| Frequently Asked Questions |
| To see the answers to the Frequently Asked Questions listed below just click on the Question.
GENERAL FAQS
- When did the IPP industry start?
In 1978, President Jimmy Carter launched the IPP industry.
- How long have IPPs been around in BC?
The first IPP started in 1989. It resulted from the Minister of Energy, Mines and Petroleum Resources, Jack Davis, directing BC Hydro to issue its first Request for Proposals for IPP energy.
- In short, what do IPPs do to develop a project?
A typical IPP develops a project through the following 8 steps:
1. A: Search for sites with good hydro, wind, thermal fuel supply close to grid and that are accessible and buildable
2. Bid the electricity from their proposed projects to BC Hydro when they hold competitions for suppliers every 2 years.
3. Hope to win a contract from BC Hydro to supply electricity for ~30 years at a fixed price
4. Require about 50 permits, licenses and approvals to build.
5. Hire a builder for ~2 year construction phase
6. Raise financing to pay the builder.
7. Commission & operate the project for up to 40 years
8. Apply revenue from electricity sales to repay financiers, pay water rentals, taxes, First Nations/local gov’t levys and plant operators with the balance earning a return on equity
- Which social and economic benefits does a typical IPP provide better than a traditional large public hydro project?
IPPs provide larger economic and social benefits in the following 3 ways:
1. Creates economic activity in many remote areas rather than all in one place. This spread the jobs around and reduces the boom bust cycle that mega-projects create.
2. More revenue sharing and project co-ownership opportunities for First Nations
3. More Capacity Building and resulting spin off business venture opportunities created for First Nations
- What is being done to avoid multiple transmission lines?
From BCTC website: http://www1.bctc.com/bctc/newsletters/cwc2009mar/index.html
Independent Power Projects (IPPs)
BCTC understands that the potential for multiple transmission lines from IPPs are a matter of concern for many communities.
There are several processes available that will help to address the issue of multiple transmission lines, including those conducted through BC Hydro’s Clean Power Call (CPC) and BCTC transmission planning.
Currently, BC Hydro is engaged in a CPC for 5,000 gigawatt hours of new supply. This is a request for proposals process open to IPPs throughout the Province. BC Hydro has received bid proposals totaling several times the planned acquisition, based on interest expressed by developers. Only a small percentage of those projects will be awarded contracts.
When BC Hydro receives project proposals, it conducts a project evaluation and risk assessment as part of its due diligence. In the CPC, the project evaluation and risk assessment includes an assessment of a number of factors, including the interconnection, transmission and generation impacts and costs on a portfolio basis. BCTC provides input on risks related to project and portfolio specific transmission upgrades and interconnection. This includes an assessment of regional clusters and related issues where multiple projects are located within a geographical region and have some type of interaction. This allows BC Hydro and BCTC to avoid multiple transmission lines in the area. BCTC also looks at the feasibility of building a line larger than the immediate need, to allow for future potential projects.
The Provincial government has recently established an IPP Office within the Integrated Land Management Bureau to better manage the IPP portfolio. This office will look at ways to better manage the portfolio of applications for IPP projects.
In terms of coordinated transmission planning over the long-term, the BC Utilities Commission will be conducting a review of the long-term transmission needs of the Province. While this review will not look at IPP specific interconnections, it will look at the bulk transmission improvements that may be required to access areas of high resource potential. This in turn may allow future consideration of additional coordination of transmission lines to be able to efficiently connect IPPs within these areas. More details on the review are available on the BCTC website including the Terms of Reference for the inquiry issued by the Provincial government in December: http://www.bctc.com/transmission_planning/long_term_transmission_vision
- What are the carbon footprints of different types of electricity generation technologies?
In October 2006 the UK Parliamentary Office of Science and Technology Energy and Environment Report evaluated the “Carbon Footprint of Electricity Generation” and produced the following table:
The report states:
- All electricity generation technologies generate carbon dioxide (CO2) and other greenhouse gas emissions. To compare the impacts of these different technologies accurately, the total CO2 amounts emitted throughout a system’s life must be calculated.
- “Run of river schemes have very small reservoirs (those) with weirs) or none at all so do not give rise to significant emissions during their operation. Carbon footprints for this type of hydro scheme are some of the lowest of all electricity generation technologies (<5gCO2eq/kWh).”
- “Hydroelectric storage schemes require dams. In run-of-river schemes, turbines are placed in the natural flow of a river. Once in operation, hydro schemes emit very little CO2, although some methane emissions do arise due to decomposition of flooded vegetation. Storage schemes have a higher footprint, (~10-30gCO2eq/kWh), than run-of-river schemes as they require large amounts of raw materials (steel and concrete) to construct the dam.9
- Electricity generated from wind energy has one of the lowest carbon footprints. As with other low carbon technologies, nearly all the emissions occur during the manufacturing and construction phases, arising from the production of steel for the tower, concrete for the foundations and epoxy/fibreglass for the rotor blades.10 These account for 98% of the total life cycle CO2 emissions. Emissions generated during operation of wind turbines arise from routine maintenance inspection trips. This includes use of lubricants and transport. Onshore wind turbines are accessed by vehicle, while offshore turbines are maintained using boats and helicopters. The manufacturing process for both onshore and offshore wind plant is very similar, so life cycle assessment shows that there is little difference between the carbon footprint of onshore (4.64gCO2eq/kWh) versus offshore (5.25gCO2eq/kWh) wind generation (Fig 2).11 The footprint of an offshore turbine is marginally greater because it requires larger foundations.
The use of biomass is generally classed as ‘carbon neutral’ because the CO2 released by burning is equivalent to the CO2 absorbed by the plants during their growth. However, other life cycle energy inputs affect this ‘carbon neutral’ balance, for example emissions arise from fertilizer production, harvesting, drying and transportation. Biomass fuels are much lower in energy and density than fossil fuels. This means that large quantities of biomass must be grown and harvested to produce enough feedstock for combustion in a power station. Transporting large amounts of feedstock increases life cycle CO2 emissions, so biomass electricity generation is most suited to small scale local generation facilities, or operating as combined heat and power (CHP) plants.7 The range of carbon footprints for biomass is related to the type of organic matter and the way it is burned (Fig 2). Combustion of low density miscanthus results in higher life cycle emissions (93gCO2eq/kWh), than gasification of higher density wood-chip (25gCO2eq/kWh).
