The bunkering ceremony at Shanghai Yangshan Port was themed “Green Fuelled Globe, Lead the Future.”

It is worth noting that the Taonan green methanol project from Shanghai Electric was the main supplier of biomethanol for this operation. The operation constitutes a major breakthrough not just in terms of supply volume but also demonstrates that the Taonan project is entering stable production along with large-scale delivery.

Apparently, this success is built on the back of a fully interconnected interprovincial green fuel supply chain. Shanghai, Jilin, and Liaoning jointly built a green fuel transportation corridor that had been officially launched at the Shanghai International Shipping Green Fuel Sustainable Development Conference on June 30, 2026.

It also goes on to establish a north-to-south methanol shipment route, with production at the Taonan project in Jilin, transportation and storage at Dalian Port, and ultimate bunkering at Shanghai Port.

As the fundamental production capacity base of the transportation corridor, the Shanghai Electric Taonan Green Methanol Project makes use of the abundant local wind and solar resources along with the biomass feedstock of Jilin. The facility is the first large-scale plant in the world to produce biomethanol through the combination of green electricity and biomass, with independently designed full-set process systems as well as core equipment. It meets the ship bunkering demand of the Shanghai International Shipping Center and offers important support for the construction of 3 major green fuel centers when it comes to international shipping.

Interestingly, Shanghai Electric will continue its focus on the whole industrial chain of diverse green fuels manufacturing, storage, shipping, and application. The company will strengthen its research on core technologies and consistently improve its integrated green fuel solution chain. Shanghai Electric drives industrial development via technological innovation and joins hands with partners to speed up the construction of the Green-Methanol and Sustainable Aviation Fuel – SAF project – Taonan Phase-II based on integrated green-hydrogen-coupled-biomass gasification.

The company will gradually enhance its large-scale green fuel supply capacity for aviation as well as maritime sectors. Shanghai Electric will further commit to the national dual carbon targets of China and also driving of the global low-carbon clean energy transition.

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A Strategically Important Neighbour in the Cumberland Basin

The company had announced on August 17, 2026 that as part of the land acquisition in Nova Scotia, it purchased the Northumberland Natural Hydrogen Project in the Cumberland Basin, securing two exploration licenses – 58173 and 58174 which cover about 1,166 hectares between the communities of Northport and Pugwash. The acreage, secured for what amounts to the amount of the claiming fees, is adjacent to land held by a JV between Koloma Inc. and Kavenex Energy – both Denver-based.

That proximity is indeed the key. Third-party drilling in 2026 within the region has revealed hydrogen concentrations as high as 16%, a number that has brought the whole region onto the radar of exploration companies looking for naturally produced hydrogen – a resource which is indeed increasingly being seen as an affordable alternative to industrial electrolysis.

Second Iron in the Fire

While Nova Scotia might be the latest chapter, Primary Hydrogen’s flagship project continues to be Wicheeda North in British Columbia, where the company is working on both rare earths as well as hydrogen. The Company’s fully funded and approved 2026 work program, announced on August 10, 2026 includes an initial drilling campaign of 1,500 meters planned for this autumn, aimed at anomaly clusters detected in 2025.

The permit is for 5 years and a maximum of 70 drill sites till 2030, indicating that the company is preparing for a long-term exploration effort. The next potential share price catalysts are generally seen as outcomes from the autumn campaign and any initial results from the newly staked Nova Scotia ground.

Regulatory Tailwinds along with Sector Headwinds

In April 2026, the Nova Scotia provincial government enacted the Powering the Economy Act in order to develop the Subsurface Energy Resource Extraction Act, a legal framework when it comes to new sectors like natural hydrogen as well as carbon storage. But the formal legislation and the regulations are still a work in progress.

