A reactor core design system and its application
A technology for designing systems and reactors, applied in the field of nuclear reactor cores, can solve problems such as low calculation efficiency, functional limitations, and poor reliability, and achieve the effects of reducing personnel intervention, reducing human errors, and improving reliability
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Embodiment 1
[0065] This embodiment proposes a reactor core design system. The system in this embodiment integrates all the calculation modules involved in the design of the reactor core, and automatically extracts calculation data. The parameters calculated by the system in this embodiment include: But not limited to: reactivity coefficient and reactivity deficit in each state, boron concentration in each state, value of each control rod group in different states, delayed neutron parameters, reactivity caused by xenon and samarium poisons under different power changes Changes and other neutronic parameters, etc.
[0066] Specifically as figure 1 As shown, the design system of this embodiment includes a burnup calculation module, a core change state calculation module, a reactivity parameter and loss calculation module (referred to as a coefficient calculation module), a kinetic parameter calculation module, a xenon evolution calculation module, a samarium reactivity Module, Xenon Transie...
Embodiment 2
[0084] This embodiment adopts the reactor core core design system proposed in the above-mentioned embodiment 1 to realize the calculation of the temperature coefficient of the moderator and the loss.
[0085] Specifically as figure 2 As shown in the figure, this embodiment adopts the core change status calculation (ChangeStatus), the burnup calculation (CoreBurn), the coefficient calculation (CoeffCal), the result extraction calculation (extraction), and the result postprocessing calculation (synthesize) in the design system. Procedure implements the following calculations:
[0086] 1) Moderator temperature coefficient and moderator temperature deficit under different power levels and boron concentrations;
[0087] 2) Moderator temperature coefficient under different burnup time, HFP and ARO state;
[0088] 3) Moderator temperature coefficients under different rod states and different boron concentrations.
Embodiment 3
[0090] This embodiment adopts the reactor core core design system proposed in the above-mentioned embodiment 1 to realize the calculation of the differential value of boron.
[0091] Specifically as image 3 As shown in the figure, this embodiment adopts the core change status calculation (ChangeStatus), the burnup calculation (CoreBurn), the coefficient calculation (CoeffCal), the result extraction calculation (extraction), and the result postprocessing calculation (synthesize) in the design system. Procedure to calculate the differential value of boron under different fuel consumption, different boron concentration, and different power levels.
[0092] In this embodiment, the three-dimensional burnup library established in the core loading is read, and the boron differential value calculation is established.
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