Sunday, October 31, 2021

Jellyfish attack nuclear power plant. Again.


By Susan D’Agostino | October 28, 2021
 
Sea nettle jellyfish swimming at Monterey Bay Aquarium in Monterey, CA. Credit: Photollama. Accessed via Wikimedia Commons. CC BY-SA 4.0.


Scotland’s only working nuclear power plant at Torness shut down in an emergency procedure when jellyfish clogged the sea water-cooling intake pipes at the plant, according to the Scotland Herald this week. Without access to cool water, a nuclear power plant risks overheating, with potentially disastrous results (see: Fukushima). The intake pipes can also be damaged, which disrupts power generation. And ocean life that gets sucked into a power plant’s intake pipes risks death.

 
Pacific sea nettle jellyfish. Credit: Jachintapasca. Accessed via Wikimedia Commons. CC BY-SA 4.0.

The threat these gelatinous, pulsating, umbrella-shaped marine animals pose to nuclear power plants is neither new nor unknown. (Indeed, the Bulletin reported on this threat in 2015.) Nuclear power plant closures—even temporary ones—are expensive. To protect marine life and avert power plant closures, scientists are exploring early warning system options. For example, researchers at Cranfield University in the United Kingdom launched a project earlier this year to determine whether drones may be used to provide estimates of jellyfish locations, amounts, and density.

“The successful operation of [beyond visual line of sight drones] will enable us to detect threats from marine ingress at an earlier state and prevent disruption to the power plant,” Monica Rivas Casado, a senior lecturer in environmental monitoring at Cranfield, said. In the United Kingdom, 20 percent of electricity is nuclear, a percentage roughly equaled in the United States, compared with approximately 10 percent globally.


Blooms of translucent jellyfish with their trailing, stinging tentacles are sometimes described as “invasions” because they often emerge en masse in way that appears sudden. Still, determined observers may find early clues of a jellyfish bloom. Spotting jellyfish swarms by way of drones requires balancing recognition accuracy with recognition speed—at least if the goal is to take preventative action to avoid nuclear power plant disruption. Scientists have been at work developing algorithms that foster this balance, including one study that delivered results within a desirable timeframe and over 90 percent accuracy.

RELATED:
Houston, are we going to have a problem with space nuclear power?

In another early-detection effort, scientists have investigated the potential for acoustic characteristics of these sea creatures to detect their numbers, density, and threat level. The creatures’ underwater undulations create sounds—known as “echo energy” or “acoustic scatterings”—that give them away, as long as humans are willing to listen.

The clash between gelatinous jellyfish and hulking nuclear power plants has a long history. These spineless, brainless, bloodless creatures shut down the Torness nuclear power plant in 2011 at a cost of approximately $1.5 million per day, according to one estimate. Swarms of these invertebrates have also been responsible for nuclear power plant shutdowns in Israel, Japan, the United States, the Philippines, South Korea, and Sweden.

Northern sea nettle. Credit: Joe Ravi. Wikimedia Commons. CC BY-SA 3.0.

Humans have unwittingly nurtured the adversarial relationship between jellyfish and nuclear power plants. That is, human-induced climate change has raised ocean water temperatures, setting conditions for larger-than-usual jellyfish populations. Further, the relatively warm water near nuclear power plant discharge outlets may attract jellyfish swarms, according to one study. Also, pollution has lowered oxygen levels in sea water, which jellyfish tolerate more than other marine animals, leading to their proliferation.

Some look at jellyfish and see elegant ballerinas of the sea, while others view them as pests. Either way, they are nothing if not resilient. Jellyfish are 95 percent water, drift in topical waters and the Arctic Ocean, and thrive in the ocean’s bottom as well as on its surface. Nuclear power plant operators might take note: Older-than-dinosaur jellyfish are likely here to stay.

GIF calls for nuclear's inclusion in COP26 discussions

29 October 2021


All realistic options that might contribute to global net-zero must be considered, the Generation IV International Forum (GIF) has said in an open letter to COP26 President Alok Sharma. Nuclear systems and advanced reactors - such as Generation IV systems - can contribute to a net-zero society alongside renewable energies, it says.

With delegates set to convene in Glasgow for the 26th UN Climate Change Conference of the Parties (COP26), GIF chair Hideki Kamide of the Japan Atomic Energy Agency said in the 25 October letter: "Achieving a global net-zero society in the near future - i.e. during the next 15 to 30 years - is no doubt an incredibly ambitious target to reach. However, it is our responsibility to use all of the possible technologies that we have at hand to realise a global, net-zero society. We must consider all realistic options that might contribute to global net-zero. To consider options from only a limited number of candidate technologies is not a practical attitude for our future."