Current gas powered electricity generation has a carbon footprint around half that of coal (~500gCO2eq/kWh), because gas has a lower carbon content than coal.
Coal burning power systems have the largest carbon footprint of all the electricity generation systems analysed here.
For more information on carbon footprints of energy generation read the UK Parliamentary Office of Science and Technology Energy and Environment Report Number 268, Carbon Footprint of Electricity Generation, October 2006.
- Do IPPs take possession of Crown land for their generation sites? [from P.M. at Maple Ridge News]
No. IPPs get a temporary License of Occupation to construct the project and then a lease to operate it. The land and water in the stream and all roads on public land related to the project remain in public hands.
- Once contracts expire, will IPPs be free to sell the electricity on open market? [from P.M. at Maple Ridge News]
Yes. In fact, BC’s IPPs are already free to sell electricity on the open market now. But far less than 5% of IPP electricity is sold on the open market now. IPPs have been free to sell to the export market since 1994 (when the NDP lifted the moratorium on exporting electricity they imposed in 1992). And yet no BC IPP project has ever been built based on selling to the export market. Like any other business, IPPs prefer selling to local buyers to avoid paying transportation, or in electricity, transmission costs. Further transmission lines south are heavily congested and building new transmission lines is very difficult.
- Why doesn’t BC Hydro build small, renewable energy projects? Why do we need IPPs?
IPPs can develop and build new projects at a lower cost and faster than BC Hydro can. Typically, a new project can be developed by an IPP for $2 million per megawatt (MW) of rated capacity. BC Hydro, on the other hand, has much higher overhead and corporate costs than an IPP does, even though BC Hydro can borrow funds at a slightly cheaper (provincial) rate. BC Hydro’s Alberfeldie project, an existing run-of-river facility near Cranbrook, B.C., is currently being upgraded from 5 MW to 25 MW at a cost of $3.5 million per MW. This cost is not for a new, greenfield site like most IPPs develop. In fact, some of the original facility will still be used after the upgrade is completed, which would otherwise increase the overall project cost.
- Are there any objective comparisons of the environmental impacts from power projects using different fuels and technologies?
ELECTRICITY SUPPLY & DEMAND FAQS
- What does BC Hydro say about its import-export figures?
On July 16, 2008 BC Hydro sent the following letter to the editor or the NorthEast News, entitled “BC Hydro elaborates on its import-export figures”:
Editor:
I am writing to clarify comments made in a June 25 letter to the editor. BC Hydro agrees that electricity trade is an extremely complex and at times a confusing business for most individuals.
Throughout the last several months during the Site C Stage 2 Project Definition and Consultation we have done our best to provide individuals with a better understanding of how we arrive at BC Hydro’s net import and export numbers for each fiscal year.
BC Hydro has been a net importer for the last seven of 10 years. Information about our fiscal 2007 trade figures can be found in our audited Annual Report under the heading “Consolidated Results of Operations” on pages 81-82.
To make the calculation, you take the “Trade: Electricity” sales number under “Revenues” on page 81 = 33,372 Gigawatt hours (GWh). You must then add two purchase numbers on page 82 under “Energy Costs” 1) Other electricity purchases – domestic = 5,698 GWh (this is purchased energy to meet domestic need); and 2) Other electricity purchases – trade = 33,815 GWh. The sum of these two numbers is 39,513 GWh which is our total trade imports into BC Hydro’s system.
Your readers will see that when you subtract the total trade sales 33,372 GWh from the total trade purchases 39,513 GWh BC Hydro was a net importer of 6,141 GWh in fiscal 2007. BC Hydro’s audited Annual Reports are available on our web site at www.bchydro.com
If your readers are still interested in electricity trade and would like more information or clarification I would be pleased to meet with them at the Community Consultation at 9948 – 100th Avenue in Fort St. John or they can call me at either 1-250-785-3420 or 1-877-217-0777 to discuss this topic further.
Dave Conway
BC Hydro Site C Project
Community Relations Manager
- How long has BC Hydro been a net importer?
BC Hydro Annual Report, page 68, state that BC Hydro has been a net importer for 7 of the last 8 years.
- How much electricity has BC been importing?
BC has been a net importer of electricity for since 2001 as shown on the following graph from BC Ministry of Energy, Mines and Petroleum Resources. Specific annual amounts can be found in each of BC Hydro’s annual reports which are available at www.bchydro.com. In 2006 BC Hydro’s 2006 Annual Report shows that they were a net importer of 8,696 GWh. That is 13% of BC Hydro’s total system energy of 56,273 GWh. Much of the imported electricity from Alberta and the U.S. is produced using fossil fuels such as gas and coal.

- How much electricity will BC need in the next 20 years?
BC Hydro’s recent forecast states that B.C.’s electricity demands are forecast to grow between 25 – 45% over the next 20 years. And that significant new electricity resources will be needed to close the gap. The following graph from BC Hydro’s Site C Stage 1 Report, issued December 2007 shows that in 2025 the gap will be approximately 23,000 GWh

- What are the potential electricity generation resources available in BC?
- How could groups opposed to private sector production of electricity in B.C., that say that B.C. is a net EXPORTER, based on National Energy Board (NEB) statistics, be mistaken in their interpretation?
The NEB statistics are not limited to trade data collected from BC Hydro but also include data on electricity transactions by other organizations like Teck Cominco, Alcan, Brookfield, Columbia Power, Fortis BC and a subsidiary of SaskPower. Futhermore, the NEB statistics do not include BC-Alberta transactions, but only transactions across the Canada-U.S. border. Q & A #31 confirms BC Hydro’s recent record of chronic net imports. The distinction of BC Hydro vs all BC organizations is significant because residential and small commercial customers in B.C. rely completely on BC Hydro for their electricity, whereas these other organizations have not obligation to serve domestic B.C. customers.
