Temperature Fields of the Droplets and Gases Mixture; Applied Sciences; Vol. 10, iss. 7
| Parent link: | Applied Sciences Vol. 10, iss. 7.— 2020.— [2212, 22 p.] |
|---|---|
| Автор: | Volkov R. S. Roman Sergeevich |
| Співавтори: | Национальный исследовательский Томский политехнический университет Инженерная школа энергетики Научно-образовательный центр И. Н. Бутакова (НОЦ И. Н. Бутакова), Национальный исследовательский Томский политехнический университет Исследовательская школа физики высокоэнергетических процессов |
| Інші автори: | Voytkov I. S. Ivan Sergeevich, Strizhak P. A. Pavel Alexandrovich |
| Резюме: | Title screen In this research, we obtain gas–vapor mixture temperature fields generated by blending droplets and high-temperature combustion products. Similar experiments are conducted for droplet injection into heated air flow. This kind of measurement is essential for high-temperature and high-speed processes in contact heat exchangers or in liquid treatment chambers, as well as in firefighting systems. Experiments are conducted using an optical system based on Laser-Induced Phosphorescence as well as two types of thermocouples with a similar measurement range but different response times (0.1–3 s) and accuracy (1–5 ?C). In our experiments, we inject droplets into the heated air flow (first scheme) and into the flow of high-temperature combustion products (second scheme). We concentrate on the unsteady inhomogeneous temperature fields of the gas–vapor mixture produced by blending the above-mentioned flows and monitoring the lifetime of the relatively low gas temperature after droplets passes through the observation area. The scientific novelty of this research comes from the first ever comparison of the temperature measurements of a gas–vapor–droplet mixture obtained by contact and non-contact systems. The advantages and limitations of the contact and non-contact techniques are defined for the measurement of gas–vapor mixture temperature. |
| Мова: | Англійська |
| Опубліковано: |
2020
|
| Предмети: | |
| Онлайн доступ: | https://doi.org/10.3390/app10072212 |
| Формат: | Електронний ресурс Частина з книги |
| KOHA link: | https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=662605 |
Схожі ресурси
Gas-Vapor Mixture Temperature in the Near-Surface Layer of a Rapidly-Evaporating Water Droplet; Entropy; Vol. 21
за авторством: Antonov D. V. Dmitry Vladimirovich
Опубліковано: (2019)
за авторством: Antonov D. V. Dmitry Vladimirovich
Опубліковано: (2019)
Research of temperature fields and convection velocities in evaporating water droplets using Planar Laser-Induced Fluorescence and Particle Image Velocimetry; Experimental Thermal and Fluid Science; Vol. 97
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2018)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2018)
Using Planar Laser Induced Fluorescence to determine temperature fields of drops, films, and aerosols; Measurement; Vol. 153
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2020)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2020)
Measuring the temperature of a rapidly evaporating water droplet by Planar Laser Induced Fluorescence; Measurement; Vol. 135
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2019)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2019)
Temperature recording of the ice–water system using planar laser induced fluorescence; Experimental Thermal and Fluid Science; Vol. 131
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2022)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2022)
Planar laser-induced fluorescence diagnostics of water droplets heating and evaporation at high-temperature; Applied Thermal Engineering; Vol. 127
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2017)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2017)
Prognosis Model for Investigating the Evaporation of Water Droplets; Journal of Engineering Physics and Thermophysics; Vol. 92, iss. 4
Опубліковано: (2019)
Опубліковано: (2019)
Collisions of water drops in a gas-vapor environment at high temperatures and vapor concentrations; Thermal Science; Vol. 25, iss. 5, Part A
за авторством: Shlegel N. E. Nikita Evgenjevich
Опубліковано: (2021)
