Title: The Potential for Nuclear Energy in Developing Nations by Neil J' Numark Chairman, Sustainable Energ
1The Potential for Nuclear Energy in Developing
Nationsby Neil J. NumarkChairman, Sustainable
Energy InstitutePresident, Numark Associates,
Inc.Washington, DC
- Presentation to theInternational Energy
Conference Exhibition (IECE) - SUSTAINABILITY ENERGY FOR DEVELOPING NATIONS
- Daegu, Korea
- February 27, 2007
2Outline
- Status of Nuclear Power Today
- Characteristics of Nuclear Power
- Prospects for Tomorrow (with emphasis on
developing nations)
3Status of Nuclear Power Today
- Review latest data on worldwide utilization of
nuclear energy
4Worldwide Nuclear Power Plants
Source International Nuclear Safety Center,
Argonne National Laboratory, http//www.insc.anl.g
ov/pwrmaps/map/world_map.php.
5World Electricity Generating Capacity by Fuel
Type, 2003 - 2030
Source International Energy Outlook, 2006 -
EIA/US DOE
6Total and Nuclear Generating Capacity, by Region
(current and projected)
Source International Atomic Energy Agency
Energy, Electricity and Nuclear Power Estimates
for the Period up to 2030, 2006 Edition
7Electricity Share Supplied by Nuclear Power, by
Region (current projected)
Source International Atomic Energy Agency
Energy, Electricity and Nuclear Power Estimates
for the Period up to 2030, 2006 Edition
8Nuclear Share of Total Electricity Generation in
2005, by Country
Source International Atomic Energy Agency
Energy, Electricity and Nuclear Power Estimates
for the Period up to 2030, 2006 Edition
9Fuel Shares for Electricity Generation
Source OECD/IEA 2003 "Electricity Information"
2002, Table 4
10Growth in World Nuclear Generating Capacity
Source Nuclear Energy, Hans-Holger Rogner Alan
McDonald, International Atomic Energy Agency,
Ausgabe 1/04, 2004
11Regional Shares of Nuclear Production, 2004
Source Key World Energy Statistics
International Energy Agency, 2006
12Characteristics of Nuclear Power (1)
- High power density, large output
- Environmental benefits clean air, carbon-free.
Greatest attribute for developing countries. - Costs
- Capital intensive large units, high cost to
build, low cost to operate - Major component of baseload power supply
(alongside coal) - Long reactor lifetimes, 40-60 years
13U.S. Cost Comparison (1)
14U.S. Cost Comparison (2)
Source Nuclear Energy Institute
15U.K. Cost Comparison
- PF Pulverized fuel, CFBC Circulating
fluidized-bed combustion, IGCC Integrated
gasification combined-cycle, OCGT Open-cycle
gas turbine, CCGT Combined-cycle gas turbine,
BFBC Bubbling fluidized-bed combustion - Includes capital, equipment, fuel, operation and
maintenance costs - Source The Cost of Generating Electricity, The
Royal Academy of Engineering, 2004
16Characteristics of Nuclear Power (2)
- Safety Good safety record but plants require
continued vigilance also need governments to
maintain independent, technically competent
regulatory authorities. - Proliferation concerns Potential exists to
exploit peaceful nuclear plants to produce
weapons material. Even without such intentions,
a peaceful and safeguarded nuclear program could
be a concern to neighboring states. But a
country with nuclear power plants is still very
far from having weapons capability. - Nuclear waste Safe disposal is widely considered
to be technically feasible, but political
solutions still elusive. - Security concerns are increasing, over both
reactors and their materials, raising operating
costs.
