Studying the influence of key parameters on the methane hydrate dissociation in order to improve the storage efficiency; Journal of Energy Storage; Vol. 44, Pt. A
| Parent link: | Journal of Energy Storage Vol. 44, Pt. A.— 2021.— [103288, 12 p.] |
|---|---|
| Autor Corporativo: | Национальный исследовательский Томский политехнический университет Инженерная школа энергетики Научно-образовательный центр И. Н. Бутакова (НОЦ И. Н. Бутакова) |
| Outros autores: | Misyura S. Ya. Sergey Yakovlevich, Donskoy I. G. Igor Gennadjevich, Manakov A. Yu. Andrey Yurjevich, Morozov V. S. Vladimir Sergeevich, Strizhak P. A. Pavel Alexandrovich, Skiba S. S. Sergey Sergeevich, Sagidullin A. K. Aleksey Kausarovich |
| Summary: | Title screen To date, there are no reliable and simple calculation models that simulate the kinetics of dissociation at negative temperatures. One of the important problems is to reduce the cost of storage and transportation of natural gas hydrates. The paper presents experimental data on the effect of layer thickness and temperature on the dissociation kinetics, as well as the effect of the external air velocity. The model enables effective modeling of the dissociation kinetics both outside the self-preservation region and in the annealing temperature window. The experiments were carried out in the presence of non-stationary and non-isothermal dissociation. The thickness of the gas hydrate layer significantly affects the dissociation rate. The effect of thickness persists over a wide range of air velocities. The inhomogeneity of the temperature field inside the powder layer increases with increasing layer thickness, resulting in the appearance of two self-preservation sites on the dissociation curve. Режим доступа: по договору с организацией-держателем ресурса |
| Idioma: | inglés |
| Publicado: |
2021
|
| Subjects: | |
| Acceso en liña: | https://doi.org/10.1016/j.est.2021.103288 |
| Formato: | Electrónico Capítulo de libro |
| KOHA link: | https://koha.lib.tpu.ru/cgi-bin/koha/opac-detail.pl?biblionumber=665696 |
Títulos similares
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
Publicado: (2022)
Publicado: (2022)
The influence of key parameters on combustion of double gas hydrate; Journal of Natural Gas Science and Engineering; Vol. 80
Publicado: (2020)
Publicado: (2020)
Dissociation characteristics and anthropogenic emissions from the combustion of double gas hydrates; Environmental Research; Vol. 214, Pt. 3
Publicado: (2022)
Publicado: (2022)
Dissociation of methane and carbon dioxide hydrates: Synergistic effects; Fuel; Vol. 359
Publicado: (2024)
Publicado: (2024)
Dissociation and combustion of mixed methane-ethane hydrate; Fuel; Vol. 325
Publicado: (2022)
Publicado: (2022)
Prospects of Using Gas Hydrates in Power Plants; Energies; Vol. 15, iss. 12
Publicado: (2022)
Publicado: (2022)
Key Areas of Gas Hydrates Study: Review; Energies; Vol. 15, iss. 5
por: Gaydukova O. S. Olga Sergeevna
Publicado: (2022)
por: Gaydukova O. S. Olga Sergeevna
Publicado: (2022)
Heat transfer processes at the gas hydrate plug dissociation; International Journal of Heat and Mass Transfer; Vol. 256, pt. 1
Publicado: (2026)
Publicado: (2026)
Dissociation and ignition of methane hydrate when in contact with typical sources of fire hazard; Powder Technology; Vol. 427
Publicado: (2023)
Publicado: (2023)
Effect of Surfactants on the Synthesis and Dissociation of Gas Hydrates; Fire; Vol. 7, iss. 7
Publicado: (2024)
Publicado: (2024)
The effect of powder aggregates, carbon nanotubes and surfactants on the kinetics of synthesis and dissociation of gas hydrates; Energy; Vol. 325
Publicado: (2025)
Publicado: (2025)
Co-combustion of methane hydrate granules and liquid biofuel; Renewable Energy; Vol. 221
Publicado: (2024)
Publicado: (2024)
An Experimental Study of Combustion of a Methane Hydrate Layer Using Thermal Imaging and Particle Tracking Velocimetry Methods; Energies; Vol. 11, iss. 12
Publicado: (2018)
Publicado: (2018)
Role of Warming in Destabilization of Intrapermafrost Gas Hydrates in the Arctic Shelf: Experimental Modeling; Geosciences; Vol. 9, iss. 10
Publicado: (2019)
Publicado: (2019)
Gas Hydrate Combustion in Five Method of Combustion Organization; Entropy; Vol. 22, iss. 7
Publicado: (2020)
Publicado: (2020)
Role of Salt Migration in Destabilization of Intra Permafrost Hydrates in the Arctic Shelf: Experimental Modeling; Geosciences; Vol. 9, iss. 4
Publicado: (2019)
Publicado: (2019)
Combustion of Liquid Fuels in the Presence of CO2 Hydrate Powder; Fire; Vol. 6, iss. 8
Publicado: (2023)
Publicado: (2023)
Using methane hydrate to intensify the combustion of composite slurry fuels; Fuel; Vol. 372
Publicado: (2024)
Publicado: (2024)
Various methods of flame extinguishing by CO2 hydrate; Fire Safety Journal; Vol. 158
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2025)
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2025)
A Review of Gas Capture and Liquid Separation Technologies by CO2 Gas Hydrate; Energies; Vol. 16, iss. 8
Publicado: (2023)
Publicado: (2023)
Half-width and line center shifts formed by transitions into highly excited vibration states of CO molecule; Bulletin of the Tomsk Polytechnic University; Vol. 311, № 2
por: Stroinova V. N.
