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These supplemental problems were developed by the authors for their MIT courses and are included here with the designation "N" (for new) in their numbering. For example, 2-6N is a new problem in Chapter 2 and is the sixth problem in this manual related to Chapter 2 material.
課程單元 QUESTIONS
Worldwide Utilization Of Power Reactor Technology 1_1N_QUE (PDF)
Analysis of Reactor Types 2_6N_QUE (PDF)
Relationships Between Assemblies Of Different Pin Arrays 2_7N_QUE (PDF)
Energy Sources In A Typical PWR 3_06N_QUE (PDF)
Decay Heat From A PWR Fuel Rod 3_07N_QUE (PDF)
Decay Power Calculations Of A 3-Batch PWR Core 3_08N_QUE (PDF)
Thermodynamics Of Binary Cycle Involving Sodium And Steam Water 6_08N_QUE (PDF)
Proofs Involving The Brayton Cycle 6_09N_QUE (PDF)
Replacement Of A Steam Generator In A PWR With A Flash Tank 6_10N_QUE (PDF)
Irreversibility Problems Involving The Rankine Cycle 6_11N_QUE (PDF)
Complex Brayton Cycle With Regeneration, Pressure Loss, And Real Machines 6_12N_QUE (PDF)
Optimizing The Pressure Ratio Of The Brayton Cycle In A Brayton- Rankine Combined Cycle 6_13N_QUE (PDF)
BWR Operation At Supercritical Conditions 6_14N_QUE (PDF)
Cycle Thermal Efficiency Problem Involving A Bottoming Cycle 6_15N_QUE (PDF)
Tokamak Power Generation Problem 6_16N_QUE (PDF)
Containment Problem Involving a LOCA 7_10N_QUE (PDF)
Pressurizer Transient Problem 7_11N_QUE (PDF)
Pressurizer Insurge Problem 7_12N_QUE (PDF)
Pressurizer Sizing Analysis 7_13N_QUE (PDF)
Containment Pressurization Reactor Thermodynamics 7_14N_QUE (PDF)
Drain Tank Pressurization Problem 7_15N_QUE (PDF)
Containment Pressurization Following Zircaloy-Hydrogen Reaction 7_16N_QUE (PDF)
'Conductivity Integral' 8_08N_QUE (PDF)
Thermal Conduction Problem Involving Design Of A BWR Core 8_09N_QUE (PDF)
Important Features Of Fuel Element Temperature Calculation 8_10N_QUE (PDF)
Comparison Of Thermal Energy That Can Be Extracted From A Spherical Hollow Fuel Pellet Versus A Cylindrical Annular Fuel Pellet 8_11N_QUE (PDF)
Transient Fuel Pin Analysis 8_12N_QUE (PDF)
Fuel Pin Problem 8_13N_QUE (PDF)
Radially Averaged Fuel Temperature And Stored Energy In Solid And
Annular Pellet
8_14N_QUE (PDF)
Two-Zone Sintering Of An Annular Fuel Pellet 8_15N_QUE (PDF)
Reynolds Analogy And Equivalent Diameter Problem 10_07N_QUE (PDF)
Turbulent Heat Transfer Coefficient Calculations 10_08N_QUE (PDF)
Equivalent Diameter And Reynolds Analogy Problem Involving A Fuel Element 10_09N_QUE (PDF)
Fully Developed Laminar Heat Transfer in a Circular Duct 10_10N_QUE (PDF)
HEM Pressure Loss Problem 11_08N_QUE (PDF)
Wall Friction Components For Liquid And Vapor Only 11_09N_QUE (PDF)
Void, Quality And Pressure Drop Problem 11_10N_QUE (PDF)
Calculating Void Fraction In Adiabatic Steam-Water Flow 11_11N_QUE (PDF)
Thermal Parameters In A Heated Channel In Two-Phase Flow 12_06_QUE (PDF)
Computation Of The Axial Distribution Of Thermal And Hydraulic Characteristics Of A Horizontal Steam Generator 12_07_QUE (PDF)
Shell And Tube Horizontal Evaporator 12_08_QUE (PDF)
BWR Heat Transfer Problem 12_09_QUE (PDF)
Calculation Of MCHFR And MCPR For A BWR Channel 12_10_QUE (PDF)
Nucleate Boiling And CHF In A PWR Steam Generator 12_11N_QUE (PDF)
Nucleate Boiling On A Tube Wall 12_12N_QUE (PDF)
Nucleate Boiling Initiation And Termination On A Heat Exchanger Tube 12_13N_QUE (PDF)
Nucleation in Pool and Flow Boiling 12_14N_QUE (PDF)
Two Phase Flow Pressure Drop Calculation In BWR 13_07N_QUE (PDF)
Thermal Hydraulic Analysis Of A Pressure Tube Reactor 13_08N_QUE (PDF)
Heat Transfer Problems for a BWR Channel 13_09N_QUE (PDF)
Two Phase Problem Involving A Nuclear Power Plant 13_10N_QUE (PDF)
Location Of Maximum Clad And Fuel Temperature For A Uniform Axial q''' 13_11N_QUE (PDF)
Thermal Behavior Of A Plate Fuel Element Following A Loss Of Coolant 13_12N_QUE (PDF)
Maximum Clad Temperature For LMFBR Reactor 13_13N_QUE (PDF)
Determining Material Properties From Test Results S1-1_QUE (PDF)
Stress Field Determination Using Mohr’s Circle S1-2_QUE (PDF)
Discontinuity Analysis at the Joint of Cylindrical Pipes of Different Wall Thickness S2-1_QUE (PDF)
External and Internal Pressure to Fail a Spherical Vessel by the Maximum Shear Stress Theory S4-1_QUE (PDF)
Interior Pressure to Fail Cylindrical and Spherical Vessel by Several Failure Theories S4-2_QUE (PDF)
Determining Allowable Pressure by ASME Criteria S5-1_QUE (PDF)



These supplemental problems were developed based on materials from "Introduction to Structural Mechanics," which is on the Required Readings page.


 
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