HydrogenPro has commenced production of its next-generation electrodes at a new manufacturing line in Aarhus, Denmark. This development marks a significant step in scaling up the company’s delivery capabilities and represents a major investment in its green hydrogen business.
As part of a broader collaboration with ANDRITZ, HydrogenPro recently completed a full-scale validation test of its Generation 3 electrolyzer technology at Herøya, Norway. The system operated continuously for 500 hours, confirming expected performance levels and product quality. Safe operation was maintained across the full load range – from partial load up to 115% capacity – demonstrating the robustness and industrial readiness of the technology under real-world conditions.
The validation project involved several European facilities: electrodes were manufactured in Denmark, stack assembly was carried out in Erfurt, Germany, and the system was transported and commissioned in Norway. The initiative highlights a strong European value chain for pressurised alkaline electrolyzers and supports key decarbonisation efforts in hard-to-abate sectors such as low-carbon steel production.
ANDRITZ, HydrogenPro’s project partner, recently announced a planned 100 MW electrolyzer project in Rostock, Germany. Subject to the final investment decision, ANDRITZ expects to receive the notice to proceed with the supply of HydrogenPro electrolyzers for the project.
In addition, HydrogenPro has secured a separate purchase order for electrolyzers worth USD 2.5 million from an undisclosed customer.
연구진이 개발한 재생에너지 변동에 따른 수전해시스템의 구동 과정 중 운영 안정성 지수 모식도(좌측)와 분석결과
[수소뉴스 = 양인범 기자] 태양광, 풍력 등 재생에너지를 활용한 수소 생산 시스템에서는 에너지원의 특성상 전력 공급이 일정하지 않아, 수전해 장치의 부하가 지속적으로 변화한다.
KAIST 연구진이 이런 전력 부하의 변동이 불가피한 그린 수소 생산 환경에서, 전기 에너지 효율을 높이고 낮은 전압에서도 수소 생산 효율을 높이는 촉매의 열화(성능 저하)를 정량적으로 진단할 수 있는 세계 최초의 방법론을 제시했다.
KAIST 대학 생명화학공학과 정동영 교수 연구팀이 수전해 시스템에서 촉매의 실질적인 수명을 예측할 수 있는 새로운 평가 지표인 ‘운영 안정성 지수’를 개발했다.
연구팀은 수전해 시스템이 꺼지거나 낮은 부하로 운전될 때 발생할 수 있는 촉매 및 지지체의 열화 현상 촉매의 손상이나 성능 저하 현상을 규명하고, 이를 정량화할 수 있는 새로운 평가 지표인 ‘운영 안정성 지수(Operational Stability Factor, OSF)’를 제안했다.
운영 안정성 지수는 수전해 장비가 반복적으로 작동 및 정지(on/off)하는 과정에서 발생하는 촉매 열화 정도를 수치로 반영함으로써, 실제 운전 조건에서의 내구수명을 보다 정확하게 예측할 수 있도록 설계되었다.
예를 들어, 운영 안정성 지수가 100%이면 부하 변동 중에도 촉매가 전혀 손상되지 않는다는 뜻이고, 99%이면 매번 시스템이 꺼질 때마다 1%씩 촉매가 손상된다는 의미다.
향후 이 지표를 통해 내구성을 고려한 운전 조건의 최적화를 가능해지며, 장수명 수전해 시스템 운영 전략 수립에 중요한 기준으로 활용될 수 있다.
정동영 교수는 “운영 안정성 지수(OSF)는 수전해 촉매의 장기 수명을 수치로 예측할 수 있는 강력한 평가 기준으로, 향후 내구성 진단을 위한 국제 표준으로 발전할 가능성이 크다”고 밝혔다.
해당 논문은 생명화학공학과 박사과정 김진엽 연구원이 제1 저자로 에너지 분야 최고 권위지 중 하나인 ‘ACS 에너지 레터스(ACS Energy Letters, IF=19.3)’지에 5월 2일 자로 게재됐다.
한편, 이번 연구는 한국연구재단 소재 글로벌 영커넥트 사업, KAIST 도약과제의 지원을 받아 수행됐다.
Ceres Power Holdings plc, a developer of clean energy technology, has announced that its first MW solid oxide electrolyser cell (SOEC) demonstrator system, located at Shell’s Technology Centre in Bangalore, India, is now producing hydrogen.
This milestone marks an important step, demonstrating the first MW scale SOEC system in India and the maturity of Ceres’ solid oxide electrolyser technology, supported by Shell’s installation, integration, and safety assurance expertise.
Shell and Ceres have been in collaboration since 2022, leading to the deployment of the MW scale electrolyser with the potential to produce hydrogen at 600 kg/d at full capacity with an electrolyser module efficiency of 37 kWh/kg H2. The metal supported design from Ceres allows it to operate at lower temperatures and the operational phase of the demonstrator is expected to show how this brings robustness and lowers operational costs.
The start of hydrogen production by this demonstrator system marks the beginning of the operational phase of this project, with data and learnings used to develop a commercially competitive and scalable solution for industrial processes.
