Methanol Reformer completed the factory acceptance test for its L18 unit, a methanol reformer that will produce hydrogen for Mitsubishi Gas Chemical’s industrial facilities in Niigata, Japan.
Methanol Reformer successfully completed the factory acceptance test, FAT (Factory Acceptance Test), for its L18 unit developed for Mitsubishi Gas Chemical Company (MGC).
The system will subsequently be transported to MGC’s facilities in Niigata, where it will produce hydrogen from methanol for the plant’s hydrogen applications.
The test conducted at Methanol Reformer’s facilities in Barcelona brought together technical teams from both companies. Five MGC representatives participated in unit verification before delivery.
According to the company, the FAT confirmed that the completed system met the technical requirements and specifications planned for the project.
The project also represents the first industrial deployment of Methanol Reformer’s technology in Japan. Its installation will allow the company to extend its methanol reforming technology into a new Asian market, while MGC will incorporate the system into its industrial operations in Niigata.
FAT validates equipment before shipment
The factory acceptance test constitutes a control stage prior to transport and installation of equipment at the customer’s facilities. During a FAT, manufacturer and customer verify that the constructed system meets agreed specifications and that its different components comply with conditions established for delivery.
This stage has particular importance for equipment intended for industrial processes because it allows identification of deviations before the unit reaches its final location.
Correcting a condition during manufacturing typically avoids subsequent field interventions, where access restrictions, integration with other facilities, service availability, and limited installation windows may apply.
In the case of the L18, successful completion of the FAT allows advancement to the next project phase: transport of the reformer from Barcelona to Niigata for installation and subsequent commissioning.
Methanol Reformer: Converting methanol to hydrogen where needed
A methanol reformer uses methanol as feedstock to produce hydrogen-rich gas through a thermochemical process.
This allows transport and storage of methanol as a carrier for the feedstock and generation of hydrogen at the point of use, rather than necessarily depending on supply and storage of hydrogen as a final product.
For certain industrial applications, this architecture can simplify part of the logistics associated with hydrogen.
Methanol is a liquid that can be handled using conventional infrastructure for storage and transport of liquid products, while hydrogen presents specific requirements related to compression, storage, materials, and safety.
The concrete advantage, however, depends on the entire system: methanol origin, reformer efficiency, treatment of produced gas, energy consumption, and hydrogen destination.
Therefore, reforming methanol does not automatically convert the produced hydrogen into low-emission hydrogen; the environmental footprint also depends on how the methanol used as feedstock was produced.
Japan will be the next industrial test
The L18 project is scheduled to reach Mitsubishi Gas Chemical’s facilities in Niigata and begin commissioning toward the end of 2026.
For Methanol Reformer, the deployment represents an industrial entry into Japan and an opportunity to demonstrate its technology outside its home market.
The location is also relevant from an industrial standpoint. Japan needs to develop alternatives for hydrogen availability in an energy system with space constraints and high dependence on imported fuels and feedstocks.
The possibility of using a liquid fuel as a carrier and generating hydrogen near the point of consumption constitutes an architecture that can adapt to certain industrial processes.
International expansion of this technology will depend, however, on more than passing factory tests.
Actual operational performance, equipment availability, energy consumption, maintenance costs, and integration with existing processes will be the indicators that determine its long-term industrial viability.
