Nuclear power theoretical model establishment and verification method, system and terminal equipment
A theoretical model and verification method technology, applied in the field of reactor control and protection systems, can solve the problems of high nuclear power indication, large fluctuation, and high RPN nuclear power indication, and achieve the effect of solving output limitation and avoiding large fluctuations
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Embodiment 1
[0038] This embodiment provides a nuclear power theoretical model establishment and verification method, which can be applied to any terminal equipment with data processing functions, such as PC (Personal Computer) client, (cloud) server, notebook computer, personal digital assistants, any special purpose or general purpose nuclear data processing equipment, etc.
[0039] Such as figure 1 As shown, the nuclear power theoretical model establishment and verification method provided in this embodiment includes:
[0040] Step S101, according to the pre-established nuclear power theoretical model, the theoretical current and theoretical power of the nuclear reactor under normal operating conditions are obtained.
[0041] In specific applications, the theoretical model of nuclear power is deduced in advance based on the theoretical basis. It is used to calculate the theoretical current and theoretical power of the nuclear reactor under normal operating conditions. The calculation m...
Embodiment 2
[0071] Such as image 3 As shown, in this embodiment, before steps S101 and S102 in Embodiment 1, it includes:
[0072] Step S201, determining the normal operating conditions of the nuclear reactor; wherein, the normal operating conditions include burnup and relative core power.
[0073] In a specific application, the determination of the current normal operating conditions of the nuclear reactor is mainly to determine the current burnup and relative power of the core of the nuclear reactor.
[0074] In one embodiment, step S201 includes:
[0075] In the initial working condition, the core relative power of the power range measurement channel is obtained through the KME heat balance test.
[0076] Step S202, when the core relative power is full power, obtain the weighting factor of the fuel assembly corresponding to each power range measurement channel.
[0077] In a specific application, the fuel component weighting factor of the current of the detector corresponding to ea...
Embodiment 3
[0088] Such as Figure 8 As shown, based on Embodiment 1 and Embodiment 2, in this embodiment, step S101 includes:
[0089] Step S301, according to the weight factor and power share of the fuel assembly corresponding to the power range measurement channel, the neutron behavior capability corresponding to the power range measurement channel is obtained.
[0090] In one embodiment, in step S301, according to the weight factor and power share of the fuel assembly corresponding to the power range measurement channel, the formula for obtaining the neutron behavior capability corresponding to the power range measurement channel is:
[0091] Neutron behavior capability = ∑ weight factor * power share.
[0092] Such as Figure 9 As shown, four power range measurement channels of RPN are shown exemplary ( Figure 8 1 to 4) neutron behavior capability under different burnup, for example, when the fuel consumption is 241.8190MWD / tU, the neutron behavior capability of the corresponding...
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