Search Results - "ПРОИЗВОДСТВО ВОДОРОДА"

Source: Alternative Energy and Ecology (ISJAEE); № 12 (2023); 45-65 ; Альтернативная энергетика и экология (ISJAEE); № 12 (2023); 45-65 ; 1608-8298

Subject Terms: устойчивая энергетика, hydrogen color, hydrogen production, fuel cell, cost, sustainable energy, цвет водорода, производство водорода, топливный элемент, стоимость

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https://doi.org/10.15518/isjaee.2023.12.045-065

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Технологические аспекты развития водородной энергетики в России

Authors: V. A. Karasevich, V. V. Elistratov, A. S. Lopatin, R. D. Mingaleeva, O. V. Ternikov, I. V. Putilova, В. А. Карасевич, В. В. Елистратов, А. С. Лопатин, Р. Д. Мингалеева, О. В. Терников, И. В. Путилова

Source: Alternative Energy and Ecology (ISJAEE); № 8 (2023); 50-63 ; Альтернативная энергетика и экология (ISJAEE); № 8 (2023); 50-63 ; 1608-8298

Subject Terms: использование водорода, водород, хранение водорода, производство водорода, транспортировка водорода

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Relation: https://www.isjaee.com/jour/article/view/2418/1965; Карасевич В. А. Основы водородной энергетики. – М.: Изд. центр РГУ нефти и газа (НИУ) имени И.М. Губкина, 2023. – 97 с.; IEA. Global Hydrogen Review. [Электронный ресурс]. – Режим доступа: https://www.iea.org/reports/global-hydrogen-review-2022.; Интерфакс. Минприроды разъяснило последствия признания водорода полезным ископаемым. – 2023. [Электронный ресурс]. – Режим доступа: https://www.interfax.ru/russia/913132.; Осман А. «Бурят наудачу»: почему стартапы бросились искать запасы природного водорода // Форбс. – 2023. [Электронный ресурс]. – Режим доступа: https://www.forbes.ru/tekhnologii/491810-buratnaudacu-pocemu-startapy-brosilis-iskat-zapasyprirodnogo-vodoroda.; Global hydrogen demand by sector in the Sustainable Development Scenario, 2019–2070 Review. [Электронный ресурс]. – Режим доступа: https://www.iea.org/data-and-statistics/charts/globalhydrogen-demand-by-sector-in-the-sustainabledevelopment-scenario-2019-2070.; Quantification and analysis of CO2 footprint from industrial facilities in Saudi Arabia / A. Hamieh, F. Rowaihy, M. Al-Juaied, A. N. Abo-Khatwa, A. M. Afifi, H. Hoteit // Energy Conversion and Management: X. – 2022. – Volume 16. [Электронный ресурс]. – Режим доступа: https://www.sciencedirect.com/science/article/pii/S2590174522001222.; Volcovici V. Biden's green hydrogen plan hits climate obstacle: Water shortage // Reuters. – 2023. – 3 July. [Электронный ресурс]. – Режим доступа: https://www.reuters.com/sustainability/climateenergy/bidens-green-hydrogen-plan-hits-climateobstacle-water-shortage-2023-07-03/.; ГОСТ Р 58144–2018. Вода дистиллированная. Технические условия. [Электронный ресурс]. – Режим доступа: https://docs.cntd.ru/document/1200159410.; Российские компетенции водородной промышленности: Сборник. – М.: Минпромторг, 2022. – 170 с.; Elistratov V., Denisov R. Development of isolated energy systems based on renewable energy sources and hydrogen storage // International Journal of Hydrogen Energy. – 2023. – Volume 48. – Issue 70. – P. 27059-27067.; ГОСТ Р ( проект, первая редакция). Трубы стальные бесшовные для транспортирования газообразного водорода. Технические условия. [Электронный ресурс]. – Режим доступа: https://www.normacs.info/projects/10611.; TEBIZ GROUP. Маркетинговое исследование «Анализ рынка водорода в России – 2022. Показатели и прогнозы». – 2023. [Электронный ресурс]. – Режим доступа: https://marketing.rbc.ru/research/35272/.; ГОСТ Р (проект, первая редакция). Баллоны стальные бесшовные на рабочее давление не более 40,0 МПа (407,9 кгс/см2) вместимостью не более 1000 л для транспортировки, хранения и использования газообразного водорода. Общие технические условия. [Электронный ресурс]. – Режим доступа: https://www.normacs.info/discussions/8715.; Интернет–сайт АО «НИИГРАФИТ». Баллоны высокого давления для хранения и транспортирования водорода. [Электронный ресурс]. – Режим доступа: https://niigrafit.ru/production/ballony-vysokogodavleniya-dlya-hraneniya-i-transportirovaniyavodoroda/.; Металлогидридные материалы и устройства для водородного аккумулирования электроэнергии / Б. П. Тарасов, П. В. Фурсиков, А. А. Володин, А. А. Арбузов // Всероссийская научно-практическая конференция «Водород. Технологии. Будущее». – Томск, 2020. [Электронный ресурс]. – Режим доступа: https://portal.tpu.ru/files/conferences/htf/tarasov.pdf.; Макарян И. А., Седов И. В., Максимов А. Л. Хранение водорода с использованием жидких органических носителей // Журнал прикладной химии. – 2020. – Вып. 12. – С. 1716–1733.; Технологии хранения водорода. Водородные накопители энергии / А. А. Хохонов, Ф. А. Шайхатдинов, В. А. Бобровский, Д. А. Агарков, С. И. Бредихин, А. А. Чичиров, Е. О. Рыбина // Успехи в химии и химической технологии. – 2020. – №12 (235). – С. 47–52.; Марченко О . В ., Соломин С . В . Анализ эффективности аккумулирования электрической энергии и водорода в энергосистемах с возобновляемыми источниками энергии // Вестник Иркутского государственного технического университета. – 2018. – №3 (134). – С. 183–193.; Интернет–сайт компании Doosan Fuel Cell. [Электронный ресурс]. – Режим доступа: https://www.doosanfuelcell.com/en/prod/prod-0102/.; Mixtures of heavy fuel oil and green hydrogen in combustion equipment: Energy analysis, emission estimates, and economic prospects / F. S. Carvalho, P. T. Lacava, C. H. Rufino, D. T. Pedroso, E. B. Machin, F. H. M . A raújo, D . G omez A costa, J . A . C arvalho J r. / / Energy Conversion and Management. – 2023. – 277. – 116629.; Technological aspects of Russian hydrogen energy development/ Karasevich, V.A., Elistratov, V.V., Lopatin, A.S., Ternikov, O.V., Putilova, I.V. International Journal of Hydrogen., 2024, 57, страницы 1332–1338.; https://www.isjaee.com/jour/article/view/2418

