The receiving dock at the Northern Lights carbon capture and storage project, controlled by Equinor ASA, Shell Plc and TotalEnergies SE, at Blomoyna, Norway, on Friday, Jan. 19, 2024.
Bloomberg | Bloomberg | Getty Images
Norway’s government wants to show the world it is possible to safely inject and store carbon waste under the seabed, saying the North Sea could soon become a “central storage camp” for polluting industries across Europe.
Offshore carbon capture and storage (CCS) refers to a range of technologies that seek to capture carbon from high-emitting activities, transport it to a storage site and lock it away indefinitely under the seabed.
The oil and gas industry has long touted CCS as an effective tool in the fight against climate change and polluting industries are increasingly looking to offshore carbon storage as a way to reduce planet-warming greenhouse gas emissions.
Critics, however, have warned about the long-term risks associated with permanently storing carbon beneath the seabed, while campaigners argue the technology represents “a new threat to the world’s oceans and a dangerous distraction from real progress on climate change.”
Norway’s Energy Minister Terje Aasland was bullish on the prospects of his country’s so-called Longship project, which he says will create a full, large-scale CCS value chain.
“I think it will prove to the world that this technology is important and available,” Aasland said via videoconference, referring to Longship’s CCS facility in the small coastal town of Brevik.
“I think the North Sea, where we can store CO2 permanently and safely, may be a central storage camp for several industries and countries and Europe,” he added.
Storage tanks at the Northern Lights carbon capture and storage project, controlled by Equinor ASA, Shell Plc and TotalEnergies SE, at Blomoyna, Norway, on Friday, Jan. 19, 2024.
Bloomberg | Bloomberg | Getty Images
Norway has a long history of carbon management. For nearly 30 years, it has captured and reinjected carbon from gas production into seabed formations on the Norwegian continental shelf.
It’s Sleipner and Snøhvit carbon management projects have been in operation since 1996 and 2008, respectively, and are often held up as proof of the technology’s viability. These facilities separate carbon from their respective produced gas, then compress and pipe the carbon and reinject it underground.
“We can see the increased interest in carbon capture storage as a solution and those who are skeptical to that kind of solution can come to Norway and see how we have done in at Sleipner and Snøhvit,” Norway’s Aasland said. “It’s several thousand meters under the seabed, it’s safe, it’s permanent and it’s a good way to tackle the climate emissions.”
Both Sleipner and Snøhvit projects incurred some teething problems, however, including interruptions during carbon injection.
Citing these issues in a research note last year, the Institute for Energy Economics and Financial Analysis, a U.S.-based think tank, said that rather than serving as entirely successful models to be emulated and expanded, the problems “call into question the long-term technical and financial viability of the concept of reliable underground carbon storage.”
‘Overwhelming’ interest
Norway plans to develop the $2.6 billion Longship project in two phases. The first is designed to have an estimated storage capacity of 1.5 million metric tons of carbon annually over an operating period of 25 years — and carbon injections could start as early as next year. A possible second phase is predicted to have a capacity of 5 million tons of carbon.
Campaigners say that even with the planned second phase increasing the amount of carbon stored under the seabed by a substantial margin, “it remains a drop in the proverbial bucket.” Indeed, it is estimated that the carbon injected would amount to less than one-tenth of 1% of Europe’s carbon emissions from fossil fuels in 2021.
The government says Longship’s construction is “progressing well,” although Aasland conceded the project has been expensive.
“Every time we are bringing new technologies to the table and want to introduce it to the market, it is having high costs. So, this is the first of its kind, the next one will be cheaper and easier. We have learned a lot from the project and the development,” Aasland said.
“I think this will be quite a good project and we can show the world that it is possible to do it,” he added.
Workers at an entrance to the CO2 pipeline access tunnel at the Northern Lights carbon capture and storage project, controlled by Equinor ASA, Shell Plc and TotalEnergies SE, at Blomoyna, Norway, on Friday, Jan. 19, 2024.
Bloomberg | Bloomberg | Getty Images
A key component of Longship is the Northern Lights joint venture, a partnership between Norway’s state-backed oil and gas giant Equinor, Britain’s Shell and France’s TotalEnergies. The Northern Lights collaboration will manage the transport and storage part of Longship.
Børre Jacobsen, managing director for the Northern Lights Joint Venture, said it had received “overwhelming” interest in the project.
