   \end{indented}%
+   \smallskip}
+%
+% Affiliation (authors address)
+%
+% Usage: \address{Address of first author}
+%        \address{Address of second author}
+% Use once for each address, use symbols \dag \ddag \S \P $\|$
+% to connect authors with addresses
+%
+\newcommand{\address}[1]{\begin{indented}
+   \item[]\rm\raggedright #1
+   \end{indented}}
+%
+% American Mathematical Society Classification Numbers
+% Usage: \ams{57.XX, 58.XX}
+%
+\def\ams#1{\vspace{10pt}
+     \begin{indented}
+     \item[]\rm AMS classification scheme numbers: #1\par
+     \end{indented}}
+%
+% A single Physics & Astronomy Classification Number
+% Usage \pacno{31.10}
+%
+\def\pacno#1{\vspace{10pt}
+     \begin{indented}
+     \item[]\rm PACS number: #1\par
+     \end{indented}}
+%
+% Physics & Astronomy Classification Numbers (more than one)
+% Usage \pacs{31.10, 31.20T}
+%
+\def\pacs#1{\vspace{10pt}
+     \begin{indented}
+     \item[]\rm PACS numbers: #1\par
+     \end{indented}}
+%
+% Submission details. If \jl command used journals name printed
+% otherwise Institute of Physics Publishing 
+%
+\def\submitted{\vspace{28pt plus 10pt minus 18pt}
+     \noindent{\small\rm Submitted to: {\it \journal}\par}}
+%
+\def\submitto#1{\vspace{28pt plus 10pt minus 18pt}
+     \noindent{\small\rm Submitted to: {\it #1}\par}}
+%
+% For articles (other than Letters) not divided into sections
+% Usage \nosections Start of text
+%
+\def\nosections{\vspace{30\p@ plus12\p@ minus12\p@}
+    \noindent\ignorespaces}
+%
+% Acknowledgments (no heading if letter)
+% Usage \ack for Acknowledgments, \ackn for Acknowledgement
+%
+\def\ack{\ifletter\bigskip\noindent\ignorespaces\else
+    \section*{Acknowledgments}\fi}
+\def\ackn{\ifletter\bigskip\noindent\ignorespaces\else
+    \section*{Acknowledgment}\fi}
+%
+% Footnotes: symbols selected in order \dag (1), \ddag (2), \S (3), 
+% $\|$ (4), $\P$ (5), $^+$ (6), $^*$ (7), \sharp (8), \dagger\dagger (9)
+% unless optional argument of [<num>] use to specify required symbol, 
+% 1=\dag, 2=\ddag, etc
+% Usage: \footnote{Text of footnote}
+%        \footnote[3]{Text of footnote}
+%
+\def\footnoterule{}%
+\setcounter{footnote}{1}
+\long\def\@makefntext#1{\parindent 1em\noindent 
+ \makebox[1em][l]{\footnotesize\rm$\m@th{\fnsymbol{footnote}}$}%
+ \footnotesize\rm #1}
+\def\@makefnmark{\hbox{${\fnsymbol{footnote}}\m@th$}}
+\def\@thefnmark{\fnsymbol{footnote}}
+\def\footnote{\@ifnextchar[{\@xfootnote}{\stepcounter{\@mpfn}%
+       \begingroup\let\protect\noexpand
+       \xdef\@thefnmark{\thempfn}\endgroup
+     \@footnotemark\@footnotetext}}
+\def\@xfootnote[#1]{\setcounter{footnote}{#1}%
+   \addtocounter{footnote}{-1}\footnote}
+\def\@fnsymbol#1{\ifcase#1\or \dagger\or \ddagger\or \S\or
+   \|\or \P\or ^{+}\or ^{\tsty *}\or \sharp
+   \or \dagger\dagger \else\@ctrerr\fi\relax}
+%
+% IOP Journals
+%
+\newcounter{jnl}
+\newcommand{\jl}[1]{\setcounter{jnl}{#1}}
+\def\journal{\ifnum\thejnl=0 Institute of Physics Publishing\fi
+        \ifnum\thejnl=1 J. Phys.\ A: Math.\ Gen.\ \fi
+        \ifnum\thejnl=2 J. Phys.\ B: At.\ Mol.\ Opt.\ Phys.\ \fi
+        \ifnum\thejnl=3 J. Phys.:\ Condens. Matter\ \fi
+        \ifnum\thejnl=4 J. Phys.\ G: Nucl.\ Part.\ Phys.\ \fi
+        \ifnum\thejnl=5 Inverse Problems\ \fi
+        \ifnum\thejnl=6 Class. Quantum Grav.\ \fi
+        \ifnum\thejnl=7 Network: Comput.\ Neural Syst.\ \fi
+        \ifnum\thejnl=8 Nonlinearity\ \fi
+        \ifnum\thejnl=9 J. Opt. B: Quantum Semiclass. Opt.\ \fi
+        \ifnum\thejnl=10 Waves Random Media\ \fi
+        \ifnum\thejnl=11 J. Opt. A: Pure Appl. Opt.\ \fi
+        \ifnum\thejnl=12 Phys. Med. Biol.\ \fi
+        \ifnum\thejnl=13 Modelling Simul.\ Mater.\ Sci.\ Eng.\ \fi
+        \ifnum\thejnl=14 Plasma Phys. Control. Fusion\ \fi
+        \ifnum\thejnl=15 Physiol. Meas.\ \fi
+        \ifnum\thejnl=16 Combust. Theory Modelling\ \fi
+        \ifnum\thejnl=17 High Perform.\ Polym.\ \fi
+        \ifnum\thejnl=18 Public Understand. Sci.\ \fi
+        \ifnum\thejnl=19 Rep.\ Prog.\ Phys.\ \fi
+        \ifnum\thejnl=20 J.\ Phys.\ D: Appl.\ Phys.\ \fi
+        \ifnum\thejnl=21 Supercond.\ Sci.\ Technol.\ \fi
+        \ifnum\thejnl=22 Semicond.\ Sci.\ Technol.\ \fi
+        \ifnum\thejnl=23 Nanotechnology\ \fi
+        \ifnum\thejnl=24 Measur.\ Sci.\ Technol.\ \fi
+        \ifnum\thejnl=25 Plasma.\ Sources\ Sci.\ Technol.\ \fi
+        \ifnum\thejnl=26 Smart\ Mater.\ Struct.\ \fi
+        \ifnum\thejnl=27 J.\ Micromech.\ Microeng.\ \fi
+        \ifnum\thejnl=28 Distrib.\ Syst.\ Engng\ \fi
+        \ifnum\thejnl=29 Bioimaging\ \fi
+        \ifnum\thejnl=30 J.\ Radiol. Prot.\ \fi
+        \ifnum\thejnl=31 Europ. J. Phys.\ \fi
+        \ifnum\thejnl=32 J. Opt. A: Pure Appl. Opt.\ \fi
+        \ifnum\thejnl=33 New. J. Phys.\ \fi}
+%
+% E-mail addresses (to provide links from headers)
+%
+\def\eads#1{\vspace*{5pt}\address{E-mail: #1}}
+\def\ead#1{\vspace*{5pt}\address{E-mail: \mailto{#1}}}
+\def\mailto#1{{\tt #1}}
+%
+% Switches
+%
+\newif\ifletter
