THERMAL TECHNOLOGICAL CONDITION OF IVG.1M RESEARCH REACTOR CORE UNDER VARIOUS OPERATING MODES

THERMAL TECHNOLOGICAL CONDITION OF IVG.1M RESEARCH REACTOR CORE UNDER VARIOUS OPERATING MODES

Authors

DOI:

https://doi.org/10.31489/2024No3/45-53

Keywords:

IVG.1M RR, fuel rod, temperature field, computer simulation, fuel assembly, thermophysical calculation

Abstract

Abstract. The relevance of the study is related to the determination of the thermal characteristics of the IVG.1M research reactor core with the low enriched uranium fuel under the nominal and design operating modes. The thermal technological condition of the IVG.1M research reactor during the start-up are determined by the readings of the temperature, pressure and coolant flow sensors of the information and measuring system. The indirect methods including the computer simulating ones are used to determine the temperature of the core structural materials and the distribution of the coolant temperature by the height of the fuel assembly. The research has been carried out using the method of the finite element analysis using the ANSYS Fluent software package. The study goal was to verify the adequacy of the calculation methodology and obtain the calculated data on the temperature distribution in the fuel assembly in the reactor power range from the nominal to design one. The article presents a description of the IVG.1M reactor, the research methodology, computer model, simulation results and the comparison of the calculated data with the experimental ones. The study scientific novelty consists in determining the temperature conditions of the fuel rods during the reactor operation at various levels of the design capacity with a conservative approach to the cooling conditions. The significance of the research results lies in the fact that a computer model can be used to determine the characteristics of the IVG.1M reactor core under the reactor various operating modes and to analyze the thermohydraulic processes in the fuel assembly.

Author's detail

M.K. Skakov

Skakov, Mazhyn Kanapinovich - Doctor of phys.-math. sciences, Professor, Chief Researcher, National Nuclear Center of the Republic of Kazakhstan, Kurchatov, Kazakhstan; Scopus Author ID: 6506859122; ORCID iD: 0000-0003-3716-8846; skakov@nnc.kz

   

 

 

Ye.A. Martynenko

Martynenko, Yekaterina Alexandrovna - PhD Student, Chief of Group, Institute of Atomic Energy Branch of RSE NNC RK, Kurchatov, Kazakhstan; D. Serikbayev East Kazakhstan Technical University, Ust-Kamenogorsk, Kazakhstan; Scopus Author ID: 57854824300; ORCID iD: 0000-0002-1423-4524; Kirichek@nnc.kz

N.K. Yerdybayeva

Yerdybayeva, Nazgul Kadyrbekovna - Doctor of phys.-math. sciences, Professor, D.Serikbayev East Kazakhstan Technical University, Ust-Kamenogorsk, Kazakhstan; Scopus Author ID: 36633438100; ORCID iD: 0000-0003-0314-0503; nyerdybayeva@mail.ru

   

 

 

A.S. Akayev

Akayev, Asan Sabyrovich. - Head of Department, Institute of Atomic Energy Branch of RSE NNC RK, Kurchatov, Kazakhstan; Scopus Author ID: 57321455500; ORCID iD: 0000-0003-4792-6161; akaev@nnc.kz

 

M.K. Bekmuldin

Bekmuldin, Maksat Kuatbekovich - PhD Student, Chief of Laboratory, Institute of Atomic Energy Branch of RSE NNC RK, Kurchatov, Kazakhstan; Scopus Author ID: 57321072600; ORCID iD: 0000-0002-6895-536X; bekmuldin@nnc.kz

 

I.V. Prozorova

Prozorova, Irina Valentinovna - Head of Laboratory, Institute of Atomic Energy Branch of RSE NNC RK, Kurchatov, Kazakhstan; Scopus Author ID: 57220986470; ORCID iD: 0000-0001-8701-9756; prozorova@nnc.kz

References

Sabitova R., Popov Y., Irkimbekov R., Prozorova I., Derbyshev I., Nurzhanov E., Surayev A., Gnyrya V., Azimkhanov A. (2023) Results of Experiments under the Physical Start-Up Program of the IVG.1M Reactor. Energies, 16, 6263. DOI: 10.3390/en16176263.

Korovikov A.G., Ilyinych S.A., Yermakov V.A., Serikbayev B.S. (2018) Third phase of information and measuring system modernization of IVG.1M research reactor. NNC RK Bulletin, 3, 33 – 39. DOI:10.52676/1729-7885-2018-3-33-39. [in Russian]

Surayev A.S., Irkimbekov R.A., Ponkratov Yu.V. (2020) Calculation of the thermal state of the experimental device for tests in the IVG.1M reactor. NNC RK Bulletin, 2, 144 – 153. Available at: https://journals.nnc.kz/jour/article/view/253?locale=en_US [in Russian]

Sabitova R.R., Prozorova I.V., Irkimbekov R.A., Popov Yu.A., Bedenko S.V., Prozorov A.A., Mukhamediyev A.K. (2022) Methods to Study Power Density Distribution in the IVG.1M Research Reactor After Conversion. Applied Radiation and Isotopes, 185, 110259. DOI:10.1016/j.apradiso.2022.110259.

