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ÉLECTRONS À 5 MEV que la méthode que nous avons étudiée permette d'accélérer un paquet avec une forte charge (environ 15 pC) ,
énergie des électrons soit adaptée aux expériences de diffraction d'électrons, nos simulations indiquent que la qualité spatiale et plus particulièrement l'émittance de la source doit être améliorée Nous nous sommes basés sur ces résultats de simulations pour proposer un design de ligne pour le transport et le filtrage du faisceau d'électrons [14]. En filtrant astucieusement les paquets d'électrons, il est possible de produire une source de durée inférieure à 5 fs, de charge 1.5 fC et de cohérence transverse supérieure à 2 nm, Nous avons donc étudié la construction de la source d'électrons pour des expériences de diffraction résolue en temps à l'aide de simulations numériques ,
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