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Monday, April 29, 2024

 

Commercial operation marks completion of Vogtle expansion

29 April 2024

Georgia Power has announced the start of commercial operations at the second of the two AP1000 units built as an expansion of the existing two-unit Vogtle plant. The plant is now the largest generator of clean energy in the USA.

With all four units now in commercial operation, Vogtle is expected to produce xpected to produce more than 30 million MWh each year (Image: Georgia Power)

Vogtle 4 reached first criticality in February and was connected to the grid in March, following Vogtle 3 which entered commercial operation in July 2023. They are the first new nuclear units to be constructed in the USA in more than 30 years.

The construction of Vogtle units 3 and 4 was originally approved by the Georgia Public Service Commission (PSC) as part of Georgia Power's Integrated Resource Plan process in which regulators analyse and discuss the company's plans on how it will continue delivering clean, safe, reliable and affordable energy for millions of customers over a 20-year planning horizon. Construction of the two Westinghouse AP1000 reactors began in 2013.

"It's an exciting time to be a Georgian as our state continues to grow and thrive, with new demand for more clean energy each year," said Kim Greene, chairman, president and CEO of Georgia Power. "The new Vogtle units are a key piece of our strategy to meet the energy needs of our customers not only tomorrow, but 20 years from now."

The plant is operated by Southern Nuclear on behalf of co-owners Georgia Power, Oglethorpe Power, MEAG Power and Dalton Utilities. Georgia Power is a subsidiary of Southern Company.

Chris Womack, chairman, president and CEO of Southern Company, described the completion of the expansion of the Vogtle nuclear plant is a "hallmark achievement" for Southern Company, the state of Georgia and the entire USA. "Working with our partners across government, industry, labour and beyond, we have added new nuclear generation to the diverse energy resources that enhance the reliability, resiliency and affordability of our system as we work to achieve our goal to be net zero by 2050. These new Vogtle units not only will support the economy within our communities now and in the future, they demonstrate our global nuclear leadership," he said.

Plant Vogtle has provided billions of dollars of positive economic impact for Georgia and local communities, Georgia Power said. The new units have created 800 permanent jobs, in addition to over 9000 on-site jobs at the peak of construction.

Vogtle 1 and 2 have been in commercial operation since 1987 and 1989 respectively, and are currently licensed for a 60-year operating life.


Construction starts of second Lianjiang unit

29 April 2024


The first safety-related concrete has been poured for the nuclear island of unit 2 at the Lianjiang nuclear power plant in China's Guangdong province. It is the second of two CAP1000 units planned as the initial phase of the plant, which will eventually house six such reactors.

Concrete is poured for the foundations of the nuclear island of Lianjiang 2 (Image: SPIC)

State Power Investment Corporation (SPIC) said the first concrete was poured at 11.56am on 26 April. It expected to pour a total of about 6615 cubic metres of concrete over a 57-hour period.

The construction of the first two 1250 MWe CAP1000 reactors at the Lianjiang site was approved by China's State Council in September 2022. Excavation works for the units began in the same month, with the pouring of first concrete for the foundation of unit 1 completed at the end of September last year. Lianjiang unit 1 is expected to be completed and put into operation in 2028.

The CAP1000 reactor design - the Chinese version of the AP1000 - uses modular construction techniques, enabling large structural modules to be built at factories and then installed at the site.


Concrete pouring for Lianjiang 2 (Image: SPIC)

Once all six CAP1000 units at the site are completed, the annual power generation will be about 70.2 TWh, which will reduce standard coal consumption by more than 20 million tonnes, and reduce carbon dioxide emissions by more than 52 million tonnes, sulphur dioxide by about 171,000 tonnes and nitrogen oxides by about 149,000 tonnes.

SPIC noted the Lianjiang project is the first nuclear power project it has developed and constructed in Guangdong province. It will also be the first nuclear power project in China to adopt seawater secondary circulation cooling technology, as well as the first to use a super-large cooling tower.

With a total installed nuclear power capacity of 8.09 GWe, SPIC is one of the three largest nuclear power investment, construction and operators in China. It has reactors in operation, four units under construction and a number of preliminary nuclear power project sites.

Grid challenges add to need for more nuclear, WEC side-event told

26 April 2024


Massive growth is expected in the global demand for electricity, which will require an expansion of both generation and the transmission system, speakers at a side event at the World Energy Congress 2024 agreed. Nuclear power will play an important role, they said, in ensuring the resilience of the future electricity system.

