The Fukushima effect on Canadian nuclear

By Globe and Mail


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The rectangular concrete bay tasked with containing 150,000 bundles of spent uranium looks like a swimming pool, with a temperature – 30 Celsius – to match.

But the tranquil-looking body of de-mineralized water at OntarioÂ’s Darlington nuclear generator belies the painstaking, energy-intensive effort to keep it cool.

Its fuel-cooling counterpart at 40-year-old Fukushima Daiichi spent weeks emitting high levels of radiation. A blast of liquid gas stemmed a leak this week, barely 48 hours before another powerful quake further complicated efforts to contain the damage.

By then, radiation in the water, air and soil around FukushimaÂ’s crippled reactors was thousands of times the legal limit, leaving the rest of the world to confront questions about nuclear safety that most hadnÂ’t in decades.

Canada is still grappling with its hunger for power and the aging systems that fuel it: A report found CanadaÂ’s grid needs a $293-billion infusion over the next 15 years. To that end, Ontario Power Generation wants to build a pair of new reactors on the eastern side of its Darlington site, about 60 kilometres east of Toronto.

Hearings on the proposal – which asks for approval for “up to four” reactors, for a total of 4,800 megawatts of electricity – have wrapped up. Critics of nuclear power have pointed to Japan’s crisis as a cautionary sign Canada should proceed more cautiously in its own nuclear ambitions.

While CanadaÂ’s oceans and food supply havenÂ’t been tainted by radiation in significant enough amounts to threaten the public, FukushimaÂ’s ripple effects are forcing the country to re-evaluate the way it pursues and safeguards nuclear power.

The seawater wonÂ’t harm you. But unnecessary iodine may.

“You have to eat a million kilograms of seaweed to get the dose which is equivalent to the dose of a cancer treatment,” said Simon Fraser University chemist Krzysztof Starosta. “And it has to be dried. You will die of dehydration rather than radiation poisoning.”

As talk turned to a “radiation plume” in the days following the tsunami, British Columbians raided drugstore shelves for potassium iodide tablets.

They neednÂ’t have. Health Canada and independent researchers found amounts of the radioactive isotope iodine-131 in West Coast rainwater and seaweed and Washington milk to be harmless.

Natural Resources Canada, which intensified its radiation testing after March 11, scaled it back after March 25 “due to the low levels of radiation being detected.” Health Canada is now updating its continuous data collection thrice weekly.

A greater concern, said Perry Kendall, B.C.’s chief medical officer of health, is people taking the potassium iodide tablets, which generally retail between $10 and $16 a bottle, as a precautionary measure. They’d be useless – but they could also do serious damage to thyroid development, especially to women who are pregnant or breastfeeding.

FukushimaÂ’s global impact has lead some to argue nuclear regulations should be a global, rather than national, concern.

“An implication I see arising from the Japanese nuclear crisis is continued evolution in the direction of internationalized safety standards,” said energy analyst Tom Adams.

In Canada, itÂ’s now the purview of the Canadian Nuclear Safety Commission. Created in 2000 to replace the post-Second World War Atomic Energy Control Board, the commissionÂ’s seven-person panel and 600 employees are in charge of licensing nuclear plants and enforcing safety and performance regulations.

The commission has an officer stationed full-time at every nuclear plant in the country, and is meant to be an independent agency under the Natural Resources Minister. The commission couldnÂ’t immediately answer when asked whether CanadaÂ’s rules need better enforcement.

South of the border, a report this month from the Union of Concerned Scientists suggests thatÂ’s the case: A report by scientist David Lochbaum found the U.S.Â’s nuclear regulator had failed to act on multiple safety threats on U.S. plants. The rules existed, Mr. Lochbaum found, but those in charge werenÂ’t enforcing them.

Former CNSC president Linda Keen, who was fired in January, 2008 amid furor over a shutdown at Chalk River’s isotope-producing reactor, said this week there’s “no doubt” Canada’s existing nuclear laws are sufficient.

“I think regulators were just sanguine. I think they were complacent. And I think they thought that everything was in place,” she said. “Hopefully they’ll learn from it and do a better job next time.”

Operators in Canada argue that the scale of JapanÂ’s massive quake and devastating tsunami is unlikely on our own shores. But fears have arisen from the Japanese crisis and may force operators to prepare for extreme forms of devastation.