GIF said that, as "a contributor to global net-zero", it joined the international initiative of the Clean Energy Ministerial Nuclear Innovation: Clean Energy Future (NICE Future) and has "further explained with other global net-zero contributors how nuclear energy can contribute to a global net-zero world" in a report entitled Flexible Nuclear Energy for Clean Energy Systems. This report, it notes, concluded that nuclear energy can work in harmony with renewables to expand the use of clean energy sources, and that nuclear energy is operating flexibly today in some forms, and innovation can lead to more pathways for nuclear flexibility.

"Since GIF started its activities as an international technical promoter of the next generation of nuclear reactors in 2001, considerable technical progress has been made in reactor development programmes," the letter says. "Moreover, GIF understands the importance of global net-zero and harmonisation with all net-zero technologies."

Last month, GIF published a report that said nuclear energy, as an asset class, has the potential to report well against a wide range of Environmental, Social and Governance (ESG) data collection and accounting metrics. The report - titled Nuclear Energy: An ESG Investible Asset Class - was produced by a finance industry taskforce set up in 2020 by GIF's Economic Modelling Work Group. The report describes how nuclear power, as an investible asset, can contribute to ensuring reliability and harmonisation in standards.

"For these reasons, GIF would like to join the global net-zero movement and contribute as a potential technical and financial partner," the letter states.

"Nuclear energy is a sustainable, safe, clean, reliable, flexible and affordable energy source for 24/7, and it has already been developed and is being used throughout the world. In other words, it is an existing option ready for use. Nuclear systems and advanced reactors, such as Generation IV systems, can contribute to this net-zero society, alongside renewable energies, through operational flexibility (load following, heat storage), deployment flexibility (scale, siting) and product flexibility (electricity and non-electric applications, such as process heat, hydrogen production or desalination). GIF is developing these promising technologies in collaboration with future builders in GIF member countries."

GIF said it is "very pleased that all possibilities, including nuclear power, will be on the agenda at COP26 and that realistic solutions will be discussed.

"COP26 can lead our future by taking advantage of human knowledge and wisdom. Again, we must emphasise the importance of considering all of the possibilities available today, without bias and exceptions, when we are deciding our future. Responsible actions for global net-zero will be essential, and the Generation IV International Forum, along with all nuclear promoters, is ready to contribute."

The GIF was initiated by the US Department of Energy in 2000 and formally chartered in mid-2001. It brings together 13 countries (Argentina, Australia, Brazil, Canada, China, France, Japan, Korea, Russia, South Africa, Switzerland, the UK and the USA), and Euratom - representing the members of the European Union - to work together to develop the research necessary to test the feasibility and performance of fourth generation nuclear systems, and to make them available for industrial deployment.

The six reactor technologies GIF identified for development are: the gas-cooled fast reactor, the lead-cooled fast reactor, the molten salt reactor, the sodium-cooled fast reactor, the supercritical-water-cooled reactor and the very high-temperature reactor. The OECD Nuclear Energy Agency provides GIF's technical secretariat.

Simon Irish, CEO of Terrestrial Energy, developer of the IMSR molten salt reactor, said the Canadian company "stands shoulder to shoulder with the Generation IV Forum and Japan Atomic Energy Agency in highlighting to the COP26 organisers the critical role of nuclear energy in achieving our global net-zero emissions goal."

"Nuclear energy is a proven, scalable and reliable carbon-free source," he said. "However, it is Generation IV that can change the whole commercial equation for nuclear power generation for only Generation IV technologies can deliver the step-change increase in the thermal efficiency needed to match the economics of fossil fuel generation."

UK government earmarks funds for progressing nuclear project

28 October 2021


The UK government has announced up to GBP1.7 billion (USD2.3 billion) in funding for a large-scale nuclear power plant in its autumn budget and spending review. It said it is in "active negotiations" with EDF over the Sizewell C project in Suffolk. The announcement comes days after the government introduced legislation for funding future nuclear power stations in the UK.

(Image: UK Government)

In a statement about the measures announced yesterday by Chancellor Rishi Sunak in the autumn budget and spending review, the government said it would provide "up to GBP1.7 billion of direct government funding to enable a large-scale nuclear project to reach a final investment decision this parliament, subject to value for money and approvals."