+%
+\setcounter{secnumdepth}{3}
+\newcounter {section}
+\newcounter {subsection}[section]
+\newcounter {subsubsection}[subsection]
+\newcounter {paragraph}[subsubsection]
+\newcounter {subparagraph}[paragraph]
+\renewcommand\thesection       {\arabic{section}}
+\renewcommand\thesubsection    {\thesection.\arabic{subsection}}
+\renewcommand\thesubsubsection {\thesubsection.\arabic{subsubsection}}
+\renewcommand\theparagraph     {\thesubsubsection.\arabic{paragraph}}
+\renewcommand\thesubparagraph  {\theparagraph.\arabic{subparagraph}}
+\def\@chapapp{Section}
+
+\newcommand\section{\@startsection {section}{1}{\z@}%
+                   {-3.5ex \@plus -1ex \@minus -.2ex}%
+                   {2.3ex \@plus.2ex}%
+                   {\reset@font\normalsize\bfseries\raggedright}}
+\newcommand\subsection{\@startsection{subsection}{2}{\z@}%
+                   {-3.25ex\@plus -1ex \@minus -.2ex}%
+                   {1.5ex \@plus .2ex}%
+                   {\reset@font\normalsize\itshape\raggedright}}
+\newcommand\subsubsection{\@startsection{subsubsection}{3}{\z@}%
+                                     {-3.25ex\@plus -1ex \@minus -.2ex}%
+                                     {-1em \@plus .2em}%
+                                     {\reset@font\normalsize\itshape}}
+\newcommand\paragraph{\@startsection{paragraph}{4}{\z@}%
+                                    {3.25ex \@plus1ex \@minus.2ex}%
+                                    {-1em}%
+                                    {\reset@font\normalsize\itshape}}
+\newcommand\subparagraph{\@startsection{subparagraph}{5}{\parindent}%
+                                       {3.25ex \@plus1ex \@minus .2ex}%
+                                       {-1em}%
+                                      {\reset@font\normalsize\itshape}}
+\def\@sect#1#2#3#4#5#6[#7]#8{\ifnum #2>\c@secnumdepth
+     \let\@svsec\@empty\else
+     \refstepcounter{#1}\edef\@svsec{\csname the#1\endcsname. }\fi
+     \@tempskipa #5\relax
+      \ifdim \@tempskipa>\z@
+        \begingroup #6\relax
+          \noindent{\hskip #3\relax\@svsec}{\interlinepenalty \@M #8\par}%
+        \endgroup
+       \csname #1mark\endcsname{#7}\addcontentsline
+         {toc}{#1}{\ifnum #2>\c@secnumdepth \else
+                      \protect\numberline{\csname the#1\endcsname}\fi
+                    #7}\else
+        \def\@svsechd{#6\hskip #3\relax  %% \relax added 2 May 90
+                   \@svsec #8\csname #1mark\endcsname
+                      {#7}\addcontentsline
+                           {toc}{#1}{\ifnum #2>\c@secnumdepth \else
+                             \protect\numberline{\csname the#1\endcsname}\fi
+                       #7}}\fi
+     \@xsect{#5}}
+%
+\def\@ssect#1#2#3#4#5{\@tempskipa #3\relax
+   \ifdim \@tempskipa>\z@
+     \begingroup #4\noindent{\hskip #1}{\interlinepenalty \@M #5\par}\endgroup
+   \else \def\@svsechd{#4\hskip #1\relax #5}\fi
+    \@xsect{#3}}
+
+\setlength\leftmargini{2em}
+\setlength\leftmarginii{2em}
+\setlength\leftmarginiii{1.8em}
+\setlength\leftmarginiv{1.6em}
+\setlength\leftmarginv{1em}
+\setlength\leftmarginvi{1em}
+\setlength\leftmargin{\leftmargini}
+\setlength\labelsep{0.5em}
+\setlength\labelwidth{\leftmargini}
+\addtolength\labelwidth{-\labelsep}
+\@beginparpenalty -\@lowpenalty
+\@endparpenalty   -\@lowpenalty
+\@itempenalty     -\@lowpenalty
+\renewcommand\theenumi{\roman{enumi}}
+\renewcommand\theenumii{\alph{enumii}}
+\renewcommand\theenumiii{\arabic{enumiii}}
+\renewcommand\theenumiv{\Alph{enumiv}}
+\newcommand\labelenumi{(\theenumi)}
+\newcommand\labelenumii{(\theenumii)}
+\newcommand\labelenumiii{\theenumiii.}
+\newcommand\labelenumiv{(\theenumiv)}
+\renewcommand\p@enumii{(\theenumi)}
+\renewcommand\p@enumiii{(\theenumi.\theenumii)}
+\renewcommand\p@enumiv{(\theenumi.\theenumii.\theenumiii)}
+\newcommand\labelitemi{$\m@th\bullet$}
+\newcommand\labelitemii{\normalfont\bfseries --}
+\newcommand\labelitemiii{$\m@th\ast$}
+\newcommand\labelitemiv{$\m@th\cdot$}
+\newenvironment{description}
+               {\list{}{\labelwidth\z@ \itemindent-\leftmargin
+                        \let\makelabel\descriptionlabel}}
+               {\endlist}
+\newcommand\descriptionlabel[1]{\hspace\labelsep
+                                \normalfont\bfseries #1}
+\newenvironment{abstract}{%
+      \vspace{16pt plus3pt minus3pt}
+      \begin{indented}
+      \item[]{\bfseries \abstractname.}\quad\rm\ignorespaces} 
+      {\end{indented}\if@titlepage\newpage\else\vspace{18\p@ plus18\p@}\fi}
+\newenvironment{verse}
+               {\let\\=\@centercr
+                \list{}{\itemsep      \z@
+                        \itemindent   -1.5em%
+                        \listparindent\itemindent
+                        \rightmargin  \leftmargin
+                        \advance\leftmargin 1.5em}%
+                \item[]}
+               {\endlist}
+\newenvironment{quotation}
+               {\list{}{\listparindent 1.5em%
+                        \itemindent    \listparindent
