:
Thank you, Mr. Bagnell.
Members may know that this afternoon, after question period, the Speaker did rule on the point of order that was put forward by the parliamentary secretary to the House leader--I think I have that right--in respect to the admissibility of amendments to Bill
The Speaker upheld the original ruling from this committee and ruled that the first amendment, which was to paragraph 6(1)(a), is inadmissible.
The second amendment pertained to the amendment to the short title. You'll remember that a short title can only be changed if amendments made to the scope of the bill compel a change in the language. In that the first amendment was ruled by the Speaker to be inadmissible, similarly the amendment to the short title was also inadmissible.
Members, where that puts the bill is that the Speaker has sent the bill to be reprinted without the amendments.
As a footnote, the removal of clause 9, which was agreed to by this committee, remains. That was admissible. Committees have the power to not agree with certain clauses of the bill, so that stays.
The House will now consider Bill C-3 at report stage, and the parties have the opportunity to propose amendments at report stage. As to when those amendments will be heard, that will be a discussion of the House leaders, I'm sure.
Unless there are any questions, we'll leave it at that and proceed with our witness.
Welcome, Mr. Eggertson. As we discussed, you have approximately 10 minutes, and then we go to questions from members.
:
Thank you very much for that, sir.
Once the solar program was shut down, the association that I headed at the time was stressed in terms of trying to get Canadians to understand that the OPEC oil crisis may have been over, but Canada's energy problems were not solved.
In addition to running that organization, I have worked with the national wind energy and solar industries associations and as the staff head of the Earth Energy Society, which is geothermal heat pumps. I am now with we c.a.r.e. for renewables. I've also been editor or editor-in-chief of two of the largest magazines in the world for renewable energies, and in my time off, I've worked with Finance Canada on the northern tax benefits review, under Minister Michael Wilson, and with the U.K. Foreign Office as Britain's first climate change program manager in Canada, so I come at renewables with both an environmental and an economic scope.
I've been asked to comment on your study into the barriers and challenges of implementing renewables in the north, and of course, the opportunities and the benefits that can accrue. I am no expert on the territories, so I prepared a profile on the residential sector in the three territories, using 2007 data from NRCan's Office of Energy Efficiency.
There are 34,000 households in the territories, with a total floor space of 55 million square feet. This is 0.2% of the Canadian total. The average floor space of a house in the north is 1,600 square feet, about 10% larger than the Canadian average. I could throw gigajoule terms at you, and British thermal units; we convert everything to kilowatt hours in the hope that you can understand that basic energy unit.
That means that all homes in northern Canada consume 1 billion kilowatt hours per year of secondary energy. This does not include transportation; this is purely the energy to heat your homes, heat your water, and run your appliances and lights. Across Canada all homes consume 40 billion kilowatt hours per year. The average home in the north consumes a bit more than 31,000 kilowatt hours. By square foot, that works out to 19.6 kilowatt hours per square foot, compared to 21.6 kilowatt hours per square foot for the Canadian average, so in the north you are 10% below the average energy consumption.
To show you the potential, I have just finished a major retrofit on my house. We are one of the top houses in the country. We have now dropped below 5 kilowatt hours per square foot for our house.
:
I apologize again, sir. The intent was not to inundate you with statistics but to show a very superficial energy profile of homes in the north. Before we ever get into a discussion of energy, we like to know what's used, when, how, and some of the data on that. I apologize. I'll try to keep the statistics as light and frothy as possible. The bottom line, though, is simply that the Arctic territories are not as bad as what I had thought before going into the analysis.
On stationary energy use, all of the energy used in houses—which has nothing to do with transportation—and by applications in the north is actually very close to that used in the rest of Canada. In fact, 61% of the energy used in homes in the north is for heating the buildings. The national average is 63%, so it's not that far off. The north has slightly lower energy use for heating water: 12% of household energy is used to heat water, versus 18% elsewhere. The north uses more energy for appliances and light and, surprisingly, there seems to be no cooling load in the Arctic.