Meanwhile, the wider hydrogen industry faces a challenging demand environment. The Association of Automobile Manufacturers of China said production of fuel-cell vehicles in China fell 70.7% in July 2026 to 67 units, while sales fell 51.4% to 138 vehicles. The fact is that established players are feeling the heat too – HydrogenPro ASA reported a net loss of Norwegian kroner 93 million for the first six months of the year but improved its Q2 EBITDA to minus Norwegian kroner 16 million. By comparison, Plug Power Inc. topped analyst estimates with quarterly revenue of $178.3 million and boosted its full-year forecast.

Leveraged-Out Market

The recent rally has left the stock technically overbought. The 14-day relative strength index is at 78.8, well above an overbought territory. The shares also trade 63% above their 50-day moving average of €0.7007. The annualized 30-day variance is 106% which is a figure that signals the risks of early-stage exploration.

TipRanks’ automated AI analyst “Spark” went on to give a “Neutral” rating on August 17, 2026, citing a poor financial position with ongoing losses and no revenue, but emphasizing its strength in technology above key moving averages.

The fact is that whether the speculation-based momentum can be sustained will be seen in weeks to come. Nova Scotia licenses are now secured and drilling is to take place this fall at Wicheeda North, but with two stories on the table, the technicals are suggesting a pause for the market prior to the next leg higher.

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Land management for approximately 120 kilometers of hydrogen infrastructure

Sweco offers services including ownership research, land negotiations, support for rights of way related to construction, and liaison with interested parties along the planned route. In the course of around 16 months, talks are planned with numerous owners, managers, and various other contact persons. Sweco provides an important foundation for the further planning, approval, and execution of the hydrogen pipeline.

Contribution toward climate-neutral energy supply in Central Germany

At the same time as the roadwork, preliminary subsoil tests and ecological mapping of flora and fauna are being carried out for this proposed hydrogen pipeline in East Germany. The results are compiled in documents necessary for the procedure of planning approval.

According to Falk Paulick, Head of Land Management East at Sweco, “In an infrastructure project of this size, transparent, careful, and technically sound communication with owners and managers is crucial. With our experience in route management and land management, we are helping to create the basis for a sustainable hydrogen infrastructure.”

HYBOR as part of the German hydrogen core network

It is well to be noted that HYBOR is short for Hydrogen Bo bbau Rückersdorf. The German gearbox system operator GASCADE will set up the hydrogen pipeline as part of the infrastructure program – Flow – making hydrogen happen and is to be finished by 2029. It links presently existing pipelines, which will in the future be utilized for hydrogen transport, and eliminates a major void in the hydrogen grid. The project therefore promotes the supply of climate-neutral hydrogen to industry, storage, and various other customers in Saxony-Anhalt and Saxony as well as Thuringia.

The post Sweco Takes Over Proposed Hydrogen Pipeline in East Germany first appeared on Hydrogen Informs.

Runqing manufactures Enapter’s stacks to the required quality and at scalable volumes in the state-of-the-art and highly automated production facilities of the Runshihua Group. The group has got a deep hydrogen expertise and has gone ahead and established itself as an innovative player when it comes to industrial decarbonization.

In addition to going ahead with AEM electrolyzer stack manufacturing in China, Enapter is also expanding partner manufacturing in China, which will decrease fixed costs for the company, and also anticipates that the lower fixed cost base will have a positive impact on earnings development from 2027.

According to the CEO of Enapter AG, Dr. Jürgen Laakmann, “The production start in Shenzhen is an important milestone in the implementation of our asset-light business model. Together with our partner Runshihua, we have created the conditions for scalable series production in a short space of time. Thanks to the modern production facilities, we will be able to manufacture the AEM stack, the core component of our electrolyzers, cost-efficiently, reliably, and in high volumes. This enables us to respond flexibly to rising market demand and to supply our customers quickly and dependably.”

Enapter is a global greentech company developing and supplying AEM electrolyzers when it comes to the production of green hydrogen. The patented anion exchange membrane – AEM technology of the company is free from costly and rare raw materials like iridium and, due to its modular design, allows for efficient and scalable production of green hydrogen. This is in case even when the supply of energy from solar and wind power is subject to fluctuations. It is well to be noted that thousands of Enapter AEM electrolyzers are already operating for more than 360 customers in over 55 countries.

