Canada
Photovoltaic technology status and prospects
Josef Ayoub and Lisa Dignard-Bailey, CANMET Energy Technology Centre, Varennes, Natural Resources Canada
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General Framework

Fig. 1 - Solar PV installation (2,65 kW) at the Canadian Centre for Housing Technology, Ottawa, Ontario. Photo: Sol Source Engineering On August 12th, 2003, the Government of Canada announced the details of 1 billion CAD of investment towards the implementation of the Climate Change Plan for Canada (CCPC) 1. This investment is part of the federal Budget 2003 allocation and builds on 1,7 billion CAD the Government of Canada has invested in climate change over the past five years. The Canadian commitment target under the Kyoto Protocol to the United Nations Framework Convention on Climate Change is to reduce its greenhouse gas (GHG) emissions to 6 % below its 1990 level by 2008 and 2012.

The Government of Canada is supporting several new initiatives within the CCPC. One of these initiatives, the Technology and Innovation component, aims at reducing Canada’s GHG emissions over the long term and positioning Canadian industry to maximize economic opportunities in new technology development in five key areas. PV and related activities have been incorporated into the implementation plans in two of these areas: decentralised energy production and advanced end-use efficiency technologies.

Technology Early Action Measures (TEAM) Programme is another initiative that has been renewed under the CCPC with injection of new funding. TEAM is funding several partnerships between federal partners, the PV industry and regional stakeholders to demonstrate projects to raise the awareness of this emerging technology, as well as contributing to their improvement and cost reduction targets.

In recognizing the significant market growth opportunity that PV represents to the Canadian PV Industry, the Government of Canada in 2003 commissioned a study that looked into elucidating the barriers facing the large-scale deployment of grid-connected photovoltaic electricity generation in Canada, and to propose an action plan to make PV an integral component of Canada’s energy future 2. The findings of this study are being addressed by energy policy makers in the Government in consultation with the PV industry in Canada and industry associations.

Highlights of Canadian PV Industry support of Canada’s climate change objectives, include:

The Government of Canada continued its efforts to work with academic institutions to raise awareness of BIPV with the next generation of architects and building engineers. It partnered with the University of British Columbia and the Royal Architectural Institute of Canada (RAIC) to deliver a one-day Workshop on building-integrated photovoltaics (BIPV). The workshop aimed at heightening the architectural community’s understanding of solar photovoltaics as an emerging exciting renewable energy technology for integration into buildings, to demonstrate its successful application throughout Europe, Japan and the United States and to give visibility to the architectural and environmental opportunities of BIPV within a Canadian context.

A report entitled “Mainstreaming Building-Integrated Photovoltaics in Canada” identifies the numerous benefits of BIPV and dispels the myths that surround its use, as well as presents a process by which BIPV can be incorporated in a variety of building types in Canada. This material will form the basis of a training course to be given by RAIC to Canadian architects.

Despite the relatively low price of conventional energy, many Canadians are contributing to the growth of the PV market and industry. A sustainable market for remote and off-grid applications has developed over the last 10 years in Canada. The installed power capacity is expected to reach 11,50 MW in 2003, compared to 10 MW in 2001 (see Table 1). This is an unsubsidized market that is growing because PV technology is meeting the remote power needs of Canadian customers particularly for transport route signaling, navigational aids, remote homes, telecommunication, and remote sensing and monitoring.
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National Programme

Fig. 2 - A BIPV façade (12,4 kW) at the Red River College Princess Street Campus, Winnipeg, Manitoba. Photo Corbett Cibinel Architects The federal Department of Natural Resources Canada (NRCan) is responsible for energy policies and energy R&D in Canada. Within the framework of the Renewable Energy Strategy, NRCan’s CANMET Energy Technology Centre-Varennes (CETC-V) is responsible for the management of the federal photovoltaic R&D and technology transfer programmes. This includes technical support for research on components and systems in collaboration with industry and major end-users, as well as the development of standards and codes.

This photovoltaic R&D programme is financed by the federal fund allocation by the Programme on Energy Research and Development (PERD). In addition, the Renewable and Electrical Energy Division (REED) is responsible for policy support and is actively supporting PV training and marketing activities to promote the use of photovoltaic and other renewable energy technologies in Canada.

The strategies of the Canadian R&D photovoltaic programme are:

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Research and Development Programme

The Canadian R&D programme supports the development of technologies, the evaluation of the performance of PV systems in new applications and their adaptation for use in cold climate conditions. This work is conducted in collaboration with the industry at CETC-V, a national research facility located near Montréal in the Province of Québec 3.

On-going projects include:

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Demonstration projects

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Implementation

Fig. 4 - Canada’s R&D programme is addressing the issues of integrating renewable energy in off-grid residences north of the 600 north parallel. This 600-Watt PV installation in an energy-efficient off-grid residence, Whitehorse, Yukon. Canada has developed and approved the Climate Change Plan for Canada, a National Implementation Strategy to reduce its green-house gas emission by 6 % from 1990 level. Within this framework, several climate change measures have been initiated that should benefit the PV industry and other stakeholders:

Deregulation of the Canadian electric utility industry is creating opportunities for distributed power generation to occupy a significant share of the electricity markets of the future. PV has an important role to play in this market, and appropriate policies to promote investments in PV are being pursued. One such area is to compensate system owners feeding power to the grid through net metering and net billing practices. This is relatively a new policy area for Canadian power utilities to consider and nascent activities are happening across Canada. To date, approximately eight Canadian utilities have policies in place that allow small renewable energy generators to be compensated at the retail rate and another seven utilities provide below retail compensation. None of the Provinces in Canada are mandating net metering policies, although some have examined the issue 7.
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Industry status

The Canadian PV industry has grown steadily serving both its domestic off-grid market and the export market. There are approximately 150 organizations actively promoting PV power. Many of them are members of the Canadian Solar Industries Association or Énergie Solaire Québec 8.