17Prospects for Tomorrow
- 2000-2010 Modest worldwide growth Korea, Japan,
China, India, Finland - 2010-2020 Large growth likely China, United
States, India possibly Russia, Europe - 2020 Possible further application in other
developing nations (Indonesia, Vietnam)
18Near-Term Expansion LWRs
- New generation of light water reactor (LWR)
designs from the major global vendor groups offer
evolutionary improvements over existing LWRs - Toshiba-Westinghouse AP-1000 (1100 MW)
- GE-Hitachi ABWR (1300 MW) and ESBWR (1500 MW)
- Areva EPR (1600 MW) Areva-MHI PWR (1000 MW)
- Korean OPR-1000 (950 MW) and APR-1400 (1350 MW)
- Russian AES-2006 (1200 MW)
- Next large waves of new plants likely in China,
U.S. - China first plant around 2013 plans for up to
50 GW in new nuclear capacity - US first plant around 2015
19Shin Kori Units 3 and 4 2 units, 2700 MWe
20Advanced Gas-Cooled Designs
- Smaller units (120-300 MW) can be installed
incrementally (shorter construction lead-times
than large plants smaller impact from reactor
shutdowns) - Well suited to either large or small electric
power grids - Potential for higher degree of inherent safety
- Potential to produce hydrogen in addition to
electricity - Designs include
- Pebble-Bed Modular Reactor (PBMR)
- High-temperature Gas-Cooled Reactor Pebble-Bed
Module (HTR-PM) - Gas Turbine-Modular Helium Reactor (GT-MHR)
- South Africa first PBMR to be built by 2012
- China first HTR-PM module to be built by 2014,
at Rongcheng in Shandong Province (see photo). - US Possible PBMR or GT-MHR by 2018
21Planned Rongcheng Pebble-Bed Reactors 19
modules, 3700 MWe
Source Andrew C. Kadak, Nuclear Power Made in
China, The Brown Journal of World Affairs, Brown
University, Fall 2006.
22Issues in Implementing Nuclear Power in
Developing Countries (1)
- Large growth in baseload electricity demand
coal and nuclear are primary choices. - Benefit of nuclear reduce reliance on coal in
China, India and elsewhere. - Power density an attribute in densely populated
countries - Major financing challenges
- Plant siting sufficient distance from large
population centers - National electric grid need to add power in
appropriately sized increments
23Issues in Implementing Nuclear Power in
Developing Countries (2)
- Advanced reactor designs now offer more passive
safety features - But plants still require skilled workforce and
strong safety culture. Track record running
fossil plants is not good everywhere. - Governments also need to maintain independent,
technically competent regulatory authorities - Concerns about limited global manufacturing
capacity for heavy forgings, to support
large-scale nuclear renaissance - Fuel cycle approach China and India expected to
utilize closed fuel cycles smaller nations
likely best served by once-through cycles.
24Generating Capacity Projections for Non-OECD
Countries
Source International Energy Outlook, 2006 -
EIA/US DOE
25Nuclear Generation Projections for Asia
Source International Energy Outlook, 2006
EIA/US DOE
26Issues in Implementing Nuclear Power in
Developing Countries (3)
- Note the diversity of perspectives by
international organizations - UN Development Programmes World Energy
Assessment, 2004 Update Near-term improvements
in nuclear reactors can be achieved both through
continued evolution in LWRs and through
development of new reactor concepts. Already
available are LWRs with improved safety features
Another concept, the PBMR, claims to have the
potential for a high degree of inherent safety
without the need for complicated and
capital-intensive safety controls - World Bank Concerning nuclear energy, the
Banks position of not working in this area has
not changed and thus there are no plans for
increased involvement. - Asian Development Bank ADBs rationale for not
being involved in nuclear power development was
based on concerns related to the transfer of
nuclear technology, procurement limitations,
proliferation risks, and environmental and safety
aspects. - International development banks negative
Sources World Energy Assessment Overview 2004
Update, UNDP, UN-DESA and World Energy Council,
2004 Extractive Industries Review (EIR)
Implementation Update, 2006 Spring Meetings,
World Bank Review of the Energy Policy, Asian
Development Bank, 2000
27The Role of Nuclear (1)
- An important element of sustainable, clean energy
for developing as well as industrialized nations - Baseload fuel mix should combine nuclear
advanced clean coal technologies with carbon
sequestration and renewable energy technologies - Great benefits in reducing urban air pollution
and global warming
28The Role of Nuclear (2)
- But need appropriate conditions
- Mature and fiscally sound electric utilities with
good operating track records - Ability to ensure safe operations with skilled
workforce and strong safety culture - Independent, technically competent
safety/environmental regulator - Reactor size suited to grid conditions and
financing context - Siting outside of densely populated regions
- Sufficient facilities for interim storage of
spent fuel careful consideration of alternatives
for long-term disposition.