Yuryshev Nikolai Nikolaevich

Publications in Math-Net.Ru

1. Determination of the fraction of excited iodine atoms produced by dissociation of iodides in a self-sustained pulsed discharge
   
   Kvantovaya Elektronika, 47:11 (2017),  1069–1074
2. Dynamics of production of iodine atoms by dissociation of iodides in a pulsed self-sustained discharge
   
   Kvantovaya Elektronika, 43:7 (2013),  610–615
3. Measurement of the O₂ (b¹Σ_g⁺ → a¹Δ_g) transition probability by the method of intracavity laser spectroscopy
   
   Kvantovaya Elektronika, 35:4 (2005),  378–384
4. Pulsed electron-beam-sustained discharge in oxygen-containing gas mixtures: electrical characteristics, spectroscopy,and singlet oxygen yield
   
   Kvantovaya Elektronika, 34:9 (2004),  865–870
5. A pulsed oxygen – iodine chemical laser excited by a longitudinal electric discharge
   
   Kvantovaya Elektronika, 32:7 (2002),  609–613
6. Pulsed chemical oxygen – iodine laser initiated by a transverse electric discharge
   
   Kvantovaya Elektronika, 31:2 (2001),  127–131
7. Pulsed chemical oxygen–iodine laser with volume generation of iodine as a model of a high-power supersonic cw laser
   
   Kvantovaya Elektronika, 25:5 (1998),  410–412
8. Efficient operation of a Co:MgF₂ crystal laser pumped by radiation from a pulsed oxygen – iodine laser
   
   Kvantovaya Elektronika, 25:4 (1998),  299–300
9. Chemically pumped oxygen–iodine laser
   
   Kvantovaya Elektronika, 23:7 (1996),  583–600
10. Pulsed chemical oxygen–iodine laser with bulk formation of iodine atoms by an electric discharge
    
    Kvantovaya Elektronika, 22:8 (1995),  776–778
11. Direct measurement, by intracavity laser spectroscopy, of the population difference for the b–X transition in the NF radical
    
    Kvantovaya Elektronika, 22:7 (1995),  692–694
12. Numerical modelling of the process of energy extraction from a mixture of singlet oxygen and iodine in amplification of a short pulse
    
    Kvantovaya Elektronika, 22:2 (1995),  113–116
13. Intracavity second harmonic generation in a pulsed oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 19:4 (1992),  407–409
14. Influence of atomic oxygen on the dissociation of molecular iodine and dissipation of the energy stored in the active medium of an oxygen–iodine laser
    
    Kvantovaya Elektronika, 18:8 (1991),  912–917
15. Influence of molecular chlorine on the output energy of a pulsed oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 18:7 (1991),  840–843
16. Luminescence of products of a singlet-oxygen generator in the visible and near infrared
    
    Kvantovaya Elektronika, 18:7 (1991),  832–836
17. Influence of an iodine donor on the output energy of a pulsed oxygen-iodine laser
    
    Kvantovaya Elektronika, 18:1 (1991),  33–37
18. Emission of visible radiation by a chemical oxygen–iodine laser
    
    Kvantovaya Elektronika, 17:2 (1990),  204–205
19. Oxygen–iodine laser with a photodissociation source of excited O₂(a¹Δ_g) oxygen
    
    Kvantovaya Elektronika, 16:6 (1989),  1095–1097
20. Influence of chlorine on the energy stored in the active medium of a pulsed oxygen-iodine chemical laser
    
    Kvantovaya Elektronika, 15:9 (1988),  1785–1790
21. Pulse-periodic operation of an oxygen-iodine chemical laser
    
    Kvantovaya Elektronika, 14:5 (1987),  924–935
22. Influence of water vapor on the output energy of a pulsed oxygen-iodine laser
    
    Kvantovaya Elektronika, 13:5 (1986),  1068–1069
23. Investigation of a bubbling type of chemical singlet oxygen generator
    
    Kvantovaya Elektronika, 12:9 (1985),  1921–1925
24. Continuous-wave transfer chemical lasers (review)
    
    Kvantovaya Elektronika, 12:6 (1985),  1127–1173
25. Low temperature operation of a chemical singlet oxygen generator
    
    Kvantovaya Elektronika, 12:3 (1985),  641–642
26. Molecules of CH₃I and n-C₃F₇I as iodine atom donors in a pulsed chemical oxygeniodine laser
    
    Kvantovaya Elektronika, 11:10 (1984),  1893–1894
27. Chemical oxygen-iodine laser utilizing low-strength hydrogen peroxide
    
    Kvantovaya Elektronika, 11:8 (1984),  1688–1689
28. Advantages of pulsed operation of a chemical oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:1 (1984),  201–203
29. Feasibility of developing a cw OH chemical laser
    