+                        \rightmargin   \leftmargin
+                        \parsep        \z@ \@plus\p@}%
+                \item[]}
+               {\endlist}
+\newenvironment{quote}
+               {\list{}{\rightmargin\leftmargin}%
+                \item[]}
+               {\endlist}
+\newenvironment{titlepage}
+    {%
+        \@restonecolfalse\newpage
+      \thispagestyle{empty}%
+      \if@compatibility
+        \setcounter{page}{0}
+      \else
+        \setcounter{page}{1}%
+      \fi}%
+    {\newpage\setcounter{page}{1}}
+\def\appendix{\@ifnextchar*{\@appendixstar}{\@appendix}}
+\def\@appendix{\eqnobysec\@appendixstar}
+\def\@appendixstar{\@@par
+ \ifnumbysec                         %  Added 30/4/94 to get Table A1,
+ \@addtoreset{table}{section}        %  Table B1 etc if numbering by
+ \@addtoreset{figure}{section}\fi    %  section
+ \setcounter{section}{0}
+ \setcounter{subsection}{0}
+ \setcounter{subsubsection}{0}
+ \setcounter{equation}{0}
+ \setcounter{figure}{0}
+ \setcounter{table}{0}
+ \def\thesection{Appendix \Alph{section}}   
+ \def\theequation{\ifnumbysec
+      \Alph{section}.\arabic{equation}\else
+      \Alph{section}\arabic{equation}\fi}  % Comment A\arabic{equation} maybe
+ \def\thetable{\ifnumbysec                 % better? 15/4/95
+      \Alph{section}\arabic{table}\else
+      A\arabic{table}\fi}
+ \def\thefigure{\ifnumbysec
+      \Alph{section}\arabic{figure}\else
+      A\arabic{figure}\fi}}
+\def\noappendix{\setcounter{figure}{0}
+     \setcounter{table}{0}
+     \def\thetable{\arabic{table}}
+     \def\thefigure{\arabic{figure}}}
+\setlength\arraycolsep{5\p@}
+\setlength\tabcolsep{6\p@}
+\setlength\arrayrulewidth{.4\p@}
+\setlength\doublerulesep{2\p@}
+\setlength\tabbingsep{\labelsep}
+\skip\@mpfootins = \skip\footins
+\setlength\fboxsep{3\p@}
+\setlength\fboxrule{.4\p@}
+\renewcommand\theequation{\arabic{equation}}
+\newcounter{figure}
+\renewcommand\thefigure{\@arabic\c@figure}
+\def\fps@figure{tbp}
+\def\ftype@figure{1}
+\def\ext@figure{lof}
+\def\fnum@figure{\figurename~\thefigure}
+\newenvironment{figure}{\footnotesize\rm\@float{figure}}%
+    {\end@float\normalsize\rm}
+\newenvironment{figure*}{\footnotesize\rm\@dblfloat{figure}}{\end@dblfloat}
+\newcounter{table}
+\renewcommand\thetable{\@arabic\c@table}
+\def\fps@table{tbp}
+\def\ftype@table{2}
+\def\ext@table{lot}
+\def\fnum@table{\tablename~\thetable}
+\newenvironment{table}{\footnotesize\rm\@float{table}}%
+   {\end@float\normalsize\rm}
+\newenvironment{table*}{\footnotesize\rm\@dblfloat{table}}%
+   {\end@dblfloat\normalsize\rm}
+\newlength\abovecaptionskip
+\newlength\belowcaptionskip
+\setlength\abovecaptionskip{10\p@}
+\setlength\belowcaptionskip{0\p@}
+%
+% Added redefinition of \@caption so captions are not written to 
+% aux file therefore less need to \protect fragile commands
+%
+\long\def\@caption#1[#2]#3{\par\begingroup
+    \@parboxrestore
+    \normalsize
+    \@makecaption{\csname fnum@#1\endcsname}{\ignorespaces #3}\par
+  \endgroup}
+% 
+\long\def\@makecaption#1#2{\vskip \abovecaptionskip 
+ \begin{indented}
+ \item[]{\bf #1.} #2
+ \end{indented}\vskip\belowcaptionskip}
+\let\@portraitcaption=\@makecaption
+
+\DeclareOldFontCommand{\rm}{\normalfont\rmfamily}{\mathrm}
+\DeclareOldFontCommand{\sf}{\normalfont\sffamily}{\mathsf}
+\DeclareOldFontCommand{\tt}{\normalfont\ttfamily}{\mathtt}
+\DeclareOldFontCommand{\bf}{\normalfont\bfseries}{\mathbf}
+\DeclareOldFontCommand{\it}{\normalfont\itshape}{\mathit}
+\DeclareOldFontCommand{\sl}{\normalfont\slshape}{\@nomath\sl}
+\DeclareOldFontCommand{\sc}{\normalfont\scshape}{\@nomath\sc}
+\ifiopams
+\renewcommand{\cal}{\protect\pcal}
+\else
+\newcommand{\cal}{\protect\pcal}
+\fi
+\newcommand{\pcal}{\@fontswitch{\relax}{\mathcal}}
+\ifiopams
+\renewcommand{\mit}{\protect\pmit}
+\else
+\newcommand{\mit}{\protect\pmit}
+\fi
+\newcommand{\pmit}{\@fontswitch{\relax}{\mathnormal}}
+\newcommand\@pnumwidth{1.55em}
+\newcommand\@tocrmarg {2.55em}
+\newcommand\@dotsep{4.5}
+\setcounter{tocdepth}{3}
+\newcommand\tableofcontents{%
+    \section*{\contentsname
+        \@mkboth{\uppercase{\contentsname}}{\uppercase{\contentsname}}}%
+    \@starttoc{toc}%
+    }
+\newcommand\l@part[2]{%
+  \ifnum \c@tocdepth >-2\relax
+    \addpenalty{\@secpenalty}%
+    \addvspace{2.25em \@plus\p@}%
+    \begingroup
+      \setlength\@tempdima{3em}%
+      \parindent \z@ \rightskip \@pnumwidth
+      \parfillskip -\@pnumwidth
+      {\leavevmode
+       \large \bfseries #1\hfil \hbox to\@pnumwidth{\hss #2}}\par
+       \nobreak
+       \if@compatibility
+         \global\@nobreaktrue
+         \everypar{\global\@nobreakfalse\everypar{}}
+      \fi
+    \endgroup
+  \fi}
+\newcommand\l@section[2]{%
+  \ifnum \c@tocdepth >\z@
+    \addpenalty{\@secpenalty}%
+    \addvspace{1.0em \@plus\p@}%
+    \setlength\@tempdima{1.5em}%
+    \begingroup
+      \parindent \z@ \rightskip \@pnumwidth
+      \parfillskip -\@pnumwidth
+      \leavevmode \bfseries
+      \advance\leftskip\@tempdima
