Nikolai Strokin
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Degree
Doctor of Sciences, Physical and Mathematical Sciences
Education
Education, degrees
1974
Physicist, Irkutsk State University
Languages
English
Professional Interests
Teaching
Basics of Electronics
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Digital devices in micro- and nanosystem engineering
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Electrical Engineering
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Electronics and Circuit Engineering
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Electrons, Ions and Plasma in Electronics and Microelectronics
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Equipment and Processes for Production of micro- and nanomaterials
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Heterostructural semiconductor devices
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Heterostructural semiconductor devices
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Program: Materials for Micro- and Nanosystems Engineering (Master's degree)
Department:
Microprocessor electronics
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Program: Components of Micro- and Nanosystems Engineering (Bachelor's degree)
Department: Department of Radioelectronics and Telecommunication Systems
Practice for Getting Professional Skills and Experience of Professional Activity
Program: Radio Engineering, Including Television Systems and Equipment (Postgraduate)
Department:
Program: Radio Engineering, Including Television Systems and Equipment (Postgraduate)
Department:
Presentation of a Scientific Report on the Main Results of the Dissertation
Program: Devices and Methods of Experimental Physics (Postgraduate)
Department:
Program: Devices and Methods of Experimental Physics (Postgraduate)
Department:
Publications
1. Acceleration of ions in a current sheet with magnetic islands. Physics Letters A. 1988. V. 129, No. 5,6. P. 326.
2. Laboratory experiments on Solar flare energy release. Adv. Space Research. 1990. V. 10, No. 9. P. 973.
3. Ion acceleration in a quasi-neutral current sheet. Planetary and Space Science. 1990. V. 38, No. 6. P. 751.
4. Ion heating and energy redistribution in a collisionless shock wave. Sov. Phys. JETP. 1985. V. 61, No. 6. P. 1187.
5. Electron acceleration in the ion-ion interaction region ahead of a shock front. Physics Letters A. 1996. V. 211. P. 228.
6. Relaxation of the shock wave reflected ion beam, and generation of hot electros. JGR. 1998. V. 103, No. A9. P. 20541.
7. Mass Separation of Ions in a Circular Plasma Flow. Technical Physics Letters. 2010. V. 36, No. 2. P. 185.
8. Advances and Problems in Plasma-Optical Mass-Separation. Physics of Plasmas, 2014. V. 21, No. 3, 033505.
9. Peculiarities of measuring ion energy distribution in plasma with a retarding field analyzer. Review of Scientific Instruments, 2015. V. 86, 053501.
10. Results of the Main Phase of Ion Separation in the Process of Plasma-Optical Mass Separation. Plasma Science and Technology, 2015. V. 17. No. 10. P. 862.
11. Super-acceleration of ions in a stationary plasma discharge. Physics Letters A, 2016. V. 380, Issue 42. P. 3497.
12. Anomalous acceleration of ions in a plasma accelerator with an anodic layer. Plasma Science and Technology, 2018. V. 20. No. 3. 035501.
13. On performance capacity of plasma optical mass separator. Physics of Plasmas, 2018. V. 25. 083509.
14. Development of Idea of Plasma-Optical Mass Separation. Plasma Physics Reports, 2019. V. 45, No. 1. P. 46.
15. Jumping the anode layer in the zone of the ExB discharge. Physics of Plasmas, 2019. V. 26. No. 7. 073501.
16. Tandem analyzer of plasma flow ions by energy, mass and charges. Journal of Physics: Conference Series, 2019. V. 1393. 012060.
17. A New Ion Analyzer by Energy, Mass, and Charge Using a Combination of a Wien Linear Filter and an Energy Analyzer with a Retarding Potential. Technical Physics Letters, 2020. V. 46, No. 5. P. 466.
18. Plasma Passage through the Magnetic Barrier of a Plasma-Optical Mass Separator. Plasma Physics Reports, 2020, Vol. 46, No. 11, P. 1059.
19. An Ion Source for a Plasma-Optic Mass Separator. Instruments and Experimental Techniques, 2018, Vol. 61, No. 4, P. 538.
20. Study on plasma sheath and plasma transport properties in the azimuthator. Plasma Science and Technology, Vol. 20, No. 4. 045501.
2. Laboratory experiments on Solar flare energy release. Adv. Space Research. 1990. V. 10, No. 9. P. 973.
3. Ion acceleration in a quasi-neutral current sheet. Planetary and Space Science. 1990. V. 38, No. 6. P. 751.
4. Ion heating and energy redistribution in a collisionless shock wave. Sov. Phys. JETP. 1985. V. 61, No. 6. P. 1187.
5. Electron acceleration in the ion-ion interaction region ahead of a shock front. Physics Letters A. 1996. V. 211. P. 228.
6. Relaxation of the shock wave reflected ion beam, and generation of hot electros. JGR. 1998. V. 103, No. A9. P. 20541.
7. Mass Separation of Ions in a Circular Plasma Flow. Technical Physics Letters. 2010. V. 36, No. 2. P. 185.
8. Advances and Problems in Plasma-Optical Mass-Separation. Physics of Plasmas, 2014. V. 21, No. 3, 033505.
9. Peculiarities of measuring ion energy distribution in plasma with a retarding field analyzer. Review of Scientific Instruments, 2015. V. 86, 053501.
10. Results of the Main Phase of Ion Separation in the Process of Plasma-Optical Mass Separation. Plasma Science and Technology, 2015. V. 17. No. 10. P. 862.
11. Super-acceleration of ions in a stationary plasma discharge. Physics Letters A, 2016. V. 380, Issue 42. P. 3497.
12. Anomalous acceleration of ions in a plasma accelerator with an anodic layer. Plasma Science and Technology, 2018. V. 20. No. 3. 035501.
13. On performance capacity of plasma optical mass separator. Physics of Plasmas, 2018. V. 25. 083509.
14. Development of Idea of Plasma-Optical Mass Separation. Plasma Physics Reports, 2019. V. 45, No. 1. P. 46.
15. Jumping the anode layer in the zone of the ExB discharge. Physics of Plasmas, 2019. V. 26. No. 7. 073501.
16. Tandem analyzer of plasma flow ions by energy, mass and charges. Journal of Physics: Conference Series, 2019. V. 1393. 012060.
17. A New Ion Analyzer by Energy, Mass, and Charge Using a Combination of a Wien Linear Filter and an Energy Analyzer with a Retarding Potential. Technical Physics Letters, 2020. V. 46, No. 5. P. 466.
18. Plasma Passage through the Magnetic Barrier of a Plasma-Optical Mass Separator. Plasma Physics Reports, 2020, Vol. 46, No. 11, P. 1059.
19. An Ion Source for a Plasma-Optic Mass Separator. Instruments and Experimental Techniques, 2018, Vol. 61, No. 4, P. 538.
20. Study on plasma sheath and plasma transport properties in the azimuthator. Plasma Science and Technology, Vol. 20, No. 4. 045501.
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