In December 2020, the UK government announced it would begin talks with EDF Energy to enable investment in the planned Sizewell C nuclear power plant project. The latest government statement confirmed these negotiations are ongoing.

Other measures announced include GBP6.1 billion to back the Transport Decarbonisation Plan, boosting the number of zero-emission vehicles, helping to develop greener planes and ships, and encouraging more trips by bus, bicycle and foot. Sunak also confirmed funding for the GBP1 billion Net Zero Innovation Portfolio - as announced in Prime Minister Boris Johnson's Ten Point Plan for a Green Industrial Revolution, released in November 2020 - which is accelerating near-to-market low-carbon technology innovations and the aligned GBP385 million Advanced Nuclear Fund, which is developing the next generation of small and advanced modular reactor technologies.

The announcement was welcomed by UK trade body the Nuclear Industry Association. Tom Greatrex, the organisation's chief executive said: "This is a big vote of confidence in nuclear and a historic step forward for nuclear investment, with new money for a large-scale project, alongside money for modular reactors to enable future projects.

"We can't get to net-zero without investing in new nuclear capacity, and this is a clear signal from government to investors that it sees nuclear as essential to our clean energy transition. This is not only an investment in a greener future, but also in jobs and skills right across the country."

On 26 October, the government introduced the Nuclear Energy (Financing) Bill, which will use the Regulated Asset Base model to fund future nuclear power stations in the UK. The new funding model is expected to attract a wider range of private investment into new nuclear power projects, cutting the cost of financing them and reducing the cost to consumers.

The Sizewell C Consortium - a group of over 200 leading UK nuclear suppliers - also welcomed that announcement. Cameron Gilmour, spokesperson for the consortium, said: "The government has made a welcome and significant step forward in addressing our future energy needs, by outlining a framework for investment for nuclear in the UK. Sizewell C is a project that can start construction in this parliament - delivering jobs and apprenticeships, and much needed certainty for thousands of suppliers up and down the country."

Sizewell C will be a near replica of Hinkley Point C (HPC), which EDF Energy is building in Somerset and, like HPC, it will be able to supply 7% of the UK's electricity once it enters commercial operation. At about GBP18 billion (USD22 billion), EDF Energy has said that Sizewell C will be cheaper to build than HPC, the estimated cost of which is between GBP21.5 billion and GBP22.5 billion.

Under a strategic investment agreement signed in October 2016, China General Nuclear agreed to take a 33.5% stake in the HPC project, as well as jointly develop new nuclear power plants at Sizewell and at Bradwell, which is in Essex. The HPC and Sizewell C plants will be based on France's EPR reactor technology, while the Bradwell plant will feature the HPR1000 (Hualong One) design.

Net-zero easier and cheaper with nuclear, says French grid operator

28 October 2021


France can achieve its net-zero emissions target by 2050 through energy efficiency and electrification that would lead to a 35% increase in electricity demand, the French grid operator has said in a new report. Of the scenarios considered by Réseau de Transport d'Electricité (RTE), the cheapest implies constructing 14 large new nuclear power reactors, plus a fleet of small modular reactors, as well as significantly investing in renewables.

(Image: RTE)

As part of its legal mandate and in response to a referral from government, in 2019 RTE launched an extensive study of the evolution of the country's electricity system, titled Energy Futures 2050. The main findings of the study were presented by Xavier Piechaczyk, chairman of RTE's Management Board and Thomas Veyrenc, executive director in charge of the Strategy, Prospective and Evaluation division, during a press conference on 25 October.

"The French electricity system, unlike that of the majority of its neighbours, is not based on fossil fuels," the report notes. "Its main characteristic is that it rests mainly on a fleet of 56 nuclear reactors, mostly built and commissioned between the end of the 1970s and early 1990s ... Today, it is indisputable that it constitutes a major asset for France in the fight against climate change by producing largely carbon-free electricity in large quantities."

Nuclear accounts for almost 75% of France's power production, but former French president Francois Hollande said he aimed to limit its share of the national electricity generation mix to 50% by 2025, and to close Fessenheim - the country's oldest nuclear power plant - by the end of his five-year term, in May 2017. In June 2014, his government announced nuclear capacity would be capped at the current level of 63.2 GWe and be limited to 50% of France's total output by 2025. The French Energy Transition for Green Growth Law, adopted in August 2015, did not call for the shutdown of any currently operating power reactors, but it meant EDF would have to close older reactors in order to bring new ones online. However, under a draft energy and climate bill presented in May 2019, France will now delay its planned reduction in the share of nuclear power in its electricity mix to 50% from the current 2025 target to 2035.

