Micro Steam Methane Reformers (MSMR)

What Are Micro Steam Methane Reformers?

Steam methane reforming (SMR) is a chemical process that can be used to extract hydrogen from natural gas. The process involves reacting methane (the primary component of natural gas) with steam at high temperatures to produce a mixture of hydrogen and carbon monoxide. These products are then ran through an accompanying water gas shift reactor to produce carbon dioxide and more hydrogen. This method is considered to be one of the most cost-effective ways of producing hydrogen at scale, with relatively low capital costs and high conversion efficiency. Importantly, the carbon dioxide generated by the process can be captured and stored, reducing greenhouse gas emissions from the natural gas sector. Our Micro-SMR technology is a smaller and more modular version of traditional SMR technology. By using smaller components, it can be designed to fit into a variety of spaces and dimensions, making it highly flexible and adaptable to different applications. Additionally, Micro-SMR technology can be easily scaled up or down to achieve the desired output, making it highly customizable. This makes it an ideal solution for smaller scale industrial applications, as well as distributed energy systems that require a flexible and modular approach. One of the primary applications of Micro-SMR technology is the production of hydrogen for use as a fuel. This hydrogen can then be used to power a range of vehicles and equipment.

 

The Benefits of Our Micro-SMRs

Using Micro-SMR technology to produce hydrogen as a fuel source has significant environmental benefits. One of the most important advantages of using hydrogen as a fuel is that it produces no greenhouse gas emissions (Carbon Dioxide) when burned, unlike traditional fuels such as diesel, HFO, LNG, and LPG. When hydrogen is burned, the only byproduct is water, making it a highly attractive alternative to conventional fuels. By utilizing Micro-SMR technology, the carbon dioxide emissions associated with traditional SMR technology can be reduced. This means that less carbon dioxide is being produced overall, which is important for reducing greenhouse gas emissions and addressing climate change.

Furthermore, the modular design of the Micro-SMR technology allows for it to be more versatile in its application. The ability to build to specific dimensions and constraints makes it ideal for a variety of settings, including those with limited space or difficult access. This refined approach to space also means that it can be built to reach target goals with greater accuracy, reducing overall waste and improving efficiency.

In addition to its environmental benefits, Micro-SMR technology also has the potential to provide economic benefits. As hydrogen becomes increasingly important as a fuel source in various industries, such as transportation and energy production, the demand for this technology is likely to grow. With its modular design and flexible output, Micro-SMR technology is well-positioned to meet this demand, providing a cost-effective and efficient solution for producing hydrogen.

 

How Can We Apply Our Micro-SMRs For You

The versatility and modular design of Micro-SMR technology make it an ideal solution for a wide range of applications and industries. One area where Micro-SMR technology has significant potential is in the marine market. By placing Micro-SMR technology on sea going vessels, including cruise ships, bulk carriers, liquefied gas carriers and all maritime vessels, we can significantly reduce greenhouse gas emissions and carbon footprints. In particular, using hydrogen as a fuel source can eliminate the emissions associated with burning conventional fuels, making it a highly attractive alternative.

Another potential application for Micro-SMR technology is in the production of syngas. By utilizing the same process used to produce hydrogen, we can generate syngas, which is used in a variety of industrial applications. The modular components of the Micro-SMR technology mean that it can be easily integrated into existing syngas plants, or used to build new ones with greater efficiency and accuracy. This could have significant economic and environmental benefits, including reducing the amount of greenhouse gases emitted by these plants.

In addition to these applications, Micro-SMR technology can also be used to produce hydrogen at ports. By generating hydrogen locally, we can reduce the need for transportation and storage of hydrogen, which can be costly and inefficient. This hydrogen can be used to power ships while they are docked, further reducing emissions and improving efficiency.

Finally, Micro-SMR technology can also be applied to the energy sector. By using modular components and sizing, we can make it more attainable to place SMR technology on energy plants. This could allow for more efficient production of hydrogen and syngas, reducing greenhouse gas emissions and improving overall plant efficiency.

In summary, Micro-SMR technology has significant potential to reduce greenhouse gas emissions and improve sustainability in a variety of industries and applications. Its versatility and modular design make it an ideal solution for reducing carbon footprints and improving overall efficiency.