Availability: https://www.isjaee.com/jour/article/view/2418
https://doi.org/10.15518/isjaee.2023.08.050-063

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6

Academic Journal

Разработка способа производства водорода на базе водородсодержащего газа нефтеперерабатывающих установок

Subject Terms: производство водорода, hydrogen production, нефтепереработка, hydrocarbon conversion, carbon dioxide, водород, водородсодержащий газ, производство электроэнергии, 7. Clean energy, диоксид углерода, hydrogen-containing gas, 13. Climate action, конверсия углеводородов, oil refining, hydrogen, greenhouse gases, electricity generation, парниковые газы

7

Academic Journal

Разработка способа производства водорода на базе газовых отходов конвертерного производства стали

Subject Terms: oxygen converter, производство водорода, черная металлургия, кислородный конвертер, hydrogen production, converter gas, конвертерный газ, производство электроэнергии, 7. Clean energy, energy chemical accumulation, natural gas, природный газ, 13. Climate action, энергохимическая аккумуляция, greenhouse gases, electricity generation, ferrous metallurgy, парниковые газы

8

Academic Journal

Исследование влияния электрических параметров водородного генератора на производство водорода и тепловой энергии

Subject Terms: thermal energy, hydrogen generator, производство водорода, производство тепловой энергии, hydrogen, водородные генераторы, plasma process, unconventional energy, электрические параметры, нетрадиционная энергетика, oxygen

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Access URL: https://rep.bsatu.by/handle/doc/21367

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9

Academic Journal

Modern technologies for producing and extracting hydrogen as a renewable energy resource ; Современные технологии по производству и добыче водорода в качестве возобновляемого энергоресурса