Phil Caldwell, Chief Executive of Ceres, commented: “This achievement illustrates how Ceres' high efficiency technology can scale to meet the needs of industry and deliver a route to economically viable hydrogen for green steel, ammonia, and synthetic fuels. India has ambitious plans, targeting development of green hydrogen production capacity of at least 5 million tpy by 2030 and technological advancements, just like the one we have announced, and we are aiming to contribute to this goal by helping to build and galvanise India's clean energy ecosystem.”
Theo Bodewes, General Manager of Hydrogen at Shell Projects and Technology, said: “Hydrogen has a huge role to play in a low carbon energy system as a feedstock for low carbon gases and low carbon fuels. We are working with Ceres to help advance technologies that can deliver hydrogen efficiently and reliably. This latest milestone is the next stage in helping us to learn and evaluate the best approach to producing lower-cost electrolysed hydrogen. We are thrilled to begin SOEC hydrogen production.”
Driving Industrial Decarbonization with Onsite, High-Purity Green Hydrogen
SINGAPORE, SINGAPORE, SINGAPORE, May 19, 2025 /EINPresswire.com/ --HYDGEN, a Singapore & Indian-based leader in hydrogen electrolyzer technology, has announced a new research collaboration with the Energy Research Institute at Nanyang Technological University, Singapore (ERI@N). The partnership aims to develop high-purity onsite hydrogen production using Anion Exchange Membrane (AEM) electrolyzers, focusing on decarbonizing industry initiatives such as in semiconductor production and other industrial applications.
The project will leverage HYDGEN’s cutting-edge AEM electrolyzer technology and ERI@N’s expertise in product & system development to demonstrate a Proof-of-concept, first-of-its-kind project in Singapore to create an electrolyzer-based system capable of producing ultra-pure 5N-grade hydrogen (99.999%) via a decentralized approach. This high-purity hydrogen is essential for semiconductor manufacturing processes, including annealing, etching, carrier gas applications, and plasma cleaning, where high purity hydrogen is critical.
On-site on-demand hydrogen production is expected to revolutionize hydrogen technology by eliminating the need for hydrogen transportation and large-scale storage. This innovative approach ensures consistent delivery of high-purity hydrogen, enhancing efficiency, smaller safe handling infrastructure requirements and thereby reducing costs. It paves the way for cleaner hydrogen solutions, supporting industries and applications that require sustainable and reliable hydrogen supply when integrated with onsite renewables. It is also expected to contribute significant carbon footprints in contrast to conventional production methods such as steam methane reforming (SMR) processes and its logistics.
By integrating advanced AEM electrolyzer technology with purification systems such as Pressure Swing Adsorption (PSA), the project aims to:
● Enable significant emissions reductions by replacing carbon-intensive hydrogen supplies with zero-emission green hydrogen produced onsite. ● Deliver cost savings through the long-term benefits of declining renewable energy prices, improved electrolyzer efficiencies and safe-handling infrastructure requirements. ● Strengthen sustainability leadership in the semiconductor industry by aligning with global net-zero goals and attracting sustainability-focused investors and customers. ● Explore forward integration into electricity storage and production, offering a hydrogen-based green power source for carbon neutral mobility, data centers, micro-grids, construction sites etc.
Innovation at the Core of the Collaboration
HYDGEN will lead the development of the AEM electrolyzer, refining its technology to meet the stringent purity requirements of the semiconductor industry. HYDGEN will adapt its AEM electrolyzer technology to integrate with PSA purification, delivering 5N-grade hydrogen for industrial applications.
Researchers at ERI@N will facilitate to improve product resiliency, develop systemic needs & validate process value chain via its ‘Mobile Hydrogen Test-Bed Platform’, ensuring the electrolyzer meets operational and safety needs while achieving optimal systemic-efficiency.
A Milestone for Singapore’s Green Hydrogen Ecosystem
This collaboration represents a significant step in Singapore’s journey toward becoming a global hydrogen innovation hub. By fostering deep-tech energy innovation, HYDGEN and ERI@N intend to advance the nation’s energy transition agendas and supporting industries in achieving their sustainability goals.
“Clean hydrogen is a game-changer for industrial decarbonization, and our partnership with ERI@N will accelerate the development of scalable, high-purity hydrogen solutions tailored for industry needs,” said Dr. Goutam Dalapati, co-founder & Chief Technology Officer at HYDGEN.
“This project underscores our commitment in driving the hydrogen economy forward by fostering innovation and derisking such solutions towards adoption. Our collaboration with HYDGEN exemplifies NTU’s commitment to advancing sustainable energy solutions through innovation and strategic partnerships. We aim to develop scalable, high-purity hydrogen solutions that address the pressing needs of industries like semiconductor manufacturing.” said Professor Madhavi Srinivasan, Executive Director, ERI@N.
The research project is expected to yield valuable insights for the broader adoption of green hydrogen across various industrial applications, paving the way for future commercial deployments.
About HYDGEN
HYDGEN is a leading developer of anion exchange membrane (AEM) electrolyzers, designed to enable affordable, decentralized green hydrogen production. Their advanced systems offer unmatched efficiency and operational flexibility, a compact footprint, and reduced supply chain risk by avoiding the use of rare earth metals. By eliminating reliance on centralized supply chains, HYDGEN’s technology makes clean hydrogen accessible and scalable for industries of all sizes.