Twenty-five-year-old Darlington is built to withstand a 7.0-magnitude quake, for example, but a 9.0 quake on a Fukushima scale could do serious damage.

In case of an emergency, DarlingtonÂ’s double-shutdown system is designed to ensure the entire plant shuts down within seconds. But it would still need power to keep fuel rods from overheating, as is happening at Fukushima.

If DarlingtonÂ’s main power supply is cut off, it has standby, emergency and auxiliary generators. The emergency generators can last for seven days before running out of fuel. Whether thatÂ’s enough depends on how big a disaster theyÂ’re preparing for.

Ten days after the earthquake and tsunami, the Canadian Nuclear Safety Commission asked all operators to review those emergency procedures. Operators will submit their reviews this month the nuclear safety commission is still drafting terms of reference for the kinds of recommendations that will come of its evaluation.

Operators wonÂ’t say revamped emergency plans could prepare for more extreme contingencies: What if more emergency power is needed? What if a natural disaster causes more structural damage than expected? What if backup plans fail?

“There’ll inevitably be some sort of changes to the emergency planning arrangements,” said Bruce Power president Duncan Hawthorne. “There’ll be more rehearsal.”

In the event of an emergency, itÂ’s up to provinces to plan for the communities surrounding nuclear plants. In OntarioÂ’s case, the procedure includes informing the public through sirens and auto-dialing of residential landlines, as well as provisions for setting up mobile radiation detection stations. The sirens were declared operational in January.

But OntarioÂ’s plan assumes an evacuation radius of 10 kilometres. In FukushimaÂ’s case, residents living 20 kilometres away were evacuated. International observers argued unsafe radiation levels had penetrated almost twice that radius, and the country is considering increasing the distance.

For Canada’s busiest highway, the outcome may be anarchic. “You know how bad the 401 gets,” Ms. Keen said, referring to the crowded east-west highway. “Can you imagine if you tried to evacuate the whole Pickering area like they did in Fukushima, 20 or 30 kilometres, what that would look like?”

It may not change much, but if it does, it'll be pricey.

For many, the obvious question arising from FukushimaÂ’s aftermath is whether the reactors being used and designed in Canada have enough precautions built in. If Canada opts for higher-tech, super-safe plants, or if it replaces old ones sooner, it will make an already capital-intensive industry more expensive.

Canadian operators stress the differences between the Japanese reactors and their own. Made-in-Canada CANDU reactors come equipped with steel-and-cement cylindrical structures maintained during normal operations as a vacuum. In an emergency, they provide an emergency outlet and controlled filter for radioactive gases.

CANDU reactors also add an extra step in the turbine-powering process, using heavy water heated by nuclear fuel to create steam in a separate vessel.

“But these are not crucial points in regard to the potential for releasing radioactive material,” said Gordon Thompson, executive director of Cambridge, Mass.-based Institute for Security and Resource Studies. “That potential derives from a couple of things that are in common between the Canadian and the Japanese plants.”

In both cases, the reactorÂ’s fuel needs to be kept cool. FukushimaÂ’s fuel rods started to spew radiation when power failed and cooling stopped. If emergency power failed or emergency fuel ran out, the same could happen at a CANDU plant.

Both types of reactors surround their fuel pallets with zirconium metal. When intensely hot, it interacts with steam to create a buildup of hydrogen gas like the one that caused FukushimaÂ’s explosion in early March.

The wider criticism is that CanadaÂ’s reactors, like FukushimaÂ’s, are old and therefore more vulnerable

The destruction at Fukushima has renewed the volatile battle between nuclear energyÂ’s champions and foes.

Anti-nuclear activists seized on those images to argue nuclear power had never been as safe as it was touted to be: Lake Ontario Waterkeeper, one of the opponents to DarlingtonÂ’s new build, insists JapanÂ’s crisis indicates a complacence they think is mirrored in Canada.

The nuclear industry is mounting an aggressive defence: In both Canada and the United States, companies bought ads and airtime and published consecutive press releases touting their technology’s safety. The company that operates Indian Point nuclear plant about 60 kilometres from New York City bought ads in several area newspapers last month emphasizing that “this facility is safe – designed with a margin of safety beyond the strongest earthquake anticipated in the region.”