Publicado: (2007)
por: Stroinova V. N.
Publicado: (2007)
Dissociation of methane from a layer of methane-hydrate particles: A new simple model; International Journal of Heat and Mass Transfer; Vol. 213
Publicado: (2023)
Publicado: (2023)
Methane hydrate regasification to intensify the combustion of low-rank coal fuels; Fuel; Vol. 381, pt. 2
Publicado: (2025)
Publicado: (2025)
Dissociation of methane hydrate granules; Journal of Physics: Conference Series; Vol. 899 : Thermophysics and Physical Hydrodynamics with the School for Young Scientists
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2017)
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2017)
Understanding the Permafrost–Hydrate System and Associated Methane Releases in the East Siberian Arctic Shelf; Geosciences; Vol. 9, iss. 6
por: Shakhova N. E. Nataljya Evgenjevna
Publicado: (2019)
por: Shakhova N. E. Nataljya Evgenjevna
Publicado: (2019)
Investigating regularities of gas hydrate ignition on a heated surface: Experiments and modelling; Combustion and Flame; Vol. 228
por: Gaydukova O. S. Olga Sergeevna
Publicado: (2021)
por: Gaydukova O. S. Olga Sergeevna
Publicado: (2021)
Using methane hydrate to intensify the combustion of low-rank coal fuels; Energy; Vol. 304
Publicado: (2024)
Publicado: (2024)
Разработка математической модели гидратообразования для условий турон-сеноманских залежей месторождений Западной Сибири; Известия Томского политехнического университета [Известия ТПУ]. Инжиниринг георесурсов; Т. 336, № 12
Publicado: (2025)
Publicado: (2025)
Fire suppression using a self-activating extinguisher based on carbon dioxide hydrate; Gas Science and Engineering; Vol. 128
Publicado: (2024)
Publicado: (2024)
Relaxation parameters of absorption lines of vibrationally excited HF molecule; Bulletin of the Tomsk Polytechnic University; Vol. 311, № 2
por: Stroinova V. N.
Publicado: (2007)
por: Stroinova V. N.
Publicado: (2007)
Процессы фазообразования при низхкотемпературном формировании силиката циркония; Известия вузов. Химия и химическая технология; Т. 64, № 4
por: Шарафеев Ш. М. Шариф Мнирович
Publicado: (2021)
por: Шарафеев Ш. М. Шариф Мнирович
Publicado: (2021)
Using hydrate foam to extinguish petroleum product tank fires; Journal of Loss Prevention in the Process Industries; Vol. 98
Publicado: (2025)
Publicado: (2025)
Исследование условий образования газогидратных и асфальтосмолопарафиновых отложений при добыче нефти механизированным способом; Известия Томского политехнического университета [Известия ТПУ]. Инжиниринг георесурсов; Т. 334, № 10
por: Коробов Г. Ю. Григорий Юрьевич
Publicado: (2023)
por: Коробов Г. Ю. Григорий Юрьевич
Publicado: (2023)
Gas Hydrates: Applications and Advantages; Energies; Vol. 16, iss. 6
Publicado: (2023)
Publicado: (2023)
Gas Hydrate Energy Technologies: Problems and Achievements; Thermal Engineering; Vol. 69, iss. 12
Publicado: (2025)
Publicado: (2025)
Effect of Diameter of Granules on Dissociation of Methane Hydrate; Journal of Engineering Thermophysics; Vol. 27, iss. 2
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2018)
por: Misyura S. Ya. Sergey Yakovlevich
Publicado: (2018)
Containment and Suppression of Class A Fires Using CO2 Hydrate; Fire; Vol. 6, iss. 3
Publicado: (2023)
Publicado: (2023)
Экспериментальное исследование теплового газодинамического метода для предотвращения гидратообразования в газопроводах с использованием циклонов; Известия Томского политехнического университета [Известия ТПУ]. Инжиниринг георесурсов; Т. 331, № 11
por: Зятиков П. Н. Павел Николаевич
Publicado: (2020)
por: Зятиков П. Н. Павел Николаевич
Publicado: (2020)
The fight with hydrate formation during the operation of wells at the Tagulsky field; Journal of Economics and Social Sciences; № 17
por: Fedyushkin K. Kirill
Publicado: (2021)
por: Fedyushkin K. Kirill
Publicado: (2021)
Mathematical modeling the ignition of several gas hydrate particles; Fuel; Vol. 330
por: Antonov D. V. Dmitry Vladimirovich
Publicado: (2022)
por: Antonov D. V. Dmitry Vladimirovich
Publicado: (2022)
Títulos similares
-
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
Publicado: (2022) -
The influence of key parameters on combustion of double gas hydrate; Journal of Natural Gas Science and Engineering; Vol. 80
Publicado: (2020) -
Dissociation characteristics and anthropogenic emissions from the combustion of double gas hydrates; Environmental Research; Vol. 214, Pt. 3
Publicado: (2022) -
Dissociation of methane and carbon dioxide hydrates: Synergistic effects; Fuel; Vol. 359
Publicado: (2024) -
Dissociation and combustion of mixed methane-ethane hydrate; Fuel; Vol. 325
Publicado: (2022)