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Europe’s green hydrogen revolution: three promising projects, but also fierce criticism – IOPlus

 

IO+ closely followed key developments in hydrogen in 2024. Despite major challenges, several promising green hydrogen projects progressed in Europe. In this overview, we highlight three high-profile initiatives from the Netherlands, Germany, and France.

 

Netherlands: flagship of European hydrogen production in Rotterdam

 

The flagship of European hydrogen production is currently rising on the Second Maasvlakte in Rotterdam. With an investment of 1 billion euros, Shell is building here the Holland Hydrogen I, the largest green hydrogen plant in Europe. The plant will produce 60,000 kilograms of renewable hydrogen daily with an electrolysis capacity of 200 MW. The hydrogen will be produced with electricity from the Hollandse Kust (north) offshore wind farm.

 

It was announced this year that Shell and TenneT have signed an agreement to connect the first large-scale hydrogen plant to the high-voltage grid. Because there is insufficient capacity at the current high-voltage substations, TenneT is building the new Amaliahaven substation. This temporary solution will allow Shell to start hydrogen production earlier while work on the final infrastructure is underway.

 

Germany: a Cologne hydrogen plant

 

In Germany this year, Shell made a final investment decision to build a large hydrogen plant in Cologne. The facility, equipped with a 100-megawatt electrolyzer, is to be operational by 2027. Although smaller than the Dutch project, this plant is an important part of Germany’s energy transition. Its strategic location in the industrial heart of Germany enables efficient distribution.

 

France: ‘Le Havre’ as hydrogen hub for domestic transport

 

France is also making great strides in the hydrogen economy with an impressive project. It was announced earlier this year that it is coming to the port of Le Havre. American industrial gas company Air Products is investing €1.1 billion in a renewable hydrogen import hub here. This facility will focus specifically on importing ammonia, which can then be converted into hydrogen for domestic transportation. In parallel, French company Qair is investing €500 million in an e-methanol plant at the same location. This combined investment of €1.6 billion makes Le Havre a crucial player in the European hydrogen economy.

 

Strong criticism from the European Court of Auditors

 

So while promising initiatives are taking place, not everything is positive when it comes to hydrogen in Europe. The European Court of Auditors earlier this year strongly criticized EU policy on sustainable hydrogen production. According to the auditors, the 2030 targets are unsubstantiated and unrealistic. In 2020, the European Commission set ambitious goals: by 2030, the EU would produce 10 million tons of green hydrogen and import another 10 million tons. However, these figures seem more driven by political ambitions than thorough research.

 

The Court points out that many EU member states are lagging behind and that their joint plans are insufficient to meet the targets. Moreover, a coherent strategy for hydrogen imports is lacking, which further calls into question the feasibility of the plans.

 

Netherlands in top 5

 

Industrial companies that want to become more sustainable find green hydrogen too expensive, making them reluctant to enter into long-term contracts. This hinders the development of hydrogen plants, including in the Netherlands. Yet the European Court of Auditors considers the Netherlands one of the five frontrunners in hydrogen. After Spain, the Netherlands has the largest number of hydrogen projects in preparation, although many are still in the early stages. Germany and Sweden lead the way in this regard with projects already more advanced.

 

Source:  Hydrogencentral

Posted by Morning lark
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Chinese electrolysers to capture ‘one-third’ of global orders in 2025: Wood Mackenzie

https://www.h2-view.com/story/chinese-electrolysers-to-capture-one-third-of-global-orders-in-2025-wood-mackenzie/2118765.article/?utm_medium=email&utm_campaign=Daily%20Daily%20Hydrogen%20Highlights&utm_content=Daily%20Daily%20Hydrogen%20Highlights+CID_7c06112e2a65152810095c34c0a25c47&utm_source=Campaign%20Monitor&utm_term=Chinese%20electrolysers%20to%20capture%20one-third%20of%20global%20orders%20in%202025%20Wood%20Mackenzie


Posted by Morning lark
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China launches hydrogen-powered container ship

China has launched its first hydrogen-powered container ship, capable of carrying 64 standard containers, in Jiaxing, East China’s Zhejiang Province, marking a significant step in adopting green shipping solutions, China Media Group reported on Thursday.

The vessel, measuring 64.5 meters in length, has a capacity of 64 standard containers, equivalent to approximately 1,450 tons. Powered solely by two 240 kW hydrogen fuel cell systems, it has an operational range of 380 kilometers.