Scenarios


RTE looked at six scenarios which considered future energy mixes exclusively based on renewable energy sources and those based on a mixture of renewables and nuclear. The scenarios differ primarily in the availability of nuclear capacity.

"In the short/medium term (2030-2035), the decision of shutting down nuclear reactors is a matter of political choice," the report says. "At this time, only two options exist to increase the production potential of carbon-free electricity: keep nuclear reactors in operation (the deadlines are in any case too close together to build new ones) and develop renewable energies.

"In the long term (2050-2060), the closure of second-generation nuclear reactors is an industrial constraint: in addition to supporting the expected increase in electricity consumption, French generating facilities will have to be radically renewed to replace production in the order of 380-400 TWh per year.

"It is in this perspective that it is necessary to replace the energy choices that France must make in the coming years: meet the double issue of a necessary increase in carbon-free electricity production capacity and a scheduled closure of the majority of the facilities that now meet this need."

RTE says that achieving carbon neutrality is impossible without a significant development of renewable energies. However, to do this without new nuclear reactors "implies faster development rates of renewable energies than those which have been achieved so far by the most dynamic European countries".

It says the need to build new thermal power plants based on carbon-free gas stocks (including hydrogen) is important if the revival of nuclear power is minimal and it becomes massive - and therefore expensive - if the energy system is based on 100% renewables.

'Economically relevant'


The construction of new reactors is "economically relevant", RTE says, all the more so when it makes it possible to maintain a fleet of around 40 GW in 2050 (with a combination of existing and new units). The study concludes "with a good level of confidence" that scenarios including at least a 40 GW nuclear fleet can lead, in the long-term, to lower costs for the community "than a scenario 100% renewable based on large parks".

One of the scenarios studied by RTE is for a nuclear generating capacity of 50 GW in 2050. This, it says, implies extending operation of most existing reactors to 60 years, to put into service 14 new EPR2-type reactors between 2035 and 2050 (mostly between 2040 and 2050) and to install in addition a significant capacity of small nuclear reactors. Such nuclear generating capacity "is likely to produce around 325 TWh in 2050. Such a volume is equivalent, in the benchmark consumption trajectory, of about 50% of national production."

Reaching a carbon neutral electricity system by 2050 can be achieved at a "manageable cost" for France, RTE says. By 2030, the country should develop mature renewable energies as quickly as possible and extending the operation of existing nuclear reactors increases the chances of reaching the target of a 55% reduction in emissions.

However, it notes: "Whatever the scenario chosen, there is an urgent need to mobilise."

Nuclear profits sustain Bulgaria in gas crisis

28 October 2021

Profits from Bulgaria's Kozloduy nuclear power plant are being redirected to provide subsidies of BGN110 (USD65) per MWh to industry. Some 630,000 industrial consumers will receive the benefit to protect them from power prices driven by gas.

Two large VVER-1000s operate at Kozloduy, while four smaller VVER-440s are in decommissioning

The measures were announced on 21 October by Prime Minister Stefan Yanev in a national address. He said the subsidy "will benefit over 630,000 non-residential end consumers" with the grant distributed automatically thanks to a contract between the government and the retail electricity suppliers, including the suppliers of last resort that have stepped in after other energy firms went bust.

The benefit will be backdated from 1 October and will last until 30 November, at an estimated cost of BGN450 million. Yanev said, "The funds will be provided from the state budget at the expense of the presentation of grants amounting to BGN450 million from Kozloduy nuclear power plant." He added, "In the next reporting year, the dividend due to be paid by [Kozloduy's owner] Bulgarian Energy Holding will be reduced by the indicated amount."

The upgraded subsidy improves on measures Yanev discussed on 19 October when speaking on TV1, which would have covered 250,000 businesses with a BGN30 per MWh payment. At the time, Yanev said subsidies would "support the economically weaker companies, which are also the largest employer in the country."

Having had elections in April and July this year but failed to form a government each time, Yanev and his cabinet are caretakers ahead of another election on 14 November. This means there is no functioning parliament and the government is not able to make any laws. "We hear the voice of everyone - the workers, the consumers of their goods, the employers. We know what the problems are and we are looking for solutions. They cannot appear with a magic wand," Yanev said.

Kozloduy is a large nuclear power plant in the northwest of Bulgaria on the Danube River that provides about 34% of the country's electricity. It features two VVER-1000 units in operation and four VVER-440 units which are being decommissioned.