I throw those statistics out to underscore the fact that three-quarters of the energy used in the Arctic has nothing to do with running refrigerators, watching television, or running computers; it's for heating houses and for hot water. It's 80% in most of Canada, but this is an element of the energy use in Canada that very few people, including federal officials in NRCan, understand in terms of the potential for both energy reduction and GHG reduction, because most of the sources used in what we call green heat have high fossil fuel content.
Without getting into too many statistics, 64% of heating in the north comes from oil, 19% from gas, 10% from coal and propane, 5% from wood, and 3% from electric baseboards. Again, that is not far off the national average. Since 1990, total energy consumption in the north has increased 0.3%. In Canada, it's been 13%.
I'll skip a lot of these points and come down to the penultimate one, which is that the energy intensity of homes in the Arctic is twice as good in terms of the reduction in energy use. The Arctic has done twice as well as the national average.
The profile shows that homes in the north are not as bad, as I say, as I had expected when I started the profile, and not bad when compared with the national average, but anything that can reduce energy demand, make more efficient use of whatever energy is used, and increase the substitution by distributed resources, i.e., renewables, is in the best interests of the northern parts of Canada and Canada as a whole.
I admit to being biased, but I say that renewables work, and renewables can work in the north. Last year, the Indian and Northern Affairs Canada report “Sharing the Story” provided case studies of wind and solar thermal power at Rankin Inlet, solar PV at the recreation centre of Fort Smith and at Nunavut Arctic College in Iqaluit, solar air heating at the Weledeh school in Yellowknife, and numerous examples of district heating, waste heat recovery, and small hydro.
One of the first stories I ever did on solar power required security clearance from National Defence so that I could explain how their solar photovoltaic systems at the base in Alert worked. Sure, the panels only worked for half the year, when the sun was up, but the cost saving from not having to helicopter in diesel fuel to charge the generators gave a simple payback of three years.
Here are some little-known solar facts. The efficiency of solar PV—the photovoltaic solar cells that generate electricity—increases in cold temperatures. In the north, a cute little trick up there is that because of the latitude, you actually get more sunlight going into the solar panels because it bounces off the snow, so you get both the direct and the indirect bounce of sunlight going into solar panels up north.
Weather bases in both the Antarctic and the Arctic use wind turbines. It's a very effective technology, and wind continues to generate electricity at night, which solar power unfortunately does not.
Canada has a number of manufacturers of evacuated tube solar collectors. These can boil water in sub-zero temperatures. When I ran the geothermal association, I constantly had to convince people that the wide-scale installation of heat pumps in Sweden and Alaska proved that the cold in those countries was the same as the cold in our country. There's at least one federal building in the Arctic that has put ground coils around the foundation piles. It extracts the heat partly to warm the building, but basically to make sure that the permafrost never warms.
I look forward to questions from the members in the question-and-answer session, but your clerk did say that you wanted commentary on the ecoENERGY program for aboriginal and northern communities.
We support the principle that Canadians are responsible for Canada's energy and environmental challenges. Until recently I was heavily involved with a number of environmental groups, but I am less so now, because I've been distracted by their obsession with the tar sands and with large final emitters. Canadians are the people demanding large amounts of energy, and it is Canadians who must change their energy behaviours.
The ecoENERGY program, despite some flaws which I'll discuss in a second, does encourage Canadians to take the appropriate action. The One-Tonne Challenge was a brilliant concept, but it was badly implemented. Also, it focused on GHG emissions, greenhouse gas emissions, as a symptom rather than as the cause of the emissions.
The original ecoENERGY program was based on improvements in energy performance, but that was too complex a concept for most consumers. The current program that is being phased out is based on technology installations. That makes it easier to sell to individuals, but less strategic in its approach. For example, the rebate for geothermal heat pumps has no differentiation between a poor heat pump and a really great heat pump. The greatest gains often come from simply insulating and air-sealing buildings, but there is limited incentive in the ecoENERGY program for those options. Our house installed energy-efficient windows, but they were installed incorrectly. That meant that the energy efficiency of our house actually dropped, but I could get an incentive.
