We are not paying enough for power

By Globe and Mail


Electrical Testing & Commissioning of Power Systems

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We are paying too much for green power dreams and we are paying too little for electricity.

Consumers in Ontario and across the country should pay a higher price for electricity, especially in peak periods, to reflect its environmental cost and the cost of new generating facilities.

Electricity prices have been a tricky political issue for the provinces. In May of 2002, Ontario capped prices at 4.3 cents per kilowatt hour, crippling the new wholesale market.

The province eventually ended up with the Ontario Energy Board, which regulates the electricity sector, setting prices that are not representative of the cost of peak period generation or new generation facilities. During the winter, Ontario residential consumers pay 5.8 cents a kWh on the first 1,000 kWh a month, with the rest priced at 6.7 cents a kWh.

Similarly, other provinces (except Alberta) have fixed prices for electricity that encourage wasteful consumption.

The first reason for higher consumer prices in Ontario is that the Green Energy Act is committing Ontarians to high costs for green power. The Green Energy Act authorizes the Ontario Power Authority, which buys power from producers for the wholesale market, to pay high prices for renewable power ranging from 13.5 cents per kWh for wind to 80 cents per kWh for solar power.

This expensive electricity is blended with low-cost electricity from existing facilities. This obscures the real cost of electricity, encouraging consumers to use and waste more than they would if they paid the actual price for electricity from the new facilities.

Second, consumers are not bearing the environmental cost of fossil fuel-based electricity. We can only reduce our carbon emissions when there is a price on those emissions, either from cap-and-trade or from a carbon tax. Any cap or price on carbon will translate into higher consumer costs for fossil-based energy.

Third, future nuclear facilities and plausible new hydroelectric facilities probably will cost much more than the current electricity price. Natural gas-fired electric power to produce power during peak periods is also likely to cost much more than the current wholesale price. When the consumer price of electricity is about 6 cents and new production will cost much more, we are wasting money to produce something worth less to consumers than it cost to produce.

One way to reduce our need for expensive new generation is to reduce peak electricity demand through time-of-use pricing. This pricing sets a high price during weekday mornings and/or afternoons when demand is high, and a low price at night and on weekends when demand is low.

Time-of-use pricing will reduce the need for "peak period" generation that is needed for only a few hours a week and has historically been the most expensive type of generation to operate.

Ontario is moving in the direction of time-of-use pricing, and most small consumers will be on it by the end of next year. We should go one step further and add critical peak pricing to time-of-use pricing. With peak pricing, customers pay a time-of-use price most of the time, but they are exposed to a peak price on a limited number of days a year when demand threatens to exceed supply. When excess demand is anticipated, the electricity system operator declares that the next day will be a critical peak day and the price during that period will be much higher than usual; consumers respond by cutting their consumption. Off-peak prices on other days are reduced so consumers do not pay a higher average cost over the year.

Such a system is helpful on a hot summer afternoon when air conditioners are blasting. The moral suasion of asking people to turn off air conditioners for a few hours when the system is strained is nowhere near as effective as making the cost of running an air conditioner higher. Experience has shown that peak pricing can achieve further reductions in peak demand, cutting the need for expensive new peak-capacity generation (which is usually fossil fuel-based).

The bottom line is that current electricity prices do not reflect electricity's environmental effects or the costs of Green Energy Act policies. Reforming pricing so peak period prices reflect environmental costs and the cost of new generation facilities can move us toward an environmentally and financially responsible electricity future.

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Renewable growth drives common goals for electricity networks across the globe

Energy Transition Grid Reforms address transmission capacity, interconnection, congestion management, and flexibility markets, enabling renewable integration and grid stability while optimizing network charges and access in Australia, Ireland, and Great Britain.

 

Key Points

Measures to expand transmission, boost flexibility, and manage congestion for reliable, low-carbon electricity systems.

✅ Transmission upgrades and interconnectors ease congestion

✅ Flexible markets, DER, and storage bolster grid stability

✅ Evolving network charges and access incentivize siting

 

Electricity networks globally are experiencing significant increases in the volume of renewable capacity as countries seek to decarbonise their power sectors, even as clean energy's 'dirty secret' highlights integration trade-offs, without impacting the security of supply. The scale of this change is creating new challenges for power networks and those responsible for keeping the lights on.