“Nuclear is safe. We have a very safe industry. But we can't be complacent,” said Wayne Robbins, Ontario Power Generation’s chief nuclear officer.“[Three Mile Island] taught us procedures and training we're going to learn the same kinds of things from Fukushima.”

Mr. Robbins said he doesn’t know what those “lessons learned” might be, although he said they’d want “to see how we would respond to certain events: Are our procedures good enough? Our backup power supplies, are they good enough?”

One of the biggest hurdles facing operators post-Fukushima is public perception, Mr. Adams said. “The nuke guys have a lot of credibility issues at this point.” But by focusing on the positive aspects of nuclear power, argued Mr. Thompson, government and industry players risk ignoring potential liabilities even wildly unlikely ones they should prepare for.

“If the industry and the regulators are constantly saying before the event, ‘Don’t worry, don’t worry, don’t worry, everything’s under control, nothing can possibly go wrong,’ the trouble is, if they believe it and if their staff believes it, then emergency response typically is thought of as a low-order priority.”

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Restoring power to Florida will take 'weeks, not days' in some areas

Florida Hurricane Irma Power Outages strain the grid as utilities plan rebuilds; FPL and Duke Energy deploy crews to restore transmission lines, substations, and service amid flooding, storm surge, and widespread disruptions statewide.

 

Key Points

Large-scale post-storm power losses in Florida requiring grid rebuilds, thousands of crews, and phased restoration.

✅ Utilities prioritize plants, transmission, substations, then critical facilities

✅ 50,000-60,000 workers mobilized; bucket trucks wait for safe winds

✅ Remote rerouting and hardening aid faster restoration amid flooding

 

Parts of Florida could be without electricity for more than a week, as damage from Hurricane Irma will require a complete rebuild of portions of the electricity grid, utility executives said on Monday.

Irma has knocked out power to 6.5 million Florida electricity customers, or nearly two-thirds of the state, since making landfall this weekend. In major areas such as Miami-Dade, 74 percent of the county was without power, according to Florida's division of emergency management.

Getting that power back online may require the help of 50,000 to 60,000 workers from all over the United States and Canadian power crews as well, according to Southern Company CEO and Chairman Thomas Fanning. He is also co-chair of the Electricity Subsector Coordinating Council, which coordinates the utility industry and government response to disasters and cyberthreats.

While it is not uncommon for severe storms to down power lines and damage utility poles, Irma's heavy winds and rain batted some of the state's infrastructure to the ground, Fanning said.

"'Restore' may not capture the full sense of where we are. For the very hard impacted areas, I think you're in a 'rebuild' area," he told CNBC's "Squawk Box."

"That's a big deal. People need to understand this is going to take perhaps weeks, not days, in some areas," Fanning said.

Parts of northern Florida, including Jacksonville, experienced heavy flooding, which will temporarily prevent crews from accessing some areas.

Duke Energy, which serves 1.8 million customers in parts of central and northwestern Florida, is trying to restore service to 1.2 million residences and businesses.

Florida Power & Light Company, which provides power to an estimated 4.9 million accounts across the state, had about 3.5 million customers without electricity as of Monday afternoon, said Rob Gould, vice president and chief communications officer at FPL.

The initial damage assessments suggest power can be restored to parts of the state's east coast in just days, but some of the west coast will require rebuilding that could stretch out for weeks, Gould told CNBC's "Power Lunch."

"This is not a typical restoration that you're going to see. We actually for the first time in our company history have our entire 27,000-square-mile, 35-county territory under assault by Irma," he said.

FPL said it would first repair any damage to power plants, transmission lines and substations as part of its massive response to Irma, then prioritize critical facilities such as hospitals and water treatment plants. The electricity company would then turn its attention to areas that are home to supermarkets, gas stations and other community services.

Florida utilities invested billions into their systems after devastating hurricane seasons in 2004 and 2005 in order to make them more resilient and easier to restore after a storm. Irma, which ranked among the most powerful storms in the Atlantic, has nevertheless tested those systems.

The upgrades have allowed FPL to automatically reroute power and address about 1.5 million outages, Gould said. The company strategically placed 19,500 restoration workers before the storm hit, but it cannot use bucket trucks to fix power lines until winds die down, he said.