Facing the need to phase out coal - which provides 40% of electricity - while also maintaining energy security, Bulgarian policymakers would like to expand nuclear capacity either at Kozloduy or at Belene, a new site also on the Danube. However, in a recent interview with Trud newspaper the chaiman of the Bulgarian Atomic Forum, Bogomil Manchev, said: "There is no longer an option for either one project or the other. The 'or' has disappeared."

Bulgaria is keen for the European Commission to decide positively that nuclear power can be included in its taxonomy of sustainable investments and is a member of the ten-nation 'Nuclear Alliance' of EU countries calling for this. Yanev raised the issue with the Vice President of the European Commission, Franz Timmermans, who visited Bulgaria earlier this month.

Researched and written by World Nuclear News

 H2

GLOW GREEN

Xcel CEO: Capital required for green hydrogen production 'could be material' over balance of the decade


Published Oct. 29, 2021
Larry PearlSenior Editor


Adeline Kon/Utility Dive

Dive Brief:

President and CEO Robert Frenzel highlighted Xcel's work on hydrogen, among other issues, on Thursday during the company's Q3 2021 earnings call.

Frenzel said Xcel has updated its base investment plan, "reflecting $26 billion of capital expenditures over the next five years." However, the latest base plan "does not include any capital for green hydrogen production for our [local distribution company] or generation needs, which we believe could be material over the balance of the decade," Frenzel added.

The Department of Energy awarded Xcel $10 million last year to test the production of hydrogen via high temperature steam electrolysis at the company's Prairie Island nuclear plant in Minnesota. FirstEnergy, Exelon and Arizona Public Service have also been selected to test hydrogen production approaches at nuclear power plants.

Dive Insight:

Xcel expects the hydrogen-related work at its Prairie Island nuclear plant to begin in 2023 or early 2024.

"Xcel has long been a leader in renewable energy, and we think the next stage of environmental investment is going be developing hydrogen on a large scale," Morningstar analyst Travis Miller told the Minneapolis Star Tribune.

During Thursday's call, Frenzel briefly detailed Xcel's work on hydrogen and its support for a related federal tax credit, which was included in the latest House version of the budget reconciliation package. In addition to the Prairie Island project, Frenzel said Xcel "is exploring five to eight additional greenfield and brownfield projects." But he did not provide details on those additional projects.

"And with favorable state backdrops in Minnesota and in Colorado, which have passed clean fuel legislation as well as a potential for a federal hydrogen production tax credit, we believe that our favorable renewable generation conditions will help us push beyond pilots and into green hydrogen production resources that can be valuable to a clean energy future," he continued.

With its hydrogen projects, Xcel joins an expanding group of utilities, including NextEra Energy, that are working on the emerging resource.

Looking more broadly, Frenzel said Xcel's resource plans will add nearly 10,000 MW to its system and attain 85% carbon reduction by 2030. "We expect decisions on both the Minnesota and the Colorado resource plans in the first quarter of next year," he said.

Frenzel further noted the potential benefits of proposed changes to tax credits for wind and solar projects as well as the proposed credit for green hydrogen, or hydrogen produced from clean energy generation.

"Proposed tax credit expenses for [investment tax credits] and [production tax credits], including the solar production tax credit, will make future projects even more competitive, providing additional benefit to our customers," Frenzel said.

"A PTC for green hydrogen would also bring significant value and technology advancement and costs. It could help accelerate the time frame in which we could begin incorporating hydrogen into power generation and into our natural gas distribution operations at a cost that's more economic for our customers," he continued.

While noting Xcel's target of being carbon-free by 2050, Frenzel said more needed to be done to reach that goal.

"We need to identify that next generation of generation," he said. "I think what we need is another type of emissions-free generation. And I think the infrastructure bill triples DOE funding for research and development. I think that's critical for the industry to progress past where we expect to be, which is about an 80%, 85% carbon reduction by the end of the decade."

Xcel reported third quarter earnings of $609 million or $1.13 per share compared with $603 million or $1.14 per share in the year-ago period. The results were short of analysts' average expectation of $1.18 per share.

"On a year-to-date basis, our earnings are $0.13 per share ahead of last year," Executive Vice President and Chief Financial Officer Brian Van Abel said during Thursday's call.

"We remain confident we can deliver long-term earnings and dividend growth within the upper half of our 5% to 7% objective range as we continue leading the clean energy transition and keeping bills low for our customers," Abel continued.