The panel (Image: WNN)

The session - Building low-carbon resilient electricity system - was co-organised by World Nuclear Association, the United Nations Economic Commission for Europe (UNECE) and the Electric Power Research Institute (EPRI) on the sidelines of the World Energy Congress, held in Rotterdam, The Netherlands, on 22-25 April.

Asked about the biggest challenges to the global electricity system, World Nuclear Association Director General Sama Bilbao y León said that many developed countries have "very robust and reliable energy systems" that have been built over the years but when adding new generation - particularly intermittent renewable generation - "we have forgotten to ensure the resiliency of the system". "We are finding ourselves close to breaking point where any most-needed capacity ... is really going to require major investment into the grid itself," she said.

Neil Wilmshurst, Senior Vice President, Energy System Resilience and Chief Nuclear Operator at EPRI, said that in the developed world the challenge is integrating renewables, reliability, and resilience in the context of increasing demand. He noted that conservative estimates put future electricity demand at twice or three times the current demand. "If you look at the amount of hydrogen people say could be in demand in the US, it would take the entire current generation capacity of the US to produce it. That is the kind of magnitude of generation we're talking about. Then you throw on top of that the coming load from data centres." Meanwhile, electricity demand in developing countries is also rapidly expanding. A major challenge, he said, will be simultaneously increasing electricity supply in the developed world whilst electrifying the developing world.

Iva Brkic, Secretary of UNECE's Sustainable Energy Division, noted a recent International Energy Agency report which estimated that there was a need to add or refurbish a total of more than 80 million kilometres of grids by 2040, the equivalent of the existing global grid. "We need to double it in the next 14 years to meet our targets," she said. "So where are those resources going to come from? Where are the critical raw materials that we need to identify, to secure the supply chains, to really build that infrastructure? Now we add another layer to this - keeping the resiliency but also the reliability of that grid."

Brkic said the effects of climate change are already being experienced around the world. "How can we ensure that the system that we are now redesigning and building and modernising can withstand those impacts of climate change - the heatwaves, the droughts. This is something that we need to pay attention to.

"At the UNECE, we like to think also about the aspects of balancing between delivering on energy security, affordability and environmental sustainability. And when we think now about modernising the electricity system, it's also about balancing those aspects and creating the resiliency while actually cleaning the energy system."

The electricity sector is still one of the highest emitters of CO2, with many countries relying heavily on fossil fuels for electricity production, said Wassim Ballout, and energy analyst at EDF's Corporate Strategy Division. "One of the biggest challenges will be to satisfy this significant demand growth with decarbonised production. Not only decarbonising the existing production but also to cope with the significant increase ... the challenge would be to invest in all low-cost, low-emission technologies and to have a technological neutral approach and have good incentives to do that."

Bilbao y León said people tend to think of the energy systems of the future as being a version of what currently exists. However, she said the technology is going to be very different. "Very importantly I think that we are going to see a lot of coupling of systems … electricity is obviously going to be very important as we try to electrify a lot of energy, but clearly there are going to be additional energy vectors … all these technologies are going to make this system more complex … we can have different energy products depending on what is needed at different times to ensure the reliability and the resiliency and the flexibility of the system."

Ballout spoke about scenarios that EDF have been developing for more than 15 years, mainly for internal use. This year the company has made its scenario for net-zero publicly available. "It's fundamentally different from the other scenarios we're developing because we start with the constraints and the end. We start with net neutrality in 2050 and we go backwards. So we try to find the most economically efficient pathway to achieve this neutrality. And when I say economically efficient, I think of welfare maximisation, the minimisation of the cost and the optimisation of the resilience of the system.

"And that's how we come to a mix that shows we have to multiply by six our renewable capacity in Europe [by 2050] - we've been talking about 15 Western European countries. We will have between 120 and 150 gigawatts of nuclear capacity. We will enhance significantly the production of biofuels and CCS. We see this path will take us to a significant increase of flexibility needs … it's a very important part of the resilience of the system."

Wilmshurst said it was clear that nuclear and renewables will have a role together in the future electricity system. "If we have an idealistic view that renewables can expand and expand and expand, the transmission grid needs to expand and expand, get more complicated, and when it gets more complicated the potential for it be less reliable increases."

However, he noted that financing is a hurdle for nuclear deployment in most countries. "A great part of nuclear being perceived as expensive is the financing cost. So why is the financing cost so high? Because you have to build the nuclear plant - it takes a long time, it's complicated - but that huge capital investment upfront alone then gives you the facility that runs for many decades to recoup the investment."

"If we get deployment plans together with a clear picture ... all of a sudden, the deployment experience increases, deployment risk goes down, the confidence in the financial markets that the projects can be delivered on time increases. Finance starts flowing. If we don't make a decision to move, we don't start doing things, we don't learn as well. There's hesitancy in the markets to invest."