+      \hskip -\leftskip
+      #1\nobreak\hfil \nobreak\hbox to\@pnumwidth{\hss #2}\par
+    \endgroup
+  \fi}
+\newcommand\l@subsection   {\@dottedtocline{2}{1.5em}{2.3em}}
+\newcommand\l@subsubsection{\@dottedtocline{3}{3.8em}{3.2em}}
+\newcommand\l@paragraph    {\@dottedtocline{4}{7.0em}{4.1em}}
+\newcommand\l@subparagraph {\@dottedtocline{5}{10em}{5em}}
+\newcommand\listoffigures{%
+    \section*{\listfigurename
+      \@mkboth{\uppercase{\listfigurename}}%
+              {\uppercase{\listfigurename}}}%
+    \@starttoc{lof}%
+    }
+\newcommand\l@figure{\@dottedtocline{1}{1.5em}{2.3em}}
+\newcommand\listoftables{%
+    \section*{\listtablename
+      \@mkboth{\uppercase{\listtablename}}{\uppercase{\listtablename}}}%
+    \@starttoc{lot}%
+    }
+\let\l@table\l@figure
+\newenvironment{theindex}
+               {\if@twocolumn
+                  \@restonecolfalse
+                \else
+                  \@restonecoltrue
+                \fi
+                \columnseprule \z@
+                \columnsep 35\p@
+                \twocolumn[\section*{\indexname}]%
+                \@mkboth{\uppercase{\indexname}}%
+                        {\uppercase{\indexname}}%
+                \thispagestyle{plain}\parindent\z@
+                \parskip\z@ \@plus .3\p@\relax
+                \let\item\@idxitem}
+               {\if@restonecol\onecolumn\else\clearpage\fi}
+\newcommand\@idxitem  {\par\hangindent 40\p@}
+\newcommand\subitem   {\par\hangindent 40\p@ \hspace*{20\p@}}
+\newcommand\subsubitem{\par\hangindent 40\p@ \hspace*{30\p@}}
+\newcommand\indexspace{\par \vskip 10\p@ \@plus5\p@ \@minus3\p@\relax}
+\newcommand\contentsname{Contents}
+\newcommand\listfigurename{List of Figures}
+\newcommand\listtablename{List of Tables}
+\newcommand\refname{References}
+\newcommand\indexname{Index}
+\newcommand\figurename{Figure}
+\newcommand\tablename{Table}
+\newcommand\partname{Part}
+\newcommand\appendixname{Appendix}
+\newcommand\abstractname{Abstract}
+\newcommand\today{\number\day\space\ifcase\month\or
+  January\or February\or March\or April\or May\or June\or
+  July\or August\or September\or October\or November\or December\fi
+  \space\number\year}
+\setlength\columnsep{10\p@}
+\setlength\columnseprule{0\p@}
+
+\newcommand{\Tables}{\clearpage\section*{Tables and table captions}
+    \def\fps@table{hp}\noappendix}
+\newcommand{\Figures}{\clearpage\section*{Figure captions}
+    \def\fps@figure{hp}\noappendix}
+%
+\newcommand{\Figure}[1]{\begin{figure}
+  \caption{#1}
+  \end{figure}}
+%
+\newcommand{\Table}[1]{\begin{table}
+  \caption{#1}
+  \begin{indented}
+  \lineup
+  \item[]\begin{tabular}{@{}l*{15}{l}}}
+
+\def\endTable{\end{tabular}\end{indented}\end{table}}
+\let\endtab=\endTable
+%
+\newcommand{\fulltable}[1]{\begin{table}
+  \caption{#1}
+  \lineup
+  \begin{tabular*}{\textwidth}{@{}l*{15}{@{\extracolsep{0pt plus 12pt}}l}}}
+\def\endfulltable{\end{tabular*}\end{table}}
+%
+%
+\newcommand{\Bibliography}[1]{\section*{References}\par\numrefs{#1}}
+\newcommand{\References}{\section*{References}\par\refs}
+
+\def\thebibliography#1{\list
+ {\hfil[\arabic{enumi}]}{\topsep=0\p@\parsep=0\p@
+ \partopsep=0\p@\itemsep=0\p@
+ \labelsep=5\p@\itemindent=-10\p@
+ \settowidth\labelwidth{\footnotesize[#1]}%
+ \leftmargin\labelwidth
+ \advance\leftmargin\labelsep
+ \advance\leftmargin -\itemindent
+ \usecounter{enumi}}\footnotesize
+ \def\newblock{\ }
+ \sloppy\clubpenalty4000\widowpenalty4000
+ \sfcode`\.=1000\relax}
+\let\endthebibliography=\endlist
+\def\numrefs#1{\begin{thebibliography}{#1}}
+\def\endnumrefs{\end{thebibliography}}
+\let\endbib=\endnumrefs
+%
+\def\thereferences{\list{}{\topsep=0\p@\parsep=0\p@
+ \partopsep=0\p@\itemsep=0\p@\labelsep=0\p@\itemindent=-18\p@
+\labelwidth=0\p@\leftmargin=18\p@
+}\footnotesize\rm
+\def\newblock{\ }
+\sloppy\clubpenalty4000\widowpenalty4000
+\sfcode`\.=1000\relax
+}
+%
+\let\endthereferences=\endlist
+\newlength{\indentedwidth}
+\newdimen\mathindent
+\indentedwidth=\mathindent
+%
+% Macro to used for references in the Harvard system
+%
+\newenvironment{harvard}{\list{}{\topsep=0\p@\parsep=0\p@
+\partopsep=0\p@\itemsep=0\p@\labelsep=0\p@\itemindent=-18\p@
+\labelwidth=0\p@\leftmargin=18\p@
+}\footnotesize\rm
+\def\newblock{\ }
+\sloppy\clubpenalty4000\widowpenalty4000
+\sfcode`\.=1000\relax}{\endlist}
+%
+\def\refs{\begin{harvard}}
+\def\endrefs{\end{harvard}}
+%
+\newenvironment{indented}{\begin{indented}}{\end{indented}}
+\newenvironment{varindent}[1]{\begin{varindent}{#1}}{\end{varindent}}
+%
+\def\indented{\list{}{\itemsep=0\p@\labelsep=0\p@\itemindent=0\p@
+   \labelwidth=0\p@\leftmargin=\mathindent\topsep=0\p@\partopsep=0\p@
+   \parsep=0\p@\listparindent=15\p@}\footnotesize\rm}
+
+\let\endindented=\endlist 
+
+\def\varindent#1{\setlength{\varind}{#1}%
+   \list{}{\itemsep=0\p@\labelsep=0\p@\itemindent=0\p@
+   \labelwidth=0\p@\leftmargin=\varind\topsep=0\p@\partopsep=0\p@
+   \parsep=0\p@\listparindent=15\p@}\footnotesize\rm}
+
+\let\endvarindent=\endlist 
+
