Distributed hydrogen may scale not only through giant projects, but through repeatable 1-10 MW systems installed close to customers.
The hydrogen industry has become increasingly focused on scale. Project announcements often speak in hundreds of megawatts or even gigawatts, combining renewable power sites, hydrogen production, pipelines, export terminals, and conversion facilities. At the other end of the market are small pilot installations, designed mainly to demonstrate a technology or test a specific application.
Between them lies a less visible but potentially significant market: electrolyzers in the range of roughly 1 to 10 MW. These systems are large enough to support meaningful industrial activity, but compact enough to be installed near a factory, transport hub, or regional energy system. For Hydrolite, this range represents a market in its own right, particularly for customers that want to begin producing hydrogen without waiting for a national pipeline network or a large scale hydrogen economy to emerge.
Building Around Real Demand
Large hydrogen projects can benefit from economies of scale, particularly when they have access to low-cost renewable electricity and large, long-term customers. But they also require major infrastructure, complex financing, and firm commitments from several participants at once.
A plant of several hundred megawatts may depend on new grid connections, storage facilities, pipelines, ports, and export agreements. If one part of that chain is delayed, the entire project can be affected. Medium-scale systems follow a different logic. Instead of building a large production facility and searching for future demand, they can begin with an existing customer.
A 1-10 MW electrolyzer can be sized around the needs of a factory, logistics center, or local industrial cluster. Production, storage, and consumption can be planned together, reducing the number of assumptions on which the project depends.
This does not make the economics simple. Electricity prices, operating hours, financing, and installation costs remain decisive. But the project becomes easier to define: there is a customer, a site, and a measurable hydrogen requirement.
That is one reason Hydrolite sees distributed hydrogen production as an important part of the market’s development. A medium-scale system can be located close to the point of consumption, reducing the need to compress and transport hydrogen over long distances.
A Practical Route to Deployment
The 1-10 MW range is relevant to a wide variety of applications. A system may supply hydrogen to an industrial process, a regional transport fleet, a food production site, or a group of nearby customers. These facilities can also be designed to respond to the availability of renewable power. When electricity is abundant, the electrolyzer can increase production. When power is scarce or expensive, it can reduce its load. This flexibility is particularly important for distributed energy systems, where the electrolyzer must operate as part of a wider site rather than as an isolated production asset.
Hydrolite’s AEM technology is being developed with this operating environment in mind. Anion exchange membrane electrolysis aims to combine the responsive operation associated with membrane technologies with the potential to use more widely available materials.
For customers, however, the technology label is not the main question. What matters is whether the system can be installed efficiently, respond to changing power conditions, and produce hydrogen reliably over time.
That requires more than an electrolyzer stack. Water treatment, power electronics, cooling, controls, compression, and safety systems must all work together. In medium-scale projects, the quality of that integration can determine whether a promising technology becomes a practical industrial system.
Scale Through Modularity
The advantage of a 1-10 MW installation is not that it must remain at that size forever. A customer can begin with a limited number of modules, gather operating data, and expand as demand increases. Additional capacity can be added when the original customer grows, when another user joins the project, or when more renewable electricity becomes available.
This creates a different model of scale. Rather than committing immediately to one enormous plant, developers can build capacity in stages.
For Hydrolite, modularity is central to this approach. The objective is to create systems that can be manufactured in repeatable configurations and adapted to different sites without redesigning the entire plant for every customer. This can shorten deployment, simplify maintenance, and allow customers to align investment more closely with actual demand.
It may also offer a more realistic route to cost reduction. The hydrogen sector often assumes that lower costs will come mainly from building larger individual projects. But repetition can also create scale through standardized modules produced in volume and installed across multiple sites.
In that model, growth comes not only from the size of each plant, but also from the number of plants that can be deployed.
The Missing Middle
The 1-10 MW market is sometimes treated as an awkward middle ground: too large to be considered a pilot, yet too small to attract the attention given to gigawatt-scale projects.
These systems can replace meaningful quantities of fossil-based hydrogen, support new industrial applications, and operate close to the customer. They can also be expanded without requiring the full infrastructure of a national hydrogen network from the outset.
Megaprojects will remain important for sectors such as fertilizers, refining, steel, and synthetic fuels, but they are unlikely to represent the entire market. A substantial share of hydrogen deployment may emerge through quieter, distributed projects: modular electrolyzers connected to local renewable power, supplying nearby users, and growing in line with demand.
That is the market Hydrolite is preparing for: not only the future gigawatt economy, but also the factories, energy sites, and regional clusters that need practical hydrogen production at a scale they can build today.
