canada's offer to host the iter project
TRANSCRIPT
Canada’s offer to host the ITER project
Robert Keith Rae *
ITER Canada Host Inc., Board of Directors, ITER Canada, 1 Yonge Street, Suite 2001, Toronto, ON, Canada M5E 1E5
Abstract
The Government of Canada submitted the Canadian Offer to Host International Thermonuclear Experimental
Reactor (ITER) in June of 2001. This presentation discusses the attributes of the Canadian Offer, including a
description of the location for the Canadian site at Clarington, the site’s technical characteristics, established
infrastructure, socio-cultural characteristics, tritium supply, the licensing and environmental assessment process,
support in Canada for ITER and the research and development capability in Canada that would be of benefit to the
ITER project. These were evaluated and confirmed by an international team of experts as part of the Joint Assessment
of Specific Sites (JASS) undertaken by the ITER Negotiators, and are further described in the Final JASS Report
approved by the ITER Negotiators in January, 2003.
# 2003 Elsevier B.V. All rights reserved.
Keywords: Fusion; ITER; Canada
1. Introduction
Rod Irwin, Canada’s Ambassador to Russia,
formally presented Canada’s Plan to Host Inter-
national Thermonuclear Experimental Reactor
(ITER) on June 7, 2001. The Offer was received
at a meeting in Moscow by ITER delegations from
the European Union, Japan, and the Russian
Federation. This presentation was made following
the Canadian Federal Government Cabinet ap-
proval to submit the Offer at the request of
Natural Resources Canada, the responsible de-
partment for ITER and leader of the international
Negotiations on behalf of Canada.
Canada’s Offer to host ITER would give the
ITER member countries a location with strengths
recognized by the international ITER participants
and confirmed in the Final Joint Assessment of
Specific Sites (JASS) Report [1]. These include
meeting or exceeding all technical requirements,
having an on-site source of the required tritium
supply and providing a welcoming multi-cultural
environment for ITER scientists and their families.
Canada also offers all ITER member countries a
neutral site for collaborative research, enabling
them to maintain established scientific, technolo-
gical and management roles in ITER and making
it a project that is a true international collabora-
tion (Fig. 1).* Tel.: �/1-416-203-7936.
E-mail address: [email protected] (R.K. Rae).
Fusion Engineering and Design 69 (2003) 545�/552
www.elsevier.com/locate/fusengdes
0920-3796/03/$ - see front matter # 2003 Elsevier B.V. All rights reserved.
doi:10.1016/S0920-3796(03)00396-X
2. Location of the proposed ITER site at
Clarington
Canada’s proposed site for ITER is in Claring-
ton on the north shore of Lake Ontario approxi-
mately 60 km east of Toronto (see Fig. 2). It is
located between the Darlington Nuclear Generat-
ing Station and the St. Marys Cement Plant. The
proposed site is approximately 180 hectares,
providing for ample flexibility during construction
Fig. 1. Canada’s site for ITER is on the North Shore of Lake Ontario.
Fig. 2. Vast transport network provides easy access by air, highway, railway and waterway.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552546
as well as space for future expansion of the
facilities (see Fig. 3). It is located within commut-
ing distance of Toronto’s internationally recog-
nized multicultural urban environment*/a home
base that would be very attractive to ITER
scientists and their families.
3. A solid foundation for ITER development
The Canadian site for ITER at Clarington is
generally viewed as the best in the world from a
technical perspective, meeting or exceeding all of
the specified ITER technical requirements [2].
From a base that is seismically stable (see Fig.
4), geo-technically robust and essentially flat, the
Clarington site’s natural advantages also include
well-mapped, manageable groundwater regimes, asatisfactory heat sink to dissipate thermal energy,
and a benign climate that is equally friendly to
ITER systems and its personnel.
Clarington’s man-made advantages for ITER
include easy access to road, rail, air and ship
transportation, and the ability to receive large,
heavy loads*/up to and even beyond current
expectations*/at the neighbouring St. Marys Ce-
ment plant dock. Electrical power, both steady
state and pulsed, is abundant and reliable, with no
reported outages in more than 10 years on any of
the multiple circuits supplying Clarington. The site
is located immediately adjacent to a major 500 kV
node in the Ontario electricity distribution grid,
and supported by more than 30,000 MW of
installed capacity. The municipal water system
supplies the Clarington site with potable water,
while industrial water is available far in excess of
planned or expanded needs from the adjacent
Darlington Nuclear Generating Station. Support-
ing these resources is an advanced telecommunica-
tion network that enables remote manipulation
and operation of ITER systems from points
around the world.