+\def\[{\relax\ifmmode\@badmath\else
+ \begin{trivlist}
+ \@beginparpenalty\predisplaypenalty
+ \@endparpenalty\postdisplaypenalty
+ \item[]\leavevmode
+ \hbox to\linewidth\bgroup$ \displaystyle
+ \hskip\mathindent\bgroup\fi}
+\def\]{\relax\ifmmode \egroup $\hfil \egroup \end{trivlist}\else \@badmath \fi}
+\def\equation{\@beginparpenalty\predisplaypenalty
+ \@endparpenalty\postdisplaypenalty
+\refstepcounter{equation}\trivlist \item[]\leavevmode
+ \hbox to\linewidth\bgroup $ \displaystyle
+\hskip\mathindent}
+\def\endequation{$\hfil \displaywidth\linewidth\@eqnnum\egroup \endtrivlist}
+%
+\@namedef{equation*}{\[}
+\@namedef{endequation*}{\]}
+%
+\def\eqnarray{\stepcounter{equation}\let\@currentlabel=\theequation
+\global\@eqnswtrue
+\global\@eqcnt\z@\tabskip\mathindent\let\\=\@eqncr
+\abovedisplayskip\topsep\ifvmode\advance\abovedisplayskip\partopsep\fi
+\belowdisplayskip\abovedisplayskip
+\belowdisplayshortskip\abovedisplayskip
+\abovedisplayshortskip\abovedisplayskip
+$$\halign to
+\linewidth\bgroup\@eqnsel$\displaystyle\tabskip\z@
+ {##{}}$&\global\@eqcnt\@ne $\displaystyle{{}##{}}$\hfil
+ &\global\@eqcnt\tw@ $\displaystyle{{}##}$\hfil
+ \tabskip\@centering&\llap{##}\tabskip\z@\cr}
+\def\endeqnarray{\@@eqncr\egroup
+ \global\advance\c@equation\m@ne$$\global\@ignoretrue }
+\mathindent = 6pc
+%
+\def\eqalign#1{\null\vcenter{\def\\{\cr}\openup\jot\m@th
+  \ialign{\strut$\displaystyle{##}$\hfil&$\displaystyle{{}##}$\hfil
+      \crcr#1\crcr}}\,}
+%
+\def\eqalignno#1{\displ@y \tabskip\z@skip
+  \halign to\displaywidth{\hspace{5pc}$\@lign\displaystyle{##}$%
+    \tabskip\z@skip
+    &$\@lign\displaystyle{{}##}$\hfill\tabskip\@centering
+    &\llap{$\@lign\hbox{\rm##}$}\tabskip\z@skip\crcr
+    #1\crcr}}
+%
+\newif\ifnumbysec
+\def\theequation{\ifnumbysec
+      \arabic{section}.\arabic{equation}\else
+      \arabic{equation}\fi}
+\def\eqnobysec{\numbysectrue\@addtoreset{equation}{section}}
+
+\newcounter{eqnval}
+\def\numparts{\addtocounter{equation}{1}%
+     \setcounter{eqnval}{\value{equation}}%
+     \setcounter{equation}{0}%
+     \def\theequation{\ifnumbysec
+     \arabic{section}.\arabic{eqnval}{\it\alph{equation}}%
+     \else\arabic{eqnval}{\it\alph{equation}}\fi}}
+
+\def\endnumparts{\def\theequation{\ifnumbysec
+     \arabic{section}.\arabic{equation}\else
+     \arabic{equation}\fi}%
+     \setcounter{equation}{\value{eqnval}}}
+%
+\def\cases#1{%
+     \left\{\,\vcenter{\def\\{\cr}\normalbaselines\openup1\jot\m@th%
+     \ialign{\strut$\displaystyle{##}\hfil$&\tqs
+     \rm##\hfil\crcr#1\crcr}}\right.}%
+%
+\newcommand{\e}{\mathrm{e}}
+\newcommand{\rme}{\mathrm{e}}
+\newcommand{\rmi}{\mathrm{i}}
+\newcommand{\rmd}{\mathrm{d}}
+\renewcommand{\qquad}{\hspace*{25pt}}
+\newcommand{\tdot}[1]{\stackrel{\dots}{#1}}   % Added 1/9/94
+\newcommand{\tqs}{\hspace*{25pt}}
+\newcommand{\fl}{\hspace*{-\mathindent}}
+\newcommand{\Tr}{\mathop{\mathrm{Tr}}\nolimits}
+\newcommand{\tr}{\mathop{\mathrm{tr}}\nolimits}
+\newcommand{\Or}{\mathord{\mathrm{O}}} %changed from \mathop 20/1/95
+\newcommand{\lshad}{[\![}
+\newcommand{\rshad}{]\!]}
+\newcommand{\case}[2]{{\textstyle\frac{#1}{#2}}}
+\def\pt(#1){({\it #1\/})}
+\newcommand{\dsty}{\displaystyle}
+\newcommand{\tsty}{\textstyle}
+\newcommand{\ssty}{\scriptstyle}
+\newcommand{\sssty}{\scriptscriptstyle}
+\def\lo#1{\llap{${}#1{}$}}
+\def\eql{\llap{${}={}$}}
+\def\lsim{\llap{${}\sim{}$}}
+\def\lsimeq{\llap{${}\simeq{}$}}
+\def\lequiv{\llap{${}\equiv{}$}}
+%
+\newcommand{\eref}[1]{(\ref{#1})}
+\newcommand{\sref}[1]{section~\ref{#1}}
+\newcommand{\fref}[1]{figure~\ref{#1}}
+\newcommand{\tref}[1]{table~\ref{#1}}
+\newcommand{\Eref}[1]{Equation (\ref{#1})}
+\newcommand{\Sref}[1]{Section~\ref{#1}}
+\newcommand{\Fref}[1]{Figure~\ref{#1}}
+\newcommand{\Tref}[1]{Table~\ref{#1}}
+
+\newcommand{\opencircle}{\mbox{\Large$\circ\,$}}  % moved Large outside maths
+\newcommand{\opensquare}{\mbox{$\rlap{$\sqcap$}\sqcup$}}
+\newcommand{\opentriangle}{\mbox{$\triangle$}}
+\newcommand{\opentriangledown}{\mbox{$\bigtriangledown$}}
+\newcommand{\opendiamond}{\mbox{$\diamondsuit$}}
+\newcommand{\fullcircle}{\mbox{{\Large$\bullet\,$}}} % moved Large outside maths
+\newcommand{\fullsquare}{\,\vrule height5pt depth0pt width5pt}
+\newcommand{\dotted}{\protect\mbox{${\mathinner{\cdotp\cdotp\cdotp\cdotp\cdotp\cdotp}}$}}
+\newcommand{\dashed}{\protect\mbox{-\; -\; -\; -}}
+\newcommand{\broken}{\protect\mbox{-- -- --}}
+\newcommand{\longbroken}{\protect\mbox{--- --- ---}}
+\newcommand{\chain}{\protect\mbox{--- $\cdot$ ---}}
+\newcommand{\dashddot}{\protect\mbox{--- $\cdot$ $\cdot$ ---}}
+\newcommand{\full}{\protect\mbox{------}}
+
+\def\;{\protect\psemicolon}
+\def\psemicolon{\relax\ifmmode\mskip\thickmuskip\else\kern .3333em\fi}
+\def\lineup{\def\0{\hbox{\phantom{\footnotesize\rm 0}}}%
+    \def\m{\hbox{$\phantom{-}$}}%
+    \def\-{\llap{$-$}}}
+%
+%%%%%%%%%%%%%%%%%%%%%
+% Tables rules      %
+%%%%%%%%%%%%%%%%%%%%%
+
+\newcommand{\boldarrayrulewidth}{1\p@} 
+% Width of bold rule in tabular environment.