The latest insight paper from Cornwall Insight – Market design amidst global energy transition – looks into this issue. It examines the outlook for transmission networks, and how legacy design and policies are supporting decarbonisation, aligning with IRENA findings on renewables and shaping the system. The paper focuses on three key markets; Australia, Ireland and Great Britain (GB).

Australia's main priority is to enhance transmission capacity and network efficiency; as concerns over excess solar risking blackouts grow in distribution networks, without this, the transmission system will be a barrier to growth for decentralised flexibility and renewables. In contrast, GB and Ireland benefit from interconnection with other national markets. This provides them with additional levers that can be pulled to manage system security and supply. However, they are still trying to hone and optimise network flexibility in light of steepening decarbonisation objectives.

Unsurprisingly, renewable energy resources have been growing in all three markets, with Ireland regarded as a leader in grid integration, with this expected to continue for the foreseeable future. Many of these projects are often located in places where network infrastructure is not as well developed, creating pressure on system operation as a result.

In all three markets, unit charges are rising, driven by a reduced charging base as decentralised energy grows quickly. This combination of changes is leading to network congestion, a challenge mirrored by the US grid overhaul for renewables underway, as transmission network development struggles to keep up, and flexibility markets are being optimised and changed.

In summary, reforms are on-going in each jurisdiction to accommodate the rapid physical transformation of the generation mix. Each has its objectives and tensions which are reflective of wider global reform programmes being undertaken in most developed, liberalised and decarbonising energy markets.

Gareth Miller, CEO of Cornwall Insight, said: “Despite differences in market design and characteristics, all three markets are grappling with similar issues, that comes from committing to deep decarbonisation. This includes the most appropriate methods for charging for networks, managing access to them and dealing with issues such as network congestion and constraint.

“In all three countries, renewable projects are often placed in isolated locations, as seen in Scotland where more pylons are needed to keep the lights on, away from the traditional infrastructure that is closer to demand. However, as renewable growth is set to continue, the networks will need to transition from being demand-centric to more supply orientated.

“Both system operators and stakeholders will need to continually evaluate their market structures and designs to alleviate issues surrounding locational congestion and grid stability. Each market is at very different stages in the process in trying to improve any problems implementing solutions to allow for higher efficiencies in renewable energy integration.

“It is uncertain whether any of the proposed changes will fundamentally resolve the issues that come with increased renewables on the system. However, despite marked differences, they certainly could all learn from each other and elements of their network arrangements, as well as from US decarbonisation strategies research.”

 

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Hydro One Q2 profit plunges 23% as electricity revenue falls, costs rise

Hydro One Q2 Earnings show lower net income and EPS as mild weather curbed electricity demand; revenue missed Refinitiv estimates, while tree-trimming costs rose and the dividend remained unchanged for Ontario's grid operator.

 

Key Points

Hydro One Q2 earnings fell to $155M, EPS $0.26, revenue $1.41B; costs rose, demand eased, dividend held at $0.2415.

✅ Net income $155M; EPS $0.26 vs $0.34 prior year

✅ Revenue $1.41B; missed $1.44B estimate

✅ Dividend steady at $0.2415 per share

 

Hydro One Ltd.'s (H.TO 0.25%) second-quarter profit fell by nearly 23 per cent from last year to $155 million as the electricity utility reported spending more on tree-trimming work due to milder temperatures that also saw customers using less power, notwithstanding other periods where a one-time court ruling gain shaped quarterly results.

The Toronto-based company - which operates most of Ontario's power grid - and whose regulated rates are subject to an OEB decision, says its net earnings attributable to shareholders dropped to 26 cents per share from 34 cents per share when Hydro One had $200 million in net income.

Adjusted net income was also 26 cents per share, down from 33 cents per diluted share in the second quarter of 2018, while executive pay, including the CEO salary, drew public scrutiny during the period.

Revenue was $1.41 billion, down from $1.48 billion, while revenue net of purchased power was $760 million, down from $803 million, and across the sector, Manitoba Hydro's debt has surged as well.

Separately, Ontario introduced a subsidized hydro plan and tax breaks to support economic recovery from COVID-19, which could influence consumption patterns.

Analysts had estimated $1.44 billion of revenue and 27 cents per share of adjusted income, and some investors cite too many unknowns in evaluating the stock, according to financial markets data firm Refinitiv.

The publicly traded company, which saw a share-price drop after leadership changes and of which the Ontario government is the largest shareholder, says its quarterly dividend will remain at 24.15 cents per share for its next payment to shareholders in September.