- What is the outlook for BC net importer/exporter position?
BC Hydro 2008 Annual Report states, on page 67’: “Fiscal 2008 was an exceptional inflow year, with inflows well above normal, resulting in BC Hydro being a net seller of electricity. The outlook for fiscal 2009 is for a return to average inflow conditions and, as a result, it is expected that BC Hydro will once again be a net importer of electricity.”
- Has BC Hydro been a net importer or net exporter in recent years?
Yes. BC Hydro 2008 Annual Report states, on page 67; “Prior to fiscal 2008, BC Hydro was a net importer of electricity for seven consecutive years due to average or below average system water conditions every year. This is available at www.bchydro.com.
- Why do we need new energy sources? Don’t we already have enough?
This province's days of having an energy surplus ended in 2001. Since then, B.C. has become a net electricity importer and will continue that way unless some significant new energy-producing projects are built.  Electricity Imports and Reservoir Flows Chart
Currently, BC Hydro is purchasing about 5,000,000 megawatt-hours annually—enough to supply 500,000 homes per year. That's part of the message contained in BC Hydro's new Integrated Energy Plan, a report released in March 2006 that illustrates a 20-year plan to solve this province's increasing reliance on imported energy. The wonderful network of large hydro dams has given the residents of B.C. clean and cheap electricity for years. In fact, B.C. residents enjoy the third lowest electricity costs in North America. However, those dams are now almost 50 years old, and simply do not generate enough power to meet our current electricity needs. Increased demand for electricity comes from population growth and economic expansion. And unless significant developments occur, British Columbia could be relying on imported electricity for almost half of all our energy needs 20 years from now. Such a situation would leave us vulnerable to inflated market prices for electricity, and at the mercy of energy shortages that occur well outside our boundaries. BC already has to import electricity from Alberta and the United States to meet our current needs. In fact, one of every eight households in BC (12%) is now dependent on imported electricity. The electricity imported from these two areas is created by burning coal, natural gas or other non-renewable sources of energy. Run-of-river hydroelectric projects emit little (if any) greenhouse gases or other air pollutants and do not deplete natural resources by consuming oil, natural gas or coal. Locally developed run-of-river projects decrease BC's reliance on out-of-province electricity for meeting our growing energy needs. - Doesn’t BC Hydro export electricity? Then why do we need more generation sources?
BC Hydro has exported electricity from B.C. to the U.S. for many years, and continues to do so even today. Since BC Hydro can store electricity in the form of water behind the many dams throughout the province, it can dispatch electricity on demand when its needed in the U.S. When the U.S. needs extra electricity during daytime hours or during the summer to power air conditioners, BC Hydro exports electricity to meet this demand. The existing coal and natural gas plants that generate electricity in the U.S. cannot increase their production for daily electricity fluctuations. BC Hydro is able to charge a high price for this exported electricity. In the evenings, BC Hydro imports electricity back from the U.S. (and Alberta) thermal power plants that cannot be shut down. BC Hydro gets this evening electricity at a much cheaper rate than it sells electricity during the day. This daily trading of electricity allows BC Hydro to make a profit from its electricity resources. However, BC Hydro still needs to import more electricity each year than it can export, and it is only getting worse. In fiscal 2005, BC Hydro had to import 12.5% more electricity than it exported. This is why new generation sources are needed in B.C. to get us back into being self-sufficient in electricity generation. Read more about B.C.'s Energy Shortfall
WIND FAQS
- Where are the major wind power areas of BC expected to be?
- Where have IPPs filed Investigative Use Permits for wind power on Vancouver Island?
- What would a wind power project in northern BC look like?
- Is use of wind power growing - or declining - around the world?
Clean and renewable wind energy is the fastest growing power sector worldwide - period. This is due to the many compelling environmental and economic benefits of wind energy. While British Columbia has a world-class wind resource, it is one of the last provinces in Canada to implement wind energy into the power system.
- Are wind turbines noisy?
Modern wind turbines are relatively quiet. Observers can have a quiet conversation when standing directly below an operating wind turbine. Regardless, the Province of British Columbia is enacting wind turbine setback regulations to ensure no sound from an operating wind turbine can reach any residential dwelling located in proximity to a wind farm.
- How much land does a wind project use?
Wind has one of the smallest footprints of any generation option. Turbines occupy about 2% of the project land area where the wind is harvested, leaving the balance for wildlife or other uses. Each typical modular turbine will typically occupy a footprint with a 15 to 20 foot diameter. Total impact of turbines is about 10 hectares per 100 MW, plus transmission and roads.
- Do wind turbines have long term negative impact on the land?
Wind leaves no flooded lands, open pits, spilled chemicals or gas exhausts. There is no watershed or underground aquifer impact. Removing a wind turbine is as simple as unbolting and removing the tower for its foundation. Other remediation may include reclaiming foundations, roads, substation and transmission.
- What happens with the wind isn’t blowing?
Wind energy, by definition, is intermittent. This means that when the wind is not strong enough to turn the blades of a wind turbine, no electricity is produced. In general, wind energy turbines require 3-3.5 m/s wind speed to start turning, and thus generate electricity. The faster the wind speed, the more energy is produced. In fact, the energy produced from a wind turbine is proportional to the cube of the wind speed. However, due to wind’s intermittent nature, the economic viability of a wind energy site depends on steady, consistent winds and not necessarily high wind speeds.
- Does intermittency mean unreliable?