+
+\def\bhline{\noalign{\ifnum0=`}\fi\hrule \@height  
+\boldarrayrulewidth \futurelet \@tempa\@xhline}
+
+\def\@xhline{\ifx\@tempa\hline\vskip \doublerulesep\fi
+      \ifnum0=`{\fi}}
+
+%
+% Rules for tables with extra space around
+%
+\newcommand{\br}{\ms\bhline\ms}
+\newcommand{\mr}{\ms\hline\ms}
+%
+\newcommand{\centre}[2]{\multispan{#1}{\hfill #2\hfill}}
+\newcommand{\crule}[1]{\multispan{#1}{\hspace*{\tabcolsep}\hrulefill
+  \hspace*{\tabcolsep}}}
+\newcommand{\fcrule}[1]{\ifnum\thetabtype=1\multispan{#1}{\hrulefill
+  \hspace*{\tabcolsep}}\else\multispan{#1}{\hrulefill}\fi}
+%
+% Extra spaces for tables and displayed equations
+%
+\newcommand{\ms}{\noalign{\vspace{3\p@ plus2\p@ minus1\p@}}}
+\newcommand{\bs}{\noalign{\vspace{6\p@ plus2\p@ minus2\p@}}}
+\newcommand{\ns}{\noalign{\vspace{-3\p@ plus-1\p@ minus-1\p@}}}
+\newcommand{\es}{\noalign{\vspace{6\p@ plus2\p@ minus2\p@}}\displaystyle}%
+%
+\newcommand{\etal}{{\it et al\/}\ }
+\newcommand{\dash}{------}
+\newcommand{\nonum}{\par\item[]}                %\par added 1/9/93
+\newcommand{\mat}[1]{\underline{\underline{#1}}}
+%
+% abbreviations for IOPP journals
+%
+\newcommand{\CQG}{{\it Class. Quantum Grav.} }
+\newcommand{\CTM}{{\it Combust. Theory Modelling\/} }
+\newcommand{\DSE}{{\it Distrib. Syst. Engng.\/} }
+\newcommand{\EJP}{{\it Eur. J. Phys.} } 
+\newcommand{\JNE}{{\it J. Neural Eng.} } %added 30/11/2004 GMD
+\newcommand{\PB}{{\it Phys. Biol.} } %added 30/11/2004 GMD
+\newcommand{\SMS}{{\it Smart Mater. Struct.} } %added 30/11/2004 GMD
+\newcommand{\HPP}{{\it High Perform. Polym.} }              % added 4/5/93
+\newcommand{\IP}{{\it Inverse Problems\/} }
+\newcommand{\JHM}{{\it J. Hard Mater.} }                    % added 4/5/93
+\newcommand{\JO}{{\it J. Opt.} }
+\newcommand{\JOA}{{\it J. Opt. A: Pure Appl. Opt.} }
+\newcommand{\JOB}{{\it J. Opt. B: Quantum Semiclass. Opt.} }
+\newcommand{\JPA}{{\it J. Phys. A: Math. Gen.} }
+\newcommand{\JPB}{{\it J. Phys. B: At. Mol. Phys.} }      %1968-87
+\newcommand{\jpb}{{\it J. Phys. B: At. Mol. Opt. Phys.} } %1988 and onwards
+\newcommand{\JPC}{{\it J. Phys. C: Solid State Phys.} }   %1968--1988
+\newcommand{\JPCM}{{\it J. Phys.: Condens. Matter\/} }    %1989 and onwards
+\newcommand{\JPD}{{\it J. Phys. D: Appl. Phys.} }
+\newcommand{\JPE}{{\it J. Phys. E: Sci. Instrum.} }
+\newcommand{\JPF}{{\it J. Phys. F: Met. Phys.} }
+\newcommand{\JPG}{{\it J. Phys. G: Nucl. Phys.} }         %1975--1988
+\newcommand{\jpg}{{\it J. Phys. G: Nucl. Part. Phys.} }   %1989 and onwards
+\newcommand{\JMM}{{\it J. Micromech. Microeng.\/} }
+\newcommand{\MSMSE}{{\it Modelling Simulation Mater. Sci. Eng.} }
+\newcommand{\MST}{{\it Meas. Sci. Technol.} }                 %1990 and onwards
+\newcommand{\NET}{{\it Network: Comput. Neural Syst.} }
+\newcommand{\NJP}{{\it New J. Phys.} }
+\newcommand{\NL}{{\it Nonlinearity\/} }
+\newcommand{\NT}{{\it Nanotechnology} }
+\newcommand{\PAO}{{\it Pure Appl. Optics\/} }
+\newcommand{\PM}{{\it Physiol. Meas.} }                        % added 4/5/93
+\newcommand{\PMB}{{\it Phys. Med. Biol.} }
+\newcommand{\PPCF}{{\it Plasma Phys. Control. Fusion\/} }      % added 4/5/93
+\newcommand{\PSST}{{\it Plasma Sources Sci. Technol.} }
+\newcommand{\PUS}{{\it Public Understand. Sci.} }
+\newcommand{\QO}{{\it Quantum Opt.} }
+\newcommand{\QSO}{{\em Quantum Semiclass. Opt.} }
+\newcommand{\RPP}{{\it Rep. Prog. Phys.} }
+\newcommand{\SLC}{{\it Sov. Lightwave Commun.} }               % added 4/5/93 
+\newcommand{\SST}{{\it Semicond. Sci. Technol.} }
+\newcommand{\SUST}{{\it Supercond. Sci. Technol.} }
+\newcommand{\WRM}{{\it Waves Random Media\/} }
+%
+% Other commonly quoted journals
+%
+\newcommand{\AC}{{\it Acta Crystallogr.} }
+\newcommand{\AM}{{\it Acta Metall.} }
+\newcommand{\AP}{{\it Ann. Phys., Lpz.} }
+\newcommand{\APNY}{{\it Ann. Phys., NY\/} }
+\newcommand{\APP}{{\it Ann. Phys., Paris\/} }
+\newcommand{\CJP}{{\it Can. J. Phys.} }
+\newcommand{\JAP}{{\it J. Appl. Phys.} }
+\newcommand{\JCP}{{\it J. Chem. Phys.} }
+\newcommand{\JJAP}{{\it Japan. J. Appl. Phys.} }
+\newcommand{\JP}{{\it J. Physique\/} }
+\newcommand{\JPhCh}{{\it J. Phys. Chem.} }
+\newcommand{\JMMM}{{\it J. Magn. Magn. Mater.} }
+\newcommand{\JMP}{{\it J. Math. Phys.} }
+\newcommand{\JOSA}{{\it J. Opt. Soc. Am.} }
+\newcommand{\JPSJ}{{\it J. Phys. Soc. Japan\/} }
+\newcommand{\JQSRT}{{\it J. Quant. Spectrosc. Radiat. Transfer\/} }
+\newcommand{\NC}{{\it Nuovo Cimento\/} }
+\newcommand{\NIM}{{\it Nucl. Instrum. Methods\/} }
+\newcommand{\NP}{{\it Nucl. Phys.} }
+\newcommand{\PL}{{\it Phys. Lett.} }
+\newcommand{\PR}{{\it Phys. Rev.} }
+\newcommand{\PRL}{{\it Phys. Rev. Lett.} }
+\newcommand{\PRS}{{\it Proc. R. Soc.} }
+\newcommand{\PS}{{\it Phys. Scr.} }
+\newcommand{\PSS}{{\it Phys. Status Solidi\/} }
+\newcommand{\PTRS}{{\it Phil. Trans. R. Soc.} }
+\newcommand{\RMP}{{\it Rev. Mod. Phys.} }
+\newcommand{\RSI}{{\it Rev. Sci. Instrum.} }
+\newcommand{\SSC}{{\it Solid State Commun.} }
+\newcommand{\ZP}{{\it Z. Phys.} }
+%
+\pagestyle{headings}
+\pagenumbering{arabic}      % Arabic page numbers
+\raggedbottom
+\onecolumn
+\endinput
+%% 
+%% End of file `iopart.cls'.