Human resources for the Clarington site are as
impressive as its natural and industrial advantages.
Clarington is located on the eastern edge of
Toronto, Canada’s largest urban centre. A com-
plete pool of skilled professional and technical
workers, and all of the infrastructure needed to
Fig. 3. Overhead view shows flexibility for future expansion.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552 547
support the ITER facility, are found in abundance
within 50 km, or less than 1 h of travel time, of the
Clarington site.
4. Tritium on-site provides two kinds of security
Tritium is an essential ingredient of ITER and,
unique among the sites proposed for ITER, the
Canadian site at Clarington is located immediately
adjacent to the world’s most important source of
commercially available tritium at Ontario Power
Generation’s (OPG) Darlington Nuclear Generat-
ing Station. Tritium is produced as a by-product of
the CANDU technology used by OPG and isseparated and stored at the Tritium Removal
Facility at the Darlington site (see Fig. 5). These
circumstances provide two advantages.
First, OPG’s Tritium Removal Facility at Dar-
lington provides a secure source of activated
material for ITER over the planned 35-year course
of the program. Nuclear power using the CANDU
technology is one cornerstone of the Province ofOntario’s electricity supply strategy. This ensures
tritium will remain in good supply for the long
term.
Second, having a secure source of tritium
immediately adjacent to Clarington ensures that
activated material will not have to be transported
over public roadways*/let alone international
borders*/to reach the ITER site, a potential
public support concern. In fact, Clarington’s
secure source of tritium at Darlington ensures
that the activated material will never leave a
Canadian Nuclear Safety Commission-licensed
site.
5. A welcoming multi-cultural community for ITER
scientists and their families
Canada’s site for ITER is at Clarington, the
eastern gateway to the Greater Toronto Area. The
region is home to more than 4.5 million residentsand is the heart of Canada’s business, cultural and
scientific communities. People from more than 100
countries have created a vibrant, family-friendly
multi-cultural society.
For ITER scientists and their families, there are
a range of affordable lifestyle and housing choices
from a sophisticated international city to small-
town living. The schooling choices are also invit-ing, from an excellent public system complemented
by culturally and religiously based schools to
independent schools offering the International
Baccalaureate program. The school system’s ex-
perience with international students will help give
the children of ITER scientists a successful educa-
Fig. 4. Clarington site is seismically stable.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552548
tional experience, including a smooth re-integra-
tion into their home country school system.
Ontario’s universal-access healthcare system is
admired around the world. There is a continuum
of care beginning at the family doctor’s office and
progressing all the way to internationally ac-
claimed teaching and research hospitals.
Transportation throughout the area is easy,
whether by public transit or an affordable personal
automobile. For the longest journeys, Pearson
International Airport offers direct flights to citiesthroughout the world, making even the furthest
destinations only a day’s travel to reach the ITER
site (see Fig. 6).
The region offers a wide range of recreational
opportunities throughout the year and cultural
opportunities abound, with performing arts com-
plementing the fine arts (see Fig. 7). Finally, the
Centre for ITER Family Services will be availablearound the clock in person, by telephone and on
the Web with helpful information in all ITER
community languages.
6. Established regulatory and licensing regime
Canada has an established nuclear regulatory
and licensing regime that already recognizes fusion
within its environmental, licensing, construction,
operational, safety and decommissioning frame-work. ITER Canada has begun the licensing
procedure, a process that requires a formal envir-
onmental assessment. A non-profit organization
has been established, the Iter International Fusion
Energy Institute*/‘The Iter Institute’*/as a sepa-
rate entity from Iter Canada. It acts as a proxy for
Fig. 5. Aerial view of the ITER site at Clarington shows adjacent Tritium Removal Facility.
Fig. 6. There is direct access to the Greater Toronto Area
worldwide.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552 549
the future licensee and is currently undertaking the
required environmental assessment studies.