The post AEM Electrolyzer Stack Manufacturing in China by Enapter first appeared on Hydrogen Informs.

The plant is the Sinopec Xinjiang Kuqa Green Hydrogen Pilot Project, which is regarded as the first green hydrogen refining project in China that has an annual capacity of 10,000 tonnes. The project started producing hydrogen on 30 June 2023, integrating hydrogen production, storage, and transportation along with application. It generates green hydrogen straight from photovoltaic power through using the abundant solar energy of the region and supplies it to Tahe Refining & Chemical Company, which is a subsidiary of the largest oil refiner in China, Sinopec. When it comes to the oil refining process, green hydrogen goes on to replace the natural gas that was used before.

Li Ruixia, who is the manager of the hydrogen energy management department at Sinopec Star New Energy Co., Ltd., said, “If the project runs at full capacity, it can cut carbon dioxide emissions by about 485,000 tonnes a year.” She adds that the project has functioned pretty safely and in a stable way for over three years, proving feasibility when it comes to green hydrogen’s large-scale industrial applications.

It is well to be noted that hydrogen is a non-conventional secondary source of energy with wide-ranging uses. Hydrogen production is the first link of the industrial chain of hydrogen. Hydrogen can be produced in one of three ways, producing three distinct kinds of hydrogen having different levels of carbon emissions. Grey hydrogen gets produced out of fossil fuels such as natural gas or coal and has pretty high carbon emissions. Blue hydrogen is produced via fossil fuels but with more complicated and expensive technologies so as to reduce carbon emissions.

Green hydrogen, on the other hand, is produced through using renewable electricity from wind and solar in order to electrolyze water.

It is worth noting that hydrogen is also an important feedstock when it comes to industrial oil refineries. Moving from traditional grey and blue hydrogen to green hydrogen offers new growth prospects for the hydrogen sector and also helps the low-carbon transition in the petrochemical sector.

The fact is that the potential of green hydrogen isn’t limited to refining but can be made use of in industries including steelmaking, power generation as well as transport. Apparently, the China Iron & Steel Research Institute Group Co., Ltd. successfully completed the entire process in terms of producing high-purity iron by way of using pure hydrogen metallurgy technology at its pure hydrogen shaft furnace demonstration line located at the Linyi Lingang Economic Development Zone in Linyi, Shandong province, in east China. The line has gone on to achieve regular production of direct reduced iron with a metallization rate of over 96% and batch trial production of 3N-grade – 99.9% high-purity iron.

The main byproducts of iron oxide reduction with hydrogen are metallic iron as well as water vapor, so the tail gas from the pure hydrogen shaft furnace does not emit any kind of harmful substances and greatly reduces the impact on the environment. It is the first demonstration project in China to successfully apply pure hydrogen shaft furnace technology. It has run stably for over 8,000 hours, with one continuous run of more than 2,000 hours, thereby completely demonstrating its reliability and security.

Interestingly, hydrogen’s high energy density makes it especially suited for long-distance transportation. Hydrogen is now widely utilized across public transit and cold-chain logistics as well as trunk-line freight.

Notably, in order to transport visitors to the Beijing 2022 Winter Olympic Games, SPIC Hydrogen Energy, which is a subsidiary of State Power Investment Corporation, provided 200 hydrogen-powered buses with fuel cell systems. The buses operated in adverse conditions, which included low temperatures, snowfall, and mountainous roads, travelling a total of more than 880,000 kilometres, which decreased carbon dioxide emissions by more than 620 tonnes, with zero carbon emissions at the time of operation, with zero accidents as well as zero operational errors throughout the course of the event.

