Examples from the textbook Heat Transfer by Gregory Nellis and Sanford Klein
Name | Description |
---|---|
Example_1_2_1_LiquidOxygenDewar | Example 1.2-1: Liquid Oxygen Dewar | pp. 17-24 |
Figure_1_8_UniformThermalEnergyGeneration_Plane | Uniform thermaly energy generation in a plane wall (Figure 1-8) | pg. 28 |
Example_1_3_1_MagneticAblation | Example 1.3-1: Magnetic Ablation | pp. 31-37 |
Example_1_3_2_AbsorptionInALens | Part a & b) Determine the temperature distribution in the lense |
Example_1_4_1_FuelElement | Part a) Plot the temperature distribution in the fuel and cladding | Figure 2 |
Example_1_5_1_ThermalProtectionSystem | part a) Determine heat flus to air and the rate the the ablative shield is consumed |
Figure_1_14_NumericalSolutions | Figure 1 - 14 for an aluminnum oxide cylinder pp. 45-55 |
Figure_1_14_NumericalSolutionsMT | Figure 1 - 14 for an aluminnum oxide cylinder pp. 45-55 |
Example_1_6_1_SolderingTubes | Example 1.6-1 Soldering Tubes | pp. 110-113 |
Example_1_6_2_ThermoelectricHeatSink | part a) Estimate heat transfer through finned surface |
Example_1_7_1_BentBeamActuator | Example 1.7-1 Bent Beam Actuator | pp. 127-133 |
Example_1_7_2_DrawingAWire | part a) Determine temperature distribution in the wire |
Example_1_8_1_PipeInARoof | Example 1.8-1 Pipe In A Roof | pp. 155-160 |
Example_1_9_1_TemperatureSensorMounting | part a) Plot the temperature distribution to identify the measurement error |
Example_1_9_2_CryogenicCurrentLeads | part a) Find the optimal lead diameter to the cryogenic device |
Example_2_2_1_2DFin | Uniform thermaly energy generation in a plane wall (Figure 1-8) | pg. 28 |
ConveyorBeltDesign | Example 3.1-1 Design of a conveyor belt pp. 307-309 |
SensorInOscillatingTemperatureEnvironment | Example 3.1-2 Sensor in an oscillating temperature environment pp. 310-316 |
OvenBrazing | Example 3.2-1 Oven Brazing pp. 339-348 |
TransientResponseOfATankWall | Example 3.3-1 Transient response of a tank wall pp. 351-354 |
QuenchingACompositeStructure | Example 3.3-2 Quenching a composite structure pp. 363-369 |