High gas prices shift optimal hydrogen production to nuclear, says IAEA

29 October 2021

Nuclear energy will be the most cost-effective means of producing clean hydrogen when natural gas prices are high, according to a new study by the International Atomic Energy Agency (IAEA). The IAEA said the study "underscored the importance of having a diverse mix of low-carbon sources for a successful clean energy transition."

(Image: Pixabay)

Using its new FRAmework for the Modelling of Energy Systems (FRAMES), the IAEA found that as gas prices increase, the optimal mix of technologies for producing low-carbon hydrogen shifts in favour of nuclear and renewable energy and away from natural gas with or without carbon capture and storage. While the study focused on a particular country, its results can be generally applied to other energy markets.

As a baseline reference for the average natural gas price, the FRAMES study used USD6 per million British thermal units (BTU), which was the approximate price in markets such as Europe as recently as last spring before the recent price surge. That was also the price used in a recent Urenco/Aurora study of the UK market in the year 2050, Decarbonising Hydrogen in a Net Zero Economy, which showed that nuclear energy partnered with renewables can lower the overall system costs of hydrogen production.

"This shift happens at natural gas costs that are substantially lower - around USD10-15 per million British thermal units - than those observed in recent days in the European Union, United Kingdom and parts of Asia," said Francesco Ganda, an IAEA nuclear engineer who conducted the study, referring to recent record high spot prices in these markets of between USD35 and USD40 per million BTU, a globally used measure for the energy content of natural gas.

When natural gas prices rise above USD20 per million BTU, the FRAMES study showed that the optimal method of hydrogen production becomes a mix of electrolysis-produced hydrogen from electricity supplied by a combination of renewables and conventional nuclear power plants and thermal processes that can eventually be supplied by advanced high-temperature reactors.

FRAMES, which is still under development, is currently being used for internal IAEA analyses of integrated energy systems. It provides quantitative analyses on nuclear power's potential benefits to present and future electricity systems, which is of particular interest for countries pursuing or considering nuclear power as part of their solution to meet net-zero goals.

The model evaluates short- and long-term impacts on overall carbon emissions, structure of the generation mix and cost of electricity provision, which helps to inform the economic impacts of achieving various CO2 emission targets. Additionally, FRAMES can support technical analyses involving the optimal grid integration of advanced nuclear technologies - such as small modular reactors, microreactors and fast reactors - as well as non-electric applications of nuclear energy.

The FRAMES study comes ahead of the COP26 climate change conference, where the IAEA will hold several events to underscore nuclear energy's contribution to achieving the goals of the Paris Agreement and Agenda 2030 for Sustainable Development. It said clean hydrogen is increasingly seen as having a key role in the clean energy transition as part of a reliable low-carbon energy mix.

Researched and written by World Nuclear News


BLUE H2

Where does hydrogen fit into Alberta's energy future?

Canada takes the stage at COP26, but will we meet our commitments this time?

About two-thirds of Canada's hydrogen comes from Alberta. The clean burning fuel can be used to power cars and heat homes, but producing it is more environmentally complicated.
 (Sean Gallup/Getty Images)

Our planet is changing. So is our journalism. This story is part of a CBC News initiative entitled "Our Changing Planet" to show and explain the effects of climate change and what is being done about it.


Canadian policy-makers will meet with other world leaders at the 2021 United Nations Climate Change Conference in Glasgow, starting on Sunday. A big part of their pitch on how Canada can curb its carbon emissions focuses on expanding the country's hydrogen industry, which would have a major impact on Alberta. 

About two-thirds of Canada's hydrogen comes from Alberta. The clean burning fuel can be used to power cars and heat homes, but producing it is more environmentally complicated. Right now, most hydrogen that comes out of Alberta is grey. That means greenhouse gases are created during the process that turns natural gas into hydrogen.

Those pollutants can be captured and stored resulting in a cleaner blue hydrogen, but that increases production costs. Green hydrogen is produced using water and renewable electricity — that process is the most expensive but also the cleanest.

Alberta is slated to release its updated hydrogen roadmap in the next few weeks.

  • Have questions about COP26 or climate science, policy or politics? Email us: ask@cbc.ca. Your input helps inform our coverage.

Here are two experts in the field offering insight into our hydrogen future. David Layzell is an energy systems architect for the Transition Accelerator, a non-profit focused on moving toward a net-zero future. Assistant professor Sara Hastings-Simon is with the University of Calgary, director of the sustainable development master's program.