 

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Nelson, B.C. Gets Charged Up on a New EV Fast-Charging Station

Nelson DC Fast-Charging EV Station delivers 50-kilowatt DCFC service at the community complex, expanding EV infrastructure in British Columbia with FortisBC, faster than Level 2 chargers, supporting clean transportation, range confidence, and highway corridor travel.

 

Key Points

A 50 kW public DC fast charger in Nelson, BC, run by FortisBC, providing rapid EV charging at the community complex.

✅ 50 kW DCFC cuts charge time to about 30 minutes

✅ $9 per half hour session; convenient downtown location

✅ Funded by NRCan, BC government, and FortisBC

 

FortisBC and the City of Nelson celebrated the opening of Nelson's first publicly available direct current fast-charging (DCFC) electric vehicle (EV) station on Friday.

"Adopting EV's is one of many ways for individuals to reduce carbon emissions," said Mayor John Dooley, City of Nelson. "We hope that the added convenience of this fast-charging station helps grow EV adoption among our community, and we appreciate the support from FortisBC, the province and the federal government."

The new station, located at the Nelson and District Community Complex, provides a convenient and faster charge option right in the heart of the commercial district and makes Nelson more accessible for both local and out-of-town EV drivers. The 50-kilowatt station is expected to bring a compact EV from zero to 80 per cent charged in about a half an hour, as compared to the four Level-2 charging stations located in downtown Nelson that require from three to four hours. The cost for a half hour charge at the new DC fast-charging station is $9 per half hour.

This fast-charging station was made possible through a partnership between FortisBC, the City of Nelson, Nelson Hydro, the Province of British Columbia and Natural Resources Canada. As part of the partnership, the City of Nelson is providing the location and FortisBC will own and manage the station.

This is the latest of 12 fast-charging stations FortisBC has built over the last year with support from municipalities and all levels of government, and adds to the five FortisBC-owned Kootenay stations that were opened as part of the accelerate Kootenays initiative in 2018.

All 12 stations were 50 per cent funded by Natural Resources Canada, 25 per cent by BC Ministry of Energy, Mines and Petroleum Resources and the remaining 25 per cent by FortisBC. The funding is provided by Natural Resources Canada's Electric Vehicle and Alternative Fuel Infrastructure Deployment Initiative, which aims to establish a coast-to-coast network of fast-chargers along the national highway system, natural gas refueling stations along key freight corridors and hydrogen refueling stations in major metropolitan areas. It is part of the Government of Canada's more than $180-billion Investing in Canada infrastructure plan. The Government of British Columbia is also contributing $300,000 towards the fast-chargers through its Clean Energy Vehicle Public Fast Charging Program.

This station brings the total DCFC chargers FortisBC owns and operates to 17 stations across 14 communities in the southern interior. FortisBC continues to look for opportunities to expand this network as part of its 30BY30 goal of reducing emissions from its customers by 30 per cent by 2030. For more information about the FortisBC electric vehicle fast-charging network, visit: fortisbc.com/electricvehicle.

"Electric vehicles play a key role in building a cleaner future. We are pleased to work with partners like FortisBC and the City of Nelson to give Canadians greener options to drive where they need to go, " said The Honourable Seamus O'Regan, Canada's Minister of Natural Resources.

"Nelson's first public fast-charging EV station increases EV infrastructure in the city, making it easier than ever to make the switch to cleaner transportation. Along with a range of rebates and financial incentives available to EV drivers, it is now more convenient and affordable to go electric and this station is a welcome addition to our EV charging infrastructure," said Michelle Mungall, BC's Minister of Jobs, Economic Development and Competitiveness, and MLA for Nelson Creston.

"Building the necessary DC fast-charging infrastructure, such as the Lillooet fast-charging site in British Columbia, close to highways and local amenities where drivers need them most is a critical step in growing electric vehicle adoption. Collaborations like this are proving to be an effective way to achieve this, and I'd like to thank all the program partners for their commitment in opening this important station, " said Mark Warren, Director of Business Innovation, FortisBC.

 

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EV Fires Raise Health Concerns for Firefighters

EV Firefighter Cancer Risks: lithium-ion battery fires, toxic metals like nickel and chromium, hazardous smoke plumes, and prolonged exposure threaten first responders; SCBA use, decontamination, and evidence-based protocols help reduce occupational health impacts.