Some parts of Florida's distribution system — the lines that deliver electricity from power plants to businesses and residences — run underground. However, the state's long coastline and the associated danger of storm surge and seawater incursion make it impractical to run lines beneath the surface in some areas.

Duke Energy has equipped 28 percent of its system with smart grid technology to reroute power remotely, according to Harry Sideris, Duke's state president for Florida. He said the company would continue to build out that capability in the future.

Duke deployed more than 9,000 linesmen and support crew members to Irma-struck areas, but cannot yet say how long some customers will be without power.

Separately, Gulf Power crews reported restoring service to more than 32,000 customers.

"At this time we do not know the exact restoration times. However, we're looking at a week or longer from the first look at the widespread damage that we had," Sideris told CNBC's "Closing Bell."

FPL said on Monday it was doing final checks before bringing back nuclear reactors that were powered down as Hurricane Irma hit Florida.

"We are in the process now of doing final checks on a few of them; we will be bringing those up," FPL President and CEO Eric Silagy told reporters.

 

 

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'Pakistan benefits from nuclear technology'

Pakistan Nuclear Energy advances clean power with IAEA guidance, supporting SDGs via electricity generation, nuclear security, and applications in healthcare, agriculture, and COVID-19 testing, as new 1,100 MW reactors near grid connection.

 

Key Points

Pakistan Nuclear Energy is the nation's atomic program delivering clean electricity, SDGs gains, and IAEA-guided safety.

✅ Two 1,100 MW reactors nearing grid connection

✅ IAEA-aligned safety and nuclear security regime

✅ Nuclear tech supports healthcare, agriculture, COVID-19 tests

 

Pakistan is utilising its nuclear technology to achieve its full potential by generating electricity, aligning with China's steady nuclear development trends, and attaining socio-economic development goals outlined by the United Nations Sustainable Development Goals.

This was stated by Pakistan Atomic Energy Commission (PAEC) Chairperson Muhammad Naeem on Tuesday while addressing the 64th International Atomic Energy Agency (IAEA) General Conference (GC) which is being held in Vienna from September 21, a forum taking place amid regional milestones like the UAE's first Arab nuclear plant startup as well.

Regarding nuclear security, the PAEC chief stated that Pakistan considered it as a national responsibility and that it has developed a comprehensive and stringent safety and security regime, echoing IAEA praise for China's nuclear security in the region, which is regularly reviewed and upgraded in accordance with IAEA's guidelines.

Many delegates are attending the event through video link due to the novel coronavirus (Covid-19) pandemic.

On the first day of the conference, IAEA Director General Rafael Mariano Grossi highlighted the role of the nuclear watchdog in the monitoring and verification of nuclear activities across the globe, as seen in Barakah Unit 1 at 100% power milestones reported worldwide.

He also talked about the various steps taken by the IAEA to help member states contain the spread of coronavirus such as providing testing kits etc.

In a recorded video statement, the PAEC chairperson said that Pakistan has a mutually beneficial relationship with IAEA, similar to IAEA assistance to Bangladesh on nuclear power development efforts. He also congratulated Ambassador Azzeddine Farhane on his election to become the President of the 64th GC and assured him of Pakistan's full support and cooperation.

Naeem stated that as a clean, affordable and reliable source, nuclear energy can play a key role, with India's nuclear program moving back on track, in fighting climate change and achieving the Sustainable Development Goals (SDGs).

The PAEC chief informed the audience that two 1,100-megawatt (MW) nuclear power plants are near completion and, like the UAE grid connection milestone, are expected to be connected to the national grid next year.

He also highlighted the role of PAEC in generating electricity through nuclear power plants, while also helping the country achieve the socio-economic development goals outlined under the United Nations SDGs through the application of nuclear technology in diverse fields like agriculture, healthcare, engineering and manufacturing, human resource development and other sectors.

 

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New fuel cell could help fix the renewable energy storage problem

Proton Conducting Fuel Cells enable reversible hydrogen energy storage, coupling electrolyzers and fuel cells with ceramic catalysts and proton-conducting membranes to convert wind and solar electricity into fuel and back to reliable grid power.

