A. Razhev

发表

LASERS AND PHYSICAL PROCESSES IN THEM: Dependences of the plasma parameters and output energy of excimer lasers on the Xe content in an He-Xe-HCl mixture

A. Shchedrin, V. M. Baginskii, P. Golovinskii, 1988 .

Excimer ArF laser with an output energy of 1.3 J at 2.0% efficiency on the He:Ar:F2 mixture

A. Razhev, A. A. Zhupikov, 2005 .

Effect of the pump intensity on the efficiency of a KrF excimer electric-discharge laser on a He - Kr - F2 mixture

A. G. Kalyuzhnaya, A. Shchedrin, A. Razhev, 2004 .

Excimer ArF laser with an output energy of 0.5 J and He buffer gas

A. Razhev, A. A. Zhupikov, 1997 .

Influence of the specific pump power on the output energy and efficiency of a 223-nm gas-discharge-pumped excimer KrCl laser

A. Razhev, A. A. Zhupikov, 2008 .

LASERS, ACTIVE MEDIA: Excimer KrF laser with He buffer gas, 0.8 J energy, and 2% efficiency

A. Razhev, A. A. Zhupikov, 1998 .

Pulsed UV laser technologies for ophthalmic surgery

V. V. Chernykh, I. A. Iskakov, A. Razhev, 2017 .

JOURNAL DE PHYSIQUE IV Colloque 0, supplkment au Journal de Physique 111, Vol. 1, dkembre 1991

V. Lantukh, A. Razhev, M. M. Pyatin, 1991 .

Pulsed Inductive IR Ar I laser

A. Razhev, D. Churkin, R. A. Tkachenko, 2020, Atmospheric and Oceanic Optics.

Investigating the action of the 193‐nm and 223‐nm radiation of excimer lasers on the cornea of the human eye in refractive surgery

V. V. Chernykh, S. V. Kostenev, A. Razhev, 2009 .

Two processes that lower the emission energy of an electric-discharge KrF laser

A. Razhev, 1986 .

New gas-discharge pulse laser on electronic transitions of neutral neon atoms with a wavelength of 743.89 nm

A. Razhev, E. Kargapol'tsev, D. Kapusta, 2020 .

Optical coherence tomography for in situ monitoring of laser corneal ablation.

Ilya V Turchin, Grigory V Gelikonov, Valentin M Gelikonov, 2002, Journal of biomedical optics.

Pulsed Inductive Discharge as New Method for Gas Lasers Pumping

A. Razhev, D. Churkin, E. S. Kargapol’tsev, 2013 .

LASERS: Study of the UV emission of an inductive nitrogen laser

A. Razhev, A. A. Zhupikov, D. Churkin, 2009 .

Pulsed inductive CO2 laser with radio-frequency excitation and influence of the H2 content on the efficiency and lasing temporal characteristics

A. Razhev, I. A. Trunov, D. Churkin, 2022, Laser Physics.

Development of gas-discharge lasers using tpi-type pseudospark switches

V. G. Ushich, C. Pihl, P. Bokhan, 2009, 2009 IEEE Pulsed Power Conference.

Influence of excitation parameters and active medium on the efficiency of an electric-discharge excimer ArF laser

A. G. Kalyuzhnaya, A. Shchedrin, A. Razhev, 2005 .

Xenon-addition effect on energy and lasing duration of a pulsed inductive CO2 laser with RF excitation

A. Razhev, E. S. Kargapol’tsev, 2022, Applied Physics B.

MW peak-power UV inductive nitrogen laser

A. Razhev, D. Churkin, R. A. Tkachenko, 2020 .

Characteristics of the inductive nitrogen laser generation

A. Razhev, D. Churkin, E. S. Kargapol’tsev, 2016 .

Pulsed inductive discharge CO2 laser

A. Razhev, D. Churkin, 2009 .

Nitrogen, atomic fluorine and CO2 lasers excited by a pulsed inductive discharge

Alexander M. Razhev, Andrey A. Zhupikov, D S Churkin, 2007, Atomic and Molecular Pulsed Lasers.

Pulsed gas lasers excited by an inductive discharge

Alexander M. Razhev, Andrey A. Zhupikov, D S Churkin, 2006, International Symposium on High Power Laser Systems and Applications.

703-to 731-nm FI laser excited by a transverse inductive discharge

A. M. Razhev, V. M. Mkhitaryan, D. S. Churkin, 2005 .

A 223-nm KrCl excimer laser on a He?Kr?HCl mixture

A. Razhev, A. A. Zhupikov, E. S. Kargapol’tsev, 2004 .

Inductive Penning plasma neon laser with a wavelength of 585.3 nm

A. Razhev, D. Churkin, R. A. Tkachenko, 2021 .

Inductive laser on neon’s atomic transitions pumped by a pulsed inductive discharge

A. Razhev, D. Churkin, R. A. Tkachenko, 2021, Applied Physics B.

Pulsed Inductive IR Ar I laser

A. Razhev, D. Churkin, R. A. Tkachenko, 2020, Atmospheric and Oceanic Optics.

337 nm molecular nitrogen laser excited by pulsed inductive discharge

Alexander M. Razhev, D S Churkin, A. Razhev, 2007, International Conference on Lasers, Applications, and Technologies.

Advantages of using the 223-nm compared with 193-nm radiation wavelength for ophthalmic applications

Sergei N. Bagayev, Alexander M. Razhev, Andrey A. Zhupikov, 2002, Other Conferences.

Choice of the laser wavelength for a herpetic keratitis treatment

Sergei N. Bagayev, Valery V. Chernikh, Alexander M. Razhev, 2002, SPIE BiOS.

New 223-nm excimer laser surgical system for photorefractive keratectomy

Alexander M. Razhev, Andrey A. Zhupikov, Sergei N. Bagaev, 1999, European Conference on Biomedical Optics.