PAC09 - List of Authors (Gorbachev, A.M.)

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Gorbachev, A.M.

Paper	Title	Page
WE5PFP027	Active Quasi-Optical Ka-Band RF Pulse Compressor	2051
	O.A. Ivanov, A.M. Gorbachev, V.A. Isaev, A.A. Vikharev, A.L. Vikharev IAP/RAS, Nizhny Novgorod J.L. Hirshfield Yale University, Physics Department, New Haven, CT M.A. LaPointe Yale University, Beam Physics Laboratory, New Haven, Connecticut
	Funding: Research sponsored by US Department of Energy, Office of High Energy Physics Experimental investigations of an active Ka-band microwave pulse compressor are presented. The compressor is based on a running wave three mirror quasi-optical resonator utilizing a diffraction grating whose channels embody plasma discharge tubes as the active switch. The principle of compression is based on quickly changing the output coupling coefficient (Q-switching) by initiating plasma discharges in the grating channels. Excitation of the resonator was achieved with a few 100 kW of 34.29 GHz microwaves in 700 nS pulses from the magnicon in the Yae Ka-band Test Facility. A power gain of at least 7:1 in the compressed pulse with a duration of 10-15 nS was achieved.

Paper

Title

Page

WE5PFP027

Active Quasi-Optical Ka-Band RF Pulse Compressor

2051

O.A. Ivanov, A.M. Gorbachev, V.A. Isaev, A.A. Vikharev, A.L. Vikharev
IAP/RAS, Nizhny Novgorod
J.L. Hirshfield
Yale University, Physics Department, New Haven, CT
M.A. LaPointe
Yale University, Beam Physics Laboratory, New Haven, Connecticut

Funding: Research sponsored by US Department of Energy, Office of High Energy Physics

Experimental investigations of an active Ka-band microwave pulse compressor are presented. The compressor is based on a running wave three mirror quasi-optical resonator utilizing a diffraction grating whose channels embody plasma discharge tubes as the active switch. The principle of compression is based on quickly changing the output coupling coefficient (Q-switching) by initiating plasma discharges in the grating channels. Excitation of the resonator was achieved with a few 100 kW of 34.29 GHz microwaves in 700 nS pulses from the magnicon in the Yae Ka-band Test Facility. A power gain of at least 7:1 in the compressed pulse with a duration of 10-15 nS was achieved.