On the positive side, the program does recognize that space-conditioning energy is a major culprit for consumption and GHG emissions, which is in line with our green heat initiative. Specific to the northern ecoENERGY program, we certainly commend its emphasis on planning for efficiency and conservation. It was Amory Lovins who coined the phrase “negawatts” to explain that the cheapest energy is the energy not used. We tell people that if they're serious about renewables, they should close their windows and throw away the old fridge first. Renewables work best when the energy demand is lowest.
Also, I like the support in the northern program for baseline studies and the call to integrate renewables into infrastructure projects. However, I wonder if there is assurance that the appropriate renewable energy is being adopted. People frequently call us to ask how they can install a wind turbine so that they can get away from their hydro utility, because they don't like them. We have to spend a lot of time explaining that a wind turbine without battery storage, without inverter, without balance of system, is not going to do an awful lot for you, and that the electric plug load--the non-heating, non-water heating, electric usage--accounts for only 20%, or 25% in the north, of a home's average energy demand. Are we exorcising the correct demon? We always tell them not to replace a high-quality sine wave electric current when a low-grade thermal collector will work as well, if not better. The program's focus on reducing demand and then meeting that lower demand from renewables certainly matches our philosophy. It also supports a wide range of technologies, which avoids a single-widget approach.
Northern communities must be sustainable communities. I spent time in Timmins after the gold mines shut down, and I've seen the impact of non-sustainable extractive business models. Northern communities may have good renewable energy resources, but there are limits to exporting that green power to the load centres. I would hate to see the north used only as an exporter of resources, as I saw in the case of lumber in Timmins, for instance, especially when there are numerous opportunities to use the appropriate renewable energy technologies to develop the economy in the north as well as enhance the lifestyle of its residents.
In closing, Mr. Chairman, we c.a.r.e. promotes renewable energies, not just because they are cheaper to operate in all scenarios or because they are in most cases totally sustainable, but because they also allow a paradigm shift in the way we look at energy. Renewables avoid offshore oil spills. They avoid meltdown of reactor cores. They avoid long and vulnerable supply pipelines. They avoid the need to send soldiers into unstable political regions. They avoid community disruption and many health impacts. They avoid smokestacks and grid failures. They avoid mercurial price swings for energy. In short, renewables avoid a host of economic, environmental, and social ills at a very acceptable price, when you factor in externalities such as their ability to mitigate the impacts of anthropogenic climate change.
If you add to that the overwhelming evidence from numerous studies that job creation in renewables is higher per dollar of public investment than any other energy option, and add as well their potential for export technology if we move decisively, among many other advantages, then the question arises: why would you not go renewable?
The north does present some unique barriers and challenges for renewables, but there are also numerous opportunities and benefits for doing the right thing in the right place at the right time.
I thank you for your time and look forward to your questions.
:
It will take me a long time if I talk in French.
[English]
There were some bad experiences. I have been able to discern from the literature that the utilities up north were burnt, if I can use that. They had problems with early wind turbines, and they are shy of implementing the technologies now.
Renewables are not perfect technologies. Wind turbines don't work if the wind is not blowing. Solar doesn't work if the sun is not shining. Many of them--geothermal, solar, biomass, etc.--do work. They are what are called dispatchable energy sources because they work whenever you want them to, but there has been a bad track record in northern Canada, and people are reluctant to get into it.
Again, there is a higher level of subsidy of the conventional energy prices up north. It is not market driven. I don't think any energy pricing in Canada is market driven. It does not reflect all of the variables. The Arctic just tends to be more highly subsidized, so again there's less incentive for investors to get into that. There is no payback, and they don't have some of the programs that we do.
On my house we've just installed 10,000 watts of solar panels under the Ontario microFIT program. It pays 80¢ a kilowatt hour for every kilowatt hour that is generated while I'm down here and my house is sitting at home. I'm getting 80¢. That is a very strong incentive for me and for others to get into solar. The resource doesn't exist to that degree in the Arctic.
I was dealing with Gilbert Parent, the former ambassador of the environment. He was an indigenous Canadian. He wanted a huge wind farm just south of 60, meaning northern Manitoba or northern Saskatchewan. I was consulting with him, and I said, “How are you going to get the power down to Toronto, which is where the power is needed?” It's a little bit like LG 2. You've had to invest billions of dollars for the transmission infrastructure to get it down to Montreal from La Grande.
