A comparison of parameters of combustion zone around poly- and monodisperse particles of aluminum during their combustion under conditions of a plasma generator; High Temperature; Vol. 34, no. 2

A comparison of parameters of combustion zone around poly- and monodisperse particles of aluminum during their combustion under conditions of a plasma generator; High Temperature; Vol. 34, no. 2

Dettagli Bibliografici
Parent link:	High Temperature Vol. 34, no. 2.— 1996.— P. 187-190
Autore principale:	Vlasov V. A. Viktor Alekseevich
Altri autori:	Durnev V. N.
Riassunto:	A numerical investigation is performed according to the previously proposed physical and mathematical model. The data are derived on the behavior of variation of the temperature and radius of the microflame zone around aluminum particles during combustion of a metallized powdered fuel under conditions of a plasma generator В фонде НТБ ТПУ отсутствует
Lingua:	inglese
Pubblicazione:	1996
Soggetti:	труды учёных ТПУ
Natura:	Capitolo di libro
KOHA link:	https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=596227

Documenti analoghi

Combustion of ultrafine aluminum in air; Combustion, Explosion, and Shock Waves; Vol. 37, № 6
Pubblicazione: (2001)

Nitride formation during combustion of ultrafine Aluminum powders in Air. I. effect of additives; Combustion, Explosion, and Shock Waves; Vol. 41, № 3
Pubblicazione: (2005)

Combustion of agglomerated ultrafine aluminum powders in air; Combustion, Explosion, and Shock Waves; Vol. 38, № 6
Pubblicazione: (2002)

Zone thermal ignition and the conditions for its degeneration; Combustion, Explosion, and Shock Waves; Vol. 29, iss. 3
di: Burkina R. S.
Pubblicazione: (1992)

Combustion characteristics of high-energy material containing dispersed aluminum, boron, and aluminum borides; Combustion, Explosion and Shock Waves; Vol. 59, No. 4
Pubblicazione: (2023)

Ignition and combustion enhancement of composite fuel in conditions of droplets dispersion during conductive heating on steel surfaces with different roughness parameters; Fuel; Vol. 314
Pubblicazione: (2022)

Products of combustion of mixtures of aluminum and tungsten nanopowders in air; Combustion, Explosion, and Shock Waves; Vol. 43. № 4
di: Ilyin A. P. Aleksandr Petrovich
Pubblicazione: (2007)

End combustion products of mixtures of ultrafine aluminum powder with zirconium-aluminum alloy powder in air; Combustion, Explosion, and Shock Waves; Vol. 36, № 2
Pubblicazione: (2000)

Interaction of a Liquid Aerosol with the Combustion Front of a Forest Combustible Material Under the Conditions of Countercurrent Air Flow; Journal of Engineering Physics and Thermophysics; Vol. 92, iss. 3
Pubblicazione: (2019)

Composition of the combustion products of mixtures of aluminum nanopowders with titanium and zirconium dioxides in air; Composition of the combustion products of mixtures; Vol. 50, № 4
di: Amel’kovich Yu. A.
Pubblicazione: (2014)

Mathematical and physical modeling of the processes of reducing anthropogenic oxides during the combustion of water-saturated fuels; Combustion and Flame; Vol. 274
Pubblicazione: (2025)

Nitride formation during combustion of Ti-TiO2 and Ti-Al powder mixtures in air under SHS conditions; Combustion, Explosion, and Shock Waves; Vol. 44, N 5
Pubblicazione: (2008)

Reactivity of Aluminum Powders; Combustion, Explosion, and Shock Waves; Vol. 37, № 4
di: Ilyin A. P. Aleksandr Petrovich
Pubblicazione: (2001)

Combustibles = Топливо
Pubblicazione: (Челябинск, ЮУрГАУ, 2009)

Combustibles = Топливо
Pubblicazione: (Челябинск, ЮУрГАУ, 2011)

Phase Formation Sequence in Combustion of Pressed Aluminum Nanopowder in Air Studied by Synchrotron Radiation; Combustion, Explosion and Shock Waves; Vol. 49, № 3
di: Il'in A. P.
Pubblicazione: (2013)

Influence of aluminum particle size on ignition and nonstationary combustion of heterogeneous condensed systems; Combustion, Explosion, and Shock Waves; Vol. 48, iss. 5
Pubblicazione: (2012)

Influence of additives on combustion of ultradisperse aluminum powder and chemical binding of air nitrogen; Combustion, Explosion, and Shock Waves; Vol. 32, iss. 2
di: Ilyin A. P. Aleksandr Petrovich
Pubblicazione: (1996)