While intermittent, wind energy is a reliable, stable source of energy particularly in a grid system dominated by hydro storage such as British Columbia. Long term historical data combined with monitoring technologies demonstrate that one can, with a strong sense of certainty, predict wind and wind flows. In a hydro storage system like British Columbia, wind energy on the grid will allow for greater storage of water resources. When the wind blows, water flow can be curtailed and used in less windy times, thus saving a valuable hydro resource. Also, wind energy as a resource in British Columbia tends to mirror the load use of the province. Wind energy in B.C. is most energetic during the winter, which matches the season of highest electricity demand in the province. This is also a time when much interior water is frozen as snow and ice. This winter seasonal wind energy can allow BC Hydro greater flexibility in how it operates its dams.
- What are the fuel costs of wind energy?
Wind energy can contribute to securing energy independence and climate goals today and in the future. Unlike fossil fuels, wind energy is renewable and can provide predictable costs of electricity that can commit to long term purchase agreements and a clean fuel. In British Columbia, with its excellent wind resource, this provides an indigenous and clean resource to compliment the provinces storage hyd
- What are the impacts on wildlife?
While wind energy has many compelling benefits, that does not mean that wind projects belong everywhere. Each project location in British Columbia is unique and each site undergoes an extensive BC Environmental Assessment process if the project exceeds 50 MW in total capacity. Modern wind energy, in partnership with governments, scientists and communities, continue to study and design wind sites that have the least impact to the local community and wildlife. Bird and bats studies are required for all sites in British Columbia and draw from over 20 years of study internationally and in North America. To date, no studies have determined operating wind turbines displace ungulates and other wildlife. The BC wind industry is sensitive to any impacts of project construction and access. Wind developers will continue to work extensively with government, regions, and communities to ensure appropriate measures and monitoring is in place for each site that passes the Environmental Assessment process.
RUN OF RIVER FAQS
- What are the main components of a run of river project?
- What is the maximum term of a water licence, for power purposes?
Section 12.2.2 of the Water Act includes the statement; “The Term of a license that is issued for a power purpose … is 40 years.”
- When did water licenses start to have a maximum term?
In February, 2004, the Liberal government amended the Water Act and limited the term to 40 years. Before that, previous governments issued water license with no maximum term which effectively meant those governments issued perpetual water licenses.
- Will all the ~500 Water License Applications turn into run of river projects?
No. A Water License Application, like a mining claim, is just the first baby-step on a long path to potentially building a run of river project. Just because a company has applied for a water license doesn't mean the project will be built. There are 12,000 mineral claims staked in the province but there are less than 12 producing metal mines operating in B.C. Similar to developing a mine, a run of river project requires dozens of permits, licenses, approvals, as well as bidding and winning an Electricity Purchase Agreement with BC Hydro, raising financing and of course actually building the facility.
- How do run of river projects compare with other forms of power generation on environmental impact?
According to the Ontario Power Authority study done by Senes in 2006, run of river projects have the lowest environmental impact of all forms of power plants, per the following table. Note that OPA weights all the listed factors equally except Contaminant Emissions are X10, and CO2 are X20.

- What are the facts when critics state that BC Hydro should develop new small hydro projects since their cost of production is around $6/MWh.
Building new projects is more expensive than operating old projects. BC Hydro’s Chris O’Riley, Senior Vice President of Engineering, Aboriginal Relations and Generation, stated, on February 26, 2009, during the BCUC LTAP hearing (transcript Volume 8, Page 1380 – on):
“So that's the challenge, is when you – when you re-develop these (existing BC Hydro) plants (in the 20 – 60 MW range), or put significant dollars in them, they go from a $10 or $20 a megawatt hour to, you know, $70, $80, $90 a megawatt hour. That's our, you know, the business challenge we're dealing with in terms of the ratepayer impact.”
- Some claims were made -- particularly regarding low charges or revenues flowing back to province from IPPs while profits are huge. Could you respond to that? The fees such as water licence, capacity charge and water rental seem low. Are they? [from P.M. at Maple Ridge News following meeting involving two local MLAs, Jan 2007]
Typically about one third of the electricity revenues received by a run-of-river IPP is paid back as taxes and levies to local, provincial, and federal authorities. The construction of a recent 7 MW run of river hydro project required an investment of $15 million, created 90 jobs, and paid $ 639,000 in provincial taxes and $537,000 in federal taxes (BC Stats econometric input/output, March, 2006). Each year a typical 7 MW run-of-the-river project with a penstock that produces 35 GWh/yr will pay $67,000 in water rentals and $120,000 in property/school taxes (or $200,000 if located in a municipality rather than a Regional District), plus First Nations/Community Benefits payments, plus Provincial and Federal Income Taxes. A 10 MW run of river project built in 2003 will pay about $20 million in direct taxes, fees, water rentals, and community benefits over the life of the project.
- Is it accurate -- that B.C. Hydro will pay $87 per megawatt hour for IPP power (Run of River) while the water rental rate is $1.08 per megawatt hour? [from P.M. at Maple Ridge News]
The $1.08/MWh is too low. For a typical 10 MW run-of-river project producing 35,000 MWh per year (a 40% capacity utilization factor), the annual water rental would be $2.15/MWh. More importantly, a run of river projects biggest costs are repaying the banks for their loan to build the project. The annual cost of interest and principal debt payments on a new 10 MW plant at a capital cost of $3.5 mln per MW, or $35 million would be approximately $2.6 million per year over 20 years, or $75/MWh. That is the biggest bite of the $87/MWh. Water rentals are to run of river projects as property taxes are to high rise buildings. The biggest costs of both are repaying the financiers for the construction.
Some claims were made -- particularly regarding low charges or revenues flowing back to province from IPPs while profits are huge. Could you respond to that? The fees such as water licence, capacity charge and water rental seem low. Are they? [from P.M. at Maple Ridge News following meeting involving two local MLAs, Jan 2007]
Typically about one third of the electricity revenues received by a run-of-river IPP is paid back as taxes and levies to local, provincial, and federal authorities. The construction of a recent 7 MW run of river hydro project required an investment of $15 million, created 90 jobs, and paid $ 639,000 in provincial taxes and $537,000 in federal taxes (BC Stats econometric input/output, March, 2006). Each year a typical 7 MW run-of-the-river project with a penstock that produces 35 GWh/yr will pay $67,000 in water rentals and $120,000 in property/school taxes (or $200,000 if located in a municipality rather than a Regional District), plus First Nations/Community Benefits payments, plus Provincial and Federal Income Taxes. A 10 MW run of river project built in 2003 will pay about $20 million in direct taxes, fees, water rentals, and community benefits over the life of the project.