From the Arctic it's a problem. There are reasons that they don't export the renewable power. I'm arguing there are no reasons for them not to generate and produce the renewable energy there and use it there, which, as many of these case studies from the INAC publication show, can be done cost-effectively.
:
If you can get the equipment up north, it's cheaper to install.
I lived in downtown Ottawa. We wanted to put in a geothermal loop before we moved out of the city. There wasn't a single driller who would come into the city with a drilling rig in order to install it. They were afraid of the city officials.
Up north it's far less of a problem. You do get some unique problems installing ground loops north of 60 if you're getting into permafrost issues, but there are many geothermal loops up there. Solar thermal goes above ground. You literally take up the metal racks, you take up the plastic coils and the glazing sheet, you use a wrench, and you put it into the ground. It stays there. It's there forever.
Wind turbines have a slight maintenance problem in cold weather. They now have heated blades for cold climates so that you no longer get icing on the blades.
Getting the technology up there, shipping it up, is frequently a problem, but you ship everything else up north of 60 and you use ice roads or barges or whatever.
Getting the labour up there is frequently a problem. Do you have to import southern labour? Can you train northern labour to do it?
Maintenance can be a problem, again, if you don't have the correct people up there to fix whatever problems occur.
:
Thank you, Mr. Eggertson. It's good to have you with us this afternoon.
I must say some of the statistics you presented were quite illuminating, I suppose. The energy mix and what the energy is used for are similar in a northern context to a southern context, but you say we should all be looking toward using more renewables within that energy mix.
Should the federal government, which has primary responsibility at least in the territories, employ different strategies in terms of incorporating renewables in a northern energy mix, as opposed to some of the strategies that have been applied in the south? They don't always jibe, given geography, shipping issues, and things of that nature, so should we employ some different strategies in terms of encouraging people to move into the renewables, but more so in the north? Could you identify one or two barriers to the renewable energies that would be specific to the northern context?
I just want you to comment on the mining industry. It's had ups and down, but it's seeing some increase. There are many proposals on the table for various types of mining enterprises in the north. How do you see the renewables mix with the industrial sector, if you want to put it that way, such as the mining sector, as an example?
If you could answer those questions, I would appreciate it.
:
Yes, then there was mining.
The biggest barriers for all renewables are cost or resource availability. Dispatchability means wind doesn't work at all if there's no wind. When people drive by the CNE in downtown Toronto, frequently the blades on the wind turbine are not turning. It becomes a bit of an embarrassment. It probably shouldn't have been placed there, because people say, “Look--it doesn't work.” In the north, you're right, during the winter you get very little solar insulation going in. You still get the wind.
Resource availability is a problem and the cost is a problem. I'm not aware of how much energy in the north is subsidized, directly and indirectly, but there is some type of subsidy, and if it is subsidized at all, it reduces the incentive, we can say, for that.
Very quickly, with reference to mining, the pulp and paper industry is, I think, the largest user of renewable energy in the world. I forget the amount of energy from our pulp and paper industry, but it's scads. Canada promotes the fact that they burn their own wood chips to generate electricity on site. They've already figured out how to do it. It's a no-brainer.
The mining industry is slightly different. Do what they did in Springhill, Nova Scotia: they flooded the coal mine and they use it as a geothermal heat source for the industrial park up above.
I'm not saying to flood the mine. Sorry, but--
:
Oui. Specifically with reference to wind turbines, there are now units that have heating coils in the nacelleand in the blades and in all of the parts that used to freeze up. You are using some of the electricity that you're generating to power electric coil resistance heating to keep the unit working even if you have severe cold, as in the Antarctic bases. Belgium has just implemented a brand new weather station down in the Antarctic. It is, I think, 50% wind-powered. They have recognized that it's a lot cheaper to put up wind turbines in the Antarctic than it is to bring the oil in from Australia, or wherever it comes from.
