A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloycladding. Use the specified data to plot the distribution of temperature in the fuelrod. The temperature distribution should include the fuel region, the gap region,the cladding region, and end at the bulk coolant for two cases of low and high lin-ear heat generation rates. Data: Druel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad= 1.12 cm, kfnel = 1.73 W/m C, kclad = 5.2 W/m C, Twater = 300 C, 41ow = 5 kW/ft(164 W/cm), and d'High = 15 kW/ft (492 W/cm). The heat transfer coefficient%3Dfrom the fuel rod to bulk coolant is 34 kW/m.C. The heat transfer coefficient inthe gap region is 5.7 kW/m.C for the low and is 11.4 kW/mC for the high linearheat generation rate.

Compressed Water Reactor (PWR) is a nuclear reactor wherein water, warmed by nuclear energy, is kept…

A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloy cladding. Use the specified data to plot the distribution of temperature in the fuel rod. The temperature distribution should include the fuel region, the gap region, the cladding region, and end at the bulk coolant for two cases of low and high lin- ear heat generation rates. Data: DFuel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad = 1.12 cm, kFuel = 1.73 W/m C, kClad = 5.2 W/m-C, Twater = 300 C, Low = 5 kW/ft (164 W/cm), and d'High %3D = 15 kW/ft (492 W/cm). The heat transfer coefficient from the fuel rod to bulk coolant is 34 kW/m C. The heat transfer coefficient in the gap region is 5.7 kW/m2.C for the low and is 11.4 kW/m-C for the high linear heat generation rate.

A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloy cladding. Use the specified data to plot the distribution of temperature in the fuel rod. The temperature distribution should include the fuel region, the gap region, the cladding region, and end at the bulk coolant for two cases of low and high lin- ear heat generation rates. Data: DFuel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad = 1.12 cm, kFuel = 1.73 W/m C, kClad = 5.2 W/m-C, Twater = 300 C, Low = 5 kW/ft (164 W/cm), and d'High %3D = 15 kW/ft (492 W/cm). The heat transfer coefficient from the fuel rod to bulk coolant is 34 kW/m C. The heat transfer coefficient in the gap region is 5.7 kW/m2.C for the low and is 11.4 kW/m-C for the high linear heat generation rate.

Principles of Heat Transfer (Activate Learning with these NEW titles from Engineering!)

8th Edition

ISBN:9781305387102

Author:Kreith, Frank; Manglik, Raj M.

Publisher:Kreith, Frank; Manglik, Raj M.

Chapter6: Forced Convection Over Exterior Surfaces

Section: Chapter Questions

Problem 6.41P

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A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloy cladding. Use the specified data to plot the distribution of temperature in the fuel rod. The temperature distribution should include the fuel region, the gap region, the cladding region, and end at the bulk coolant for two cases of low and high lin- ear heat generation rates. Data: Druel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad = 1.12 cm, kfuel = 1.73 W/m C, kclad = 5.2 W/m C, Twater = 300 C, Low = 5 kW/ft (164 W/cm), and d'High = 15 kW/ft (492 W/cm). The heat transfer coefficient from the fuel rod to bulk coolant is 34 kW/m².C. The heat transfer coefficient in the gap region is 5.7 kW/m2.C for the low and is 11.4 kW/m.C for the high linear heat generation rate.
A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloy cladding. Use the specified data to plot the distribution of temperature in the fuel rod. The temperature distribution should include the fuel region, the gap region, the cladding region, and end at the bulk coolant for two cases of low and high lin- ear heat generation rates. Data: DFuel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad = 1.12 cm, kFuel = 1.73 W/m C, kclad = 5.2 W/m-C, Twater = 300 C, ģ1ow = 5 kW/ft %3D (164 W/cm), and d'High = 15 kW/ft (492 W/cm). The heat transfer coefficient from the fuel rod to bulk coolant is 34 kW/m².C. The heat transfer coefficient in the gap region is 5.7 kW/m2.C for the low and is 11.4 kW/m2-C for the high linear heat generation rate.
A fuel rod of a PWR consists of about 320 solid fuel pellets inside a zircaloy cladding. Use the specified data to plot the distribution of temperature in the fuel rod. The temperature distribution should include the fuel region, the gap region, the cladding region, and end at the bulk coolant for two cases of low and high lin- ear heat generation rates. Data: DFuel = 0.96 cm, Dinside Clad = 0.985 cm, Doutside Clad = 1.12 cm, kFuel = 1.73 W/m C, kClad = 5.2 W/m-C, TWater = 300 C, ģLow = 5 kW/ft %3D %3D (164 W/cm), and d'High = 15 kW/ft (492 W/em). The heat transfer coefficient %3D from the fuel rod to bulk coolant is 34 kW/m²-C. The heat transfer coefficient in the gap region is 5.7 kW/m-C for the low and is 11.4 kW/m².C for the high linear heat generation rate.
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