- Is there is “gold rush” on run of river hydro projects?
No. Although there is lots of prospecting and studying on many potential site there very few run of river hydro projects actually built. Since IPPs started in BC in 1989, 18 years ago, there are 35 operating RORHs. That is only 2 per year.
And they are small. All of them total only 1600 GWh, which is 2% of all the power generated in BC. All 38 of them are less than 1/3 of BC Hydro’s proposed Site C.
Critics confuse searching-for-sites with finished-building-plants. Most critics are academics who are not at all familiar with the long risky road between the tow. Of the 400 water licenses only 35 have been built. For every 10 searches there has been 1 project built.
This is much like mining where there have been over 5 million mining claims in BC and less than 40 operating mines.
- How do run of river projects compare with other forms of power generation on Lifecycle Energy Payback Ratio?
According to Hydro Quebec’s Electricity Generation Options report in July, 2005 hydropower project have the lowest Power Plant Lifecycle Energy Payback Ratio of 13 types of power generation. The PPLEPR is the amount of energy produced by a project divided by the energy required to build, maintain & fuel it.

- Which social and economic benefits does a typical run of river project provide better than most other types of power generation?
Run of river projects provide larger benefits in the following 5 areas:
1. Since ror projects are smallish (average operating projects is only 10 MW) to get the same amount of MW results in the creation of many projects and hence a spread of economic activity in many remote areas rather than all in one place.
2. Spreading the jobs and purchase orders around and reduces the boom bust cycle that face towns that have a nearby mega-project.
3. Run of river projects have the highest proportion of local construction jobs and purchase orders per megawatt.
- The map at www.ippwatch.com shows applications for water licenses covering 25% of the area of BC.
The circles on the opening screen of that map are 12,000 times larger than the actual size of the average run of river project. The circles on the map cover an area of XXX square kilometers. The average 10 MW run of river project is XX square kilometers. The circles on the map cover an area the size of English Bay or Bowen Island. The average 10 MW run of river project head pond is the size of a soccer field. 12,000 soccer fields fit into English Bay.
Plus, of course, not all the Water License Applications will turn into projects. That map shows over 400 water power applications. Only 35 run of river projects exist today … after 20 years of efforts by IPPs to develop them.

- How does the size of a BC Hydro reservoir compare with a run-of-river reservoir?
The total volume behind ALL 35 operating run-of-river IPPs in B.C. is 0.02% of the volume behind BC Hydro most recent hydro project, the Revelstoke Dam.
THERMAL POWER FAQS - What does a gas-fired power plant look like?
- What does a biomass energy plant look like?
PERMITTING & CONSULTATION FAQS - What are the government websites for permitting and public consultation for hydro projects?
The following Province of British Columbia websites have additional information available on water power projects in BC.
A Guidebook for independent power producer development which details regulatory and legislative requirements for water power and other power project development is available by clicking here ;
Information on the status of Crown land applications and reasons for decisions is available at http://www.arfd.bc.ca/ApplicationPosting/index.jsp (includes water power projects);
British Columbia’s laws and regulations are available at http://www.bclaws.ca/;
The Environmental Assessment Office website has documentation on all power project reviews. The project reports and the specific requirements that proponents must meet as a condition of their Environmental Assessment Office certificates are available at http://www.eao.gov.bc.ca;
Water licences include requirements for minimum flows and environmental monitoring and other measures for environmental protection. All water licence information is available at the following web links: ftp://ftp.env.gov.bc.ca/pub/outgoing/lic_images/ (where licences can be found listed by licence number) and http://a100.gov.bc.ca/pub/wtrwhse/water_licences.input (where specific streams or water licence types (e.g. water power) can be searched to find specific licence numbers for specific projects); and
A document on “Opportunities for Local Government and Public Participation in Provincial Regulatory Processes for Independent Power Producers’ Projects,” describes the regulatory processes and requirements of the provincial Water Act, Land Act and Environmental Assessment Act, and is available at http://www.empr.gov.bc.ca/EAED/AEPB/AEPS/Documents/MiniGuide.pdf.
- Where can I find info on environmental permitting requirements for projects over 50 MW in size?
For more information on the environmental permitting process for projects over 50MW in size, visit the Environmental Assessment Office website at http://www.eao.gov.bc.ca
- Do IPPs smaller than 50 MW avoid a more rigorous environmental review than those over 50MW?
Projects over 50 megawatts (MW) are reviewed under the BC Environmental Assessment Office, rather than by the Land and Water BC office, but for all intents and purposes, the regulatory agencies and their people who do the reviews are the same people and departments, no matter what the size of the power project. The same regulatory review agencies are required to assess the project whether the project size is greater or less than 50MW (i.e. Fisheries and Oceans Canada, Canadian Coast Guard, Ministry of Environment, etc. still review the project no matter what the size of the project or which lead office is sending them the project information).
The primary reason for keeping the project under 50MW is due to accounting practices. Specifically, a project under 50MW can be depreciated faster than a project that is over 50 MW. This is the case for any and all renewable energy projects located anywhere in Canada. The project size of 49MW has nothing to do with avoiding any type of environmental assessment since a full environmental assessment was carried out under the Canadian Environmental Assessment Act.
- What is the British Columbia Environmental Assessment process?
British Columbia has one of the most extensive Environmental Assessment (EA) processes in Canada. In some cases a project may require a Canadian EA as well and in BC these processes are harmonized through the BC Environmental Assessment Office. Both the BCEAO and CEAA have standards set out for environmental assessment.
