Zagidullin Marsel' Vakifovich

Publications in Math-Net.Ru

1. Mechanism of formation of four-ring polycyclic aromatic hydrocarbons in the self-recombination of indenyl
   
   Fizika Goreniya i Vzryva, 59:2 (2023),  31–39
2. Dissociation of iodine molecules and singlet oxygen generation in O₂–I₂ mixture induced by 1315-nm laser radiation
   
   Kvantovaya Elektronika, 47:10 (2017),  932–934
3. Experimental results on the dissociation of molecular iodine in the presence of singlet oxygen molecules
   
   Kvantovaya Elektronika, 46:8 (2016),  706–712
4. Kinetics of an oxygen-iodine active medium with iodine atoms optically pumped on the ²P_1/2–²P_3/2 transition
   
   Kvantovaya Elektronika, 45:8 (2015),  720–724
5. Kinetics of O₂(¹Σ) formation in the reaction O₂(¹Δ) + O₂(¹Δ) → O₂(¹Σ) + O₂(³Σ)
   
   Kvantovaya Elektronika, 41:2 (2011),  135–138
6. Kinetics of O₂(¹Δ) self-quenching in the O₂ — O₂(¹Δ) — H₂O gas mixture
   
   Kvantovaya Elektronika, 40:9 (2010),  800–803
7. Nonequilibrium population of the first vibrational level of O₂(¹Σ) molecules in O₂ — O₂(¹Δ) — H₂O gas flow at the output of chemical singlet-oxygen generator
   
   Kvantovaya Elektronika, 40:9 (2010),  794–799
8. Centrifugal bubble O₂ (¹Δ) gas generator with a total pressure of 100 Torr
   
   Kvantovaya Elektronika, 38:8 (2008),  794–800
9. Oxygen—iodine ejector laser with a centrifugal bubbling singlet-oxygen generator
   
   Kvantovaya Elektronika, 35:10 (2005),  907–908
10. Effect of the solution temperature in a singlet-oxygen generator on the formation of active medium in an ejector oxygen — iodine laser
    
    Kvantovaya Elektronika, 32:2 (2002),  101–106
11. Amplification and gas-dynamic parameters of the active oxygen–iodine medium produced by an ejector nozzle unit
    
    Kvantovaya Elektronika, 31:8 (2001),  678–682
12. Calculation of the mixing chamber of an ejector chemical oxygen – iodine laser
    
    Kvantovaya Elektronika, 31:6 (2001),  510–514
13. Temperature dependence of the collision broadening of the ²P_1/2 – ²P_3/2 line of atomic iodine
    
    Kvantovaya Elektronika, 31:4 (2001),  373–376
14. Efficient chemical oxygen – iodine laser with a high total pressure of the active medium
    
    Kvantovaya Elektronika, 31:1 (2001),  30–34
15. Supersonic oxygen — iodine 1.4-kW laser with a 5 cm gain length and a nitrogen-diluted active medium
    
    Kvantovaya Elektronika, 30:2 (2000),  161–166
16. Efficient chemical oxygen–iodine laser with longitudinal flow of the active medium
    
    Kvantovaya Elektronika, 26:2 (1999),  114–116
17. Comparative characteristics of subsonic and supersonic oxygen–iodine lasers
    
    Kvantovaya Elektronika, 25:5 (1998),  413–415
18. Chemical oxygen — iodine laser with mixing of supersonic jets
    
    Kvantovaya Elektronika, 24:6 (1997),  491–494
19. Gain saturation and the efficiency of energy conversion into radiation in a supersonic oxygen — iodine laserwith a stable cavity
    
    Kvantovaya Elektronika, 24:5 (1997),  423–428
20. Highly efficient supersonic chemical oxygen — iodine laser with a chlorine flow rate of 10 mmol s^–1
    
    Kvantovaya Elektronika, 24:3 (1997),  201–205
21. Oxygen–iodine laser with a drop-jet generator of O₂(¹Δ) operating at pressures up to 90 Torr
    
    Kvantovaya Elektronika, 22:5 (1995),  443–445
22. Transport of high-pressure O₂ (¹Δ)
    
    Kvantovaya Elektronika, 21:3 (1994),  247–249
23. Jet O₂(#delta_1#) generator with oxygen pressures up to 13.3 kPa
    
    Kvantovaya Elektronika, 21:2 (1994),  129–132
24. Compact oxygen-iodine laser with a thermally insulated jet singlet–oxygen generator
    
    Kvantovaya Elektronika, 21:1 (1994),  23–24
25. An oxygen–iodine laser utilizing a high-pressure O₂ (¹Δ) generator
    
    Kvantovaya Elektronika, 18:12 (1991),  1417–1418
26. Highly efficient jet O₂ (¹Δ) generator
    
    Kvantovaya Elektronika, 18:7 (1991),  826–832
27. Investigation of a jet generator of O₂(¹Δ)
    
    Kvantovaya Elektronika, 16:11 (1989),  2197–2200
28. Control of the duration of optical pulses from an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 16:4 (1989),  722–727
29. Relaxation of the energy stored in an oxygen–iodine active medium containing bound iodine
    
    Kvantovaya Elektronika, 15:10 (1988),  2078–2086
30. 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
31. Water vapor content in the active medium of an oxygen–iodine chemical laser
    
    Kvantovaya Elektronika, 14:3 (1987),  516–523
32. Active medium utilizing a mixture of O₂(¹Δ) and an iodine aerosol
    
    Kvantovaya Elektronika, 14:3 (1987),  509–515
33. Active medium of a chemical oxygen-iodine laser
    
    Kvantovaya Elektronika, 13:4 (1986),  787–796
34. Kinetics of saturation of the active medium of an oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:7 (1984),  1379–1389
35. Influence of translational and hyperfine relaxation on the energy characteristics of an oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:2 (1984),  382–385
36. Advantages of pulsed operation of a chemical oxygen-iodine laser
    
    Kvantovaya Elektronika, 11:1 (1984),  201–203
37. Possibility of using an atomizer in a chemical generator of singlet oxygen for an oxygen–iodine laser
    
    Kvantovaya Elektronika, 10:4 (1983),  797–802
38. Possibility of operation of a chemical oxygen–iodine laser without a cooled trap
    
    Kvantovaya Elektronika, 10:1 (1983),  131–132
39. Numerical modeling of a chemical oxygen–iodine laser
    
    Kvantovaya Elektronika, 9:9 (1982),  1899–1901
40. Analysis of the energetics of a chemical oxygen–iodine laser
    
    Kvantovaya Elektronika, 9:6 (1982),  1193–1198