 

Key Points

Proton conducting fuel cells store renewable power as hydrogen and generate electricity using reversible catalysts.

✅ Reversible electrolysis and fuel-cell operation in one device

✅ Ceramic air electrodes hit up to 98% splitting efficiency

✅ Scalable path to low-cost grid energy storage with hydrogen

 

If we want a shot at transitioning to renewable energy, we’ll need one crucial thing: technologies that can convert electricity from wind, sun, and even electricity from raindrops into a chemical fuel for storage and vice versa. Commercial devices that do this exist, but most are costly and perform only half of the equation. Now, researchers have created lab-scale gadgets that do both jobs. If larger versions work as well, they would help make it possible—or at least more affordable—to run the world on renewables.

The market for such technologies has grown along with renewables: In 2007, solar and wind provided just 0.8% of all power in the United States; in 2017, that number was 8%, according to the U.S. Energy Information Administration. But the demand for electricity often doesn’t match the supply from solar and wind, a key reason why the U.S. grid isn't 100% renewable today. In sunny California, for example, solar panels regularly produce more power than needed in the middle of the day, but none at night, after most workers and students return home.

Some utilities are beginning to install massive banks of cheaper solar batteries in hopes of storing excess energy and evening out the balance sheet. But batteries are costly and store only enough energy to back up the grid for a few hours at most. Another option is to store the energy by converting it into hydrogen fuel. Devices called electrolyzers do this by using electricity—ideally from solar and wind power—to split water into oxygen and hydrogen gas, a carbon-free fuel. A second set of devices called fuel cells can then convert that hydrogen back to electricity to power cars, trucks, and buses, or to feed it to the grid.

But commercial electrolyzers and fuel cells use different catalysts to speed up the two reactions, meaning a single device can’t do both jobs. To get around this, researchers have been experimenting with a newer type of fuel cell, called a proton conducting fuel cell (PCFC), which can make fuel or convert it back into electricity using just one set of catalysts.

PCFCs consist of two electrodes separated by a membrane that allows protons across. At the first electrode, known as the air electrode, steam and electricity are fed into a ceramic catalyst, which splits the steam’s water molecules into positively charged hydrogen ions (protons), electrons, and oxygen molecules. The electrons travel through an external wire to the second electrode—the fuel electrode—where they meet up with the protons that crossed through the membrane. There, a nickel-based catalyst stitches them together to make hydrogen gas (H2). In previous PCFCs, the nickel catalysts performed well, but the ceramic catalysts were inefficient, using less than 70% of the electricity to split the water molecules. Much of the energy was lost as heat.

Now, two research teams have made key strides in improving this efficiency, and a new fuel cell concept brings biological design ideas into the mix. They both focused on making improvements to the air electrode, because the nickel-based fuel electrode did a good enough job. In January, researchers led by chemist Sossina Haile at Northwestern University in Evanston, Illinois, reported in Energy & Environmental Science that they came up with a fuel electrode made from a ceramic alloy containing six elements that harnessed 76% of its electricity to split water molecules. And in today’s issue of Nature Energy, Ryan O’Hayre, a chemist at the Colorado School of Mines in Golden, reports that his team has done one better. Their ceramic alloy electrode, made up of five elements, harnesses as much as 98% of the energy it’s fed to split water.

When both teams run their setups in reverse, the fuel electrode splits H2 molecules into protons and electrons. The electrons travel through an external wire to the air electrode—providing electricity to power devices. When they reach the electrode, they combine with oxygen from the air and protons that crossed back over the membrane to produce water.

The O’Hayre group’s latest work is “impressive,” Haile says. “The electricity you are putting in is making H2 and not heating up your system. They did a really good job with that.” Still, she cautions, both her new device and the one from the O’Hayre lab are small laboratory demonstrations. For the technology to have a societal impact, researchers will need to scale up the button-size devices, a process that typically reduces performance. If engineers can make that happen, the cost of storing renewable energy could drop precipitously, thereby moving us closer to cheap abundant electricity at scale, helping utilities do away with their dependence on fossil fuels.

 

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Ontario Extends Off-Peak Electricity Rates to Provide Relief for Families, Small Businesses and Farms

Ontario Off-Peak Electricity Rate Relief extends 8.5 cents/kWh pricing 24/7 for residential, small business, and farm customers, covering Time-Of-Use and tiered plans to stabilize utility bills during COVID-19 Stay-at-Home measures across Ontario.