  • WATCH | Two experts offer thoughts on hydrogen in our energy future, ahead of COP26 this weekend
Canada takes the stage at COP26, but we will meet our commitments this time? 9:44

Q: How will hydrogen help Canada get to net zero by 2050?

David Layzell: If you look at where our greenhouse gas emissions are located in Canada, at least 50 per cent of them come from the combustion of carbon-based energy carriers: gasoline, diesel, jet fuel, natural gas.

We know the most about those. To finally get to net zero, we are going to have to replace those energy carriers with carbon-free or emission-free net-zero energy carriers. That's electricity made without greenhouse gas emissions. Hydrogen is another that, when combusted, it doesn't give emissions. Ammonia, which is made from hydrogen, is another. It's pretty clear, we are down to electricity and hydrogen. They are the key pillars in transition to net zero.

Q: We are phasing out coal, we are bringing more renewables online, but does hydrogen have the biggest potential? Is it a game changer?

DL: From an Alberta perspective, you can make hydrogen from natural gas, from oil even, and we can capture the carbon dioxide produced when you make it, and put it back underground. We have the technology. We are doing it already in parts of Alberta.

We can extract the energy from fossil fuels, put it in hydrogen, essentially, and put the carbon back in the ground. That creates a significant opportunity in Alberta, in Canada.

We are internationally recognized as one of the lowest cost places in the world to make hydrogen without carbon emissions.

Q: But it still requires carbon intensive energy to do that? Is that the right path?

Sara Hastings-Simon: There are two questions. What do we need to do in Alberta to address our own footprint? And also thinking about having a strong economy in a net-zero future.

Many of the oil and gas products we export to the rest of the world are carbon intensive when they are burned, and everyone else is looking for ways to transition away from those fuels.

When we talk about reducing emissions in Alberta, we already produce a fair amount of hydrogen today, so decarbonizing the production of that hydrogen is really important.

As far as replacing oil and gas that we export today, there can be some market for hydrogen, but it won't be anywhere near large enough to replace oil and gas.

We need to broaden what we are thinking about beyond hydrogen. The future will be highly electrified.

Q: Our neighbour B.C. often exports hydro electricity to the U.S. We take a bit of it. Why should we not take more of that, rather than go with hydrogen?

DL: It's not an either/or, I think we need to do both.

We have a program that is about getting the provinces with large hydro resources to start co-operating with provinces that have large wind and solar resources.

When the wind is blowing and the sun is shining, we might make more electricity, and we can send it to provinces next door, and store it in hydro reservoirs and get it back later.

It's about a more sensible, balanced way to manage electricity. We envisage a doubling or even 2½-fold increase in electricity demand in 30 years that will be part of the greening process.

In the national hydrogen strategy that came out a year ago, hydrogen is in the 25-30 per cent of our overall energy mix. At that scale, it's a significant economic driver and tool for decarbonizing the parts of our energy system which are hard to electrify.

Q: Canada has fallen short on previous commitments. Expectations are high. Is Canada going to make a difference this time around?

SHS: I think we are going to make a difference. Canada has a plan and policies that can enable it to reach its targets, that we have never had before.

But one consequential thing for Canada heading into COP is what the whole world is doing, and what that means for oil and gas demand. 

We are seeing scenarios showing a decline in demand, and that's something new and has a big impact on Canada.

DL: I see an opportunity to start shifting the oil and gas sector to, instead of producing carbon-based energy carriers, producing net-zero energy carriers. We can sell them for more per unit of energy than our existing resources, like crude oil. The overall economic benefit can be approaching what we are now getting from the oilsands.


With files from CBC Calgary News at 6

Nickel, cobalt allow for cheaper, more efficient green hydrogen production

MINING.COM Staff Writer | October 29, 2021 |

Hydrogen fuel cell Toyota Mirai. (Reference image by National Renewable Energy Lab, Flickr.)

Researchers at Curtin University have identified an electrocatalyst that, with added nickel and cobalt, makes green hydrogen from water in a cheaper and more efficient way compared to traditional methods.


Green hydrogen is a zero-carbon fuel made by electrolysis using renewable power to split water into hydrogen and oxygen.

Typically, scientists have been using precious metal catalysts, such as platinum, to accelerate the reaction to break water into hydrogen and oxygen but the Curtin team found that by adding the battery metals to cheaper catalysts, they were able to enhance their performance, which lowers the energy required to split the water and increases the yield of hydrogen.

