Thank you for giving me a few minutes to talk with you about Bill C-20 regarding liability caps for nuclear reactors in Canada.
The bill is of interest to our company as we are working to provide clean and safe electric power to remote communities and mines in Canada through the use of small nuclear power stations.
First, I want to give you a little background on Canadian Remote Power, and then I'll address a concern we have about the regulations that may accompany the bill.
The idea to pursue the use of small reactors grew out of my work for a mineral exploration and development company, Western Troy Capital Resources. We're developing a copper-molybdenum project in a remote area of Quebec, and we found our power costs were going to be very high with a long power line from Hydro-Québec or a diesel power plant. This led us to look at a small reactor as an alternative. We found that a number of countries are developing small reactor designs, but we were surprised to find that in a country where low-cost power is needed in remote areas, no one was pursuing the idea here. So we formed Canadian Remote Power Corporation to do just that.
Now, Canada has a national treasure in its nuclear industry. Its CANDU reactors, along with its nuclear scientists and engineers, have gained world recognition. Over the past 50 years, 45 CANDU reactors have been built around the world, and they have operated without a significant safety incident. Nuclear power is one of the most economical methods to generate electricity, and there are no carbon emissions. Canada can continue to be a world leader in the industry as long as it is willing to encourage the industry and keep its regulatory system consistent with recognized world standards. Canada has the opportunity to play a leading role in the world to reduce carbon emissions.
At Canadian Remote Power we recognized very early that we needed a very strong technical team, and we're very fortunate that good Canadians are available. Your handout lists these folks, along with a bit of their background. I'll highlight one member of the team, just to give you an idea of the calibre of the people we've been able to attract.
Dr. Gary Kugler is on our board of directors and is a member of our technical advisory team. Dr. Kugler is the chairman of the board of Canada's Nuclear Waste Management Organization and is a director of Ontario Power Generation. He was with Atomic Energy of Canada Limited for 34 years.
The question is this. Is there a real need for small nuclear plants in Canada? Currently, electric power for remote communities and mines is generated using diesel engines. These diesel plants generate approximately 17 million tonnes of carbon emissions per year and the electric power produced costs between 25 cents and $2 per kilowatt hour, as compared to what you might pay connected to the grid, about 4 to 10 cents per kilowatt hour. In Nunavut alone, the diesel fuel budget is more than $200 million a year. With small nuclear plants we can eliminate carbon emissions and substantially reduce the power costs for these communities and mines. While we don't believe nuclear plants are the only answer, we believe they can and should be a large part of the solution to the challenges of maintaining and developing sustainable communities in the north.
On the mining side, there are currently eight mines in the north using large diesel power plants. There are projected to be 18 by 2016. These mines are projected to need 400 megawatts of generating capacity. In the Northwest Territories, there are 11 world-class mineral deposits that could be mines if power costs could be reduced. Another application for small nuclear plants is to provide heat for oil sands recovery.
Can small reactors be safe? Well, we're looking at a number of reactor designs. One design is a TRIGA reactor designed by General Atomics in San Diego. In your handout is a picture of a TRIGA reactor. As with all the reactor designs we're considering, the whole installation might require only two acres of land. This design is attractive for two more reasons. First, if there's any unplanned rise in reactor core temperature, the chemistry of the fuel shuts the reaction down. Secondly, there are 67 TRIGA reactors installed around the world. Some have operated since the 1950s. They are installed in hospitals and universities. There has never been a problem.
We're also considering other designs, including Canada's CANDU reactor. There's a Toshiba 4S that we're looking at. Argentina has a CAREM design. We haven't decided which way we're going to go yet.
I will talk about nuclear safety.
You see in your handout a table showing the fatalities over the past 40 years in the United States and the United Kingdom for three major electric power sources: coal, natural gas, and nuclear. This table is from a June 2008 publication of the World Nuclear Association entitled, Safety of Nuclear Power Reactors. Chernobyl is not included in this as there was no containment structure at Chernobyl, and there was not an internationally recognized safety regimen in place like there is in Canada. You can see that nuclear energy is by far the safest of the three sources. It's misleading, though, because I haven't included hydro. There are actually 4,000 fatalities in hydro, but those are as a result of boating accidents on the reservoirs. Obviously, if you can do hydro, you want to do hydro.
Technological innovation in all areas of clean energy development will come from both public and private entities and ventures. Canada will be well served if its government can respond to the clean energy challenge by making the regulatory environment as conducive to innovation as possible without compromising public safety. One of those innovations may be small nuclear power reactors.
The regulatory process for permitting such small reactors will be difficult and there are substantial uncertainties in the permitting process. The more these uncertainties and timeframes can be reduced, the more likely it is we will be able to raise funds for our venture. We hope to work with Parliament and the regulatory agencies to reduce the uncertainties and timeframes in many areas, without compromising public safety.
The issue before you today is Bill C-20 , which would bring Canadian regulations more into line with international standards regarding liability caps for nuclear power plants. How might Bill C-20 impact our efforts?
Well, in the past the maximum insurance cap for all reactors, as you know, was $75 million, and existing regulations allowed lower insurance caps for small reactors. The amount of these caps for small reactors is determined by Natural Resources Canada and the Canadian Nuclear Safety Commission through the regulations developed by those agencies. Bill C-20 sets the maximum at $650 million, and the bill has a provision for setting lower caps for small reactors. Paragraph 66(c) reads:
66. The Governor in Council may make regulations
(c) fixing an amount of reinsurance for any nuclear installation or for any prescribed class of nuclear installation;
An outline of the regulations related to Bill C-20 has been drafted by Natural Resources Canada. There are provisions in the outline for reduced insurance caps for small reactors, but the caps are not well defined. We've discussed this with the staff at Natural Resources Canada and suggested the regulations should include consistent and better defined caps for all reactors. The staff there has been really responsive and has encouraged us to suggest modifications to the outline.
Our suggestion is to include the language you see in the handout in the regulations. It gets fairly technical, and to keep my presentation short, I won't read through it now. This addition to the regulations will provide a greater level of certainty for developers of nuclear power stations as well as preserve the right of the Governor in Council to modify the liability caps for special circumstances.
How does this affect us? If we do not have that certainty for the insurance caps for our small reactors, we would have to assume pretty much the worst case for our fundraising efforts. If we were required to carry the maximum of $650 million of liability coverage, our insurance underwriter has suggested our premium could be $1 million or more per year for each installation. If the liability is capped using the formula we've suggested, our annual premium would fall to an estimated $100,000, thus improving the overall economic forecast for our business and potentially lowering the power cost to the consumer.
Thank you for taking the time to hear our story and suggested language for the regulations to follow the bill. I would be happy to answer any questions when the time comes.
Thank you.