 

Key Points

A province-wide 8.5 cents/kWh price applied 24/7 until Feb 22, 2021 for TOU and tiered users to reduce electricity bills

✅ 8.5 cents/kWh, applied 24/7 through Feb 22, 2021

✅ Available to TOU and tiered OEB-regulated customers

✅ Automatic on bills for homes, small businesses, farms

 

The Ontario government is once again extending electricity rate relief for families, small businesses and farms to support those spending more time at home while the province maintains the Stay-at-Home Order in the majority of public health regions. The government will continue to hold electricity prices to the off-peak rate of 8.5 cents per kilowatt-hour, compared with higher peak rates elsewhere in the day, until February 22, 2021. This lower rate is available 24 hours per day, seven days a week for Time-Of-Use and tiered customers.

"We know staying at home means using more electricity during the day when electricity prices are higher, that's why we are once again extending the off-peak electricity rate to provide households, small businesses and farms with stable and predictable electricity bills when they need it most," said Greg Rickford, Minister of Energy, Northern Development and Mines, Minister of Indigenous Affairs. "We thank Ontarians for continuing to follow regional Stay-at-Home orders to help stop the spread of COVID-19."

The off-peak rate came into effect January 1, 2021, providing families, farms and small businesses with immediate electricity rate relief, and for industrial and commercial companies, stable pricing initiatives have provided additional certainty. The off-peak rate will now be extended until the end of day February 22, 2021, for a total of 53 days of emergency rate relief. During this period, and alongside temporary disconnect moratoriums for residential customers, the off-peak price will continue to be automatically applied to electricity bills of all residential, small business, and farm customers who pay regulated rates set by the Ontario Energy Board and get a bill from a utility.

"We extend our thanks to the Ontario Energy Board and local distribution companies across the province, including Hydro One, for implementing this extended emergency rate relief and supporting Ontarians as they continue to work and learn from home," said Bill Walker, Associate Minister of Energy.

 

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Metering Pilot projects may be good example for Ontario utilities

Ontario Electricity Pricing Pilot Projects explore alternative rates beyond time-of-use, with LDCs and the Ontario Energy Board testing dynamic pricing, demand management, smart-meter billing, and residential customer choice to enhance service and energy efficiency.

 

Key Points

Ontario LDC trials testing alternatives to time-of-use rates to improve billing, demand response, and efficiency.

✅ Data shared across LDCs and Ontario Energy Board provincewide

✅ Tests dynamic pricing, peak/off-peak plans, demand management

✅ Insights to enhance customer choice, bills, and energy savings

 

The results from three electricity pilot projects being offered in southern Ontario will be valuable to utility companies across the province.

Ontario Energy Minister Glenn Thibeault was in Barrie on Tuesday to announce the pilot projects, which will explore alternative pricing plans for electricity customers from three different utility companies, informed by the electricity cost allocation framework guiding rate design.

"Everyone in the industry is watching to see how the pilots deliver.", said Wendy Watson, director of communications for Greater Sudbury Utilities.

"The data will be shared will all the LDCs [local distribution companies] in the province, and probably beyond...because the industry tends to share that kind of information."

Most electricity customers in the province are billed using time-of-use rates, including options like the ultra-low overnight rates that lower costs during off-peak periods, where the cost of electricity varies depending on demand.

The Ontario Energy Board said in a media release that the projects will give residential customers more choice in how much they pay for electricity at different times, reflecting changes for Ontario electricity consumers that expand plan options.

Pilot projects can help improve service

Watson says these kinds of projects give LDCs the chance to experiment and explore new ways of delivering their service, including demand-response initiatives like the Peak Perks program that encourage conservation.

"Any pilot project is a great way to see if in practice if the theory proves out, so I think it's great that the province is supporting these LDCs," she says.

GSU recently completed its own pilot project, the Home Energy Assessment and Retrofit (HEAR) program, which focused on customers who use electric baseboards to heat their homes, amid broader provincial support for electric bills to ease costs."We installed some measures, like programmable thermostats and a few other pieces of equipment into their house," Watson says. "We also made some recommendations about other things that they could do to make their homes more energy efficient."