+
Index: /Selma/Latex-Ex-JCAP-EPS/iopart10.clo
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/iopart10.clo	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/iopart10.clo	(revision 464)
@@ -0,0 +1,124 @@
+%% 
+%% This is file `iopart10.clo'
+%% 
+%% This file is distributed in the hope that it will be useful, 
+%% but WITHOUT ANY WARRANTY; without even the implied warranty of 
+%% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. 
+%% 
+%% \CharacterTable
+%%  {Upper-case    \A\B\C\D\E\F\G\H\I\J\K\L\M\N\O\P\Q\R\S\T\U\V\W\X\Y\Z
+%%   Lower-case    \a\b\c\d\e\f\g\h\i\j\k\l\m\n\o\p\q\r\s\t\u\v\w\x\y\z
+%%   Digits        \0\1\2\3\4\5\6\7\8\9
+%%   Exclamation   \!     Double quote  \"     Hash (number) \#
+%%   Dollar        \$     Percent       \%     Ampersand     \&
+%%   Acute accent  \'     Left paren    \(     Right paren   \)
+%%   Asterisk      \*     Plus          \+     Comma         \,
+%%   Minus         \-     Point         \.     Solidus       \/
+%%   Colon         \:     Semicolon     \;     Less than     \<
+%%   Equals        \=     Greater than  \>     Question mark \?
+%%   Commercial at \@     Left bracket  \[     Backslash     \\
+%%   Right bracket \]     Circumflex    \^     Underscore    \_
+%%   Grave accent  \`     Left brace    \{     Vertical bar  \|
+%%   Right brace   \}     Tilde         \~}
+\ProvidesFile{iopart10.clo}[1997/01/13 v1.0 IOP Book file (size option)]
+\renewcommand\normalsize{%
+   \@setfontsize\normalsize\@xpt\@xiipt
+   \abovedisplayskip 10\p@ \@plus2\p@ \@minus5\p@
+   \abovedisplayshortskip \z@ \@plus3\p@
+   \belowdisplayshortskip 6\p@ \@plus3\p@ \@minus3\p@
+   \belowdisplayskip \abovedisplayskip
+   \let\@listi\@listI}
+\normalsize
+\newcommand\small{%
+   \@setfontsize\small\@ixpt{11}%
+   \abovedisplayskip 8.5\p@ \@plus3\p@ \@minus4\p@
+   \abovedisplayshortskip \z@ \@plus2\p@
+   \belowdisplayshortskip 4\p@ \@plus2\p@ \@minus2\p@
+   \def\@listi{\leftmargin\leftmargini
+               \topsep 4\p@ \@plus2\p@ \@minus2\p@
+               \parsep 2\p@ \@plus\p@ \@minus\p@
+               \itemsep \parsep}%
+   \belowdisplayskip \abovedisplayskip
+}
+\newcommand\footnotesize{%
+   \@setfontsize\footnotesize\@viiipt{9.5}%
+   \abovedisplayskip 6\p@ \@plus2\p@ \@minus4\p@
+   \abovedisplayshortskip \z@ \@plus\p@
+   \belowdisplayshortskip 3\p@ \@plus\p@ \@minus2\p@
+   \def\@listi{\leftmargin\leftmargini
+               \topsep 3\p@ \@plus\p@ \@minus\p@
+               \parsep 2\p@ \@plus\p@ \@minus\p@
+               \itemsep \parsep}%
+   \belowdisplayskip \abovedisplayskip
+}
+\newcommand\scriptsize{\@setfontsize\scriptsize\@viipt\@viiipt}
+\newcommand\tiny{\@setfontsize\tiny\@vpt\@vipt}
+\newcommand\large{\@setfontsize\large\@xiipt{14}}
+\newcommand\Large{\@setfontsize\Large\@xivpt{18}}
+\newcommand\LARGE{\@setfontsize\LARGE\@xviipt{22}}
+\newcommand\huge{\@setfontsize\huge\@xxpt{25}}
+\newcommand\Huge{\@setfontsize\Huge\@xxvpt{30}}
+\if@twocolumn
+  \setlength\parindent{12\p@}
+\else
+  \setlength\parindent{15\p@}
+\fi
+\setlength\headheight{12\p@}
+\setlength\headsep   {12\p@}
+\setlength\topskip   {10\p@}
+\setlength\footskip{20\p@}
+\setlength\maxdepth{.5\topskip}
+\setlength\@maxdepth\maxdepth
+\setlength\textwidth{31pc}
+\setlength\textheight{49pc}
+\setlength\oddsidemargin  {24\p@}
+\setlength\evensidemargin {24\p@}
+\setlength\marginparwidth {72\p@}
+\setlength\marginparsep {10\p@}
+\setlength\marginparpush{5\p@}
+\setlength\topmargin{\z@}
+\setlength\footnotesep{6.65\p@}
+\setlength{\skip\footins}  {9\p@ \@plus 4\p@ \@minus 2\p@}
+\setlength\floatsep       {12\p@ \@plus 2\p@ \@minus 2\p@}
+\setlength\textfloatsep   {20\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\intextsep      {12\p@ \@plus 2\p@ \@minus 2\p@}
+\setlength\dblfloatsep    {12\p@ \@plus 2\p@ \@minus 2\p@}
+\setlength\dbltextfloatsep{20\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\@fptop{0\p@}
+\setlength\@fpsep{8\p@ \@plus 2fil}
+\setlength\@fpbot{0\p@}
+\setlength\@dblfptop{0\p@}
+\setlength\@dblfpsep{8\p@ \@plus 2fil}
+\setlength\@dblfpbot{0\p@}
+\setlength\partopsep{2\p@ \@plus 1\p@ \@minus 1\p@}
+\def\@listI{\leftmargin\leftmargini
+            \parsep=\z@ 
+            \topsep=5\p@ \@plus3\p@ \@minus3\p@
+            \itemsep=3\p@ \@plus2\p@ \@minus\p@}
+\let\@listi\@listI
+\@listi
+\def\@listii {\leftmargin\leftmarginii
+     \labelwidth\leftmarginii
+     \advance\labelwidth-\labelsep
+     \topsep=2\p@ \@plus2\p@ \@minus\p@
+     \parsep=\z@
+     \itemsep=\parsep}
+\def\@listiii{\leftmargin\leftmarginiii
+     \labelwidth\leftmarginiii
+     \advance\labelwidth-\labelsep
+     \topsep=\z@
+     \parsep=\z@
+     \partopsep=\z@
+     \itemsep=\z@}
+\def\@listiv {\leftmargin\leftmarginiv
+     \labelwidth\leftmarginiv
+     \advance\labelwidth-\labelsep}
+\def\@listv  {\leftmargin\leftmarginv
+     \labelwidth\leftmarginv
+     \advance\labelwidth-\labelsep}
+\def\@listvi {\leftmargin\leftmarginvi
+     \labelwidth\leftmarginvi
+     \advance\labelwidth-\labelsep}
+\endinput
+%% 
+%% End of file `iopart.clo'.
