Table of Contents
- DATAMONITOR VIEW
- ANALYSIS
- Nuclear fission is based on the interaction of neutrons with uranium-235
- Uranium-235 is the fissile material used in almost all reactor designs
- Water is the most common moderator used for nuclear fission
- There are five common nuclear reactor designs in use globally
- BWRs are the simplest reactor design
- PWRs are the most common design in use globally
- Pressurized heavy water reactors such as the CANDU design use natural
uranium
- AGCRs operate without enriched uranium
- The RMBK is a Soviet design still in operation today
- Third-generation nuclear technology is based on small evolutionary steps
from previous designs
- Third-generation reactor technologies are all water-based designs
- Passive safety systems are now commonplace in reactor designs
- Five new commercial designs in the US have had public expressions of
commercial interest
- There are four major third-generation PWR designs
- The AP1000, using a pressurized water reactor design, makes extensive
use of passive safety systems
- General Electric' s ABWR was first certified in April 1997
- Areva' s EPR is under construction only in Finland
- Areva' s EPR has four separate heat removal and generating systems
- The first of Mitsubishi' s APWRs will come online in Japan in 2014
- Some third-generation designs are still in the process of being
commercialized
- HTGRs are a pebble-bed design that forms the basis for
third-generation technologies
- Breeder reactors produce more fissile material than they consume
- The world is set for a new boom in nuclear plant construction, with PWR
designs leading the market
- Available nuclear capacity has decreased to historically unprecedented
levels
- PWRs are set to remain the most popular nuclear reactor design in the
world for the foreseeable future
- APPENDIX
- Glossary
- Datamonitor consultancy
- Ask the analyst
- List of Figures
- Figure 1: Uranium-based nuclear fission
- Figure 2: Neutrons that provoke uranium reactions must be slowed by a
moderator
- Figure 3: Standard BWR design
- Figure 4: Standard PWR design
- Figure 5: Heavy water CANDU reactor design
- Figure 6: AGCR design
- Figure 7: New commercial designs marketed in the US and their Nuclear
Regulatory Commission (NRC) certification status
- Figure 8: Westinghouse' s AP1000 design
- Figure 9: General Electric' s ABWR design
- Figure 10: Areva' s EPR design in Finland
- Figure 11: Areva' s standard EPR
- Figure 12: Mitsubishi' s US-APWR design
- Figure 13: HTGR (pebble-bed) reactor design
- Figure 14: Global nuclear capacity utilization
- Figure 15: Reactors operating and under construction globally
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