By the end of 2025, overall sales of hydrogen fuel cell vehicles in China totalled almost 40,000 units. Applications for hydrogen fuel cell technology have moved beyond passenger vehicles and now include mining trucks, ships, and drones, as well as rail transit. In the meantime, the country had built out 574 hydrogen refueling stations, with a total daily refueling capacity of over 360 tonnes. When it comes to the industrial sector, green hydrogen had begun to gradually substitute conventional fuels in part of the refining and coal chemical processes, while the annual green hydrogen production capacity of the country had reached around 250,000 tonnes.

All these changes go on to reflect a broader shift that points out to the fact that the hydrogen sector in China is moving from technology demonstration to large-scale commercial usage, and the potential for application is growing.

The hydrogen sector in China is experiencing significant growth, fuelled by increasing market demand, coupled with enterprise innovation throughout the industrial chain, and backed by aggressive government policies. Hydrogen has been included as a strategic priority when it comes to several national plans. The outline of the 15th Five-Year Plan – 2026-2030 identifies hydrogen as an essential sector for future industries. The strategy for building a new energy system in the same period incorporates hydrogen in the non-fossil energy supply system and sets a goal to produce 2 million tonnes of hydrogen from renewable sources of energy.

The post Hydrogen Sector in China Enters Large-Scale Commercial Use first appeared on Hydrogen Informs.

The new hydrogen compatible combined cycle gas turbine – CCGT has a generation capacity of 670 MW, which is sufficient to supply electricity to around 1.2 million four-room HDB flats for a year.

This will be on top of over 20 CCGTs in the power system as of today, which are currently powered through natural gas, the Energy Market Authority – EMA said on Thursday, August 20, 2026.

The new project will bring a number of hydrogen-compatible CCGTs to five, or those under development, by 2031, which includes the one Tuas Power is going to build.

At present, CCGTs happen to be the most efficient thermal generation units that are available to meet Singapore’s demand.

In these units, a gas-fired power plant burns natural gas as well as air so as to make the turbine spin and produce electricity.

In CCGTs, this is an additional turbine, driven by steam, which generates more electricity.

The announcement from the EMA comes after a call in April 2026 for energy companies to go ahead and construct almost three new hydrogen-ready power plants in 2031 and 2032 to meet the electricity demand in Singapore.

Singapore’s electricity demand is projected to increase significantly in the years ahead, fuelled by robust economic growth, transport electrification and the growth of energy-intensive industries like semiconductor manufacturing and data centres, confirmed the authority.

Its forecasts predict the peak electricity demand will increase by between 2.4% and 4.8% per year over the next decade.

It is well to be noted that the peak demand is expected to be 9.6 gigawatt – GW to 11.4 GW in 2031.

Interestingly, preparation is vital to meet Singapore’s increasing demand, added Puah Kok Keong, the EMA chief executive.

He added that “Tuas Power’s new hydrogen compatible combined cycle gas turbine – CCGT will provide the capacity we need for the growth of energy-intensive sectors.” As per him, the CCGTs fired by natural gas offer dependable baseload power as Singapore explores multiple routes leading to a cleaner energy future.

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The agreement was inked by the Executive Director – Heavy Power Equipment Plant, Hyderabad, Mr Y. Srinivas Rao, and the General Manager & Head of New & Renewable Energy Business, Mr Sutripto De, on behalf of BHEL, and by the CEO of Hystar, Mr Fredrik Mowill, on behalf of Hystar AS Norway. The signing took place in the presence of the Chargé d’Affaires, Royal Norwegian Embassy in New Delhi, Mr Arvinn Eikeland Gadgil, as well as Ms Bani Varma, who is the Director of Industrial Systems & Products, BHEL, Mr S M Ramanathan, Director of Engineering, Research & Development, BHEL, along with certain other senior officials.

Interestingly, BHEL has already got into a strategic collaboration with Thyssenkrupp Nucera India Private Limited when it comes to alkaline electrolyser systems earlier in 2026. The tie-up with Hystar in terms of PEM electrolyser systems further makes the position of BHEL as one of the few Indian players who are indeed equipped to provide both alkaline and PEM electrolyser solutions in order to take care of the growing green hydrogen market of India. In addition to this, the collaboration is also going to strengthen the project execution capacity of BHEL, especially for green hydrogen projects across India.