The comprehensive assessment EA model being followed by BC includes studies of Wildlife and Vegetation, Aboriginal and public consultation, Archaeology, Culture, and Heritage Studies, fish and Fish Habitat Impact Assessment as well as Cumulative Effects.
Extensive studies in each of these areas are determined by a EA Technical Committee made up of scientists and representatives from the Canadian Environmental Assessment Agency, Canadian Wildlife Service, Ministry of Environment (BC), Ministry of Forestry (BC), First Nations and aboriginal communities, local and regional governments, Ministry of Agriculture and Lands and the arms-length neutral body of the BC Environmental Assessment Office (EAO). The EAO and committee can also decide to draw other ministries and/or groups into the process if additional issues arise or are needed to be studied. An example of an area of study: Wildlife and Vegetation gathering of sufficient data on vegetation and wildlife resources of the study area to be able to assess the potential impacts of the project using the BCEAA/CEAA standards. BC EA wildlife studies for proposed projects in the winter ungulate / furbearer track counts, owl call playback surveys, spring migration radar and audio-visual surveys, breeding bird surveys, northern goshawk call backs, rare plant and habitat assessment classification surveys, fall migration radar and audio- visual surveys, and fall bat migration surveys. In order to complete an impact assessment for wildlife and vegetation, Valued Ecosystem Components (VECs) are selected in coordination with Canadian Wildlife Service and the Ministry of Environment. Similar extensive process are used for Terrain Stability and Geology, Hydrology and Water Quality Impacts, Land Use, Cumulative Effects, Fish and Fish Habitat Impact Assessment, and Archaeology and Aboriginal and Community Consultation.
- What are the provincial agencies focused on crown land tenure?
The Independent Power Producers Policy and Operations Branch is part of the Electricity and Alternative Energy Division (EAED) of the Ministry of Energy, Mines and Petroleum Resources. This Division facilitates thriving, competitive, reliable, efficient and environmentally responsible electricity and alternative energy sectors for the benefit of British Columbians. The Division is responsible for leading the development and maintenance of Crown land operational tenuring policies for independent power producers (IPP) projects.
The Crown Land Administration Division (CLAD) of Ministry of Agriculture and Lands is responsible for the development of a strategic and operational Crown land-use and allocation policy framework for the Province. One of CLAD’s key strategies is to lead the development of a responsive provincial strategic Crown land tenuring framework. Crown land accounts for 94% of the provincial land base and as such the province manages over 30,000 land tenures for land uses ranging from agriculture to commercial recreation to log handling to marinas to waterpower. A critical aspect of developing the framework is to ensure it is fair and considers the needs of communities, First Nations and all economic sectors whose businesses depend on secure access to Crown land and resources.
The Integrated Land Management Bureau (ILMB), created in the summer of 2005, is committed to providing high-quality, client-focused Crown land and resource management and information services. Through Front Counter BC, ILMB is providing single-point-of-contact services to businesses and individuals seeking information and authorizations for the use of Crown land and resources on behalf of a growing list of ministries and agencies. As per the Land Act, ILMB has a “toolbox” of tenure types and pricing methods to draw upon.
- What are the “Crown Land Principles”?
A key goal of the provincial government is to increase access to Crown land for environmentally responsible economic growth that benefits British Columbians. The IPP industry is a growing business sector in British Columbia that requires the use of Crown land resources to develop, operate and prosper. The Integrated Land Management Bureau allocates Crown land for many commercial uses based on guiding principles, which include:
a) optimizing access to Crown resources – faster approvals and fewer delays in the approval process, thus an efficient
regulatory process.
b) the most suitable use of Crown land – allocation according to the highest and best use of the land as determined
by referrals and analysis will generate the greatest benefits for all British Columbians.
c) efficient use – the utilization of only that land that is necessary for the project.
d) diligent use – utilization of the land for its designated purpose within an appropriate timeframe i.e. tenure cannot
serve to reserve Crown land for future use.
e) fair return to the Crown – optimize the financial return to the province from the use of Crown land resource.
f) secondary use of the land – allocating the land in a way that will ensure potential tenures for other compatible uses where possible.
PRIVATIZATION FAQS - Shoudn't an essential service like electricity by run by the government?
Not necessarily. Natural gas is just as sensitive to our economy and our well-being as electricity, and Terasen has been providing that to British Columbians for almost 20 years. The privately owned BC Electric Corp., built and operated BCs electricity system up until 1962 when it was bought by the BC government and renamed BC Hydro Power Authourity. The majority of electricity produced in Alberta and the US is generated by the private sector.
- Do all IPPs get 30 year contracts?
The contracts need not be 30 years. Since 2001 BC Hydro has offered contract terms between 15 years to 40 years. Some members of the public want them shorter to reduce BC Hydro’s commitment. Most BC Hydro customers want them longer to lock in today’s prices for as long as possible. Just like a mortgage a different length of IPP contract will impact the size of payments with longer terms resulting in lower annual payments. Long term contracts are used in many businesses. Industries that involve long-life assets (ie. hydro plants last 50 years) and/or or essential services (i.e. electricity, gas, water, transportation) typically sign long term contracts in order to optimize price and secure supply.
- Do IPPs get a guaranteed contract?
IPP contracts are not “guaranteed”. In a typical BC Hydro-IPP contract, the IPP is at risk (partially or completely) for overruns in capital and operating costs, schedule, performance (quantity, quality, safety, efficiency), and has equity and possibly debt at risk. In certain events, such as continued poor performance, BC Hydro has the contractual right to terminate the contract and take over the operations at the private partner’s expense.
Notably, if a public sector entity (i.e. BC Hydro) develops the project, the public also takes on a long term “contract”, in the sense of being forced to pay taxes for the project, regardless of project results, and with little or no control (other than indirectly in occasional elections) over performance. BC’s Fast Ferries is one of dozens of examples. Unlike IPPs, in this public sector “contract”, there are no termination rights or financial penalties available to taxpayers.
