Жаростойкое композитное покрытие с кипящим слоем подреакторной ловушки расплава легководного ядерного реактора
DOI:
https://doi.org/10.31489/2021No3/65-70Ключевые слова:
тяжелая авария, ловушка расплава под реактором, кориум, термостойкое композитное покрытие, установка LAVA-B.Аннотация
Статья посвящена анализу существующих вариантов подреакторных ловушек расплава, конструкций и недостатков данных ловушек. Предложена вариация собственной подреакторной ловушки расплава с жаростойким композитным покрытием с кипящим слоем. Приведено описание установки для проведения экспериментальных исследований жаростойкого композитного покрытия с кипящим слоем. Приведены результаты теплового расчета вариации подреакторной ловушки расплава с кипящим слоем. Тепловой расчет показал, что увеличение средней температуры расплава проходит менее интенсивно в модели подреакторной ловушки с кипящим слоем, за счет теплоотвода от кориума к металлу на совершение фазового перехода.
Библиографические ссылки
"1 Gusarov V.V., et al. Physicochemical modeling and analysis of interaction between the core melt of a nuclear reactor and sacrificial material. Physics and chemistry of glass. 2005, Vol.31, No.1, pp.71–90.
Sidorov I.A. Melt localization device for NPP with WWER-1200. Proceeding of the 7th ISTC “Ensuring the safety of NPP with WWER”, Podolsk, May 17-20, 2011, 13 p.
Sehgal B.R., et al. Melt-Structure-Water Interactions During Severe Accident in LWRs. NPSD, Royal Institute of Technology, Annual Report, Sweden, Nov. 2000, 147 p.
Stolyarevsky A. Does the trap save? Atomic strategy XXI, 2014, No.89, pp.16–18.
Sidorov A.S., Rogov M.F., Novak V.P., et al. Proceeding of the Conf. “Safety Issues of NPP with WWER”, St. Petersburg, 2000, Vol.1, pp. 37 – 66.
Kukhtevich I.V., Bezlepkin V.V., Khabensky V.B., et al. Proceeding of the conf. “Safety Issues of NPP with WWER”, St. Petersburg, 2000, Vol.1, pp. 23 – 36.
Gusarov V.V., Khabensky V.B., Beshta S.V., et al. Proceeding of the conf. “Safety Issues of NPP with WWER"", St. Petersburg, 2000, Vol.1, pp. 105 – 140.
Gusarov V.V., Almyashev V.I., Beshta S.V., et al. Sacrificial materials for the safety system of nuclear power plants - a new class of functional materials. Heat Power Engineering, 2001, No.9, pp.22–24.
Gusarov V.V., AlmjashevV.I., Bechta S.V., et al. Proceeding of the 6th Int. Workshop High-temperature. Super conductors and novelinorg. mater. engineering. Moscow, MSU, 2001, pp. 11 – 32.
Almjashev V.I., Gusarov V.V., Bechta S.V., et al. Proceeding of the 6th Int. Conf. on Intermolec. Interact. In Matter, Gdansk-Jelitkowo, 2001, 1 p.
Akopov F.A., et al. Nuclear reactor core melt trap. RF Patent RU 2169953 C2, 1999, 6 p.
Sidorov A.S., et al. Melt localization device. RF patent RU 2696612 C1, 2018, 10 p.
Gusarov V.V., et al. Oxide material of a nuclear reactor core melt trap. RF Patent RU 2192053, 2002, 6 p.
Bezlepkin V.V., et al. Melt localization device. RF Patent RU 100327 U1, 2010, 6 p.
Gusarov V.V., et al. Method for producing ceramic materials for melting trap in the active zone of a nuclear reactor containing iron, aluminum and silicon dioxide. RF Patent RU 2206930 C1, 2003, 7 p.
Gusarov V.V., Khabensky V.B., Bechta S.V., et al. Oxide material for a molten core catcher of a nuclear reactor. PCT patent WO 02/080188, Nov. 21, 2002, 10 p.
Gusarov V.V., Khabensky V.B., Bechta S.V., et al. Oxide material for a molten-core catcher of a nuclear reactor. PCT patent WO 03/032325, Apr. 17, 2003, 10 p.
Mozhzherin V.A., SakulinV.Ya., Migal V.P., et al. Charge and oxide sacrificial material for a device for localizing a melt in the core of a nuclear reactor. RF Patent RU 2559294 C1, 2014, 9 p.
Nedorezov A.B., Sidorov A.S. Localization and cooling system of the core melt of a water nuclear reactor. RF patent RU 2576516 C1, 2014, 13 p.
Granovsky V.S., Khabensky V.B., Vasilenko V.A., et al. Device for localizing the corium of a pressurized water-cooled nuclear reactor. RF Patent No. 0002696012, 2019, 9 p.
Gusarov V.V., Beshta S.V., Khabensky V.B., et al. Oxide material of melt trap in the core of a nuclear reactor. RF patent RU 2191436 C1, 2001, 5 p.
Gusarov V.V., Almyashev V.I., Beshta S.V., et al. Sacrificial materials of the safety system of nuclear power plants - a new class of functional materials. Thermal Engineering. 2001, No.9, pp.22–24.
Kukhtevich I.V., et al. The concept of localization of corium melt at the out-of-vessel stage of a beyond design basis accident at NPP with WWER-1000. Thermal Engineering. 2001, No.9, pp.2–7.
SidorovА.S., Rogov M.F., Novak V.P., et al. Device for localization of the melt of the Tianwan NPP with WWER1000.Thermal Engineering. 2001, No.9, pp.8–13.
Sehgal B.R., et al. Assessment of reactor vessel integrity (ARVI). Nucl. Eng. and Des., 2003, pp. 23 – 53.
Broughton J. M., et al. A scenario of the TMI-2 accident. Nuclear Technology, 1989, Vol.87, pp. 34-53.
Nazarbayev N.A., et al. Study of the processes of severe accidents in reactor facilities. Scientific, Technical and Engineering Work to Ensure the Safety of the Former Semipalatinsk Test Site, 2016, Vol. III, pp. 320 – 356.
Tomohisa Kurita, Isao Sakaki, Fumiyo Sakaki, et al. Test and evaluation plan for passive debris cooling system, ICNRP – 2013. Proc. of the 9th Intern. Conf.”Nuclear and radiation physics”, 2013, Almaty, pp. 19 – 29.
Shohei Kawano, et al. Characterization of fuel debris by large-scale simulated debris examination for Fukushima Daiichi nuclear power station, Proceedings of the ICAPP 2017 – Fukui and Kyoto (Japan), pp. 1105 - 1110.
"