за авторством: Shlegel N. E. Nikita Evgenjevich
Опубліковано: (2021)
Warming-up and evaporation characteristics of homogeneous and heterogeneous water droplets; International Journal of Heat and Mass Transfer; Vol. 138
Опубліковано: (2019)
Опубліковано: (2019)
Using planar laser-induced fluorescence to study the phase transformations of two-component liquid and suspension droplets; Interfacial Phenomena and Heat Transfer; Vol. 6, iss. 4
Опубліковано: (2018)
Опубліковано: (2018)
Novel high-resolution nanosensor-based measuring equipment for ECG recording; Measurement; Vol. 135
Опубліковано: (2019)
Опубліковано: (2019)
Temperature and velocity fields inside a hanging droplet of a salt solution at its streamlining by a high-temperature air flow; International Journal of Heat and Mass Transfer; Vol. 129
Опубліковано: (2019)
Опубліковано: (2019)
Temperature and convection velocities in two-component liquid droplet until micro-explosion; Experimental Thermal and Fluid Science; Vol. 109
Опубліковано: (2019)
Опубліковано: (2019)
Ultra-Robust Flexible Electronics by Laser-Driven Polymer-Nanomaterials Integration; Advanced Functional Materials; Vol. 31, iss. 17
Опубліковано: (2021)
Опубліковано: (2021)
Convective heat transfer in droplets of fuel microemulsions during conductive heating; Experimental Thermal and Fluid Science; Vol. 120
Опубліковано: (2021)
Опубліковано: (2021)
Experimental and numerical studies on the temperature in a pendant water droplet heated in the hot air; International Journal of Thermal Sciences; Vol. 163
за авторством: Piskunov M. V. Maksim Vladimirovich
Опубліковано: (2021)
за авторством: Piskunov M. V. Maksim Vladimirovich
Опубліковано: (2021)
Laser-Engineered Multifunctional Graphene–Glass Electronics; Advanced Materials; Vol. 34, iss. 43
Опубліковано: (2022)
Опубліковано: (2022)
Temperature of gases in a trace of water droplets during their motion in a flame; Thermal Science; Vol. 22, iss. 1, pt. A
за авторством: Voytkov I. S. Ivan Sergeevich
Опубліковано: (2018)
за авторством: Voytkov I. S. Ivan Sergeevich
Опубліковано: (2018)
Определение температурных полей и температурного условия адгезии в модели "капля расплава - подложка"; Известия Томского политехнического университета [Известия ТПУ]; Т. 326, № 1 : Ресурсы планеты
за авторством: Колесникова Е. А. Елена Александровна
Опубліковано: (2015)
за авторством: Колесникова Е. А. Елена Александровна
Опубліковано: (2015)
Using Planar Laser Induced Fluorescence and Micro Particle Image Velocimetry to study the heating of a droplet with different tracers and schemes of attaching it on a holder; International Journal of Thermal Sciences; Vol. 159
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2021)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2021)
Nanoparticles generated in magnetic field by laser-induced plasma; Russian Physics Journal; Vol. 67, No. 2
Опубліковано: (2024)
Опубліковано: (2024)
Heat exchange of an evaporating water droplet in a high-temperature environment; International Journal of Thermal Sciences; Vol. 150
за авторством: Kuznetsov G. V. Geny Vladimirovich
Опубліковано: (2020)
за авторством: Kuznetsov G. V. Geny Vladimirovich
Опубліковано: (2020)
Overcoming Stability and Substrate Adhesion Challenges by Laser-Induced Transfer of MXenes; ACS Applied Materials and Interfaces; Vol. 17, iss. 50
Опубліковано: (2025)
Опубліковано: (2025)
Combustion Characteristics of Coal-Water Slurry Droplets in High-Temperature Air with the Addition of Syngas; Energies; Vol. 16, iss. 8
Опубліковано: (2023)
Опубліковано: (2023)
Collisions of Liquid Droplets in a Flow of Flue Gases; Journal of Engineering Physics and Thermophysics; Vol. 96, iss. 2
за авторством: Kropotova S. S. Svetlana Sergeevna
Опубліковано: (2023)
за авторством: Kropotova S. S. Svetlana Sergeevna
Опубліковано: (2023)
Исследование теплоотдачи от насыщенного влажного воздуха к вертикальной стенке теплообменника при конденсации водяных паров; Известия Томского политехнического университета [Известия ТПУ]. Инжиниринг георесурсов; Т. 333, № 8
за авторством: Беспалов В. В. Виктор Владимирович
Опубліковано: (2022)
за авторством: Беспалов В. В. Виктор Владимирович
Опубліковано: (2022)