“Our research essentially saw us take two-dimensional iron-sulfur nanocrystals, which don’t usually work as catalysts for the electricity-driven reaction that gets hydrogen from water, and add small amounts of nickel and cobalt ions,” lead researcher Guohua Jia said in a media statement.

“When we did this it completely transformed the poor-performing iron-sulfur into a viable and efficient catalyst.”

According to Jia, using these more abundant materials is cheaper and more efficient than the current benchmark material, ruthenium oxide, which is derived from ruthenium element and is expensive.

“Our findings not only broaden the existing ‘palette’ of possible particle combinations but also introduce a new, efficient catalyst that may be useful in other applications,” Jia said. “They also open new avenues for future research in the energy sector, putting Australia at the forefront of renewable and clean energy research and applications.”

At present, 21% of Australia’s energy is produced from renewables, a reality that is seen as an opportunity by many, including mining tycoon Andrew Forrest.

Forrest aims to make his Fortescue Metals Group carbon-neutral by 2030, with green hydrogen at the forefront of the company’s efforts.

The billionaire believes that green hydrogen could supply a quarter of the world’s energy by 2050 and he has been travelling the world to promote this idea.



New hydrogen storage material steps on the gas

New hydrogen storage material steps on the gas
View of a subnanoscale reversible alane cluster coordinated to a bipyridine site on 
covalent triazine-based framework that can be used in hydrogen storage systems. 
Credit: Lawrence Livermore National Laboratory

Hydrogen is increasingly viewed as essential to a sustainable world energy economy because it can store surplus renewable power, decarbonize transportation and serve as a zero-emission energy carrier. However, conventional high-pressure or cryogenic storage pose significant technical and engineering challenges.

To overcome these challenges, Lawrence Livermore National Laboratory (LLNL) and Sandia National Laboratories researchers have turned to  because they provide exceptional energy densities and can reversibly release and uptake  under relatively mild conditions. The research appears as a hot paper and back cover in the journal Angewandte Chemie.

Solid-state metal hydrides with high volumetric and gravimetric hydrogen densities are attractive alternatives to gas-phase hydrogen . However, many high-capacity metal hydrides suffer from poor thermodynamics of hydrogen uptake after initial release, which necessitates extreme hydrogen pressures to regenerate. Such a limitation is often tied to their metastable nature and hinders their real-world applications.

In the recent research, the scientists found a new way to ease the thermodynamic limitation. The team focused on one typical metastable metal hydride called alane. Alane, or , has a volumetric hydrogen density twice that of liquid hydrogen. However, converting bulk metallic aluminum into alane was long thought to be impossible except under extreme conditions with more than 6,900 atmospheres of dihydrogen (H2) pressure.

The team developed a nanoconfined material with improved thermodynamics of alane regeneration. They found that alane situated within the nanopores of a highly porous bipyridine-functionalized covalent triazine framework can be regenerated at a H2 pressure of only 700 bar (690 atmospheres), which is tenfold lower than that required for its bulk counterpart. This pressure is readily achievable in commercial hydrogen fueling stations, although further improvements are necessary to achieve rapid fueling.

"The work paves the way for developing composite materials suitable for real-world hydrogen storage applications, including onboard vehicular hydrogen storage," said LLNL materials scientist Sichi Li, who serves as co-first author of the paper.

Through a combination of sophisticated spectroscopic and microscopic experiments, as well as first-principles modeling by Li, they found a surprising and nonintuitive mechanism for the stabilization of alane. The mechanism involves formation of intrinsically stable radicals and tiny alane clusters that interact chemically with the nanopores of the confining framework, giving rise to thermodynamics that are completely different from the bulk material.

"Nanoconfinement is a really interesting approach for stabilizing metastable hydrogen-storage materials, particularly given the wide palette of potential host materials," said LLNL materials scientist and co-author Brandon Wood, who leads the LLNL team on materials-based hydrogen storage. "Beyond hydrogen storage, this work also could have implications for tuning properties of other energy-generation and storage materials, including batteries and catalysts."

Other LLNL co-authors include Maxwell Marple and Harris Mason.A solid pathway toward hydrogen storage

More information: Vitalie Stavila et al, Defying Thermodynamics: Stabilization of Alane Within Covalent Triazine Frameworks for Reversible Hydrogen Storage, Angewandte Chemie International Edition (2021). DOI: 10.1002/anie.202107507

Journal information: Angewandte Chemie  , Angewandte Chemie International Edition 

Provided by Lawrence Livermore National Laboratory