At the end of the program, GSU provided customers with a report so that they could the see the overall impact on their energy consumption.

Watson says a report on the results of the HEAR program will be released in the near future, for other LDCs interested in new ways to improve their service.

"We think it's incumbent on every LDC...to see what ideas that they can come up with and get approved so they can best serve their customers."

 

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India is now the world’s third-largest electricity producer

India Electricity Production 2017 surged to 1,160 BU, ranking third globally; rising TWh output with 334 GW capacity, strong renewables and thermal mix, 7% CAGR in generation, and growing demand, investments, and FDI inflows.

 

Key Points

India's 2017 power output reached 1,160 BU, third globally, supported by 334 GW capacity, rising renewables, and 7% CAGR.

✅ 1,160 BU generated; third after China and the US

✅ Installed capacity 334 GW; 65% thermal, rising renewables

✅ Generation CAGR ~7%; demand, FDI, investments rising

 

India now generates around 1,160.1 billion units of electricity in financial year 2017, up 4.72% from the previous year, and amid surging global electricity demand that is straining power systems. The country is behind only China which produced 6,015 terrawatt hours (TWh. 1 TW = 1,000,000 megawatts) and the US (4,327 TWh), and is ahead of Russia, Japan, Germany, and Canada.


 

India’s electricity production grew 34% over seven years to 2017, and the country now produces more energy than Japan and Russia, which had 27% and 8.77% more electricity generation capacity installed, respectively, than India seven years ago.

India produced 1,160.10 billion units (BU) of electricity–one BU is enough to power 10 million households (one household using average of about 3 units per day) for a month–in financial year (FY) 2017. Electricity production stood at 1,003.525 BU between April 2017-January 2018, according to a February 2018 report by India Brand Equity Foundation (IBEF), a trust established by the commerce ministry.

#google#

With a production of 1,423 BU in FY 2016, India was the third largest producer and the third largest consumer of electricity in the world, behind China (6,015 BU) and the United States (4,327 BU).

With an annual growth rate of 22.6% capacity addition over a decade to FY 2017, renewables beat other power sources–thermal, hydro and nuclear. Renewables, however, made up only 18.79% of India’s energy, up 68.65% since 2007, and globally, low-emissions sources are expected to cover most demand growth in the coming years. About 65% of installed capacity continues to be thermal.

As of January 2018, India has installed power capacity of 334.4 gigawatt (GW), making it the fifth largest installed capacity in the world after European Union, China, United States and Japan, and with much of the fleet coal-based, imported coal volumes have risen at times amid domestic supply constraints.

The government is targeting capacity addition of around 100 GW–the current power production of United Kingdom–by 2022, as per the IBEF report.


 

Electricity generation grew at 7% annually

India achieved a 34.48% growth in electricity production by producing 1,160.10 BU in 2017 compared to 771.60 BU in 2010–meaning that in these seven years, electricity production in India grew at a compound annual growth rate (CAGR) of 7.03%, while thermal power plants' PLF has risen recently amid higher demand and lower hydro.

 

Generation capacity grew at 10% annually

Of 334.5 GW installed capacity as of January 2018–up 60% from 132.30 GW in 2007–thermal installed capacity was 219.81 GW. Hydro and renewable energy installed capacity totaled 44.96 GW and 62.85 GW, respectively, said the report.

The CAGR in installed capacity over a decade to 2017 was 10.57% for thermal power, 22.06% for renewable energy–the fastest among all sources of power–2.51% for hydro power and 5.68% for nuclear power.

 

Growing demand, higher investments will drive future growth

Growing population and increasing penetration of electricity connections, along with increasing per-capita usage would provide further impetus to the power sector, said the report.

Power consumption is estimated to increase from 1,160.1 BU in 2016 to 1,894.7 BU in 2022, as per the report, though electricity demand fell sharply in one recent period.

Increasing investment remained one of the driving factors of power sector growth in the country.

Power sector has a 100% foreign direct investment (FDI) permit, which boosted FDI inflows in the sector.

Total FDI inflows in the power sector reached $12.97 billion (Rs 83,713 crore) during April 2000 to December 2017, accounting for 3.52% of FDI inflows in India, the report said.

 

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