Child droplet compositions produced by puffing and micro-explosion of two-liquid parent droplets; Experimental Thermal and Fluid Science; Vol. 158
за авторством: Antonov D. V. Dmitry Vladimirovich
Опубліковано: (2024)
за авторством: Antonov D. V. Dmitry Vladimirovich
Опубліковано: (2024)
Optical temperature measurements in superheated liquid droplets; Experimental Thermal and Fluid Science; Vol. 175
Опубліковано: (2026)
Опубліковано: (2026)
Monitoring of Nanopowder Combustion Ignited by Laser Radiation; Progress in Electromagnetics Research Symposium (PIERS-Toyama)
Опубліковано: (2018)
Опубліковано: (2018)
On the Mechanism of Interaction of Two Water Droplets Moving Successively at a Small Distance from Each Other in a High-Temperature Gas Medium; Journal of Engineering Physics and Thermophysics; Vol. 90, iss. 1
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2017)
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2017)
Aluminum Nanopowder Combustion Monitoring Using an Optical System with Brightness Amplification; 2017 Progress In Electromagnetics Research Symposium - Spring (PIERS)
Опубліковано: (2018)
Опубліковано: (2018)
Multi-criteria evaluation of slurry fuels based on coal and organic waste; Process Safety and Environmental Protection; Vol. 192
Опубліковано: (2024)
Опубліковано: (2024)
Collisions of Two-Phase Liquid Droplets in a Heated Gas Medium; Entropy; Vol. 23, iss. 11
за авторством: Tkachenko P. P. Pavel Petrovich
Опубліковано: (2021)
за авторством: Tkachenko P. P. Pavel Petrovich
Опубліковано: (2021)
Influence of the "Self-Radiation" of Combustion Products on the Intensity of Evaporation of an Inhomogeneous Water Droplet in the Flame; Journal of Engineering Physics and Thermophysics; Vol. 89, iss. 4
Опубліковано: (2016)
Опубліковано: (2016)
Laser tracking system for real-time monitoring the combustion of energetic nanomaterials; Optics and Laser Technology; Vol. 175
за авторством: Gubarev F. A. Fedor Aleksandrovich
Опубліковано: (2024)
за авторством: Gubarev F. A. Fedor Aleksandrovich
Опубліковано: (2024)
Application of the planar laser-induced fluorescence method to determine the temperature field ofwater droplets under intensive heating; Journal of Engineering Thermophysics; Vol. 26, iss. 3
Опубліковано: (2017)
Опубліковано: (2017)
Numerical Investigation of Water Droplets Shape Influence on Mathematical Modeling Results of Its Evaporation in Motion through a High-Temperature Gas; Mathematical Problems in Engineering; Vol. 2014, article ID 920480
за авторством: Glushkov D. O. Dmitry Olegovich
Опубліковано: (2014)
за авторством: Glushkov D. O. Dmitry Olegovich
Опубліковано: (2014)
Collision of water droplets with different initial temperatures; Powder Technology; Vol. 367
за авторством: Shlegel N. E. Nikita Evgenjevich
Опубліковано: (2020)
за авторством: Shlegel N. E. Nikita Evgenjevich
Опубліковано: (2020)
The effect of compaction of the dispersed wood biomass layer on its drying efficiency; Renewable Energy; Vol. 211
Опубліковано: (2023)
Опубліковано: (2023)
Interaction between droplets of solutions in a heated gaseous medium; Powder Technology; Vol. 390
за авторством: Tkachenko P. P. Pavel Petrovich
Опубліковано: (2021)
за авторством: Tkachenko P. P. Pavel Petrovich
Опубліковано: (2021)
Схожі ресурси
-
Gas-Vapor Mixture Temperature in the Near-Surface Layer of a Rapidly-Evaporating Water Droplet; Entropy; Vol. 21
за авторством: Antonov D. V. Dmitry Vladimirovich
Опубліковано: (2019) -
Research of temperature fields and convection velocities in evaporating water droplets using Planar Laser-Induced Fluorescence and Particle Image Velocimetry; Experimental Thermal and Fluid Science; Vol. 97
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2018) -
Using Planar Laser Induced Fluorescence to determine temperature fields of drops, films, and aerosols; Measurement; Vol. 153
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2020) -
Measuring the temperature of a rapidly evaporating water droplet by Planar Laser Induced Fluorescence; Measurement; Vol. 135
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2019) -
Temperature recording of the ice–water system using planar laser induced fluorescence; Experimental Thermal and Fluid Science; Vol. 131
за авторством: Volkov R. S. Roman Sergeevich
Опубліковано: (2022)