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Research Article

Core calculations for small modular reactor during burnup cycle

ORCID Icon, ORCID Icon & ORCID Icon
Received 01 Apr 2021, Accepted 27 Jul 2021, Published online: 07 Aug 2021
 

ABSTRACT

Nuclear, modular water (AVB) reactor is a small modular reactor with special capabilities and it can be used as a source of energy for various applications. In this research, the core calculations of this reactor have been performed during the burnup cycle with deterministic and Monte Carlo approaches by the computational codes WIMSD, PARCS, and MCNPX. Due to the temperature and pressure limits for coolant in this reactor, the PMAXS generator and the developed PARCS code, PARCS-MOD, have been used in a deterministic approach. Quantities include the effective multiplication factor, the relative power distribution, the fuel, and moderator temperature distribution, reactivity feedbacks, and concentrations of some isotopes during the cycle are calculated. In addition, to comparing the results of the two approaches, some general results were compared with the results published in the documents, which we see an acceptable difference in this regard. The maximum value of αTF for states BOC, MOC and EOC are −1.39, −1.85, and −1.87 (pcm.K−1), respectively. The relative difference between the calculated relative power is less than 2.6%. The relative difference between the coolant average temperature and the fuel average temperature calculated with the reference values is 0.21%, and 0.14%, respectively. The maximum axial coolant density is 650 (kg.m−3). Also in this research, the dead time of the ABV reactor has been calculated which is zero.

Notes

1. Loss of coolant accident (LOCA).

Additional information

Notes on contributors

Javad Karimi

Javad karimi: PhD of Nuclear Physics , Imam Hossein Comprehensive University, Tehran, Iran Research field: particle Physics, energy Physics.

Mohsen Shayesteh

Mohsen shayesteh: Associate professor, Imam Hossein Comprehensive University, Tehran, Iran Research field: particle Physics, energy Physics.

Mehdi Zangian

Mahdi Zangian:Assistant Professor, Shahid Beheshti University Research field: Monte Carlo, Numerical Methods, Parallel Processing.

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