Ballout said nuclear and hydro play a very important role because outages of plants can be scheduled during periods where the demand is lower. "But that's why we say we have to continue financing and investing in hydro and nuclear. The nuclear fleet is capable of ramping up when suddenly you don't have sun or wind. It's possible technologically and technically speaking and at the same time it is possible to ramp down in order to leave room for renewables to produce and that's really the very important message for us."


Poland's nuclear programme making good progress, says IAEA

26 April 2024


An International Atomic Energy Agency review mission has praised steps taken to develop the necessary infrastructure for a safe and sustainable nuclear power programme in Poland. Meanwhile, Bechtel marks the start of site field work for the country's first nuclear power plant.

Ceyhan, right, presents the draft report to Motyka (Image: Polish Climate Ministry)

The 11-day IAEA mission to Poland - a Phase 2 Integrated Nuclear Infrastructure Review - took place from 15 to 25 April at the invitation of the Polish government and used the IAEA's Milestones Approach to review the status of 19 nuclear infrastructure issues. The aim is the check the readiness of a country to invite bids or negotiate a contract for their first nuclear power plant.

The 10-person team "identified good practices that would benefit other countries developing nuclear power in the areas of contracting approach, strategic approach to funding, early authorisation of technical support organisations to support the nuclear regulator, engagement with the electrical grid operator, stakeholder involvement and industrial involvement".

Mission team leader Mehmet Ceyhan, Technical Lead of the IAEA Nuclear Infrastructure Development Section, said: "The Polish Nuclear Power Programme (PNPP) was initiated with clear objectives and is progressing towards the construction stage in a structured way. We observed strong and dedicated teams in each of the key organisations that will help to achieve the government’s objectives for the PNPP."

Among the areas highlighted for further action was "the need to further review its legal and regulatory framework, and finalise the preparatory work required for the contracting and construction stages".

Miłosz Motyka, Undersecretary of State for the Ministry of Climate and Environment of Poland, said: "Poland's cooperation with the IAEA is a long-term collaboration, and the review mission is extremely valuable and beneficial for the implementation and execution of the Polish nuclear power programme."

The collaboration with the IAEA also involved a September 2023 Integrated Regulatory Review Service mission to the country which found Poland's nuclear regulatory framework met IAEA safety standards.

Field work getting under way


Meanwhile, a symbolic kick-off ceremony was held by US-firm Bechtel at its Warsaw office to mark the start of geological surveys for Poland's first nuclear power plant at the Lubiatowo-Kopalino site in the Pomeranian municipality of Choczewo.

Bechtel is a member of the US consortium responsible for the implementation of the nuclear power plant project which is set to feature three Westinghouse AP1000 units. The field work is due to start in May on an area covering about 30 hectares with approximately 220 research points being constructed with depths of 20 to 210 metres. Bechtel has awarded the contract for the geological work to PSD Poland, with the work expected to be completed in November.

The findings will be crucial for the earthworks design for the plant and will also inform the Location Report which Polskie Elektrownie Jądrowe (PEJ) will need to submit to obtain a construction permit from Poland's National Atomic Energy Agency, the PPA.

The event was attended by the US Ambassador to Poland Mark Brzezinski, who called it "another important step forward as Poland and the United States work together to create a civil nuclear industry in Poland, and it shows that the United States is delivering on our shared commitment to Poland’s energy security and supporting Poland’s energy transition".

Leszek Hołda, Bechtel Poland Country Manager, said: "The commencement of the initial fieldwork for the construction of this plant is a significant moment for the Polish economy, the companies that will participate in the supply chain, and the local community."

Leszek Juchniewicz, a member of the board of directors and acting president of PEJ, said this was an important time for the enterprise and showed that "the project to build Poland's first nuclear power plant is gaining momentum".

Project background


PEJ - a special-purpose vehicle 100% owned by the State Treasury - is responsible for the construction project of the first nuclear power plant in Poland.

In November 2022, the then Polish government selected the Westinghouse AP1000 reactor technology. An agreement setting a plan for the delivery of the plant was signed in May last year by Westinghouse, Bechtel and PEJ. The Ministry of Climate and Environment in July issued a decision-in-principle for PEJ to construct the plant. The aim is for Poland's first AP1000 reactor to enter commercial operation in 2033.