“There’s a long history of trying to get CCS going in one way or another in Norway and I think this culminated a few years ago in an attempt to learn from past successes — and not-so-big successes — to try and see how we can actually get CCS going,” Jacobsen told CNBC via videoconference.
Jacobsen said the North Sea was a typical example of a “huge basin” where there is a lot of storage potential, noting that offshore CCS has an advantage because no people live there.
A pier walkway at the Northern Lights carbon capture and storage project, controlled by Equinor ASA, Shell Plc and TotalEnergies SE, at Blomoyna, Norway, on Friday, Jan. 19, 2024.
Bloomberg | Bloomberg | Getty Images
“There is definitely a public acceptance risk to storing CO2 onshore. The technical solutions are very solid so any risk of leakage from these reservoirs is very small and can be managed but I think public perception is making it challenging to do this onshore,” Jacobsen said.
“And I think that is going to be the case to be honest which is why we are developing offshore storage,” he continued.
“Given the amount of CO2 that’s out there, I think it is very important that we recognize all potential storage. It shouldn’t actually matter, I think, where we store it. If the companies and the state that controls the area are OK with CO2 being stored on their continental shelves … it shouldn’t matter so much.”
Offshore carbon risks
A report published late last year by the Center for International Environmental Law (CIEL), a Washington-based non-profit, found that offshore CCS is currently being pursued on an unprecedented scale.
As of mid-2023, companies and governments around the world had announced plans to construct more than 50 new offshore CCS projects, according to CIEL.
If built and operated as proposed, these projects would represent a 200-fold increase in the amount of carbon injected under the seafloor each year.
Nikki Reisch, director of the climate and energy program at CIEL, struck a somewhat cynical tone on the Norway proposition.
“Norway’s interpretation of the concept of a circular economy seems to say ‘we can both produce your problem, with fossil fuels, and solve it for you, with CCS,'” Reisch said.
“If you look closely under the hood at those projects, they’ve faced serious technical problems with the CO2 behaving in unanticipated ways. While they may not have had any reported leaks yet, there’s nothing to ensure that unpredictable behavior of the CO2 in a different location might not result in a rupture of the caprock or other release of the injected CO2.”
The US Department of Energy (DOE) has released an encouraging new report revealing that 90% of wind turbine materials are already recyclable using existing infrastructure, but tackling the remaining 10% needs innovation.
That’s why the Biden administration’s Bipartisan Infrastructure Law has allocated over $20 million to develop technologies that address these challenges.
Why this matters
The wind energy industry is growing rapidly, but questions about what happens to turbines at the end of their life are critical. Recyclable wind turbines means not only less waste but also a more affordable and sustainable energy future.
According to Jeff Marootian, principal deputy assistant secretary for the Office of Energy Efficiency and Renewable Energy, “The US already has the ability to recycle most wind turbine materials, so achieving a fully sustainable domestic wind energy industry is well within reach.”
The report, titled, “Recycling Wind Energy Systems in the United States Part 1: Providing a Baseline for America’s Wind Energy Recycling Infrastructure for Wind Turbines and Systems,” identifies short-, medium-, and long-term research, development, and demonstration priorities along the life cycle of wind turbines. Developed by researchers at the National Renewable Energy Laboratory, with help from Oak Ridge and Sandia National Laboratories, the findings aim to guide future investments and technological innovations.
What’s easily recyclable and what’s not
The bulk of a wind turbine – towers, foundations, and steel-based drivetrain components – is relatively easy to recycle. However, components like blades, generators, and nacelle covers are tougher to process.
Blades, for instance, are often made from hard-to-recycle materials like thermoset resins, but switching to recyclable thermoplastics could be a game changer. Innovations like chemical dissolution and pyrolysis could make blade recycling more viable in the near future.
Critical materials like nickel, cobalt, and zinc used in generators and power electronics are particularly important to recover.
Key strategies for a circular economy
To make the wind energy sector fully sustainable, the DOE report emphasizes the adoption of measures such as:
Better decommissioning practices – Improving how turbine materials are collected and sorted at the end of their life cycle.
Strategic recycling sites – Locating recycling facilities closer to where turbines are decommissioned to reduce costs and emissions.
Advanced material substitution – Using recyclable and affordable materials in manufacturing.
Optimized material recovery –Developing methods to make recovered materials usable in second-life applications.
Looking ahead
The DOE’s research also underscores the importance of regional factors, such as the availability of skilled workers and transportation logistics, in building a cost-effective recycling infrastructure. As the US continues to expand its wind energy capacity, these findings provide a roadmap for minimizing waste and maximizing sustainability.
