Igoshin Valerii Ivanovich

Publications in Math-Net.Ru

1. On points and vectors in geometry
   
   Math. Ed., 2017, no. 2(82),  27–43
2. A pulsed hydrogen fluoride amplifier initiated by vibrational excitation of HF molecules by laser radiation
   
   Kvantovaya Elektronika, 34:3 (2004),  203–205
3. Influence of oxygen on the energy characteristics of a chemical pulsed hydrogen fluoride laser
   
   Kvantovaya Elektronika, 34:2 (2004),  103–105
4. An H₂ – F₂ amplifier initiated by IR laser radiation in an inhomogeneous working mixture
   
   Kvantovaya Elektronika, 32:10 (2002),  933–935
5. On the possibility of obtaining high energy parameters from an IR-initiated thermal-chain explosion H₂ – F₂ laser
   
   Kvantovaya Elektronika, 31:2 (2001),  135–138
6. Ultrahigh energy gain in small volumes of the active medium in a laser based on an autowave photon-branched chain reaction
   
   Kvantovaya Elektronika, 30:12 (2000),  1049–1054
7. Chemical hydrogen fluoride laser on a thermal chain explosion initiated by resonance IR radiation
   
   Kvantovaya Elektronika, 30:7 (2000),  580–582
8. Spectral and energy characteristics of a pulsed hydrogen fluoride laser and rotational relaxation of HF molecules
   
   Kvantovaya Elektronika, 29:1 (1999),  21–23
9. Diffractive focusing of an input pulse and giant energy gain in a laser based on an auto-wave photon-branched network
   
   Kvantovaya Elektronika, 26:1 (1999),  37–42
10. Lifetime of a two-phase active medium of a pulsed chemical HF laser
    
    Kvantovaya Elektronika, 25:10 (1998),  911–916
11. Vibrational excitation of HF molecules and initiation of an H₂ — F₂ laser by multiline radiation from a hydrogen fluoride laser
    
    Kvantovaya Elektronika, 25:5 (1998),  401–404
12. Formation and experimental investigation of a gaseous disperse medium of a pulsed chemical H₂ — F₂ laser initiated by IR radiation
    
    Kvantovaya Elektronika, 24:11 (1997),  983–986
13. High-power laser amplifier based on an auto-wave photon-branched chain reaction in an unstable telescopic cavity
    
    Kvantovaya Elektronika, 24:6 (1997),  501–505
14. Generation of the fundamental tone and first overtone radiations in a pulsed H₂ — F₂ laser
    
    Kvantovaya Elektronika, 24:5 (1997),  477–479
15. Degradation of the disperse component of the active medium of a pulsed chemical HF laser
    
    Kvantovaya Elektronika, 24:3 (1997),  227–239
16. New dynamic photon branching regimes in chemical HF lasers with a two-phase active medium
    
    Kvantovaya Elektronika, 23:4 (1996),  326–330
17. Multipass optical reactor for laser processing of disperse materials
    
    Kvantovaya Elektronika, 22:7 (1995),  711–716
18. Feasibiliy of improvement of the spatial spectrum of radiation from a cw chemical HF laser
    
    Kvantovaya Elektronika, 22:4 (1995),  365–366
19. Calculation of the electron energy in the discharge plasma of a pulsed electron-beam-controlled CO laser on the basis of an analysis of the temporal characteristics of its radiation
    
    Kvantovaya Elektronika, 21:5 (1994),  429–432
20. Multilevel model of a pulsed chemical H₂ – F₂ laser and its promising operational modes
    
    Kvantovaya Elektronika, 21:5 (1994),  417–421
21. Pumping a KrF excimer laser by a laser discharge induced by an IR laser beam
    
    Kvantovaya Elektronika, 20:1 (1993),  39–44
22. Theoretical simulation of lasers utilizing vibrational-rotational transitions in diatomic molecules allowing for anharmonicity and rotational nonequilibrium
    
    Kvantovaya Elektronika, 19:4 (1992),  372–376
23. Generation of electromagnetic fields during emission of electrons into an ambient gas and plasma from the surfaces of laser-irradiated disperse particles
    
    Kvantovaya Elektronika, 18:4 (1991),  473–478
24. Feasibility of initiation of pulsed chemical lasers by an optical discharge
    
    Kvantovaya Elektronika, 17:11 (1990),  1465–1466
25. Calculations of the energy efficiency of resonators in an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 16:9 (1989),  1819–1822
26. Oxygen–iodine chemical laser with a longitudinally circulating active medium
    
    Kvantovaya Elektronika, 16:9 (1989),  1770–1774
27. Calculation of the characteristics of a hardened layer using a model of laser steel hardening
    
    Kvantovaya Elektronika, 16:8 (1989),  1636–1642
28. Control of the duration of optical pulses from an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 16:4 (1989),  722–727
29. Substantiation of the feasibility of developing a purely chemical $H_2-F_2$ laser with evaporation of finely dispersed particles under the action of infrared radiation
    
    Kvantovaya Elektronika, 16:3 (1989),  437–441
30. Efficient solutions for low-temperature singlet-oxygen generators
    
    Kvantovaya Elektronika, 16:2 (1989),  229–234
31. Influence of SF₆ on the energy characteristics of an H₂–F₂ chemical laser
    
    Kvantovaya Elektronika, 16:1 (1989),  50–52
32. Analysis of the growth of austenite grains in carbon steels during laser hardening
    
    Kvantovaya Elektronika, 15:10 (1988),  2119–2127
33. Relaxation of the energy stored in an oxygen–iodine active medium containing bound iodine
    