Under an engineering services agreement signed in September last year, in cooperation with PEJ, Westinghouse and Bechtel will finalise a site-specific design for a plant featuring three AP1000 reactors. The design/engineering documentation includes the main components of the power plant: the nuclear island, the turbine island and the associated installations and auxiliary equipment, as well as administrative buildings and infrastructure related to the safety of the facility. The contract also involves supporting t

Industria and Rolls-Royce SMR plans take step forward

26 April 2024


Poland's Industria says that it now has all the necessary ministerial opinions required to move on to the next stage of its plans for the construction of small modular reactor plants using Rolls-Royce SMR's technology.

Rolls-Royce SMR’s Woods and Industria's Ruman, pictured last year (Image: Rolls-Royce SMR)

The Polish Minister of Climate and Environment needed to get opinions from a range of government departments - the Minister of State Assets, the Internal Security Agency and Poland's chief Geologist - that the investment would have a "positive impact".

Now it has received all the required opinions, the ministry is able to move ahead to the next step which would be to issue a Decision In Principle to deploy Rolls-Royce SMRs, a 470 MWe design based on a small pressurised water reactor.

Last year, state-owned Industria - part of Industrial Development Agency JSC (IDA) - selected Rolls-Royce SMR technology to fulfil the zero-emission energy goals of the Central Hydrogen Cluster in Poland and as part of their plans to produce 50,000 tonnes of low-carbon hydrogen every year.

Industria submitted its application for a Decision in Principle in December to Polish Climate and Environment Minister Paulina Hennig-Kloska, and has now welcomed the receipt of the last required opinion, from Poland's Internal Security Agency.

Szczepan Ruman, President of the Management Board of Industria, said: "The positive opinion from the Internal Security Agency is a very important document for us, not only because it is the last opinion we have been waiting for and the Minister of Climate and Environment has complete documentation to decide on issuing the Decision in Principle. The positive opinion from the Internal Security Agency is important for us primarily because in this opinion, the agency - responsible for the internal security of the state, as well as for supervising the energy sector - confirms that our planned investment has a positive impact on the security of the Republic of Poland."

He added that with the Central Hydrogen Cluster he hoped "it will be possible to build a significant order portfolio from several entities for SMR units using Rolls-Royce technology, giving the Polish side a strong position in negotiations on the delivery terms of individual units, as well as, above all, in terms of the participation of the Polish industry in a supply chain for RR SMRs and thus the creation of attractive jobs in Poland."

Alan Woods, Rolls-Royce SMR’s Director of Strategy and Business Development, said: "We are delighted the Polish Government has concluded that the deployment of our unique 'factory-built' nuclear power plants would have a positive impact for the country, and we look forward to a Decision in Principle to deploy Rolls-Royce SMRs in Poland."

In July last year, Industria signed a letter of intent with the Kostrzyn-Słubicka Special Economic Zone SA (KSSSE) regarding cooperation on the location of a modular power plant based on Rolls-Royce SMR technology in the areas covered by the KSSSE.

Last month, Industria also signed a letter of intent with Chiltern Vital Group. With its partners - including Western Gateway, SGSC, University of Bristol, Vital Energi and Rolls-Royce SMR - Chiltern Vital Group intends to create a world-first net-zero and nuclear technologies campus at a site next to the former Berkeley Magnox nuclear power plant in Gloucestershire, southwest England. This will be the first step towards a 'net-zero super cluster' investment zone, encouraging the roll out of Rolls-Royce SMRs alongside an array of net-zero technologies.

The main provisions of the agreement include cooperation in: training and development of skills of Polish students and specialists; exchange of know-how to accelerate the licensing process of components dedicated to the nuclear industry; joint development of related technologies to create large low-carbon regional technology parks; and creating private financing models to ensure the viability of small modular reactor projects.he investment process and bringing it in line with current legal regulations in cooperation with the PAA and the Office of Technical Inspection.


Romanian President leads visit to Doosan SMR production facilities

25 April 2024


Romania plans a small modular reactor power plant, using NuScale technology, with South Korea's Doosan Enerbility set to manufacture and supply the core equipment, including the upper reactor module.

Geewon Park, centre, with President Iohannis, right, during the visit (Image: Doosan Enerbility)

Romania's SMR project is aiming for 462 MWe installed capacity, using six 77 MWe NuScale modules. The SMR project, at Doicesti where a thermal power plant will be replaced, is expected to create nearly 200 permanent jobs, 1500 construction jobs and 2300 manufacturing and component assembly jobs, as well as facility operation and maintenance jobs over the 60-year life of the facility.