 

Key Points

Health hazards from EV battery fires exposing responders to toxic metals and smoke, elevating long-term cancer risk.

✅ Nickel and chromium in EV smoke linked to lung and sinus cancers

✅ Use SCBA, on-scene decon, and post-incident cleaning to cut exposure

✅ Adopt EV fire SOPs: cooling, monitoring, isolation, air monitoring

 

As electric vehicles (EVs) become more popular, the EV fire risks to firefighters are becoming an increasing concern. These fires, fueled by the high-capacity lithium-ion batteries in EVs, produce dangerous chemical exposures that could have serious long-term health implications for first responders.

Claudine Buzzo, a firefighter and cancer survivor, knows firsthand the dangers that come with the profession. She’s faced personal health battles, including rare pancreatic cancer and breast cancer, both of which she attributes to the hazards of firefighting. Now, as EV adoption increases and some research links adoption to fewer asthma-related ER visits in local communities, Buzzo and her colleagues are concerned about how EV fires might add to their already heavy exposure to harmful chemicals.

The fire risks associated with EVs are different from those of traditional gasoline-powered vehicles. Dr. Alberto Caban-Martinez, who is leading a study at the Sylvester Comprehensive Cancer Center, explains that the high concentrations of metals released in the smoke from an EV fire are linked to various cancers. For instance, nickel, a key component in EV batteries, is associated with lung, nasal, and laryngeal cancers, while chromium, another metal found in some EV batteries, is linked to lung and sinus cancers.

Research from the Firefighter Cancer Initiative indicates that the plume of smoke from an EV fire contains significantly higher concentrations of these metals than fires from traditional vehicles. This raises the risk of long-term health problems for firefighters who respond to such incidents.

While the Electric Vehicle Association acknowledges the risks associated with various types of vehicle fires, they maintain that the lithium-ion batteries in EVs may not present a significantly higher risk than other common fire hazards, even as broader assessments suggest EVs are not a silver bullet for climate goals. Nonetheless, the growing body of research is causing concern among health experts, urging for further studies into how these new types of fires could affect firefighter health and how upstream electricity generation, where 18% of electricity in 2019 came from fossil fuels in Canada, factors into overall risk perceptions.

Fire departments and health researchers are working to understand the full scope of these risks and are emphasizing the importance of protective gear, such as self-contained breathing apparatuses, to minimize exposure during EV fire responses, while also considering questions like grid impacts during charging operations and EV sustainability improvements in different regions.

 

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Grounding and Bonding and The NEC - Section 250

Electrical Grounding and Bonding NEC 250 Training equips electricians with Article 250 expertise, OSHA compliance knowledge, lightning protection strategies, and low-impedance fault current path design for safer industrial, commercial, and institutional power systems.

 

Key Points

Live NEC 250 course on grounding and bonding, covering safety, testing, and OSHA-compliant design.

✅ Interprets NEC Article 250 grounding and bonding rules

✅ Designs low-impedance fault current paths for safety

✅ Aligns with OSHA, lightning protection, and testing best practices

 

The Electricity Forum is organizing a series of live online Electrical Grounding and Bonding - NEC 250 training courses this Fall:

  • September 8-9 , 2020 - 10:00 am - 4:30 pm ET
  • October 29-30 , 2020 - 10:00 am - 4:30 pm ET
  • November 23-24 , 2020 - 10:00 am - 4:30 pm ET

 

This interactive 12-hour live online instructor-led  Grounding and Bonding and the NEC Training course takes an in-depth look at Article 250 of the National Electrical Code (NEC) and is designed to give students the correct information they need to design, install and maintain effective electrical grounding and bonding systems in industrial, commercial and institutional power systems, with substation maintenance training also relevant in many facilities.

One of the most important AND least understood sections of the NEC is the section on Electrical Grounding, where resources like grounding guidelines can help practitioners navigate key concepts.

No other section of the National Electrical Code can match Article 250 (Grounding and Bonding) for confusion that leads to misapplication, violation, and misinterpretation. It's generally agreed that the terminology used in Section 250 has been a source for much confusion for industrial, commercial and institutional electricians. Thankfully, this has improved during the last few revisions to Article 250.

Article 250 covers the grounding requirements for providing a path to the earth to reduce overvoltage from lightning, with lightning protection training providing useful context, and the bonding requirements for a low-impedance fault current path back to the source of the electrical supply to facilitate the operation of overcurrent devices in the event of a ground fault.