Prozorova I.V., Martynenko Y.A., Irkimbekov R.A., Popov Y.A., Suraev A.S., Gnyrya V.S., Sabitova R.R., Medetbekov B.S. (2023) Definition of Thermophysical Parameters of the IVG.1M reactor core with LEU fuel. Neutron Spectroscopy. Nuclear structure. Related topics. Russia, Dubna, 59 – 66. Available at: http://isinn.jinr.ru/proceedings/isinn-29/pdf/Prozorova.pdf

Irkimbekov R., Vurim A., Vityuk G., Zhanbolatov O., Kozhabayev Z., Surayev A. (2023) Modeling of Dynamic Operation Modes of IVG.1M Reactor. Energies, 16, 932. DOI:10.3390/en16020932.

Irkimbekov R.A., Zhagiparova L.K., Kotov V.M., Vurim A.D., Gnyrya V.S. (2019) Neutronics Model of the IVG.1M Reactor: Development and Critical-State Verification. Atomic Energy, 127, 69–76. DOI:10.1007/s10512-019-00587-1.

Martynenko E.A., Erdybayeva N.K., Akaev A.S., Bekmuldin M.K., Turkach A.A. (2023) Kompyuternoe modelirovanie raspredeleniya temperaturyi TVS reaktora IVG.1M. Bulletin of Toraigyrov University. Energetics series, 3, 197 – 209. DOI: 10.48081/YBCY7199. [in Russian]

Khazhidinov A.S., Akayev A.S., Ganovichev D.A. (2019) Computation of a temperature field of the IVG.1M WCTC-LEU in optimized and advanced models. NNC RK Bulletin, 3, 76-80. DOI:10.52676/1729-7885-2019-3-76-80. [In Russian]

Khazhidinov A.S., Ganovichev D.A., Akaev A.S., Martynenko Ye.A., Khazhidinova A.R. (2018) Validation of the thermophysical model of IVG.1M reactor WCTC-LEU. NNC RK Bulletin, 3, 45-49. DOI:10.52676/1729-7885-2018-3-45-49. [In Russian]

Zaytsev D.A., Repnikov V.M., Soldatkin D.M., Solntsev V.A. (2017) Studies of behavior of the fuel compound based on the U-Zr micro-heterogeneous quasialloy during cyclic thermal tests. Journal of Physics: Conference Series, 891(1). DOI:10.1088/1742-6596/891/1/012181.

ANSYS Fluent Workbench Tutorial Guide Release 2021 R2. (2021), ANSYS Inc., Southpointe. Available at: https://dl.cfdexperts.net/cfd_resources/Ansys_Documentation/Fluent/Ansys_Fluent_Workbench_Tutorial_Guide_2021_R2.pdf

Bruyaka A., Fokin V.G., Soldusova E.A., Glazunova N.A., Adeyanov I.E. (2010) Inzhenernyj analiz v ANSYS Workbench, Samar.gos.tekhn.un-t, Samara, 217 p. [In Russian] Available at: https://studizba.com/show/1041590-2-bruyaka-va-inzhenernyy-analiz-v-ansys.html

Sabitova R.R., Popov Yu.A., Irkimbekov R.A., Prozorova I.V., Bedenko S.V. (2023) Calculated and experimental data on energy release profile in the fuel assembly of the IVG.1M reactor after fuel enrichment reduction. NNC RK Bulletin, 83-87. DOI:10.52676/1729-7885-2023-1-83-87. [In Russian]

Bobkov V.P., Fokin L.R., Petrov E.E., Popov V.V. Rumiantsev V.N., Savvatimsky A.I. (2008) Thermo-physical Properties of Materials for Nuclear Engineering: A Tutorial and Collection of Data, International Atomic Energy Agency, Vienna, 2000 p. Available at: https://www-pub.iaea.org/MTCD/Publications/PDF/IAEA-THPH_web.pdf

Rivkin S.L., Aleksandrov A.A. (1984) Termodinamicheskie svojstva vody i vodyanogo para. Energoatomizdat, Moskow, 84 p. [In Russian] Available at: https://studizba.com/show/850980-14-.html

Miheev M.A., Miheeva I.M. (1977) Osnovy teploperedachi, Energiya, Moscow, 344 p. [In Russian] Available at: https://studizba.com/show/1013624-1-osnovy-teploperedachi-miheev-ma.html

Downloads

Received

2024-04-04

Revised

2024-06-29

Accepted

2024-09-17

Published online

2024-09-30

How to Cite

Skakov, M., Martynenko, Y., Yerdybayeva, N., Akayev, A., Bekmuldin, M., & Prozorova, I. (2024). THERMAL TECHNOLOGICAL CONDITION OF IVG.1M RESEARCH REACTOR CORE UNDER VARIOUS OPERATING MODES. Eurasian Physical Technical Journal, 21(3(49), 45–53. https://doi.org/10.31489/2024No3/45-53

Issue

Section

Energy
Loading...