thyssenkrupp nucera has secured a front-end engineering design contract for a 260 MW green hydrogen project in India led by Juno Joule Green Energy Private Limited, where it will integrate alkaline water electrolysis into the plant’s infrastructure.
The project is being developed by Juno Joule Green Energy Private Limited in partnership with SELECT Energy GmbH and is structured around a green ammonia production facility. Hydrogen generated on site will be converted into ammonia for export, primarily targeting European markets where demand is being shaped by decarbonization mandates in shipping, fertilizers, and industrial feedstocks.
At 260 MW of planned electrolysis capacity, the project sits within the emerging scale range for export-oriented hydrogen hubs, though still below the multi-gigawatt ambitions seen in some Middle Eastern and Australian proposals. The reliance on a hybrid renewable power mix that includes solar, wind, and hydropower reflects an attempt to balance intermittency and improve capacity utilization rates, a key determinant of levelized hydrogen costs.
The emphasis on producing RFNBO-compliant ammonia introduces an additional layer of complexity. Certification under EU rules requires strict accounting of renewable electricity sourcing, temporal matching, and lifecycle emissions. For developers outside Europe, meeting these criteria can increase both capital expenditure and operational constraints, particularly where grid infrastructure and renewable supply variability are less predictable.
This creates a structural tension in project design. On one hand, exporting to Europe offers access to a premium market supported by policy incentives and long-term decarbonization targets. On the other, compliance requirements can erode cost advantages typically associated with renewable-rich regions like India. The FEED study will therefore play a central role in assessing whether the project can achieve competitive production costs while meeting regulatory thresholds.
thyssenkrupp nucera’s involvement also signals the continued relevance of alkaline electrolysis in large-scale industrial applications. While proton exchange membrane systems have gained attention for flexibility, alkaline technology remains widely used due to lower capital costs and established supply chains. The choice of technology will influence efficiency, operating profiles, and integration with intermittent renewable generation.
