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http://dx.doi.org/10.1016/j.net.2020.05.024

Calculation of fuel temperature profile for heavy water moderated natural uranium oxide fuel using two gas mixture conductance model for noble gas Helium and Xenon  

Jha, Alok (Homi Bhabha National Institute)
Gupta, Anurag (HBNI)
Das, Rajarshi (Station Reactor Physicist, Kakrapar Atomic Power Project NPCIL)
Paraswar, Shantanu D. (Tarapur Atomic Power Station - 3&4, NPCIL)
Publication Information
Nuclear Engineering and Technology / v.52, no.12, 2020 , pp. 2760-2770 More about this Journal
Abstract
A model for calculation of fuel temperature profile using binary gas mixture of Helium and Xenon for gap gas conductance is proposed here. In this model, the temperature profile of a fuel pencil from fuel centreline to fuel surface has been calculated by taking into account the dilution of Helium gas filled during fuel manufacturing due to accumulation of fission gas Xenon. In this model an explicit calculation of gap gas conductance of binary gas mixture of Helium and Xenon has been carried out. A computer code Fuel Characteristics Calculator (FCCAL) is developed for the model. The phenomena modelled by FCCAL takes into account heat conduction through the fuel pellet, heat transfer from pellet surface to the cladding through the gap gas and heat transfer from cladding to coolant. The binary noble gas mixture model used in FCCAL is an improvement over the parametric model of Lassmann and Pazdera. The results obtained from the code FCCAL is used for fuel temperature calculation in 3-D neutron diffusion solver for the coolant outlet temperature of the core at steady operation at full power. It is found that there is an improvement in calculation time without compromising accuracy with FCCAL.
Keywords
PHWR; Natural uranium fuel; Fuel temperature profile; Gap gas;
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