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Zeigarnik Yurii Al'bertovich

Publications in Math-Net.Ru

  1. Study of heat transfer during boiling water on a modified surface obtained by microarc oxidation

    Pisma v Zhurnal Tekhnicheskoi Fiziki, 50:15 (2024),  34–36
  2. Некоторые особенности кипения недогретого диэлектрического хладона $\rm R113$

    TVT, 62:5 (2024),  792–795
  3. Atomization of superheated water through a divergent nozzle

    Prikl. Mekh. Tekh. Fiz., 64:3 (2023),  32–37
  4. Vapor agglomerates and dry spots as precursors of the subcooled liquid boiling crisis in a channel

    TVT, 59:3 (2021),  373–383
  5. Superheated water atomization: A possibility of obtaining sprays of droplets of micron diameters

    TVT, 56:1 (2018),  153–155
  6. Characteristics of subcooled water boiling on structured surfaces

    TVT, 55:6 (2017),  712–719
  7. The nature of “gas” burnout

    TVT, 53:6 (2015),  881–884
  8. On the nature of bimodal drop distribution over sizes under superheated water atomization

    TVT, 53:2 (2015),  221–224
  9. Atomization of Superheated Water: Practice of Investigation of Complicated Disperse Systems

    TVT, 52:3 (2014),  456–462
  10. Estimation of the influence of temperature pulses on piezoelectric pressure gauge readings

    TVT, 51:5 (2013),  764–768
  11. Determination of the characteristic linear dimension for calculating the thermohydraulic parameters of a porous structure

    TVT, 51:1 (2013),  144–147
  12. Behavior of air bubbles during subcooled water boiling

    TVT, 50:3 (2012),  436–441
  13. The nature of microbubble emission under subcooled water boiling

    TVT, 50:1 (2012),  83–88
  14. Visualization of Boiling of Subcooled Water

    TVT, 49:4 (2011),  584–588
  15. Generalization of experimental data on internal heat transfer in porous structures

    TVT, 48:3 (2010),  402–408
  16. An experimental investigation of the characteristics of explosive boiling of subcooled water on a hot surface under conditions of change of boiling modes

    TVT, 47:6 (2009),  891–898
  17. Microbubble boiling: Mechanism of the process, objectives and methods of investigations

    TVT, 47:5 (2009),  707–711
  18. Notes concerning some aspects of vapor explosion

    TVT, 46:5 (2008),  797–800
  19. A possible mechanism of triggering a vapor explosion

    TVT, 44:6 (2006),  913–917
  20. The behavior of a vapor film on a highly superheated surface immersed in subcooled water

    TVT, 43:1 (2005),  100–114
  21. The thermomechanical mechanism of fine fragmentation of liquid droplets under conditions of vapor explosion

    TVT, 42:3 (2004),  491–492
  22. The ineffectiveness of using a universal geometric dimension in describing the hydrodynamics and heat transfer in porous structures

    TVT, 41:6 (2003),  907–913
  23. The development of a three-fluid model of two-phase flow for dispersed-annular mode of flow in channels: Film thickness and pressure drop

    TVT, 41:3 (2003),  455–460
  24. The Development of a Three-Fluid Model of Two-Phase Flow for Dispersed-Annular Mode of Flow in Channels: Deposition and Entrainment of Droplets

    TVT, 40:5 (2002),  772–778
  25. The Development of a Three-Fluid Model of Two-Phase Flow for a Dispersed-Annular Mode of Flow in Channels: Size of Droplets

    TVT, 40:4 (2002),  641–651
  26. Regenerated boiling and enhancement of heat transfer

    TVT, 39:3 (2001),  479–487
  27. High-temperature heat-shielding panels with thermochemical cooling based on the reaction of steam conversion of methane

    TVT, 38:6 (2000),  963–974
  28. A study into development of instability and collapse of vapor layer on a heated solid hemispherical surface

    TVT, 38:6 (2000),  935–944
  29. Investigation of the characteristics of heat-absorbing surfaces by the electron-beam heating technique

    TVT, 37:6 (1999),  971–979
  30. TURBINA test bed at IVTAN for investigation of the thermal state of high-temperature elements of gas turbines

    TVT, 36:6 (1998),  984–989
  31. Hydraulic characteristics of envelopes made of porous mesh materials

    TVT, 34:6 (1996),  924–928
  32. On calculation of thermal distortion characteristics of cooled laser mirrors

    TVT, 34:4 (1996),  619–625
  33. Universal model of critical heat flux of subcooled liquid boiling in channels

    TVT, 34:1 (1996),  52–56
  34. A generalization of the results of enhancement of heat transfer in channels with porous inserts

    TVT, 32:3 (1994),  433–440
  35. Temperature fields in a mirror body and the thermal deformation of a reflecting surface

    TVT, 31:2 (1993),  308–312
  36. Experimental-study of local flow structure over a stationary packed-bed

    TVT, 27:2 (1989),  321–326
  37. Analysis of the possibilities of controlling the curvature of a bimetallic plate by varying its temperature-field

    TVT, 26:2 (1988),  306–310
  38. Controlling the shape of the surface of a cooling bimetallic plate by changing the parameters of the coolant

    TVT, 26:1 (1988),  87–93
  39. Flow in a channel with deflections containing a porous filler

    TVT, 24:5 (1986),  941–947
  40. Problems of heat-transfer in cooled mirrors in industrial lasers

    TVT, 23:6 (1985),  1200–1210
  41. Experimental-study of the flow resistance of porous structures in the adiabatic motion of steam water mixtures

    TVT, 23:5 (1985),  934–940
  42. К выбору области рационального использования охлаждаемых зеркал

    TVT, 22:4 (1984),  803–805
  43. Some measurements of hydraulic resistance in boiling water heated to below the saturation temperature

    TVT, 21:2 (1983),  303–308
  44. Исследование гидравлического сопротивления при кипении натрия в трубе

    TVT, 15:5 (1977),  1116–1118
  45. Об инверсии температуры при кипении щелочных металлов в трубах в условиях кольцевого режима течения

    TVT, 9:6 (1971),  1242–1247
  46. Boiling of molten alkali metals in tubes

    TVT, 8:2 (1970),  309–318
  47. Methods for increasing the reliability of boiling liquid-metal loops

    TVT, 8:1 (1970),  222–224
  48. О кипении жидких щелочных металлов в трубах

    TVT, 7:2 (1969),  374–376


© Steklov Math. Inst. of RAS, 2026