Regarding your comment about tidal power, yes, there's only really one tidal power site in Canada, in Nova Scotia at the Bay of Fundy. It has problems. The current trend right now is to use wave energy, whereby you put the turbines underwater, and if there's water flowing through, it drives the turbines. That's being tested in a large number of sites around the country, including off the B.C. coast, and they've just approved one in Minas Basin in New Brunswick or Nova Scotia. Those are very site-specific. You have to have a good resource; otherwise, or don't even bother with it.
I totally agree with you on what we call hybridization. Never rely on one wind turbine or one solar panel or one geothermal installation. Have as much of a mix as possible, so that you're getting both heat and electricity from a wide range. If the sun isn't shining, the wind should be blowing; if not, then you have to kick in your biomass generator.
That's why wind works so well with the hydro industry in Canada. When the wind is blowing—and they can tell five days in advance that the wind is going to blow in a particular spot—Hydro Québec and Ontario Hydro stop their dams from sluicing. They use the wind power. When the wind dies, they open the floodgates, and the electricity is generated by the dam.
Working together as a hybridized model is the best way to do it. It does increase your cost, but it increases reliability and performance and lowers the overall cost.
:
Thank you, Chair, and thank you to the witness.
I think there have been some questions here that are not within the focus of our study, which is supposed to be on economic development north of 60. I'm going to try to bring it back there, in one sense; in another sense, maybe I'm not.
This government has decided to focus on the north a lot. We've had some very significant expenditures north of 60, including hydro, the Mayo B project, and the linking of the two grids in the Yukon. We've put a major expenditure into northern British Columbia, extending hydro transmission from Terrace up to Bob Quinn Lake, a distance of about 335 kilometres. All of this means that we're getting to a point at which it would be not that great a challenge to hook up British Columbia to the Yukon grid and the Yukon grid, potentially, to Alaska, which would accomplish a pretty significant thing.
I think it's important to recognize that we are also investing in some very significant infrastructure needs--perhaps not transmission, but highway infrastructure and work that will lead to highway infrastructure in NWT. We have invested a lot in energy-efficient housing in the north, particularly in Nunavut.
All of this is on the wavelength, I think, that energy conservation is important. Canada is a young country, and we're a large country. We have a lot of geography and not necessarily the infrastructure and transmission facilities in place that we need. From what I gathered from the early part of your presentation, you often have to have a grid in place to maximize efficiency from renewables.
With those comments in mind, do you see that this is going to be a major long-term benefit to achieving that goal?
:
Your point about a grid being necessary is very important, which is why district heating works extremely well. District heating is the same as an electric grid.
We do worry about the source of the electricity if a B.C. line from BC Hydro goes up and covers most of the Arctic, because B.C. is now losing some of its hydro capacity and is having to switch to gas-fired electricity. The energy you lose going from, say, Victoria to Yellowknife is fairly significant. That is a bit of a semantic point. Is it renewable electricity getting up there, or is it coal-fired, gas-fired, or whatever?
We oppose gas being used for generation in Ontario. I did the study for the Suzuki foundation. If you were to have what we call a green therm standard, and you forced, by regulation, 20% of new homes in Ontario to install a green heat--that is, solar thermal, geothermal, or biomass thermal--we could displace one billion cubic metres of natural gas by 2020. Do you need a billion cubic metres of natural gas? Yes, I think you do. It's the source of electricity generation we worry about. Is it a good source--that is, a renewable source--or is it a fossil-based source?
The other point I want to pick up from you is that conservation is important, yes. To us, “Close the door, stupid” is what we say to everybody who complains about being cold. Then people have single-pane windows. Thank goodness that's a diminishing problem in Canada.
The Arctic seems to have proven that their buildings are energy efficient. Again, they don't use nearly as much energy as I thought they would. They are very well built. You can tighten those building codes and make it even lower. We have proven that you can get down to five kilowatt hours per square foot per year. We've proven that it can be done--with a sick obsession on my part, but it is possible to do. I think most Canadians can move a little bit closer towards that goal and reduce their need for heat.
Electricity is another problem. Make sure that everything is Energy Star rated. Make sure that you don't use electricity in peak periods. There are quite a few load demand issues that Canadians, I think, need to understand a little bit more. That would get us halfway to where we want to be.