Authors: A. A. Laznik, E. D. Falyakhova, А. А. Лазник, Е. Д. Фаляхова

Source: Vestnik Universiteta; № 6 (2025); 96-103 ; Вестник университета; № 6 (2025); 96-103 ; 2686-8415 ; 1816-4277

Subject Terms: экологические проблемы, hydrogen energy, hydrogen production, hydrogen extraction, economic and political issues, metal shaving, electrolyser, gas waste, incentives for producers, environmental issues, водородная энергетика, производство водорода, добыча водорода, экономико-политические проблемы, металлическая стружка, электролизер, газовые отходы, стимулирование производителей

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Relation: https://vestnik.guu.ru/jour/article/view/6272/3388; Вечкинзова Е.А., Стеблякова Л.П., Сумарокова Е.В. Обзор мировых и российских тенденций развития водородной энергетики. Управление. 2022;4(10):26–37. https://doi.org/10.26425/2309-3633-2022-10-4-26-37; Линник Ю.Н., Линник В.Ю. Энергосбережение и энергоэффективность. Москва: Русайнс; 2022. 334 с.; Cерегина А.А. Стратегическое целевое управление в энергетике. Управление. 2024;4(12):5–12. https://doi.org/10.26425/2309-3633-2024-12-4-5-12; Линник В.Ю., Байкова О.В., Фаляхова Е.Д. Анализ состояния рынка водородного сырья в Российской Федерации и мире. Управление. 2024;1(12):81–94. https://doi.org/10.26425/2309-3633-2024-12-1-81-94; Максимов А.Л., Ишков А.Г., Пименов А.А., Романов К.В., Михайлов А.М., Колошкин Е.А. Физико-химические аспекты и углеродный след получения водорода из воды и углеводородов. Записки Горного института. 2024;265:87–94.; Трубило В.С. Производство водорода на атомных электрических станциях. В кн.: Актуальные проблемы энергетики: материалы 79-й научно-технической конференции студентов и аспирантов, апрель 2023 г. Минск: БНТУ; 2023. С. 96–99.; Акаев А.А., Рудской А.И., Кораблев В.В., Сарыгулов А.И. Технологические и экономические барьеры роста водородной энергетики. Вестник РАН. 2022;12:1133–1144.; Романов А.С. Водородная энергетика: сравнительный анализ способов получения водорода. Научные записки молодых исследователей. 2023;3(11):73–80.; Максимова М.А. Водородная энергетика в России: современное положение и перспективы развития. Молодой ученый. 2023;11(458):97–100.; https://vestnik.guu.ru/jour/article/view/6272

Availability: https://vestnik.guu.ru/jour/article/view/6272
https://doi.org/10.26425/1816-4277-2025-6-96-103

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10

Academic Journal

Модернизация системы управления печи парового риформинга установки производства водорода

Subject Terms: установка производства водорода, производство водорода, автоматизированные системы управления, печь парового риформинга, модернизация системы управления

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Access URL: https://elib.belstu.by/handle/123456789/48899

11

Academic Journal

Электролитическое восстановление изношенных электродных пар щелочных электролизеров ОАО 'Уралхиммаш' получения водорода для охлаждения турбогенераторов ТЭЦ, гидрогенизации жиров

Subject Terms: электрокаталитическая активность, щелочные электролизеры, электродные материалы, производство водорода, гальванические покрытия, композиционные покрытия, никелевые покрытия, электролитическое восстановление, электролизное оборудование, изношенные электродные пары

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Access URL: https://elib.belstu.by/handle/123456789/43662

12

Academic Journal

Модернизация установки производства водорода методом короткоцикловой адсорбции с целью повышения качества продукции ; Modernization of the hydrogen production unit by pressure swing adsorption to improve product quality

Authors: Ибрагимова, А. Т., Ibragimova, A. T.

