Methanol-Based Hydrogen Fuel Cell Pilot Plant

MECIP is currently undertaking the Basic Engineering Design (BED) for an innovative methanol-based hydrogen fuel cell pilot plant, supporting the development and commercialization of Aqueous Alkaline Reforming of Methanol (AARM) technology for METHA8™ . The project is being executed in collaboration with ACTSYS™, which leads the process technology development and process concept design, while MECIP is responsible for translating the technology into a fully engineered, safe, constructible, and operable pilot facility.

The AARM technology utilizes aqueous methanol and a proprietary catalytic reforming process to generate high-purity hydrogen for a Solid Oxide Fuel Cell (SOFC) system. The integrated process enables efficient on-site electricity generation with significantly lower carbon emissions while simultaneously recovering carbon dioxide (CO₂) as a valuable by-product, supporting future carbon utilization and decarbonization initiatives.

The engineering scope includes the development of process engineering deliverables, process simulations, heat and material balances, Piping and Instrumentation Diagrams (P&IDs), equipment sizing, piping layouts, mechanical design, electrical and instrumentation engineering, civil and structural engineering, process safety engineering, and multidisciplinary engineering coordination required for the pilot plant implementation.

The process incorporates methanol reforming within a microchannel reactor, hydrogen purification and conditioning, CO₂ stripping and liquefaction, hydrogen preheating prior to the SOFC system, and water recovery for process reuse. These integrated technologies maximize overall energy efficiency while minimizing environmental impact through effective heat integration and resource recovery.

Upon completion, the pilot plant will demonstrate a scalable, low-carbon distributed power generation solution capable of producing clean electricity from methanol with high conversion efficiency. The project reinforces MECIP’s capabilities in advanced process engineering, hydrogen technologies, sustainable energy systems, and engineering design for next-generation clean energy infrastructure, supporting the global transition toward a low-carbon economy.