Hramov, “The development and interaction of instabilities in intense relativistic electron beams,” Phys. Khramov, “Specific features of virtual cathode formation and dynamics with allowance for the magnetic self-field of a relativistic electron beam,” Plasma Phys. Filatova, “Effect of self-magnetic fields on the nonlinear dynamics of relativistic electron beam with virtual cathode,” Phys. Hramov, “Higher harmonics generation in relativistic electron beam with virtual cathode,” Phys. Lee, “Non-modal analysis of the diocotron instability for cylindrical geometry with conducting boundary,” Phys. Kuzelev, “Nonlinear dynamics of diocotron instability,” Plasma Phys. Briggs, “Stability of sheared electron flow,” Phys. Snell, “Microwave generation from filamentation and vortex formation within magnetically confined electron beams,” Phys. Zhang, “Characterization of cesium iodide-coated carbon-fiber aluminum cathode for an S-band high-efficiency vircator,” IEEE Trans. Hramov, “High-power microwave amplifier based on overcritical relativistic electron beam without external magnetic field,” Appl. Schamiloglu, High Power Microwaves, Series in Plasma Physics (CRC, Taylor and Francis Group, Boca Raton, FL, 2016). Krasik, “Investigations of a double-gap vircator at submicrosecond pulse durations,” IEEE Trans. Selemir, “Electronic devices with virtual cathodes (review),” J. Qin, Physics of Intense Charged Particle Beams in High Energy Accelerators (World Scientific, Singapore, 2001).Ī. Davidson, Physics of Nonneutral Plasmas (Imperial College Press, World Scientific, Singapore, 2001).

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