    Kvantovaya Elektronika, 11:1 (1984),  97–102
30. Efficiency of initiation of a pulsed H₂–F₂ laser by photolysis and electron beam methods
    
    Kvantovaya Elektronika, 10:10 (1983),  2126–2128
31. Energy lost in formation of fluorine atoms in the course of electron-beam dissociation of fluorine and fluoride molecules
    
    Kvantovaya Elektronika, 10:2 (1983),  428–429
32. Influence of the initial initiation on the parameters of an H₂/F₂ laser
    
    Kvantovaya Elektronika, 9:3 (1982),  630–632
33. Investigation into the possibility of obtaining high specific lasing parameters from an HF laser utilizing a chain reaction
    
    Kvantovaya Elektronika, 9:3 (1982),  628–630
34. Investigation of a chemical HF laser utilizing a highpressure H₂–SF₆ mixture
    
    Kvantovaya Elektronika, 9:3 (1982),  625–628
35. High-efficiency photoinitiated chemical D₂–F₂–CO₂ laser
    
    Kvantovaya Elektronika, 9:3 (1982),  624–625
36. Investigation of a flashlamp-initiated large-volume chemical $H_2-F_2$ laser
    
    Kvantovaya Elektronika, 7:8 (1980),  1821–1823
37. Gasdynamic chemical laser utilizing a $D-O_3-CO_2$ mixture. II. Calculation model
    
    Kvantovaya Elektronika, 7:7 (1980),  1430–437
38. Gasdynamic chemical laser utilizing $D-O_3-CO_2$ and $H-O_3-CO_2$ mixtures. I. Experimental investigation
    
    Kvantovaya Elektronika, 7:7 (1980),  1422–1429
39. Energy parameters of electron-beam-initiated $H_2-F_2-$, $D_2-F_2-$ and $D_2-F_2-CO_2$ lasers
    
    Kvantovaya Elektronika, 7:6 (1980),  1357–1359
40. Investigation of the efficiency of lamp sources for photoinitiation of pulsed hydrogen fluoride lasers
    
    Kvantovaya Elektronika, 6:10 (1979),  2277–2279
41. Investigation of the conditions for efficient initiation of HF chemical lasers by a relativistic electron beam
    
    Kvantovaya Elektronika, 6:10 (1979),  2166–2174
42. Influence of the parameters of a fluorine–hydrogen mixture on the flame propagation velocity
    
    Kvantovaya Elektronika, 6:8 (1979),  1822–1824
43. Investigation of the energy parameters of a chemical ClF–H₂ laser with electron-beam initiation
    
    Kvantovaya Elektronika, 5:12 (1978),  2657–2659
44. Gain measurement in a supersonic jet utilizing a D+O₃+CO₂ mixture
    
    Kvantovaya Elektronika, 5:12 (1978),  2656–2657
45. Efficient electron-beam-pumped HF chemical laser with a high specific energy output
    
    Kvantovaya Elektronika, 5:7 (1978),  1608–1610
46. Investigation of an HF master oscillator–amplifier system based on the chain hydrogen–fluorine reaction
    
    Kvantovaya Elektronika, 5:4 (1978),  910–913
47. Possibility of obtaining generation on a CO molecule behind the front of a compressed detonation wave in a CS$_2$ + O$_2$ mixture
    
    Fizika Goreniya i Vzryva, 12:5 (1976),  739–744
48. Supersonic chemical CO₂ laser utilizing mixing of atomic deuterium with ozone and carbon dioxide
    
    Kvantovaya Elektronika, 3:5 (1976),  1142–1143
49. Stimulated emission from a CS₂–O mixture in a shock tube with a supersonic nozzle
    
    Kvantovaya Elektronika, 3:2 (1976),  463–465
50. Photoinitiated chemical CO laser utilizing CS₂+O₃ mixtures
    
    Kvantovaya Elektronika, 3:2 (1976),  362–368
51. Influence of cooling on the operation of a chemical CO₂ laser utilizing an O₃ : D₂ : CO₂ mixture
    
    Kvantovaya Elektronika, 2:11 (1975),  2534–2536
52. Investigation of the energy characteristics of a chemical СO₂ laser utilizing a O₃ + D₂ + CO₂ mixture
    
    Kvantovaya Elektronika, 2:9 (1975),  2092–2095
53. Output parameters of a chemical CS₂+O₂ laser
    
    Kvantovaya Elektronika, 1972, no. 5(11),  129–131
54. Utilization of photorecombination of radicals and atoms in continuous-wave lasers
    
    Kvantovaya Elektronika, 1971, no. 6,  89–91
55. Interaction of a quasi-stationary laser beam with a metal
    
    Prikl. Mekh. Tekh. Fiz., 9:3 (1968),  126–128
56. Strain effects due to interaction of laser radiation with a metal
    
    Prikl. Mekh. Tekh. Fiz., 8:4 (1967),  145–146