Subject Terms: производство водорода, паровая конверсия метана, короткоцикловая адсорбция, очистка водорода, водородсодержащий газ, дизельное топливо, гидроочистка, hydrogen production, steam methane reforming, pressure swing adsorption, hydrogen purification, hydrogen-containing gas, diesel fuel, hydro-treating

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Relation: Вестник Тюменского государственного университета. Серия: Физико-математическое моделирование. Нефть, газ, энергетика. — 2024. — Т. 10, № 4 (40)

Availability: https://elib.utmn.ru/jspui/handle/ru-tsu/37885
https://doi.org/10.21684/2411-7978-2024-10-4-18-33

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13

Academic Journal

Nanosizing Ammonia Borane with Nickel – an All-Solid and All-In-One Approach for H2 Generation by Hydrolysis ; Соединение аммиак-борана с никелем в качестве универсального твердотельного материала для получения водорода путем гидролиза

Authors: Q. Lai, K.-F. Aguey-Zinsou, U. B. Demirci, К. Лаи, К.-Ф. Агей-Зинсу, У. Б. Демирчи

Contributors: Financial support by UNSW Internal Research Grant program is gratefully acknowledged as well as the Office of Naval Research (Award No: ONRG - NICOP - N62909-16-1-2155). We appreciate the use of instruments in the Mark Wainwright Analytical Centre at UNSW., Исследование проведено при финансовой поддержке в рамках программы грантов Университета Нового Южного Уэльса (UNSW), а также при содействии Управления военно-морских исследований (грант №. ONRG - NICOP - N62909-16-1-2155). Авторы выражают благодарность Аналитическому центру им. Марка Уэйнрайта при Университете Нового Южного Уэльса, Австралия.

Source: Alternative Energy and Ecology (ISJAEE); № 28-33 (2019); 36-48 ; Альтернативная энергетика и экология (ISJAEE); № 28-33 (2019); 36-48 ; 1608-8298

Subject Terms: никель, chemical H storage, hydrogen generation, hydrolysis, nanosizing, nickel, химическое хранение водорода, производство водорода, гидролиз, наноразмерный