Producing zero emissions, the green vessel offers a cleaner alternative to traditional fossil-fuel powered vessel, which can reduce around 700 tons of carbon dioxide emission annually.

The vessel is equipped with a key hydrogen fuel cell system with a rated power of 240 kilowatts and the largest hydrogen fuel cell applied on a ship. Its hydrogen storage system can hold 550 kg of hydrogen, making it the largest capacity storage system used on a ship to date, chinanews.com.cn reported.

The control system integrates the hydrogen storage system, hydrogen supply system, fuel cell, lithium battery, propulsion and control systems, all newly developed and implemented for the first time, the report noted.

Following its launch, the ship will undergo equipment installation and commissioning tests, with plans to commence operations on the inland transport route from Zhapu port in Jiaxing to Xiasha port in Hangzhou, East China’s Zhejiang Province in 2025.

The voyage route will become China’s first green hydrogen-powered inland container transport line, advancing the use of hydrogen energy in water transportation.

Source:  Hydrogencentral

Posted by Morning lark
, |

Europe’s green hydrogen revolution: three promising projects, but also fierce criticism – IOPlus

Europe’s green hydrogen revolution: three promising projects, but also fierce criticism – IOPlus

IO+ closely followed key developments in hydrogen in 2024. Despite major challenges, several promising green hydrogen projects progressed in Europe. In this overview, we highlight three high-profile initiatives from the Netherlands, Germany, and France.

Netherlands: flagship of European hydrogen production in Rotterdam

The flagship of European hydrogen production is currently rising on the Second Maasvlakte in Rotterdam. With an investment of 1 billion euros, Shell is building here the Holland Hydrogen I, the largest green hydrogen plant in Europe. The plant will produce 60,000 kilograms of renewable hydrogen daily with an electrolysis capacity of 200 MW. The hydrogen will be produced with electricity from the Hollandse Kust (north) offshore wind farm.

It was announced this year that Shell and TenneT have signed an agreement to connect the first large-scale hydrogen plant to the high-voltage grid. Because there is insufficient capacity at the current high-voltage substations, TenneT is building the new Amaliahaven substation. This temporary solution will allow Shell to start hydrogen production earlier while work on the final infrastructure is underway.

Germany: a Cologne hydrogen plant

In Germany this year, Shell made a final investment decision to build a large hydrogen plant in Cologne. The facility, equipped with a 100-megawatt electrolyzer, is to be operational by 2027. Although smaller than the Dutch project, this plant is an important part of Germany’s energy transition. Its strategic location in the industrial heart of Germany enables efficient distribution.

France: ‘Le Havre’ as hydrogen hub for domestic transport

France is also making great strides in the hydrogen economy with an impressive project. It was announced earlier this year that it is coming to the port of Le Havre. American industrial gas company Air Products is investing €1.1 billion in a renewable hydrogen import hub here. This facility will focus specifically on importing ammonia, which can then be converted into hydrogen for domestic transportation. In parallel, French company Qair is investing €500 million in an e-methanol plant at the same location. This combined investment of €1.6 billion makes Le Havre a crucial player in the European hydrogen economy.

Strong criticism from the European Court of Auditors

So while promising initiatives are taking place, not everything is positive when it comes to hydrogen in Europe. The European Court of Auditors earlier this year strongly criticized EU policy on sustainable hydrogen production. According to the auditors, the 2030 targets are unsubstantiated and unrealistic. In 2020, the European Commission set ambitious goals: by 2030, the EU would produce 10 million tons of green hydrogen and import another 10 million tons. However, these figures seem more driven by political ambitions than thorough research.

The Court points out that many EU member states are lagging behind and that their joint plans are insufficient to meet the targets. Moreover, a coherent strategy for hydrogen imports is lacking, which further calls into question the feasibility of the plans.

Netherlands in top 5

Industrial companies that want to become more sustainable find green hydrogen too expensive, making them reluctant to enter into long-term contracts. This hinders the development of hydrogen plants, including in the Netherlands. Yet the European Court of Auditors considers the Netherlands one of the five frontrunners in hydrogen. After Spain, the Netherlands has the largest number of hydrogen projects in preparation, although many are still in the early stages. Germany and Sweden lead the way in this regard with projects already more advanced.