Our Electrical Grounding Training course will address all the latest changes to  the Electrical Grounding rules included in the NEC, and relate them to VFD drive training considerations for modern systems.

Our course will cover grounding fundamentals, identify which grounding system tests can prevent safety and operational issues at your facilities, and introduce related motor testing training topics, and details regarding which tests can be conducted while the plant is in operation versus which tests require a shutdown will be discussed. 

Proper electrical grounding and bonding of equipment helps ensure that the electrical equipment and systems safely remove the possibility of electric shock, by limiting the voltage imposed on electrical equipment and systems from lightning, line surges, unintentional contact with higher-voltage lines, or ground-fault conditions. Proper grounding and bonding is important for personnel protection, with electrical safety tips offering practical guidance, as well as for compliance with OSHA 29 CFR 1910.304(g) Grounding.

It has been determined that more than 70 per cent of all electrical problems in industrial, commercial and institutional power systems, including large projects like the New England Clean Power Link, are due to poor grounding, and bonding errors. Without proper electrical grounding and bonding, sensitive electronic equipment is subjected to destruction of data, erratic equipment operation, and catastrophic damage. This electrical grounding and bonding training course will National Electrical Code.

Complete course details here:

https://electricityforum.com/electrical-training/electrical-grounding-nec

 

 

 

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A tidal project in Scottish waters just generated enough electricity to power nearly 4,000 homes

MeyGen Tidal Stream Project delivers record 13.8 GWh to Scotland's grid, showcasing renewable ocean energy. Simec Atlantis Energy's 6 MW array of tidal turbines advances EU power goals and plans an ocean-powered data center.

 

Key Points

A Scottish tidal energy array exporting record power, using four 1.5 MW turbines and driving renewable innovation.

✅ Delivered 13.8 GWh to the grid in 2019, a project record.

✅ Four 1.5 MW turbines in Phase 1A, 6 MW installed.

✅ Plans include an ocean-powered data center near site.

 

A tidal power project in waters off the north coast of Scotland, where Scotland’s wind farms also deliver significant output, sent more than 13.8 gigawatt hours (GWh) of electricity to the grid last year, according to an operational update issued Monday. This figure – a record – almost doubled the previous high of 7.4 GWh in 2018.

In total, the MeyGen tidal stream array has now exported more than 25.5 GWh of electricity to the grid since the start of 2017, according to owners Simec Atlantis Energy. Phase 1A of the project is made up of four 1.5 megawatt (MW) turbines.

The 13.8 GWh of electricity exported in 2019 equates to the average yearly electricity consumption of roughly 3,800 “typical” homes in the U.K., where wind power records have been set recently, according to the company, with revenue generation amounting to £3.9 million ($5.09 million).

Onshore maintenance is now set to be carried out on the AR1500 turbine used by the scheme, with Atlantis aiming to redeploy the technology in spring.

In addition to the production of electricity, Atlantis is also planning to develop an “ocean-powered data centre” near the MeyGen project.

The European Commission has described “ocean energy” as being both abundant and renewable, and milestones like the biggest offshore windfarm starting U.K. supply underscore wider momentum, too. It’s estimated that ocean energy could potentially contribute roughly 10% of the European Union’s power demand by the year 2050, according to the Commission.

While tidal power has been around for decades — EDF’s 240 MW La Rance Tidal Power Plant in France was built as far back as 1966, and the country’s first offshore wind turbine has begun producing electricity — recent years have seen a number of new projects take shape.

In December last year, Scottish tidal energy business Nova Innovation was issued with a permit to develop a project in Nova Scotia, Canada, aiming to harness the Bay of Fundy tides in the region further.

In an announcement at the time, the firm said a total of 15 tidal stream turbines would be installed by the year 2023. The project, according to the firm, will produce enough electricity to power 600 homes, as companies like Sustainable Marine begin delivering tidal energy to the Nova Scotia grid.

Elsewhere, a business called Orbital Marine Power is developing what it describes as the world’s most powerful tidal turbine, with grid-supplied output already demonstrated.

The company says the turbine will have a swept area of more than 600 square meters and be able to generate “over 2 MW from tidal stream resources.” It will use a 72-meter-long “floating superstructure” to support two 1 MW turbines.

 

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