    Kvantovaya Elektronika, 15:10 (1988),  2078–2086
34. Influence of heat release in singlet oxygen on the operation of an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 15:3 (1988),  471–476
35. Theoretical analysis of the kinetics of a laser utilizing a mixture of O₂(¹Δ) and an iodine aerosol
    
    Kvantovaya Elektronika, 15:1 (1988),  70–77
36. Characteristics of structural phase transformations in high-alloy steels subjected to laser heat treatment
    
    Kvantovaya Elektronika, 14:12 (1987),  2543–2549
37. Water vapor content in the active medium of an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 14:3 (1987),  516–523
38. Active medium utilizing a mixture of O₂(¹Δ) and an iodine aerosol
    
    Kvantovaya Elektronika, 14:3 (1987),  509–515
39. Principle of the shift of the temperature of the instrumental onset of the austenite transformation in steels during high-speed and laser heating
    
    Kvantovaya Elektronika, 13:11 (1986),  2315–2319
40. Active medium of a chemical oxygen-iodine laser
    
    Kvantovaya Elektronika, 13:4 (1986),  787–796
41. Efficiency of laser heating of particles dispersed in a gas stream
    
    Kvantovaya Elektronika, 12:10 (1985),  2187–2189
42. Laser evaporation of metals in a gaseous atmosphere
    
    Kvantovaya Elektronika, 11:8 (1984),  1555–1561
43. Kinetics of saturation of the active medium of an oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:7 (1984),  1379–1389
44. Influence of translational and hyperfine relaxation on the energy characteristics of an oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:2 (1984),  382–385
45. Advantages of pulsed operation of a chemical oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:1 (1984),  201–203
46. Chemical HF laser initiated by evaporation of fine particles under the action of infrared radiation
    
    Kvantovaya Elektronika, 10:9 (1983),  1922–1924
47. Possibility of using an atomizer in a chemical generator of singlet oxygen for an oxygen–iodine laser
    
    Kvantovaya Elektronika, 10:4 (1983),  797–802
48. Kinetic gasdynamic model and calculation of the characteristics of an H₂–HF gasdynamic laser utilizing purely rotational transitions
    
    Kvantovaya Elektronika, 10:4 (1983),  748–755
49. Chemical laser amplifier using a photon-branched reaction in an aerosol medium
    
    Kvantovaya Elektronika, 10:2 (1983),  458–461
50. Formation of free fluorine atoms by laser-collisional initiation of the CH₃F+F₂ reaction
    
    Kvantovaya Elektronika, 10:2 (1983),  370–376
51. Possibility of operation of a chemical oxygen–iodine laser without a cooled trap
    
    Kvantovaya Elektronika, 10:1 (1983),  131–132
52. Numerical modeling of a chemical oxygen–iodine laser
    
    Kvantovaya Elektronika, 9:9 (1982),  1899–1901
53. Thermal gasdynamic laser utilizing rotational transitions in hydrogen halides with energy transfer from H₂ molecules
    
    Kvantovaya Elektronika, 9:6 (1982),  1283–1287
54. Analysis of the energetics of a chemical oxygen–iodine laser
    
    Kvantovaya Elektronika, 9:6 (1982),  1193–1198
55. Analysis of the energetics of chain-reaction chemical lasers allowing for rotational nonequilibrium
    
    Kvantovaya Elektronika, 8:5 (1981),  941–953
56. Numerical analysis of a DF–CO₂ chemical laser: kinetics of processes and comparison between calculations and experiment
    
    Kvantovaya Elektronika, 8:2 (1981),  277–286
57. Photon branching in chain reactions and in chemical lasers initiated by infrared radiation
    
    Kvantovaya Elektronika, 6:12 (1979),  2517–2524
58. Numerical analysis of an HF–HCl chemical laser utilizing the ClF+H₂ chain reaction
    
    Kvantovaya Elektronika, 6:3 (1979),  528–538
59. Halogen hydride lasers with vibrational energy transfer from metastable diatomic molecules
    
    Kvantovaya Elektronika, 5:5 (1978),  1048–1056
60. Possibility of generation of short laser radiation pulses as a result of photolysis of a cooled H₂–F₂ mixture
    
    Kvantovaya Elektronika, 5:4 (1978),  907–909
61. Influence of the main factors on the efficiency of coherent emission as a result of reaction of hydrogen with fluorine
    
    Kvantovaya Elektronika, 4:6 (1977),  1282–1295
62. An investigation of a chemical laser emitting due to an overtone of the HF molecule
    
    Kvantovaya Elektronika, 4:5 (1977),  1112–1114
63. Chemical DF–CO₂ amplifier of short light pulses
    
    Kvantovaya Elektronika, 4:5 (1977),  1004–1008
64. Electron-beam initiation of a hydrogen fluoride chemical laser
    
    Kvantovaya Elektronika, 3:9 (1976),  2072–2074
65. Amplification of the fundamental frequency and harmonics by chemical reaction
    
    Kvantovaya Elektronika, 3:9 (1976),  1967–1979
66. Analytic and numerical solutions of rate equations for multilevel chemical and molecular lasers in quasisteady approximation. I. Analytic treatment
    
    Kvantovaya Elektronika, 2:8 (1975),  1638–1647
67. Determination of the rate constant of the chemical reaction F + H₂(D₂) → HF(DF) + H(D) from the stimulated emission of the HF(DF) molecules
    
    Kvantovaya Elektronika, 1973, no. 4(16),  50–59
68. Dynamics of chemical lasers (review)
    
    Kvantovaya Elektronika, 1971, no. 2,  3–24