7. Canadians support ITER
Canada’s Offer to host ITER has a broad base
of support that includes four levels of government,
labour, academia and the private sector. This
group represents a unique public�/private partner-
ship that has the capability to supply the Canadian
share of the ITER project requirements.Public and local community support for the
ITER project is outstanding. A national opinion
poll [3] found that 90% of the public is favourable
or neutral towards the ITER Project, and a poll of
opinion in the local community [4] showed con-
sistent results (see Fig. 8). An interesting and
encouraging finding was that people with higher
levels of knowledge about the project had a higher
level of approval. The communities immediately
around the ITER site show unanimous support for
the facility and are ready to welcome ITER
scientists and their families. The ITER Commu-
nity Council, already established, will provide on-
going support and liaison between the local
community, local government agencies and the
ITER project.
8. Research and development in Canada
The Canadian site for ITER at Clarington, in
southern Ontario’s ‘golden horseshoe’, is the
centre of one of North America’s greatest concen-
trations of basic science research and engineering
and industrial capability. The Canadian govern-
ment’s policy framework supports research and
development and the results are impressive.Among the world’s leading academic institu-
tions, the University of Toronto stands out as a
leader in both fundamental and applied scientific
research in many fields, one notable example being
the University of Toronto Institute for Aerospace
Studies (UTIAS).
Canada at large is a recognized home for
physics-based research and development, withscientists and facilities that have made major
contributions, such as the Sudbury (Ontario)
Neutrino Observatory*/that solved the puzzle of
missing solar neutrinos*/and TRIUMF, (see Fig.
9) the National Laboratory for Particle and
Nuclear Physics (on the campus of the University
Fig. 7. The Greater Toronto Area offers a world of choices in culture and recreation.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552550
of British Columbia) equipped with the world’s
largest cyclotron. And the commitment to scien-
tific research and development continues through
early-stage initiatives such as the Perimeter In-
stitute for Theoretical Physics, and the Canadian
Light Source (the national centre for synchrotron
light research). The new University of Ontario
Institute of Technology, in Durham Region, near
the Canadian site for ITER is establishing a Centre
of Excellence for Alternative Energy Technology
with an emphasis on research into fusion.This national commitment to science provides a
significant return on investment through Canadian
companies that are acknowledged world leaders in
technologies ranging from telecommunications to
remote manipulation and sensing. These organiza-
tions, many of which are publicly held, have
demonstrated the ability to achieve success in the
most complex products and projects, serving the
most demanding customers, in the most challen-
ging locations around the world. One excellent
example is MD Robotics*/creators of the Cana-
darm for the International Space Station.
Canadian capability is also highly regarded in
fusion and ITER-related R & D with developed
expertise in tritium, diagnostics, first wall interac-
tions, remote handling and waste management.
Canadian companies who are ITER Canada
members also have proven track records engineer-
ing and managing global-scale research projects,
Fig. 8. Community newspaper reflects outstanding public support.
Fig. 9. The Canadarm is an example of Canadian capability in
robotics.
R.K. Rae / Fusion Engineering and Design 69 (2003) 545�/552 551
with reputations for excellence and on-time, on-budget delivery and commissioning.
The research and industrial resources available
to ITER at the Clarington site ensure both the best
thinking and the best capability to make fusion
energy real.
9. Conclusion*/Canada is the right choice forITER
As you have seen throughout this paper, the
Canadian site at Clarington presents a compelling
case for locating ITER in Canada.
Canada’s case begins with the fundamentals of a
technically excellent site*/including a secure, on-
site source of tritium*/but it includes significantstrengths in other aspects of the program. These
include an established infrastructure and experi-
enced labour force, first-class research and indus-
trial capability, a welcoming, multi-cultural
community for ITER scientists and their families,
and an established regulatory and licensing regime
that already provides for fusion energy. Supportfor ITER in Canada comes from a broad range of
constituencies and communities. These character-
istics of Canada’s Offer to host ITER were
confirmed by the findings in the Final JASS
Report.
Unique among ITER member countries seeking
to host the next phase of development, the
Canadian approach accommodates the establishedstrengths and leadership roles of ITER’s partici-
pants, and enables all ITER members to focus
their efforts exclusively on the prize: the successful
development of fusion energy as the new source of
cleaner energy for our planet.
References
[1] The ITER JASS Final Report, January 2003.
[2] The ITER Final Design Report, June 2001.
[3] Angus Reid Public Opinion Survey, December 1999.
[4] Iter Community Council-Collis and Reed Research, Feb-
ruary 2001.
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