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Relation: https://www.isjaee.com/jour/article/view/1816/1553; Zhan W.W., Zhu Q.L., Xu Q. Dehydrogenation of ammoniaborane by metal nanoparticles catalysts. ACS Catal., 2016;6:6892–905.; Zhang Y., Shimoda K., Miyaoka H., Ichikawa T., Kojima Y.Thermal decomposition of alkaline-earth metal hydride andammonia borane composites. Int. J. Hydrogen Energy, 2010;35:12405–9.; Ahluwalia RK, Peng JK, Hua TQ. Hydrogen release fromammonia borane dissolved in an ionic liquid. Int. J. Hydrogen Energy, 2011;35:15689–97.; Al-Kukhun A., Hwang H.T., Varma A. Mechanistic studies of ammonia borane dehydrogenation. Int. J. Hydrogen Energy, 2013;38:169–79.; Kelly H.C., Marriott V.B. Reexamination of the mechanism ofacid-catalyzed amine-borane hydrolysis. The hydrolysis of NH3,BH3. Inorg.Chem., 1979;18:2875–8.; Chandra M., Xu Q. Dissociation and hydrolysis of ammoniaboranewith solid acids and carbon dioxide: an efficienthydrogen generation system. J. Power Sources, 2006;159:855–60.; Jiang H.L., Xu Q. Catalytic hydrolysis of ammonia borane forchemical hydrogen storage. Catal. Today, 2011;170:56–63.; Lu Z.H., Yao Q., Zhang Z., Yang Y., Chen X. Nanocatalysts forhydrogen generation from ammonia borane and hydrazineborane. J. Nanomater., 2014;2014:729029.; Umegaki T., Xu Q., Kojima Y. Porous materials for hydrolyticdehydrogenation of ammonia borane. Materials, 2015;8:4512–34.; Lu Z.H., Yao Q., Zhang Z., Yang Y., Chen X. Nanocatalysts for hydrogen generation from ammonia borane and hydrazineborane. J. Nanomater., 2014. 2014:729029(1–11).; Metin O., Mazumder V., Ozkar S., Sun S. Monodisperse nickelnanoparticles and their catalysis in hydrolyticdehydrogenation of ammonia borane. J. Am. Chem.Soc., 2010;132:1468–9.; Durap F., Caliskan S., Özkar S., Karakas K., Zahmakiran M. Dihydrogen phosphate stabilized ruthenium(0)nanoparticles: efficient nanocatalyst for the hydrolysis ofammonia-borane at room temperature. Materials, 2015;8:4226–38.; Metin Ö., Duman S., Dinç M., Özkar S. Oleylamine-stabilizedpalladium(0) nanoclusters as highly active heterogeneouscatalyst for the dehydrogenation of ammonia borane. J. Phys. Chem. C, 2011;115:10736–43.; Cao N., Su J., Luo W., Cheng G. Graphene supported Ru@Cocore-shell nanoparticles as efficient catalysts forhydrogen generation from hydrolysis of ammonia boraneand methylamine borane. Int. J. Hydrogen Energy, 2014;43:47–51.; Aijaz A, Karkamkar A, Choi YJ, Tsumori N, Ronnebro E, Autrey T, et al. Immobilizing highly catalytically active Ptnanoparticles inside the pores of metalorganic framework:a double solvents approach. J. Am. Chem.Soc., 2012;134:13926–9.; Rakap M., Abay B., Tunç N. Hydrolysis of ammonia borane andhydrazine borane by poly(N-vinyl-2-pyrrolidone)-stabilizedCoPd nanoparticles for chemical hydrogen storage. Turk J. Chem., 2017;41:221–32.; Dhanda R, Kidwai M. Graphene supported RuNi alloynanoparticles as highly efficient and durable catalyst forhydrolytic dehydrogenation-hydrogenation reactions. Chem.Select., 2017;2:335–41.; Kalidindi S.B., Sanyal U., Jagirdar B.R. Nanostructured Cu andCu@Cu2O core shell catalysts for hydrogen generation fromammonia-borane. Phys. Chem.Chem. Phys., 2008;10:5870–4.; Figen A.K. Dehydrogenation characteristics of ammoniaborane via boron-based catalysts (Co–B, Ni–B, Cu–B) under different hydrolysis conditions. Int. J. Hydrogen Energy, 2013;38:9186–97.; Eom K.S., Kim M.J., Kim R.H., Nam D.H., Kwon H.S. Characterization of hydrogen generation for fuel cells viaborane hydrolysis using an electrolessdeposited Co–P/Ni foam catalyst. J. Power Sources, 2010;195:2830–4.; Fernandes R., Patel N., Edla R., Bazzanella N., Kothari D.C., Miotello A. Ruthenium nanoparticles supported over carbonthin film catalyst synthesized by pulsed laser deposition forhydrogen production from ammonia borane. Appl. Catal. AGen., 2015;495:23–9.; Wang C., Tuninetti J., Wang Z., Zhang C., Ciganda R., Salmon L., et al. Hydrolysis of ammoniaborane over Ni/ZIF-8nanocatalyst: high efficiency, mechanism, and controlledhydrogen release. J. Am. Chem. Soc., 2017;139:11610–5.; Delmas J., Laversenne L., Rougeaux I., Capron P., Garron A., Bennici S., et al. Improved hydrogen storage capacity throughhydrolysis of solid NaBH4 catalyzed with cobalt boride. Int. J. Hydrogen