During the visit to the manufacturing facilities in Changwon, the delegation of senior Romanian politicians and industry figures toured the forging shop and reviewed specific facilities for SMR production and discussed the project schedule. Doosan signed a business collaboration agreement with NuScale for the supply of NuScale Power Modules and other equipment in 2019. Together with other Korean financial investors it has also made an equity investment of nearly USD104 million in NuScale Power.

President Klaus Iohannis said after the visit: "Romania wants to develop its supply chains in the clean energy industry and hence lead in supporting the regional decarbonisation efforts. International cooperation and partnering with well-established actors is key to achieving this objective and securing Romania’s energy and economic future".

Also on the visit was Cosmin Ghita, CEO of Romania's nuclear power company Nuclearelectrica, who said: "The Romanian SMR Project will benefit from the highest level of nuclear safety and technological robustness. Doosan Enerbility, with their internationally acknowledged experience in nuclear equipment manufacturing and advancements in SMR technologies, will significantly contribute to ensuring that, by the end of the 2030s, Romania will become a benchmark in advanced nuclear technology implementation and efficient long-term clean energy projects."

Melania Amuza, CEO of the SMR project company RoPower, a joint venture between Nuclearelectrica and Nova Power and Gas, said: "The sustainable development of the Doicesti SMR project includes strong supply chain links ... we look forward to building together a flagship SMR project for Romania."

Doosan Enerbility CEO and Chairman Geewon Park, said: "Leveraging a strong cooperative relationship with NuScale Power, Doosan Enerbility is consistently improving its production capabilities through innovation and technological advancements for SMRs. We are actively preparing for the deployment of Romania's first SMR project, with the goal of supporting the reliable provision of clean energy in Romania."

NuScale Power and RoPower have been conducting a Front End Engineering and Design Phase 1 study to analyse the preferred SMR site - which got International Atomic Energy Agency approval earlier this month - and received USD275 million funding last May from the USA and "multinational public-private partners" to support procurement of "long lead materials, Phase 2 Front End Engineering and Design work, provision of project management expertise, site characterisation and regulatory analyses, and the development of site-specific schedule and budget estimates for project execution".

IAEA assesses operation of Japanese reactor for 60 years

25 April 2024


Japanese utility Kansai Electric Power Company is implementing timely measures for the safe long-term operation of unit 3 at its Mihama nuclear power plant, a team of International Atomic Energy Agency experts has concluded. The team also provided recommendations and suggestions to further improve the safe operation of the unit beyond 40 years.

The Mihama plant (Image: NRA)

Under revised regulations which came into force in July 2013, Japanese reactors have a nominal operating period of 40 years. Extensions can be granted once only and limited to a maximum of 20 years, contingent on exacting safety requirements.

In November 2016, Japan's Nuclear Regulation Authority (NRA) approved an extension to the operating period for Kansai's Mihama unit 3, a 780 MWe pressurised water reactor that entered commercial operation in 1976. The NRA's decision cleared the unit to operate until 2036. Mihama 3 was the third Japanese unit to be granted a licence extension enabling it to operate beyond 40 years under the revised regulations, following Kansai's Takahama 1 and 2 which received NRA approval in June 2016.

Mihama 3 was restarted in June 2021 after having been idle since May 2011 following the accident at the Fukushima Daiichi plant two months earlier. It became the first Japanese power reactor to operate beyond 40 years.

The International Atomic Energy Agency (IAEA) has now completed a ten-day Safety Aspects of Long-Term Operation (SALTO) mission to Mihama 3, carried out at Kansai's request.

A SALTO peer review is a comprehensive safety review addressing strategy and key elements for the safe long-term operation of nuclear power plants. SALTO missions complement IAEA Operational Safety Review Team (OSART) missions which are designed as a review of programmes and activities essential to operational safety. SALTO peer reviews can be carried out at any time during the lifetime of a nuclear power plant, although according to the IAEA the most suitable time lies within the last ten years of the plant's originally foreseen operating period. SALTO and OSART reviews are carried out at the request of the IAEA member country in which the review is to take place.

The team reviewed Mahama 3's preparedness, organisation and programmes for safe LTO. The mission was conducted by an 11-person team comprising experts from the Czech Republic, France, Sweden, the UK and the USA, as well as three observers from Finland and South Korea, and two IAEA staff members.

The team identified good performances, including that the plant has developed and effectively implemented a comprehensive methodology for identification and management of design obsolescence. The plant has also participated in benchmarking efforts related to ageing management of the steel containment and containment pressure testing and uses these benchmarking efforts to enhance the ageing management activities of the civil structures. In addition, it has put in place an effective mentoring programme using retired staff as mentors for new and current staff to develop their competencies and skills.

