FAQs
Why methanol instead of hydrogen logistics?
Methanol enables safer, simpler and more cost-efficient hydrogen transport compared to compressed hydrogen storage and delivery.
Is the system suitable for 24/7 operation?
Yes. Systems are engineered for continuous industrial operation in demanding environments.
Can the solution be containerized?
Yes. Fully containerized systems allow fast deployment and mobility.
What emissions does the system generate?
Low-emission operation with zero NOx and SOx and reduced CO₂ compared to fossil fuel systems.
How scalable is the technology?
Modular architecture enables capacity scaling from pilot units to multi-megawatt deployments.
Why use methanol instead of transporting hydrogen?
Methanol is a stable liquid fuel that can be stored and transported using existing infrastructure.
By reforming methanol on-site, hydrogen can be generated exactly where it is needed, reducing logistics complexity and safety challenges.
What fuels can be used?
MReformer systems can operate with different methanol types depending on project requirements, including conventional methanol, bio-methanol and e-methanol.
This allows companies to progressively transition toward lower-carbon fuels.
How does methanol reforming compare to electrolysis?
Methanol reforming enables on-demand hydrogen production without requiring large electrical infrastructure.
It is particularly suited for decentralized, mobile or remote environments where grid access or high electrical capacity is limited.
Is the technology proven and reliable?
Yes. Catalytic reforming is a well-established industrial process used for decades.
MReformer adapts this proven technology into compact systems designed for modern hydrogen and energy applications.
Can the systems operate in mobile environments?
Yes. Systems are designed for industrial reliability and can be deployed in containerized or modular configurations suitable for maritime, mobile and remote environments.
How scalable are the systems?
Solutions follow a modular architecture that allows scaling from 150 kW units to multi-megawatt installations by combining multiple systems.
POWER FAQs
How is electricity generated?
Methanol is converted into hydrogen through a catalytic reforming process.
The hydrogen then feeds high-efficiency fuel cells that generate clean, stable electricity without combustion.
Can the system operate 24/7 continuously?
Yes. The systems are designed for continuous industrial duty and long operational cycles, with automated control and remote monitoring capabilities.
Can it replace diesel generators?
In many off-grid, low-emission or noise-sensitive environments, yes.
Methanol-based systems provide reliable continuous power with lower emissions, reduced vibration and quieter operation compared to combustion generators.
How fast can the system start?
From hot standby, hydrogen production can begin in less than 3 minutes, allowing rapid power availability when required.
Is the system scalable?
Yes. The modular architecture allows multiple units to be combined, enabling capacity expansion from small installations up to multi-megawatt deployments.
What maintenance is required?
Maintenance requirements are significantly lower than combustion engines due to fewer moving parts.
Typical service includes periodic inspections, filter replacement and standard industrial preventive maintenance routines.
HYDROGEN FAQs
How is hydrogen generated?
Methanol and water are converted into hydrogen through a catalytic reforming process, producing stable high-purity hydrogen on demand.
What hydrogen purity can be achieved?
Hydrogen purity can reach >99.997%, making it compatible with fuel cells and sensitive industrial applications.
Can the system operate continuously?
Yes. Systems are designed for industrial continuous operation with automated control and monitoring.
Is the system scalable?
Yes. Modular architecture allows multiple reformers or containerized units to be combined for larger hydrogen demand.
Can the systems be containerized?
Yes. Containerized CHG solutions are available for rapid deployment and simplified installation.
What maintenance is required?
Maintenance is minimal compared to combustion-based systems and typically involves periodic inspection and standard industrial preventive servicing.
MIXING STATION FAQs
Is the Mixing Station required for every system?
It depends on the system configuration and deployment environment. For containerized or continuous industrial operation, controlled fuel preparation is strongly recommended.
Can it be integrated into existing reformer installations?
Yes. The Mixing Station is designed for modular integration with new or existing MReformer systems.
Is it included inside containerized solutions?
In many containerized configurations, the Mixing Station is already integrated as part of the system architecture.
Does it require continuous operator supervision?
No. The system operates automatically through industrial control systems and can be remotely monitored.
What maintenance does the Mixing Station require?
Maintenance is minimal and follows standard industrial preventive routines such as inspection of pumps, sensors and filtration components.
Let’s talk about your energy project
Tell us about your application and technical needs, our engineering team will help you define the right solution.