Bibcode
                                    
                            Peter, Hardi; Abbo, L.; Andretta, V.; Auchère, F.; Bemporad, A.; Berrilli, F.; Bommier, V.; Braukhane, A.; Casini, R.; Curdt, W.; Davila, J.; Dittus, H.; Fineschi, S.; Fludra, A.; Gandorfer, A.; Griffin, D.; Inhester, B.; Lagg, A.; Degl'Innocenti, E. Landi; Maiwald, V.; Manso-Sainz, R.; Martínez-Pillet, V.; Matthews, S.; Moses, D.; Parenti, S.; Pietarila, A.; Quantius, D.; Raouafi, N.-E.; Raymond, J.; Rochus, P.; Romberg, O.; Schlotterer, M.; Schühle, U.; Solanki, S.; Spadaro, D.; Teriaca, L.; Tomczyk, S.; Trujillo-Bueno, J.; Vial, J.-C.
    Bibliographical reference
                                    Experimental Astronomy, Volume 33, Issue 2-3, pp. 271-303
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                        4
            
                        2012
            
  Journal
                                    
                            Citations
                                    32
                            Refereed citations
                                    28
                            Description
                                    The magnetic field plays a pivotal role in many fields of Astrophysics.
This is especially true for the physics of the solar atmosphere.
Measuring the magnetic field in the upper solar atmosphere is crucial to
understand the nature of the underlying physical processes that drive
the violent dynamics of the solar corona—that can also affect life
on Earth. SolmeX, a fully equipped solar space observatory for
remote-sensing observations, will provide the first comprehensive
measurements of the strength and direction of the magnetic field in the
upper solar atmosphere. The mission consists of two spacecraft, one
carrying the instruments, and another one in formation flight at a
distance of about 200 m carrying the occulter to provide an artificial
total solar eclipse. This will ensure high-quality coronagraphic
observations above the solar limb. SolmeX integrates two
spectro-polarimetric coronagraphs for off-limb observations, one in the
EUV and one in the IR, and three instruments for observations on the
disk. The latter comprises one imaging polarimeter in the EUV for
coronal studies, a spectro-polarimeter in the EUV to investigate the low
corona, and an imaging spectro-polarimeter in the UV for chromospheric
studies. SOHO and other existing missions have investigated the emission
of the upper atmosphere in detail (not considering polarization), and as
this will be the case also for missions planned for the near future.
Therefore it is timely that SolmeX provides the final piece of the
observational quest by measuring the magnetic field in the upper
atmosphere through polarimetric observations.
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