Source:  Hydrogencentral

Posted by Morning lark
, |

Image Source: Korea Institute Of Energy Research

  • Energy Research , Solving the Power Loss Problem in Large-Scale Processes by Developing Bio-Electrolysis Cells Using Independent Technology
  • 1.8 times more electron production and 1.2 times more hydrogen productivity compared to existing processes
  • Published in the December issue of 'Science of the Total Environment', a world-renowned journal in the field of environmental science

The research team led by Dr. Eun-Jin Joa of the Korea Institute of Energy Research ( hereinafter referred to as 'Energy Research' ) improved the core components of a bioelectrolyte cell that produces hydrogen using microorganisms in waste, thereby solving the power loss problem of the existing process and opening up the possibility of scaling up the process .

Biogas is a gas produced in the process of microorganisms decomposing organic matter in organic waste . When this is reacted with steam at high temperatures or thermally decomposed, it can produce hydrogen, an eco-friendly energy source, and is thus attracting attention as a promising carbon-neutral technology . However, to date, it has not been commercialized due to the emission of carbon dioxide during the production process and the large energy consumption required to maintain a high-temperature environment .

To replace this, leading countries overseas such as the US and Europe have been actively researching hydrogen production processes using bio-electrolyzers * . The principle is that when waste and electricity are supplied to a bio-electrolyzer, electrons and hydrogen ions generated when microorganisms consume organic matter combine to produce hydrogen gas .

Bio-electrolyzer : A system that produces energy ( electricity , hydrogen , methane, etc. ) or useful chemicals by combining the biological metabolism of microorganisms with electrochemical reactions. It is gaining attention as an eco-friendly technology that can simultaneously process waste and produce energy.

The bioelectrolyte process is advantageous in terms of both environment and cost as it emits less carbon dioxide than existing processes and can operate in low-temperature environments . However, as the process scales up, the movement path of electrochemical reaction substances increases and resistance increases, which has limitations in that power loss increases .

In order to solve the power loss of existing bioelectrolyzers, the research team independently improved the cell, which is the basic unit of the battery, and applied it to the hydrogen production process . The process in which the developed cell was applied showed hydrogen productivity 1.2 times higher and electron productivity 1.8 times higher than that of the hydrogen production process using existing bioelectrolyzers .

The newly developed bioelectrolyte cell uses a new zero-gap technology developed by the research team . Zero-gap is a method frequently used to minimize the gap between the electrodes and separators that make up the battery, thereby reducing electrical resistance and maximizing reaction efficiency .

However, the existing zero-gap structure is simply configured to sandwich the electrodes and membranes together, so when the process is scaled up, a pressure imbalance occurs, creating a small gap between the electrodes and membrane . This causes a partial decrease in efficiency and causes resistance to increase again .

On the other hand, the zero-gap structure developed by the research team has a cylindrical lid, and the pressure generated when the lid is closed can evenly push the back of the electrode, completely sealing the electrode and the separator . Since this can be equally applied when the process is scaled up, it is expected to play a major role in the commercialization of bioelectrolyte cells .

The research team applied the developed bioelectrolyte cell to the hydrogen production process and succeeded in producing 1.8 times more electrons than the existing process and increasing the final amount of hydrogen produced by 1.2 times . The same performance was maintained in the pilot-scale experiment, which is the preliminary stage of large-scale development , and through this, it obtained official certification from the Korea Testing Laboratory and proved its effectiveness .

Dr. Eun-Jin Jo, the principal investigator, said, “This technology development not only solves the environmental and economic problems of domestic organic waste disposal , but also represents a significant advancement in producing hydrogen, a clean energy source, with high efficiency,” and “ If the developed high-performance bio-electrolysis battery cell is commercialized, it will be able to greatly contribute to the transition to carbon neutrality and a hydrogen society . ”

Meanwhile, this research result was carried out with the support of the Future Hydrogen Source Technology Development Project of the National Research Foundation of Korea and was published in ' Science of The Total Environment,' a world-renowned journal in the field of environmental science .

Bioelectrolyzer Produces Hydrogen from Waste - Energy Research

 

Bioelectrolyzer Produces Hydrogen from Waste - Energy Research - Fuelcellsworks

Researchers develop a bioelectrolysis cell that can produce 1.8 times more electrons and 1.2 times more hydrogen than existing processes.

fuelcellsworks.com

 

Posted by Morning lark
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