• Coupled codes
• Reactivity accident
• Rod ejection
• Relap
• 3D NK
• TH
• Parcs

Chapter 1 – INTRODUCTION

Chapter 2 – OVERVIEW OF 3D-NK-TH COUPLED CODES METHODOLOGY
2.1. COUPLED CODES APPROACH
2.2. FIELDS OF APPLICATION
2.3. COUPLED COMPUTATIONAL TOOLS REQUIRED
2.4. COUPLING PROCESSES
2.5. NEUTRONIC/THERMAL-HYDRAULIC NODALIZATION REQUIREMENTS

Chapter 3 – REFERENCE PLANT DESCRIPTION & ROD EJECTION ACCIDENT
3.1. REFERENCE PLANT DESCRIPTION
3.1.1. TERMAL-HYDRAULIC DATA
3.1.2. CORE AND NEUTRONIC DATA
3.2. CONTROL ROD EJECTION ACCIDENT

Chapter 4 – CODES AND PLANT MODELLING
4.1. INTRODUCTION
4.2. ADOPTED COMPUTATIONAL CODES
4.2.1. RELAP5/ MOD 3.3
4.2.2. PARCS
4.2.3. RELAP5/3D
4.2.4. NESTLE
4.3. COUPLING PROCESSES USED
4.3.1. RELAP/PARCS
4.3.2. RELAP 5/3D – NESTLE
4.4. THERMAL-HYDRAULIC MODELLING
4.5. 3D NEUTRON KINETIC MODELLING
4.6. CONTROL ROD WORTH CALCULATION

Chapter 5 – DISCUSSION OF ACHIEVED RESULTS
5.1 PROCEDURE AND LIST OF PERFORMED CALCULATIONS
5.2 STEADY-STATE CALCULATION
5.3 TRANSIENT CALCULATION
5.3.1 HZP – 1 CONTROL ROD EJECTION
5.3.2 HZP – COLLAPSED CONTROL ROD EJECTION
5.3.3 HFP – CONTROL ROD 40% EJECTION

Chapter 6 – CONCLUSIONS