Secondary ion desorption induced by impact of fast projectiles is an important phenomenon not only because it is directly connected to atomic collision processes in solids, but also to practical implications in the Physics of Surfaces, Bioscience and Astrophysics. A theoretical model describing the desorption induced by secondary electron (SEID) produced in nuclear tracks is extended in the present work. It considers that the nuclear track is composed by a positive charged infratrack and a negative charged ultratrack. Secondary electrons emanated from infratrack reach the surface of the solid and generate molecular ions which are accelerated by an electric field produced by the track. The experimental data obtained by a 1.7 MeV nitrogen beam inducing electronic sputtering on condensed water target are used to test the SEID model. The initial velocity vectors and the masses of the emitted ions were obtained by the time-of-fight technique equipped with a position sensitive delay line detector XY-TOF. The data obtained by the technique show differences of symmetries in the angular distribution of the secondary ions. In particular, isotropic emission was observed for light clusters in relation to normal to the surface, contrasting with heavy clusters that show an asymmetric distribution attributed to nuclear track memory direction during the emission. The agreement between the model results and experimental data is considered reasonable.