Energy, 2011;36:2145–53.; Brack P., Dann S.E., Wijayantha K.G.U. Heterogeneous andhomogenous catalysts for hydrogen generation by hydrolysisof aqueous sodium borohydride (NaBH4) solutions. Energy Sci. Eng., 2015;3:174–88.; Manna J., Roy B., Vashistha M., Sharma P. Effect of Co2+/BH4–ratio in the synthesis of Co–B catalysts on sodium borohydride hydrolysis. Int. J. Hydrogen Energy, 2014;39:406–13.; Prosini P.P., Gislon P. A hydrogen refill for cellular phone. J. Power Sources, 2006;161:290–3.; Damjanovic L., Majchrzak M., Bennici S., Auroux A. Determination of the heat evolved during sodium borohydride hydrolysis catalyzed by Co3O4. Int. J. Hydrogen Energy, 2011;36:1991–7.; Lai Q., Rawal A., Quadir Z., Cazorla C., Demirci U.B., Aguey-Zinsou K.F. Nanosizing ammonia borane with nickel: a pathtoward the direct hydrogen release and uptake of B-N-H systems. Adv. Sust. Syst., 2017;1:1700122.; Christian M.L., Aguey-Zinsou F.K. Core-shell strategy leadingto high reversible hydrogen storage capacity for NaBH4. ACSNano, 2012;6:7739–51.; Christian M.L., Aguey-Zinsou F.K. Synthesis of core-shell NaBH4@M (M = Co, Cu, Fe, Ni, Sn) nanoparticles leading tovarious morphologies and hydrogen storage properties. Chem.Commun., 2013;49:6794–6.; Zhou L., Zhang T., Tao Z., Chen J. Ni nanoparticles supportedon carbon as efficient catalysts for the hydrolysis ofammonia borane. Nano Res., 2014;7:774–81.; Peng C.Y., Kang L., Cao S., Chen Y., Lin Z.S., Fu W.F. Nanostructured Ni2P as a robust catalyst for the hydrolyticdehydrogenation of ammonia-borane. Angew. Chem. Int. Ed., 2015;54:15725–9.; Mahyari M., Shaabani A. Nickel nanoparticles immobilized onthree dimensional nitrogen-doped graphene as a superbcatalyst for the generation of hydrogen from the hydrolysisof ammonia borane. J. Mater. Chem. A, 2014;2:16652–9.; Umegaki T., Xu Q., Kojima Y. Effect of Larginine on thecatalytic activity and stability of nickel nanoparticles forhydrolytic dehydrogenation of ammonia borane. J. Power Sources, 2012;216:363–7.; Shan X., Du J., Cheng F., Liang J., Tao Z., Chen J. Carbon-supported Ni3B nanoparticles as catalysts for hydrogengeneration from hydrolysis of ammonia borane. Int. J. Hydrogen Energy, 2014;39:6987–94.; Du J., Cheng F., Si M., Liang J., Tao Z., Chen J. Nanoporous Ni-basedcatalysts for hydrogen generation from hydrolysis ofammonia borane. Int. J. Hydrogen Energy, 2013;38:5768–74.; Graff A., Barrez Z., Baranek P., Bachet M., Benezeth P. Complexation of nickel ions by boric acid or (poly)borates. J. Solut. Chem., 2017;46:25–43.; Kim J.H., Kim K.T., Kang Y.M., Kim H.S., Song M.S., Lee Y.J., et al. Study on degradation of filamentary Ni catalyst onhydrolysis of sodium borohydride. J. Alloy Comp., 2004;379:222–7.; Arzac G.M., Rojas T.C., Fernandez A. Boron compounds asstabilizers of a complex microstructure in a Co-B-basedcatalyst for NaBH4 hydrolysis. Chem. Cat. Chem., 2011;3:1305–13.; Janda R., Heller G. IR- and Ramanspektren isotop marketer tetra- und pentaborate. Spectrochim Acta., 1980;36A:99–1001.; Andrews L., Burkholder T.R. Infrared spectra of molecular B(OH)3 and HOBO in solid argon. J. Chem. Phys., 1992;97:7203–10.; Suzuki M., Ogaki T. Crystallization and transformationmechanisms of a, b- and g-polymorphs of ultra-pure oleicacid. J. Am. Oil. Chem. Soc., 1985;62:1600–4.; NIST X-ray photoelectron spectroscopy database. 2012. http://srdata.nist.gov/xps/. [по данным на 15 января 2018].; https://www.isjaee.com/jour/article/view/1816

Availability: https://www.isjaee.com/jour/article/view/1816
https://doi.org/10.15518/isjaee.2019.28-33.036-048

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14

Academic Journal

IMPACT OF HYDROGEN ON THE ENVIRONMENT ; ВЛИЯНИЕ ВОДОРОДА НА ОКРУЖАЮЩУЮ СРЕДУ

Authors: J. Nowotny, T. N. Veziroglu, Я. Новотны, Т. Н. Везироглу

Source: Alternative Energy and Ecology (ISJAEE); № 01-03 (2019); 16-24 ; Альтернативная энергетика и экология (ISJAEE); № 01-03 (2019); 16-24 ; 1608-8298

Subject Terms: загрязнение воздуха, climate change, solar-hydrogen, hydrogen generation, air pollution, изменение климата, солнечный водород, производство водорода

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https://doi.org/10.15518/isjaee.2019.01-03.016-024

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