Investigation of the Aluminum Nitride Formation During the Aluminum Nanopowder Combustion in Air; Physics Procedia; Vol. 84 : Synchrotron and Free electron laser Radiation: generation and application" (SFR-2016)
Pubblicazione: (2016)

Regimes of gas combustion in a porous body of a cylindrical heat generator; Combustion, Explosion, and Shock Waves; Vol. 45, iss. 1
di: Chumakov Yu. A. Yuri Aleksandrovich
Pubblicazione: (2009)

The Resource-Saving Technology of Aluminum Nitride Obtaining During Combustion of Aluminum Nanopowder in Air; MATEC Web of Conferences; Vol. 85 : Chemistry and Chemical Technology in XXI Century (CCT 2016)
di: Ilyin A. P. Aleksandr Petrovich
Pubblicazione: (2016)

Effect of fixing conditions on the heating rate of a specimen; Combustion, Explosion, and Shock Waves; Vol. 36, iss. 5
di: Knyazeva A. G. Anna Georgievna
Pubblicazione: (2000)

Influence of Forest Combustible Material on the Characteristics and Conditions of Ignition of Bio-coal Water Fuels; Combustion Science and Technology; Vol. 195, iss. 3
Pubblicazione: (2023)

Numerical solution of the problemof ignition of a combustible liquidby a single hot particle; Combustion, Explosion, and Shock Waves; Vol. 45, iss. 5
di: Kuznetsov G. V. Geny Vladimirovich
Pubblicazione: (2010)

Combustion of the coal-water slurry doped by combustible and non-combustible micro-particles; Applied Thermal Engineering; Vol. 113
di: Egorov R. I. Roman Igorevich
Pubblicazione: (2017)

Les économies de combustibles: combustibles inférieurs et de remplacement
di: Appell P. Pierre
Pubblicazione: (Paris, Gauthier-Villars & Cie, 1926)

Combustion and Gasification of Coal
Pubblicazione: (New York, Taylor & Francis, 2000)

Mathematical Modeling of Combustion of a Mixture of Ultradisperse Aluminum Powder with Water; Journal of Engineering Physics and Thermophysics; Vol. 89, iss. 2
di: Krainov A. Yu.
Pubblicazione: (2016)

Effect of Ammonium Nitrate and Combustible Binder on the Ignition Characteristics of High-Energy Materials Containing Aluminum Borides; Combustion, Explosion, and Shock Waves; Vol. 58, iss. 5
di: Korotkikh A. G. Aleksandr Gennadievich
Pubblicazione: (2022)

Combustion of Water–Methanol Solution Droplets in the Flame of a Gas Burner; Combustion, Explosion, and Shock Waves; Vol. 56, iss. 3
di: Naumkin A. S. Aleksandr Sergeevich
Pubblicazione: (2020)

Alternative Fuels and Advanced Combustion Techniques as Sustainable Solutions for Internal Combustion Engines
Pubblicazione: (2021)

Initiation of combustion of coal particles coated with a water film in a high-temperature air flow; Combustion, Explosion, and Shock Waves; Vol. 52, iss. 5
Pubblicazione: (2016)

Study of aluminum nitride formation by superfine aluminum powder combustion in air; Journal of the European Ceramic Society; Vol. 24, iss. 9
di: Gromov А. Alexander
Pubblicazione: (2004)

Effect of a Small Amount of Aluminum Powder on the Combustion of the Waste-Derived Coal–Water Slurry; Energy and Fuels; Vol. 31, iss. 1
di: Valiullin T. R. Timur Radisovich
Pubblicazione: (2017)

Formation of calcium in the products of iron oxide–aluminum thermite combustion in air; Russian Journal of Physical Chemistry A; Vol. 90, iss. 10
Pubblicazione: (2017)

Cleaner Combustion Developing Detailed Chemical Kinetic Models /
Pubblicazione: (2013)

Advances in Energy and Combustion Safety and sustainability /
Pubblicazione: (2022)

Combustion of a Powder Layer of Methane Hydrate: The Influence of Layer Height and Air Velocity Above the Layer; Flow, Turbulence and Combustion; Vol. 109
Pubblicazione: (2022)

Stability of the combustion wave in a viscoelastic medium to small one-dimensional perturbations; Combustion, Explosion, and Shock Waves; Vol. 42, iss. 4
di: Knyazeva A. G. Anna Georgievna
Pubblicazione: (2006)

Monitoring of Aluminum Nanopowder Combustion Ignited by Laser Radiation; Progress In Electromagnetics Research Letters; Vol. 75
Pubblicazione: (2018)