For the unversed, BHEL is one of the leading engineering and manufacturing companies in India. It has decades of experience when it comes to power, oil & gas, transmission, renewables, transportation, defence, and aerospace sectors. The company has also been pretty active in building the industrial infrastructure of India and is now making utmost use of its engineering, manufacturing, and project implementation capacities so as to address the rising clean energy areas, which include green hydrogen.

This contract marks a major step in elevating contributions done by BHEL to the National Green Hydrogen Mission as well as the Make in India initiative by the government of India.

The post BHEL, Hystar Partner on Green Hydrogen Projects Across India first appeared on Hydrogen Informs.

Interestingly, the contract covers the proposed development in terms of an integrated facility that has a mix of solar power generation and green hydrogen production in South Korea as well as hydrogen-fired electricity output at only one site in Buan, which is situated in the North Jeolla Province.

The proposal goes on to outline a site that covers almost 10.1 square kilometers, with more plans of 1GW of onshore solar capacity as well as a 320MW water electrolysis installation along with a 100MW of hydrogen-only power generation.

Notably, KOEN and the Saemangeum Development Agency regard this as the first integrated demonstration of solar power, hydrogen production through electrolysis, and electricity generation from hydrogen, and that too at a commercial scale hence paving the way for green hydrogen production in South Korea.

A central trait of the project is a power-to-gas-to-power -P2G2P system. Solar-generated electricity is going to drive the electrolysis equipment, which apparently would generate green hydrogen specifically for storage.

This hydrogen, in a way, could then be converted back to electricity within a dedicated turbine in case additional power is needed or when the grid demand grows.

As per KOEN, getting all three stages together could help absorb extra renewable energy, enable dispatchable clean electricity manufacturing, and avoid any sort of curtailment in a scenario where generation goes beyond grid capacity.

The fact is that as of now, the development is still in its nascent stages, with the MoU marking an intention to proceed and not at all a final commitment of investment.

KOEN is in talks with many businesses when it comes to forming a special-purpose company and is looking to secure supply chains in terms of equipment required for the project.

The Saemangeum Development Agency is going to offer land, enable the streamlining of the permitting processes, and work to ensure regional acceptance.

KOEN, on the other hand, is going to focus on a detailed business model and looks to share economic advantages locally. A consultative group is getting together so as to advance the initiative.

Interestingly, Saemangeum is already home to many hydrogen-related developments, which include the likes of a functional commercial water-electrolysis plant and also planned investments by Hyundai Motor Group in the fields of hydrogen and technology within the region.

The newly proposed KOEN project that has 320MW of electrolysis, is going to be significantly bigger as compared to current facilities.

KOEN looks forward to connecting the project to the clean-hydrogen electricity market of South Korea, where the clean hydrogen power purchase when it comes to 2026 has been fixed at 500 GW-hours.

The electricity that is produced via stored hydrogen can very well be eligible when it comes to long-term supply contracts. KOEN regards them as a significant factor given the fact that there are additional costs and inefficiencies that are involved in terms of converting electricity to hydrogen and back again as compared to the grid supply that’s direct.

The post MoU Inked for 320MW Green Hydrogen Production in South Korea first appeared on Hydrogen Informs.

Apparently, the funding is going to support a NZ$31 million, or approximately US$18.4 million, commercial-scale plant located in Southland and developed by one of the private sector materials technology companies. As per the government, the facility is going to apply a patented procedure which helps produce green hydrogen while simultaneously separating valuable minerals from the quarry waste materials.

Regional infrastructure funding for the growing energy sector

It is well to be noted that the investment is going to be rolled out via an integration of loan and equity arrangements, with final nuances still under discussion.

According to the government, the support comes from NZ$80 million, or approximately US$47.3 million, which has been allocated as per the RIF for critical minerals projects.

