Author: Thomas Joseph Plower
Publisher:
ISBN:
Category :
Languages : en
Pages :
Book Description
ABSTRACT: Computational nuclear fuel burnup analysis is an essential field within the Nuclear Engineering discipline, since it plays important functions in core reactivity management, criticality safety, Special Nuclear Materials management, and fuel assembly reload design of commercial power and research reactors. Three dimensional (3-D) deterministic transport methods provides unique advantages in the fuel burnup analysis field and the intention of this thesis is to demonstrate the author's contributions to the development of a novel 3-D deterministic fuel burnup package called the PENTRAN /PENBURN (Parallel Environment Neutral particle Transport/Parallel Environment Burnup) suite. Specifically, cross section generation procedures will be presented including discussions on development of a coupled cross section interpolator code called INTERP-XS. Additionally, detailed fuel burnup analysis of a 17x17 PWR assembly will be presented. Finally, the development of an automated sequence driver called BURNDRIVER will be shown. Major conclusions include: excellent agreement between INTERP-XS generated cross sections and those generated by SCALE, demonstration of 3-D burnup effects captured by PENTRAN/PENBURN through PWR assembly analysis, and successful creation of a user-friendly burnup sequence driver.
Fully Automated 3-D Parallel Simulation and Optimization of a Full Scale Pressurized Water Reactor Fuel Assembly with Burnup Corrected Cross Sections
Author: Thomas Joseph Plower
Publisher:
ISBN:
Category :
Languages : en
Pages :
Book Description
ABSTRACT: Computational nuclear fuel burnup analysis is an essential field within the Nuclear Engineering discipline, since it plays important functions in core reactivity management, criticality safety, Special Nuclear Materials management, and fuel assembly reload design of commercial power and research reactors. Three dimensional (3-D) deterministic transport methods provides unique advantages in the fuel burnup analysis field and the intention of this thesis is to demonstrate the author's contributions to the development of a novel 3-D deterministic fuel burnup package called the PENTRAN /PENBURN (Parallel Environment Neutral particle Transport/Parallel Environment Burnup) suite. Specifically, cross section generation procedures will be presented including discussions on development of a coupled cross section interpolator code called INTERP-XS. Additionally, detailed fuel burnup analysis of a 17x17 PWR assembly will be presented. Finally, the development of an automated sequence driver called BURNDRIVER will be shown. Major conclusions include: excellent agreement between INTERP-XS generated cross sections and those generated by SCALE, demonstration of 3-D burnup effects captured by PENTRAN/PENBURN through PWR assembly analysis, and successful creation of a user-friendly burnup sequence driver.
Publisher:
ISBN:
Category :
Languages : en
Pages :
Book Description
ABSTRACT: Computational nuclear fuel burnup analysis is an essential field within the Nuclear Engineering discipline, since it plays important functions in core reactivity management, criticality safety, Special Nuclear Materials management, and fuel assembly reload design of commercial power and research reactors. Three dimensional (3-D) deterministic transport methods provides unique advantages in the fuel burnup analysis field and the intention of this thesis is to demonstrate the author's contributions to the development of a novel 3-D deterministic fuel burnup package called the PENTRAN /PENBURN (Parallel Environment Neutral particle Transport/Parallel Environment Burnup) suite. Specifically, cross section generation procedures will be presented including discussions on development of a coupled cross section interpolator code called INTERP-XS. Additionally, detailed fuel burnup analysis of a 17x17 PWR assembly will be presented. Finally, the development of an automated sequence driver called BURNDRIVER will be shown. Major conclusions include: excellent agreement between INTERP-XS generated cross sections and those generated by SCALE, demonstration of 3-D burnup effects captured by PENTRAN/PENBURN through PWR assembly analysis, and successful creation of a user-friendly burnup sequence driver.
Advanced Pressurized Water Reactor Study
Author: U.S. Atomic Energy Commission. Division of Reactor Development
Publisher:
ISBN:
Category : Nuclear power plants
Languages : en
Pages : 510
Book Description
Publisher:
ISBN:
Category : Nuclear power plants
Languages : en
Pages : 510
Book Description
Development of an Automated Fuel Loading Optimization Scheme for Pressurized Water Reactors
Author: Barry N. Naft
Publisher:
ISBN:
Category : Mathematical optimization
Languages : en
Pages : 480
Book Description
Publisher:
ISBN:
Category : Mathematical optimization
Languages : en
Pages : 480
Book Description
Water Reactor Fuel Element Performance Computer Modelling
Author: John Gittus
Publisher:
ISBN:
Category : Technology & Engineering
Languages : en
Pages : 740
Book Description
Publisher:
ISBN:
Category : Technology & Engineering
Languages : en
Pages : 740
Book Description
Pressurized Water Reactor Dynamic Simulation Model
Author: Majid Esmail Motamed
Publisher:
ISBN:
Category : Pressurized water reactors
Languages : en
Pages : 214
Book Description
Publisher:
ISBN:
Category : Pressurized water reactors
Languages : en
Pages : 214
Book Description
Extended Burnup Fuel Cycle Optimization for Pressurized Water Reactors
Author: Alfred Lee-Bin Ho
Publisher:
ISBN:
Category : Fuel burnup (Nuclear engineering)
Languages : en
Pages : 176
Book Description
Publisher:
ISBN:
Category : Fuel burnup (Nuclear engineering)
Languages : en
Pages : 176
Book Description
Minimized Fuel Cycle for a Simulated Pressurized Water Reactor
Optimization Study for Large Pressurized Water Reactor Cores
Author: L. E. Strawbridge
Publisher:
ISBN:
Category : Nuclear reactors
Languages : en
Pages : 246
Book Description
Publisher:
ISBN:
Category : Nuclear reactors
Languages : en
Pages : 246
Book Description