More information about the $20 million in funding available through the Wind Turbine Technology Recycling Funding Opportunity can be found here. Submission deadline is February 11.
If you live in an area that has frequent natural disaster events, and are interested in making your home more resilient to power outages, consider going solar and adding a battery storage system. To make sure you find a trusted, reliable solar installer near you that offers competitive pricing, check out EnergySage, a free service that makes it easy for you to go solar. They have hundreds of pre-vetted solar installers competing for your business, ensuring you get high quality solutions and save 20-30% compared to going it alone. Plus, it’s free to use and you won’t get sales calls until you select an installer and share your phone number with them.
Your personalized solar quotes are easy to compare online and you’ll get access to unbiased Energy Advisers to help you every step of the way. Get started here. –trusted affiliate link*
FTC: We use income earning auto affiliate links.More.
Mazda is finally stepping up with plans to build its first dedicated EV. The upcoming Mazda EV will be made in Japan and based on a new in-house platform. Here’s what we know about it so far.
The first dedicated Mazda EV is coming soon
Although Mazda isn’t the first brand that comes to mind when you think of electric vehicles, the Japanese automaker is finally taking a step in the right direction.
Mazda revealed on Monday that it plans to build a new module pack plant in Japan for cylindrical lithium-ion battery cells.
The new plant will use Panasonic Energy’s battery cells to produce modules and EV battery packs. Mazda plans to have up to 10 GWh of annual capacity at the facility. The battery packs will power Mazda’s first dedicated EV, which will also be built in Japan using a new electric vehicle platform.
Mazda said it’s “steadily preparing for electrification technologies” under its 2030 Management Plan. The strategy calls for a three-phase approach through 2030.
The first phase calls for using its existing technology. In the second stage, Mazda will introduce a new hybrid system and EV-dedicated vehicles in China.
The third and final phase calls for “the full-fledged launch” of EVs and battery production. By 2030, Mazda expects EVs to account for 25% to 40% of global sales.
Mazda launched the EZ-6, an electric sedan, in China last October. It starts at 139,800 yuan, or around $19,200, and is made by its Chinese joint venture, Changan Mazda.
Based on Changan’s hybrid platform, the electric sedan is offered in EV and extended-range (EREV) options. The all-electric model gets up to 600 km (372 miles) CLTC range with fast charging (30% to 80%) in 15 minutes.
At 4,921 mm long, 1,890 mm wide, and 1,485 mm tall with a wheelbase of 2,895 mm, Mazda’s EZ-6 is about the size of a Tesla Model 3 (4,720 mm long, 1,922 mm wide, and 1,441 mm tall with a 2,875 mm wheelbase).
Inside, the electric sedan features a modern setup with a 14.6″ infotainment, a 10.1″ driver display screen, and a 50″ AR head-up display. It also includes zero-gravity reclining seats and smart features like voice control.
The EZ-6 is already off to a hot sales start, with 2,445 models sold in November. According to Changan Mazda, the new EV was one of the top three mid-size new energy vehicle (NEV) sedans of joint ventures sold in China in its first month listed.
Will Mazda’s first dedicated EV look like the EZ-6? We will find out with Mazda aiming to launch the first EV models on its new in-house platform in 2027. Stay tuned for more.
FTC: We use income earning auto affiliate links.More.
A view of offshore oil and gas platform Esther in the Pacific Ocean on January 5, 2025 in Seal Beach, California.
Mario Tama | Getty Images
President-Elect Donald Trump said Tuesday that he will reverse President Joe Biden‘s ban on offshore drilling along most of the U.S. coastline as soon as he takes office.
“I’m going to have it revoked on day one,” Trump said at a news conference, though he indicated that reversing the ban might require litigation in court.
Biden announced Monday that he would protect 625 million acres of ocean from offshore oil and gas drilling along the East and West coasts, the eastern Gulf of Mexico, and Alaska’s Northern Bering Sea. The president issued the ban through a provision of the 1953 Outer Continental Shelf Lands Act.
An order by Trump attempting to reverse the ban will likely end up in court and could ultimately be struck down.
During his first term, Trump tried to issue an executive order to reverse President Barack Obama’s use of the law to protect waters in the Arctic and Atlantic from offshore drilling. A federal court ultimately ruled that Trump’s order was not lawful and reversing the ban would require an act of Congress.
The Republican Party has a majority in both chambers of the new Congress.