Mr Jones remarked that the initiative goes on to showcase the intent by the government to support technologies which can make a contribution toward regional economic progress and simultaneously develop alternative sources of energy. He described hydrogen as a part of a much wider industrial opportunity when it comes to New Zealand, especially across sectors in which electrification is less applicable.

According to the Regional Development, Resources and Associate Energy Minister, Shane Jones, “New Zealand needs a range of energy solutions to support economic growth and improve resilience. Hydrogen has the potential to play an important role in reducing emissions in parts of the economy where electrification isn’t the best option.”

Notably, the Government has identified heavy transport and also a few industrial applications as pockets wherein hydrogen could as well complement electrification. In such kinds of settings, battery weight, functional range and high-temperature industrial procedures can indeed make way to a few operational challenges.

Development of Hydrogen linked to a broader energy plan

Interestingly, this announcement does sync in with the Hydrogen Action Plan of New Zealand and also certain wider efforts so as to diversify the energy mix of the country. The Government has also offered support to certain other steps which have been focused on long-term energy innovation, such as the superhot geothermal drilling project that looks to expand renewable energy alternatives via geothermal technologies which are advanced

Green hydrogen production takes place by way of electrolysis, which is a process separating hydrogen and oxygen through using electricity. Hydrogen is regarded as green when electricity which is utilized gets derived from renewable sources. Officials take into account this technology as a potential contributor when it comes to reducing emissions in many hard-to-abate sectors.

Also, the Southland facility also showcases a growing policy stress on integrating resource development with certain advanced manufacturing capacities. The project is expected to recover minerals from the quarry waste while at the same time producing hydrogen and combining resource efficiency along with the production of low-emissions energy.

Emphasis on regional capacity and innovation

According to the government, the project could help with the development of certain new industrial capabilities across regional New Zealand through mixing energy innovation along with local technical experience and expertise. The fact is that the ministers have increasingly linked infrastructure as well as science investment to regional economic resilience and, of course, future sector growth.

This direction is also seen in the broader government planning, such as the science investment which had been recently announced. This plan marks out priorities when it comes to research, innovation and technology development throughout major industries.

Mr Jones says that the projects which combine advanced manufacturing and energy technology as well as critical mineral development can indeed add value throughout multiple sectors and at the same time also help in placing the regions of New Zealand to play a major role in growing sectors.

The post New Zealand Offers $8.9m For Green Hydrogen Production Plant first appeared on Hydrogen Informs.

It is well to be noted that the NEOM Green Hydrogen Company – NGHC is a JV between ACWA Power and Air Products as well as NEOM. It is now commissioning the facility. Samir Serhan, the ACWA Power CEO, went on to confirm during a recent earnings call with analysts as well as investors.

Once the green hydrogen project worth $8.5bn is completely functional, it is most likely to become the largest green hydrogen plant in the world, producing almost 600 tons of carbon-free hydrogen every day. The hydrogen is going to be converted into green ammonia so as to export it to international markets.

Apparently, the project is designed to showcase the commercial-scale production of green hydrogen by way of utilizing renewable energy, with the output powered by the integration of both solar as well as wind generation.

NGHC had confirmed in March 2026 that the renewable energy assets of the project, including the wind farm and solar farm as well as the transmission network, were almost 95% complete.

The company confirmed that the project is on schedule, with almost 4 GW of combined solar and wind power generation most likely to get completed by mid-2026. It will thereafter be followed by commissioning of the electrolyzers with first green ammonia product availability all set for 2027.

Interestingly, the project forms part of the broader efforts by the Kingdom to become a competitive clean-energy industry and also create certain new export markets as it diversifies its economy as per its Vision 2030.

It is also anticipated to give a reference point in terms of future large-scale hydrogen developments as nations and organizations search for lower-carbon options for certain hard-to-abate sectors and simultaneously look to build global supply chains when it comes to clean fuels.

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