The team also provided recommendations and suggestions, including that the plant should further develop and implement its LTO programme and should fully develop and complete the ageing management review process for mechanical, electrical, and instrumentation and control components and civil structures. It also said the plant should improve its so-called equipment qualification programme, designed to confirm the resistance of components to harsh conditions.

"The team observed that Kansai is implementing measures for safe LTO in a timely manner and the staff at the plant are professional, open and receptive to proposals for improvement," said team leader and IAEA Nuclear Safety Officer Martin Marchena. "Some ageing management and LTO activities already meet IAEA safety standards. We encourage the plant to address the review findings and implement all remaining activities for safe LTO as planned."

The team provided a draft report to the plant management and to the NRA at the end of the mission. The plant management and the NRA will have an opportunity to make factual comments on the draft. A final report will be submitted to the plant management, the NRA and the Japanese government after comments are addressed.

"Kansai is wholly committed to improving upon the topics recommended and suggested through the SALTO review," said Kazutaka Tsuru, the general manager of the Mihama plant. "As a pioneer in Japan's nuclear power generation sector, we also intend to roll out the improvements to domestic nuclear power stations and contribute to maintaining and developing the country's nuclear power generation. Harnessing the knowledge obtained from the review, we hope to make efforts to achieve higher standards with the support of IAEA members."

Researched and written by World Nuclear News

Sunday, April 21, 2024

Big Oil’s Carbon Capture Conundrum

Many energy experts and environmentalists worry that the huge rush to fund CCS tech is a dangerous distraction

Editor OilPrice.com
Sat, 20 April 2024 


Hard-to-abate industries, particularly oil and gas, are racing to increase their carbon capture capacity as they strive to decarbonise operations. Despite being some of the biggest carbon emitters, many oil and gas majors are optimistic they can dramatically reduce their emissions by using carbon capture and storage (CCS) technology. This is, realistically, one of the few ways that oil and gas companies can reduce while keeping their fossil fuel output high. However, energy experts and environmentalists are now worried that Big Oil is becoming overly reliant on CCS tech instead of striving for meaningful change towards a green transition.

CCS technology has been around for years but has so far not succeeded in capturing carbon dioxide at the rate required to decarbonise large-scale hard-to-abate operations. Companies and governments worldwide have pumped huge quantities of funding into CCS in recent years in a bid to develop the technology required to effectively capture and store huge amounts of CO2 from industrial and oil and gas operations. However, scientists are still uncertain about whether today’s technology can capture the massive quantity of carbon emissions that many oil majors are promising.


The International Energy Agency (IEA) has deemed CCS technology as “critical” to achieving net-zero emissions around the globe. It is viewed as one of the few possible ways to decarbonise hard-to-abate industries that we continue to rely on until alternative production methods and materials are developed. The IEA also warned that it is not sustainable for oil and gas companies to mitigate major new fossil fuel projects simply by incorporating CCS tech into operations. Many oil majors have invested heavily in CCS tech to justify their ongoing exploration activities and huge oil and gas output, which is expected to continue for decades to come. But the IEA has repeatedly stated that this is at odds with a net-zero scenario by 2050.

CCS typically works by using chemical absorption to capture the CO2 emitted from a chimney at a facility. The emissions are then condensed into a liquid to be transported through a pipeline to be stored thousands of feet underground in depleted oil wells or geological formations. This process is anything but straightforward and rolling out CCS tech on a commercial scale is both complicated and expensive. According to the IEA, more than one billion metric tonnes of CO2 must be captured annually by 2030, which is over 20 times that captured in 2022. This figure rises to six billion tonnes in 2050, around 130 times more than in 2022.

Despite big promises, many companies are falling short of their carbon capture targets. To date, only five percent of announced CCS projects have reached a final investment decision, according to the IEA. There is still little evidence to suggest that CCS tech can be rolled out economically on a commercial scale.

Oil and gas companies have earmarked significant funds for CCS tech over the coming years, in the hope that will be able to continue pumping oil and gas for decades to come. Chevron expects to spend $10 billion on emissions-reducing technologies, while Exxon has pledged an investment of $20 billion. The projected total spending on CCS projects is around $241 billion globally by 2030. The U.S. and the U.K. are currently leading these efforts with investment pipelines of $85 billion and $45 billion, respectively, by 2030.


Many energy experts and environmentalists worry that the huge rush to fund CCS tech is a dangerous distraction. Oil and gas companies have been forced to accelerate their ESG efforts due to pressure from governments and international organisations, as well as high consumer expectations. However, most of these companies expect oil and gas production to continue to be their principal activity for the coming decades, meaning they need a quick way to decarbonise operations without cutting output. Without a proven track record, this could be a dangerous approach to decarbonising as, if CCS tech does not live up to expectations, it could have dire repercussions.