ATS Automation Tooling Systems Inc., its subsidiary Spheral Solar TM Power and Elk Premium Building Products Inc.(Elk), a subsidiary of ElkCorp. based in Dallas, Texas, have entered into a memorandum of understanding under which they intend to work together to design, manufacture, test and commercialize a new generation of fully integrated photovoltaic roofing products, primarily for use in residential buildings. The new products will take advantage of Elk's extensive knowledge and expertise in the residential roofing materials market and the unique qualities of Spheral Solar TM Technology. The companies will bring considerable expertise to developing BIPV. Elk is a leader in building product technology and has developed numerous integrated solutions for the roofing industry as well as consumer goods. These products have served to reduce costs, increase safety and productivity. ATS and SSP are currently commercializing their proprietary Spheral Solar TM Technology and building their first 20-megawatt production facility in Cambridge, Ontario, Canada. This revolutionary new photovoltaic technology allows for solar cells to be manufactured using thousands of tiny silicon beads bonded in an aluminum foil. The resulting flexible solar cell is expected to dramatically reduce the cost of solar energy and open a broad range of new uses of solar power by industrial, commercial and residential users worldwide. The cells are lightweight, pliable and break resistant and can be formed into a variety of shapes and sizes.

Canadian-based Xantrex Technology Inc. and American-based Atlantis Energy Systems (AES) are offering a new inverter and solar panel combination designed to make it easier for homebuilders to install renewable energy systems. By combining a Xantrex SunTie XR Grid-tie Inverter with Atlantis Energy System's Sunslates® roofing product, the roof of a house can act as both a roof and a power plant simultaneously. The combined system is designed to make the installation of solar power systems easier and more affordable than ever before and enable homeowners to participate in the emerging small-scale green power market.

A network of systems integration companies has established distribution and dealer networks that effectively serve a growing Canadian PV market. These include distributors for BP Solar (acquired Solarex), Shell Solar (acquired Siemens), Kyocera, Photowatt, Sharp and UniSolar. These modules are sold with PV module product warranties ranging from 10 to 25 years and have certified their products to international standards.
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Market

The Canadian PV installed capacity in 2003 is estimated at 11,5 Megawatt with a sustained domestic market growth that has averaged 25 % over the last ten years. In 2003, the annual PV module market is estimated at 1,5 Megawatt per year compared to 1,17 Megawatt in 2002. Twelve manufacturers reported sales of about 61,5 million CAD. It is estimated that the Canadian PV industry generated revenues of 100 million CAD and employed approximately 600 people in 2003.

There are still many barriers to the development of the grid-connected market sector in Canada. In particular, residential customers find the installation and approval process costly and lengthy. Commercial and industrial customers generally have dedicated staff and expertise to deal with the various steps and are more likely to pursue projects.
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Future outlook

Fig. 5 - Atrium of the Waterloo City Hall building incorporating 1,1 kW of BIPV, Ontario. Photo ARISE Technologies Inc. Several Canadian PV companies have invested significantly in both the development and promotion of solar PV power systems in Canada. This is reflected by steady growth in the installed base, as well as the significant private-sector investment in manufacturing.

PV power systems have demonstrated that they are a reliable source of electricity and the public perception of this technology is favourable. Nevertheless, increased knowledge of this energy choice is required to maintain the growth of its domestic market. Both the Canadian Solar Industries Association and Énergie Solaire Québec have continued their promotional and marketing activities in Canada.

More significant effort will be required to encourage the development of the grid-connected market sector in Canada. Since CETC-V 4 released the study examining the benefits of on-site generation using photovoltaic technologies on buildings in Canada, several new activities have been initiated as part of an action plan that aims to build on Canadian Industry experience base and address some of the market place barriers that currently exist.

New government investments in R&D for Building-Integrated PV technology, support for the development of a technical guideline for the interconnection of small power supplies, and support for demonstrations of PV on building in high-visibility sites throughout Canada will contribute to facilitating the market introduction of PV technology for grid-tied applications in the medium to long term.
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Footnotes with relevant web sites

  1. Climate change web site: http://www.climatechange.gc.ca/english/ publications/announcement/climatechange_investment.html
  2. Industry Canada website: http://www.ic.gc.ca/
  3. CETC-Varennes was formerly known as the CANMET-Energy Diversification Research Laboratory (CEDRL); web site: http://cetcvarennes.nrcan.gc.ca/eng/accueil.html
  4. PV-Hybrid Programme newsletter, HYBRID-INFO: http://cetc-varennes.nrcan.gc.ca/eng/publication/2003-145e.pdf
  5. Solar Decathlon web site: http://www.eere.energy.gov/solar_decathlon/
  6. MicroPower-Connect Initiative: http://www.micropower.org
  7. John J. Bell, A Survey of Canadian Policies to Compensate Small Power Producers for Electricity Fed to the Grid: Net Metering and Net Billing, Masters of Environmental Studies Thesis, Dalhousie University, Halifax, Nova Scotia, December 2003.
  8. Directory of members and companies available from: the Canadian Solar Industry Association (www.cansia.ca) and Énergie Solaire Québec (http://www.esq.qc.ca).
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Further reading about Canada

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