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 & reconnection  | 
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Aims:   Understanding
how magnetic reconnection is working in three dimensional configurations. 
This requires in particular:
                        
- to study the magnetic topology of complex configurations (with magnetic
null points or bald patches)
                        
- to generalize the concept of separatrices to Quasi-Separatrix Layers
                        
- to analyse how the electric currents are formed and how reconnection
proceeds
Gibson, S.E., Fan, Y., Mandrini,
C.H., Fisher, G., Démoulin, P.,
              
Observational consequences of a magnetic flux
rope
                 
emerging into the corona
        
2004, ApJ, 617, 600        PDF
Titov, V.S., Hornig, G., Démoulin
P.,
              
The theory of magnetic connectivity in the
solar corona,
        
2002, JGR, 107(A8), 1164   PDF
Titov, V.S., Démoulin P.,
              
Basic topology of twisted magnetic configurations
in  solar flares,
        
1999, A&A 351, 707   PS
gzip
Milano L.J., Dmitruk P., Mandrini
C.H., Gómez D.,  Démoulin P.,
              
Quasi-Separatrix Layers in a Reduced Magnetohydrodynamic 
Model of a Coronal Loop,
        
1999, ApJ 521, 889   PS gzip
Démoulin, P., Priest, E.R.,
Lonie, D.P.,
              
3D Magnetic Reconnection Without Null Points
                         
2.  Application to Twisted Flux Tubes,
        
1996, JGR 101, A4, 7631
Priest, E.R., Démoulin,
P.,
              
3D Magnetic Reconnection Without Null Points
                         
1.  Basic Theory of Magnetic Flipping,
        
1995, JGR 100, A12, 23.443
Titov,S., Priest, E.R., Démoulin,
P.,
             
Conditions for the appearance of "bald patches"
at the  solar surface,
        
1993, A&A 276, 564
Démoulin, P., Hénoux,
J.C., Mandrini, C.H.,
             
Development of a topological model for solar
flares.,
        
1992, Solar Physics 139, 105