CCS technology is still extremely expensive, and it has a poor track record of working as effectively as anticipated

One 2022 study of CCS projects found that more were failing than succeeding, including Chevron’s Gorgon liquefied natural gas facility in Australia. This is the world’s biggest CCS project to date, at a cost of $3 billion, and it was found to be working at just a third of its expected capacity. At this rate, it will be impossible for companies that are relying on CCS tech to meet their climate targets in the coming years. Nevertheless, oil and gas companies worldwide continue to make bold claims about the potential for CCS tech, without sufficient evidence to back it up. The failure of CCS technologies in oil and gas operations could be catastrophic, leading to much higher-than-anticipated carbon emissions and contributing to a delay in the global green transition.

By Felicity Bradstock for Oilprice.com


Thursday, April 18, 2024

 

Data-driven workflow doubles carbon capture performance of engineered biochar



Researchers have now doubled the ability of biomass waste-derived engineered biochar to capture carbon dioxide using a newly developed data-driven workflow



CACTUS COMMUNICATIONS

Improving the carbon capture efficiency of biomass waste-derived engineered biochar 

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THROUGH THE IMPLEMENTATION OF AN INNOVATIVE DATA-DRIVEN WORKFLOW, RESEARCHERS HAVE DOUBLED THE CARBON DIOXIDE CAPTURING CAPACITY OF ENGINEERED BIOCHAR DERIVED FROM BIOMASS WASTE.

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CREDIT: OREGON DEPARTMENT OF FORESTRY FROM FLICKR (HTTPS://WWW.FLICKR.COM/PHOTOS/OREGONDEPARTMENTOFFORESTRY/16637208254/)





Climate change presents a formidable global challenge. Developing efficient carbon capture and storage (CCS) technology is an effective way to mitigate climate change. Carbon capture using biomass waste-derived engineered biochar is a promising avenue in CCS technology. However, optimal synthesis of engineered biochar is a time- and resource-intensive process. Researchers have now devised an active learning strategy that accelerates the development of high-performance engineered biochar with enhanced CO2 uptake.

 

In a groundbreaking development, researchers have unlocked the potential of biomass waste-derived engineered biochar for unprecedented CO2 capture, paving the way for advanced climate change mitigation and sustainable waste management solutions.

Despite the recognized benefits of biochar in addressing environmental challenges, its optimal synthesis for enhanced performance has long been hindered by time- and labor-intensive processes. In response to this challenge, a team of experts has unveiled an innovative active learning strategy designed to guide and expedite biochar synthesis while significantly improving its CO2 adsorption performance.

The research team, led by Prof. Yong Sik Ok, Chair and Program Director of the APRU Sustainable Waste Management Program, collaborated with Prof. Xiangzhou Yuan from Southeast University, Prof. Javier Pérez-Ramírez from ETH Zurich, and Prof. Xiaonan Wang from Tsinghua University. Their approach leverages experimental data to recommend optimal synthesis parameters, focusing on maximizing the narrow micropore volume of engineered biochar—a key factor in its CO2 adsorption performance. This work, “Active Learning- Based Guided Synthesis of Engineered Biochar for CO2 Capture,” has been selected as a Front Cover, which is the featured cover in all ACS journal issues.

The active learning strategy was rigorously validated through experimental tests, with data iteratively leveraged for subsequent model training and revalidation. This iterative process, establishing a closed loop, resulted in the synthesis of 16 property-specific engineered biochar samples over three active learning cycles. Impressively, the CO2 uptake nearly doubled by the final round, showcasing the transformative impact of this data-driven approach.

The active learning strategy we employed not only expedites the synthesis of engineered biochar but also maximizes its CO2 adsorption capacities. This innovative approach has the potential to reshape the landscape of biomass waste-derived materials, offering a data-driven workflow for the development of high-performance biochar with broader applications,” says Prof. Ok.

This research introduces a pioneering data-driven workflow that not only accelerates the development of high-performance engineered biochar but also expands its applications as functionalized materials. The breakthrough holds significant promise for addressing climate change and advancing sustainable waste management practices, marking a crucial step towards a more environmentally conscious future.

The active learning cycles described in our research exemplify our dedication to innovative methodologies. It is through collaboration and a commitment to sustainable practices that we can drive meaningful change, as reflected in our recent publications in leading journals,” says Prof. Yuan.