Index: /Selma/Latex-Ex-JCAP-EPS/iopart12.clo
===================================================================
--- /Selma/Latex-Ex-JCAP-EPS/iopart12.clo	(revision 464)
+++ /Selma/Latex-Ex-JCAP-EPS/iopart12.clo	(revision 464)
@@ -0,0 +1,125 @@
+%% 
+%% This is file `iopart12.clo'
+%% 
+%% This file is distributed in the hope that it will be useful, 
+%% but WITHOUT ANY WARRANTY; without even the implied warranty of 
+%% MERCHANTABILITY or FITNESS FOR A PARTICULAR PURPOSE. 
+%% 
+%% \CharacterTable
+%%  {Upper-case    \A\B\C\D\E\F\G\H\I\J\K\L\M\N\O\P\Q\R\S\T\U\V\W\X\Y\Z
+%%   Lower-case    \a\b\c\d\e\f\g\h\i\j\k\l\m\n\o\p\q\r\s\t\u\v\w\x\y\z
+%%   Digits        \0\1\2\3\4\5\6\7\8\9
+%%   Exclamation   \!     Double quote  \"     Hash (number) \#
+%%   Dollar        \$     Percent       \%     Ampersand     \&
+%%   Acute accent  \'     Left paren    \(     Right paren   \)
+%%   Asterisk      \*     Plus          \+     Comma         \,
+%%   Minus         \-     Point         \.     Solidus       \/
+%%   Colon         \:     Semicolon     \;     Less than     \<
+%%   Equals        \=     Greater than  \>     Question mark \?
+%%   Commercial at \@     Left bracket  \[     Backslash     \\
+%%   Right bracket \]     Circumflex    \^     Underscore    \_
+%%   Grave accent  \`     Left brace    \{     Vertical bar  \|
+%%   Right brace   \}     Tilde         \~}
+\ProvidesFile{iopart12.clo}[1997/01/15 v1.0 LaTeX2e file (size option)]
+\renewcommand\normalsize{%
+   \@setfontsize\normalsize\@xiipt{16}%
+   \abovedisplayskip 12\p@ \@plus3\p@ \@minus7\p@
+   \abovedisplayshortskip \z@ \@plus3\p@
+   \belowdisplayshortskip 6.5\p@ \@plus3.5\p@ \@minus3\p@
+   \belowdisplayskip \abovedisplayskip
+   \let\@listi\@listI}
+\normalsize
+\newcommand\small{%
+   \@setfontsize\small\@xipt{14}%
+   \abovedisplayskip 11\p@ \@plus3\p@ \@minus6\p@
+   \abovedisplayshortskip \z@ \@plus3\p@
+   \belowdisplayshortskip 6.5\p@ \@plus3.5\p@ \@minus3\p@
+   \def\@listi{\leftmargin\leftmargini
+               \topsep 9\p@ \@plus3\p@ \@minus5\p@
+               \parsep 4.5\p@ \@plus2\p@ \@minus\p@
+               \itemsep \parsep}%
+   \belowdisplayskip \abovedisplayskip
+}
+\newcommand\footnotesize{%
+%   \@setfontsize\footnotesize\@xpt\@xiipt
+   \@setfontsize\footnotesize\@xpt{13}%
+   \abovedisplayskip 10\p@ \@plus2\p@ \@minus5\p@
+   \abovedisplayshortskip \z@ \@plus3\p@
+   \belowdisplayshortskip 6\p@ \@plus3\p@ \@minus3\p@
+   \def\@listi{\leftmargin\leftmargini
+               \topsep 6\p@ \@plus2\p@ \@minus2\p@
+               \parsep 3\p@ \@plus2\p@ \@minus\p@
+               \itemsep \parsep}%
+   \belowdisplayskip \abovedisplayskip
+}
+\newcommand\scriptsize{\@setfontsize\scriptsize\@viiipt{9.5}}
+\newcommand\tiny{\@setfontsize\tiny\@vipt\@viipt}
+\newcommand\large{\@setfontsize\large\@xivpt{18}}
+\newcommand\Large{\@setfontsize\Large\@xviipt{22}}
+\newcommand\LARGE{\@setfontsize\LARGE\@xxpt{25}}
+\newcommand\huge{\@setfontsize\huge\@xxvpt{30}}
+\let\Huge=\huge
+\if@twocolumn
+  \setlength\parindent{14\p@}
+\else
+  \setlength\parindent{18\p@}
+\fi
+\setlength\headheight{14\p@}
+\setlength\headsep{14\p@}
+\setlength\topskip{12\p@}
+\setlength\footskip{24\p@}
+\setlength\maxdepth{.5\topskip}
+\setlength\@maxdepth\maxdepth
+\setlength\textwidth{37.2pc}
+\setlength\textheight{56pc}
+\setlength\oddsidemargin  {\z@}
+\setlength\evensidemargin {\z@}
+\setlength\marginparwidth {72\p@}
+\setlength\marginparsep{10\p@}
+\setlength\marginparpush{5\p@}
+\setlength\topmargin{-12pt}
+\setlength\footnotesep{8.4\p@}
+\setlength{\skip\footins} {10.8\p@ \@plus 4\p@ \@minus 2\p@}
+\setlength\floatsep       {14\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\textfloatsep   {24\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\intextsep      {16\p@ \@plus 4\p@ \@minus 4\p@}
+\setlength\dblfloatsep    {16\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\dbltextfloatsep{24\p@ \@plus 2\p@ \@minus 4\p@}
+\setlength\@fptop{0\p@}
+\setlength\@fpsep{10\p@ \@plus 1fil}
+\setlength\@fpbot{0\p@}
+\setlength\@dblfptop{0\p@}
+\setlength\@dblfpsep{10\p@ \@plus 1fil}
+\setlength\@dblfpbot{0\p@}
+\setlength\partopsep{3\p@ \@plus 2\p@ \@minus 2\p@}
+\def\@listI{\leftmargin\leftmargini
+     \parsep=\z@
+     \topsep=6\p@  \@plus3\p@ \@minus3\p@
+     \itemsep=3\p@ \@plus2\p@ \@minus1\p@}
+\let\@listi\@listI
+\@listi
+\def\@listii {\leftmargin\leftmarginii
+     \labelwidth\leftmarginii
+     \advance\labelwidth-\labelsep
+     \topsep=3\p@ \@plus2\p@ \@minus\p@
+     \parsep=\z@
+     \itemsep=\parsep}
+\def\@listiii{\leftmargin\leftmarginiii
+     \labelwidth\leftmarginiii
+     \advance\labelwidth-\labelsep
+     \topsep=\z@
+     \parsep=\z@
+     \partopsep=\z@
+     \itemsep=\z@}
+\def\@listiv {\leftmargin\leftmarginiv
+     \labelwidth\leftmarginiv
+     \advance\labelwidth-\labelsep}
+\def\@listv{\leftmargin\leftmarginv
+     \labelwidth\leftmarginv
+     \advance\labelwidth-\labelsep}
+\def\@listvi {\leftmargin\leftmarginvi
+     \labelwidth\leftmarginvi
+     \advance\labelwidth-\labelsep}
+\endinput
+%% 
+%% End of file `iopart12.clo'.