Another risk is that governments change their minds and they also have the power to write new laws. They sometimes renege or try to renege on contracts (e.g. Kemano II, Highway 407 PPP Ontario). Private partners do not have a “guaranteed” contract.
- How rapidly are IPPs taking over and privatizing BC’s power generation industry?
Very very slowly. Since 2001, IPPs share of energy generating assets in BC has increased from 7% to 9%. This is not a big amount in total and is not a rapid increase. More importantly, over 99% of all electricity generated by those IPPs has been sold under 15 – 35 year contracts to BC Hydro. So although the generating assets are owned privately, their output is owned and controlled by the crown.
- What happens when the B.C. Hydro energy purchase agreements with independent producers expire?
“It is incorrect for (anyone) to assume that once the energy purchase agreements expire IPPs will have a free hand to sell this energy elsewhere at inflated prices. Water licences issued by the Province are for a maximum of 40 years. When the term is up the IPPs right to use the land and the water ends. And the improvements stay with the land or are removed if the Province requires it. The licence holder can apply for a new agreement. But the government still holds all the cards.” Steve Davis, IPPBC President, letter to Globe & Mail, November 1, 2007 “Forty years is the maximum period of time that any of these water licences can be granted for the leases. At the end of 40 years, the Crown makes a decision to renew or not renew. If the Crown does not renew, then the asset all reverts to the Crown. So, at all times the government remains in control.” Randy Hawes, Liberal MLA, Maple Ridge–Mission “You have to ask B.C. Hydro that, but what we would hope is that there would be a situation where we could renew that contract.…I know that the common argument out there is that we would get into a situation where we would put the power on the market, but that is just not feasible.” Elisha Moreno, Spokesperson, Plutonic Power Corporation“It is early days, so it is hard for us to say what will happen when those come up. But, essentially, we would assume that, in most cases, we would be buying the power.” Susan Danard, media spokesperson at B.C. Hydro, told the Georgia Straight, April 3, 2008
- Since 2001 has new generation been limited to the private sector IPPs?
No. The public sector has brought on significant amounts of new generation since 2001. BC Hydro expanded Cheakamus, G.M. Shrum, Bridge River, and Seven Mile by 696 GWh for $143 million plus it spent $217 million on Burrard Thermal Upgrade. Also the public sector funded the Columbia Power Crown Corp.’s Brilliant project, GVRD’s Burnaby incinerator and the Hupacasath First Nation’s China Creek and provided the majority of funding (BC Hydro handed out large grants, not loans) for 2 large co-gens in pulp mills in Prince George and Kamloops. These projects cost ~ $550 million and produce a total of ~1200 GWh. BC Hydro is currently building another 70 GWh at the Aberfeldie project. In total these publicly funded projects brought on new generation of about 2000 GWh since 2001. That is about the same amount of energy as IPPs have brought on line in the same time period.
- What new public sector generation is currently under development?
BC Hydro has dozens of people working on developing the $5 billion dollar 900 MW Site C project. BC Hydro has applied to the BCUC to approve spending $323 million to increase the output of the Revelstoke Dam Project by 500 MW. BC Hydro is working on plans to apply to the BCUC for similar funding to expand the Mica Dam project. The Columbia Power Crown Corporation is developing their Brilliant Expansion (2) project to add 120 MW and 226 GWh after signing an EPA with BC Hydro in August, 2006. The District of Lake Country’s is developing their Eldorado Reservoir project after signing a similar EPA with BC Hydro. The Hupacaseth First Nations is developing their Franklin River Hydro project after also signing a BC Hydro EPA.
- Do BC IPPs charge more for new renewable power than prices across Canada?
No . BC IPPs are typically at least 30% less expensive than other parts of Canada.
Natural Resources Canada’s ecoENERGY for Renewable Power program (2007) states on page 15:
“Experiences of recent requests for proposals in Canada, as well as trends in Canadian electricity prices in both regulated and deregulated provinces, show that an acceptable average price of generating electricity from low-impact biomass, hydro and wind renewable energy sources is estimated to be in the range of 8 cents to 12 cents per kilowatt hour (kWh), depending on the size of the project, its proximity to the distribution or transmission line, the technology used and the availability of resources.
Thus NRCan has set two STP thresholds for low-impact biomass, hydro and wind technologies, based on the size of projects, to take into account the higher costs per megawatt (MW) associated with smaller projects:
1. a QP smaller than or equal to 10 MW of capacity: 13 cents/kWh or $130/MWh
2. a QP larger than 10 MW of capacity: 12 cents/kWh or $120/MWh”
These prices are at least 30% higher than the prices that BC Hydro paid to 38 BC IPPs in their F2006 Call for Tenders which averaged $86.50/MWh.
Ontario’s Standard Offer Program offers $110/MWh to IPPs producing under 10 MW of renewable electricity. BC Hydro’s draft Standard Offer Program offered an average of $78/MWh to IPPs producing under 10 MW of renewable electricity. Again BC IPPs are 30% less expensive.
- Since BC Hydro can borrow money cheaper than IPPs shouldn’t they build all new power plants?
No. BC Hydro’s cost of capital advantage is more than offset by IPPs more efficient development and construction costs. BC Hydro’s Aberfeldie run of river project will cost over 30% more to build than current IPP run of river projects. (See Q X for details). And BC Hydro has never built a windpower project or a biomass project. If the cost of borrowing money were the only thing that was the determinant of who should build electricity or capital intensive industries, then the governments would be developing real estate and buildings, the steel industry, the airline industry and everything else.
- What is the difference if a public power project fails vs if a private power project fails?
If an IPP fails, its private shareholders pay. But if a BC Hydro project fails, all British Columbians pay.
A recent example; In August 2007 Plutonic Power announced that it could not get one of the final permits on its 15 MW Rainy River hydro project (on Howe Sound) due to fish impact challenges and therefore it had exited the contract it had with BC Hydro. Unless they find a fix for the fish challenge it is almost certain that the project is dead. If so there will be no revenue from which to recover the several hundred thousand dollars spent on developing the project to date. That is a loss to Plutonics shareholders. This loss is not borne by BC Hydro or its customers. In fact, to exit the contract Plutonic had to pay BC Hydro $100,000.
