DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE

Pressurized water reactor (PWR) is the most common reactor which used as a commercial power reactor in the world. Generally, PWR used 1,5 – 5 % enriched natural uranium as fuel. Commonly, reactor which used this kind of fuel encounter waste processing problem and nonproliferation resistance. To s...

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Main Author: (nim : 10209049), ROUF
Format: Final Project
Language:Indonesia
Online Access:https://digilib.itb.ac.id/gdl/view/20485
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Institution: Institut Teknologi Bandung
Language: Indonesia
id id-itb.:20485
spelling id-itb.:204852017-09-27T11:45:18ZDESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE (nim : 10209049), ROUF Indonesia Final Project INSTITUT TEKNOLOGI BANDUNG https://digilib.itb.ac.id/gdl/view/20485 Pressurized water reactor (PWR) is the most common reactor which used as a commercial power reactor in the world. Generally, PWR used 1,5 – 5 % enriched natural uranium as fuel. Commonly, reactor which used this kind of fuel encounter waste processing problem and nonproliferation resistance. To solve this problem we can use thorium based fuel. <br /> <br /> <br /> In this research, the experiment with a PWR reactor that used thorium based fuel has conducted. The neutronic analysis is performed by using multi-group diffusion equation. The calculation using SRAC Code System begins with cell calculation (PIJ) of UO2 and ThO2 separately with ten years of burn up step. From that calculation we get multiplication factor and burn-up history. Then, we calculate the reactor core using CITATION module in SRAC Code System, using combination of thorium – uranium fuel cycle with two type of core reactor. First core reactor content of (Th-U)O2 fuel and has different enrichment in 3 core region. First core type has optimized at 50% fuel fraction and 35% composition of UO2 inside (Th-U)O2 fuel. Another core type is a heterogeneous core with (Th-U)O2 and UO2 fuel at different region. Uranium enrichment at (Th-U)O2 fuel is higher than conventional PWR to supply neutron for thorium. From this CITATION calculation, we also get the multiplication factor and neutron flux and power density distribution of the core reactor. At optimized core, operation time for first core is 9 years with Pu production 4 times less than conventional PWR. Meanwhile, we get 4 years operation time for second core type with Pu production 2 times less than conventional PWR. text
institution Institut Teknologi Bandung
building Institut Teknologi Bandung Library
continent Asia
country Indonesia
Indonesia
content_provider Institut Teknologi Bandung
collection Digital ITB
language Indonesia
description Pressurized water reactor (PWR) is the most common reactor which used as a commercial power reactor in the world. Generally, PWR used 1,5 – 5 % enriched natural uranium as fuel. Commonly, reactor which used this kind of fuel encounter waste processing problem and nonproliferation resistance. To solve this problem we can use thorium based fuel. <br /> <br /> <br /> In this research, the experiment with a PWR reactor that used thorium based fuel has conducted. The neutronic analysis is performed by using multi-group diffusion equation. The calculation using SRAC Code System begins with cell calculation (PIJ) of UO2 and ThO2 separately with ten years of burn up step. From that calculation we get multiplication factor and burn-up history. Then, we calculate the reactor core using CITATION module in SRAC Code System, using combination of thorium – uranium fuel cycle with two type of core reactor. First core reactor content of (Th-U)O2 fuel and has different enrichment in 3 core region. First core type has optimized at 50% fuel fraction and 35% composition of UO2 inside (Th-U)O2 fuel. Another core type is a heterogeneous core with (Th-U)O2 and UO2 fuel at different region. Uranium enrichment at (Th-U)O2 fuel is higher than conventional PWR to supply neutron for thorium. From this CITATION calculation, we also get the multiplication factor and neutron flux and power density distribution of the core reactor. At optimized core, operation time for first core is 9 years with Pu production 4 times less than conventional PWR. Meanwhile, we get 4 years operation time for second core type with Pu production 2 times less than conventional PWR.
format Final Project
author (nim : 10209049), ROUF
spellingShingle (nim : 10209049), ROUF
DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
author_facet (nim : 10209049), ROUF
author_sort (nim : 10209049), ROUF
title DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
title_short DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
title_full DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
title_fullStr DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
title_full_unstemmed DESIGN STUDY PRESSURIZED WATER REACTOR (PWR) USING COMBINATION THORIUM-URANIUM FUEL CYCLE
title_sort design study pressurized water reactor (pwr) using combination thorium-uranium fuel cycle
url https://digilib.itb.ac.id/gdl/view/20485
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