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Core loading optimisation in Slovak VVER-440 reactors

  • R. Zajac , J. Majerčík and C. Strmenský
Published/Copyright: August 27, 2019
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Abstract

VVER-440 reactors have been utilized in Slovakia since 1978. So far, the vast majority of their core loadings were designed in VUJE institute. This paper presents a description of the methods and procedures, which have been used for this purpose in the last decade. Main attention is focused on the calculating tools for core refuelling scheme optimization.

Kurzfassung

VVER-440-Reaktoren werden in der Slowakei seit 1978 eingesetzt. Bisher wurde die überwiegende Mehrheit ihrer Kernbeladungen im VUJE-Institut entworfen. Dieses Papier stellt eine Beschreibung der Methoden und Verfahren dar, die in den letzten zehn Jahren zu diesem Zweck eingesetzt wurden. Das Hauptaugenmerk liegt dabei auf den Berechnungswerkzeugen zur Optimierung der Brennelementnachladungen.


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References

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2 PERMAK code, Algorithm description and user manual. (in Russian) Kurchatov Nuclear Energy Institute, Moscow, 1985Search in Google Scholar

3 Ananyev, J. A.; Bogachev, G. A.: Calculation of power distribution within hexagonal assemblies – SHESTIGRANNIK code. (in Russian) Kurchatov Nuclear Energy Institute, Moscow, 1974Search in Google Scholar

4 Melice, M.: Pressurized Water Reactor Optimal Core Management and Reactivity Profiles. Nucl. Sci. Eng.37 (1969) 45145710.13182/NSE69-A19119Search in Google Scholar

Received: 2019-02-14
Published Online: 2019-08-27
Published in Print: 2019-09-16

© 2019, Carl Hanser Verlag, München

Articles in the same Issue

  1. Contents/Inhalt
  2. Contents
  3. Editorial
  4. Research on the reactor physics and reactor safety of VVER reactors – AER Symposium 2018
  5. Technical Contributions/Fachbeiträge
  6. Development of CASMO5 for VVER-1000/1200 analysis and preliminary validation using critical experiments
  7. C-PORCA 7: a nodal diffusion reactor calculation code to support off-line and on-line core analysis at Paks nuclear power plant
  8. Adaptation of the gas gap simplified model in DYN3D code to new types of fuel
  9. A procedure for verification of Studsvik's spent nuclear fuel code SNF
  10. Extension of nodal diffusion solver of Ants to hexagonal geometry
  11. VVER-1000 fuel assembly model in CAD-based unstructured mesh for MCNP6
  12. Fuel cycles with PK-3+ FAs for VVER-440 reactors
  13. Prospects for implementation of VVER nuclear fuel enriched above 5%
  14. Core loading optimisation in Slovak VVER-440 reactors
  15. Statistical evaluation of C-15 cycles in Paks NPP, based on measured in-core data
  16. Optimized 18-months low-leakage core loadings for uprated VVER-1000
  17. Leningrad NPP-2 start-up loss of power test and its simulation with use of KORSAR/GP code
  18. Assessment of the fuel assembly pin-by-pin model in the KORSAR/GP code
  19. Comparative thermohydraulic analyses of VVER 1000 active core for two different construction types of assemblies
  20. Analysis of uncontrolled dilution of boric acid concentration in the reactor VVER-1000/320
  21. Applied study on optimizing the final disposal of Loviisa NPP spent fuel assemblies
  22. Criticality safety analysis for GNS IQ® – The Integrated Quiver System for damaged fuel
  23. Neutron balance in two-component nuclear energy system
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