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Fuel Changes During Reactor Operation
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Thermodynamics Heat Transfer and Fluid Flow Volume 2 of 3
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DECAY HEAT

Heat Transfer HEAT GENERATION If  this  corrosion  layer  is  allowed  to  form,  a  larger  temperature  difference  will  be  required between the coolant and fuel to maintain the same heat flux.   Therefore, operation at the same power level will cause higher fuel temperatures after the buildup of corrosion products and crud. Summary The important information in this chapter is summarized below: Heat Generation Summary The  power  generation  process  in  a  nuclear  core  is  directly  proportional  to  the fission rate of the fuel and the thermal neutron flux present. The thermal power produced by a reactor is directly related to the mass flow rate of the reactor coolant and the temperature difference across the core. The  nuclear  enthalpy  rise  hot  channel  factor  is  the  ratio  of  the  total  kW  heat generation  along  a  fuel  rod  with  the  highest  total  kW,  to  the  total  kW  of  the average fuel rod. The average linear power density in the core is the total thermal power divided by the active length of the fuel rods. The nuclear heat flux hot channel factor is the ratio of the maximum heat flux expected at any area to the average heat flux for the core. The total heat output of a reactor core is called the heat generation rate. The  heat  generation  rate  divided  by  the  volume  of  fuel  will  give  the  average volumetric thermal source strength. Rev. 0 Page 51 HT-02

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