Lets contrast that story with BC Hydro’s efforts to develop Hat Creek Coal. BC Hydro spent over $70 million in the 1970’s and 1980’s trying to develop a coal fired plant at Hat Creek (near Kamloops). It failed. BC Hydro ratepayers paid for the loss. Similar story on the Vancouver Island Generation Project (VIGP). BC Hydro spent over $100 million from 1998 to 2003 trying to develop a 230 MW gas-fired project at Port Alberni (and then they moved it to Nanaimo). It failed. BC Hydro ratepayers paid for the loss. In 2000 BC Hydro tried to get into the wind power business. It hired people to start up that new department. It sent them to conferences across the country to learn how. It put up a dozen met towers (~$25,000+ each). It failed, they shut down that department without generating one electron. BC Hydro ratepayers paid for the loss.
Developing power projects is risky – whether by BC Hydro or an IPP - and some projects just plain fail. If an IPP fails, its private shareholders pay. But if a BC Hydro project fails, all British Columbians pay.
- Why are IPPs better suited to developing smaller hydro power projects than is BC Hydro?
One answer is that BC Hydro doesn’t have the capability of even maintaining their own existing smaller projects, never mind building new ones. BC Hydro’s Chris O’Riley, Senior Vice President of Engineering, Aboriginal Relations and Generation, stated, on February 26, 2009, during the BCUC LTAP hearing (transcript Volume 8, Page 1380 – on):
“But we just aren't in a position to get to that, and there's a number of small plants in the kind of the 20 to 60 megawatt range that we're -- I don't like the term "run to failure", but we're maintaining them well past their -- what you would – any definition of their normal useful life, and given the more pressing issues we have around the large plants and some of the more environmentally sensitive ones, we just aren't able to get to those plants.”
- Do leading NGOs support building new renewable energy plants in BC?
EXPORT FAQS - Is the electricity from IPPs destined for the United States?
No. Over 99% of the electricity generated from all the IPP projects built and recently contracted is sold directly to BC Hydro. Most IPPs have 20-40 year sales contracts to provide electricity to BC Hydro and their BC consumers. There has never been an IPP built in the province to export electricity to the U.S. On the other hand, BC Hydro, through its subsidiary Powerex, exports significant amounts of power to the U.S. each year.
- How much long-term electricity do IPPs export?
- Do IPPs prefer to export or to sell to BC Hydro?
The high cost of transmission to, through, and beyond the B.C. border strongly motivate IPPs to sell their electricity to British Columbians. Very limited and expensive capacity at the B.C.-U.S. transmission intertie also motivates IPPs to sell within B.C. After opportunities to sell to the domestic market are exhausted IPPs may look to export. B.C.’s forestry, mining, oil & gas, fishing and agriculture industries follow this same logical preference of near-by sales over far-away sales. B.C. consumers of those commodities benefit from the economies of scale and skill enhancement that result from participating in export markets.
- Are IPPs trying to shorten their contracts with BC Hydro so they can export power sooner?
No. IPPBC’s March 3, 2005 letter to BC Hydro requested that they increase the length of their Electricity Purchase Agreements so IPPs could commit to them for up to 40 years. The length of IPP contracts has increased from 20 years in the early 1990’s to over 30 years currentl
- How does Canada's National Energy Board Act protect BC consumers from power shortages?
To export electricity the Applicant must get an Energy Removal Certificate (ERC) from the National Energy Board. My super summary of the ERC process is that the NEB Act states that no person shall export any electricity except in accordance with a permit or licence issued by the Board. To get an export permit from the NEB the Applicant must: 1. inform all those who have declared an interest in buying it 2. give them an opportunity to buy it on equally favourable terms 3. publish public notification in local newspapers 4. on some occasions hold a public hearing 5. limit contract to 30 years. 6. report on a monthly basis 7. conform to the permit conditions or risk revocation or suspension. The NEB Export Application requires about 30 specific pieces of info from the applicant. These requirements to be sufficiently conservative to protect Canadian electricity consumers yet not so onerous as to prohibit mutually beneficial trade. They have been around for over 15 years.] NEB Act is at: http://www.neb.gc.ca/clf-nsi/rpblctn/ctsndrgltn/ct/ntnlnrgybrdct-eng.html Sections most relevant to electricity export start at Part IV: DIVISION II - ELECTRICITY section 119.02 onward at http://www.neb.gc.ca/clf-nsi/rpblctn/ctsndrgltn/ct/ntnlnrgybrdctprt6-eng.html
- Have electricity prices in Washington and Oregon (who have been selling power to California for decades) risen to California levels?
No. Residential electricity rates (in $/MWh) in San Fransisco, Portand, Seattle, and Vancouver are $200, $75, $70, and $65, respectively. (see HydroQuebec Comparison of Electricity Rates in Major North American Cities, April, 2006, below). Seattle’s rates are quite close to Vancouver’s rates and very much lower than San Fransisco’s rates – despite Seattle area IPPs selling to San Fransisco for decades. Industrial and Commercial rates in also drop significantly as one goes farther north from California. 
- Will the ability of IPPs selling to California result in BC prices increasing to California levels?
No. BC prices will not increase to California levels just because BC IPPs may sell to them. Like any business, IPPs want to sell their power to the customer that offers the highest price at the IPPs plant gate. BC Hydro can buy at the plant gate with little or no transit cost. Californian buyers must pay for transmission to the border, through the border, and from the border to their area. Plus energy losses due to resistance in the wires is about 6%. Adding those together means current transit costs total about $30/MWh. IPPs that won recent BC Hydro contracts will receive about $75/MWh. A California buyer would have to offer over $105/MWh to beat BC Hydro's price.
Several non-price factors further widen that price gap including "buy local" preferences and the need to pay significant deposits to pre-book transmission capacity - and book it for say 30 years.
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