In addition to publishing key articles in reputed journals, the team's remarkable research portfolio includes a series of influential publications, each addressing critical issues and proposing innovative solutions:

  • “Machine learning for heavy metal removal from water: recent advances and challenges” - Published in ACS ES&T Water (2023, DOI: 10.1021/acsestwater.3c00215) and featured with a Supplementary Journal Cover, this manuscript explores the application of machine learning in addressing the removal of heavy metals from water sources, highlighting recent advancements and challenges in the field.
  • “Sustainability-inspired upcycling of waste polyethylene terephthalate plastic into porous carbon for CO2 capture” - Published in Green Chemistry (2022, DOI: 10.1039/d1gc03600a) and featured with a Front Cover and selected as a Highly Cited Paper (HCP), this paper delves into the upcycling of waste polyethylene terephthalate plastic into porous carbon materials, offering a sustainable solution for CO2 capture.
  • “Sustainable Food Waste Management: Synthesizing Engineered Biochar for CO2 Capture” – Published in ACS Sustainable Chemistry & Engineering (2022, DOI: 10.1021/acssuschemeng.2c03029) and featured with a Front Cover, this work upcycles food waste into high-performance engineered biochar for CO2 capture, indicating that a net negative global warming potential could be achieved using food waste-derived CO2 adsorbent from the life-cycle perspective.
  • “Applied Machine Learning for Prediction of CO2 Adsorption on Biomass Waste-Derived Porous Carbons” - Published in ES&T (2021, DOI: 10.1021/acs.est.1c01849) and featured with a Supplementary Journal Cover, this manuscript explores the application of machine learning techniques for predicting CO2 adsorption on biomass waste-derived porous carbons, offering insights into efficient carbon capture technologies.
  • “The COVID-19 pandemic necessitates a shift to a plastic circular economy” - Featured in Nature Reviews Earth & Environment (2021, DOI: 10.1038/s43017-021-00223-2), this publication underscores the urgency of transitioning to a plastic circular economy in response to the challenges posed by the COVID-19 pandemic.
  • “Dual closed-loop chemical recycling support sustainable mitigation of plastic pollution” - Presented in Matter (2021, DOI: 10.1016/j.matt.2021.03.014), this research outlines a dual closed-loop chemical recycling approach to supporting sustainable mitigation of plastic pollution, highlighting the importance of circular economy principles.

Prof. Ok, along with collaborators, including Prof. Xiangzhou Yuan from Southeast University, has been instrumental in driving these initiatives forward. Their collective efforts have not only advanced scientific knowledge but also paved the way for practical solutions to some of the most pressing environmental challenges of our time.

 

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Reference

DOI: https://doi.org/10.1021/acs.est.3c10922

 

About APRU Sustainable Waste Management Program

As a network of leading universities linking the Americas, Asia, and Australasia, APRU (the Association of Pacific Rim Universities) brings together thought leaders, researchers, and policy-makers to exchange ideas and collaborate toward practical solutions to combat the challenges of the 21st century. The APRU Sustainable Waste Management Program focuses on adopting environmentally friendly practices to manage waste effectively while minimizing its negative impacts on the environment and human health. It involves various strategies and approaches to reduce, reuse, recycle, and properly dispose of waste materials together with ESG concepts. Prof. Yong Sik Ok at Korea University serves as the Chair and Program Director of the program, co-directed by Prof. William Mitch at Stanford University. For more information, visit APRU Sustainable Waste Management Program’s website.

 

About Professor Yong Sik Ok

Professor Yong Sik Ok is a KU HCR Professor. He is the Chair and Program Director of the Sustainable Waste Management Program for the Association of Pacific Rim Universities (APRU) and the President of the International ESG Association and the International Society of Trace Element Biogeochemistry. He maintains a worldwide professional network by serving as the Editor-in-Chief of CleanMat (Wiley Open Access) and the Co-Editor-in-Chief of Critical Reviews in Environmental Science and Technology (CREST, five-year IF:13.6) at Taylor and Francis. Moreover, Prof. Ok has hosted many conferences and forums focusing on Sustainability, UN SDGs, and ESG. The recently concluded 6th Global Conference on ESG Management & Sustainability marked another milestone in Prof. Ok’s ongoing journey toward achieving sustainability and ESG goals together with Prof. Jay Hyuk Rhee (President, KU ESG Research Institute & President, International ESG Association) at Korea University Business School. Importantly, Prof. Ok will chair the 4th Australian Circular Economy Conference, scheduled to take place in Sydney, Australia, in October 2024, together with Prof. Ali Abbas, Director, Waste Transformation Research Hub and the Associate Dean Research, Faculty of Engineering, The University of Sydney.