MARKET

Why industrial hydrogen supply is becoming more local

EvoGenesis Research

August 21, 2026

3 min read

Industrial hydrogen is already a major commodity. Global demand approached 100 million tonnes in 2024, according to the International Energy Agency, with refining and chemical production accounting for most current use.

The supply question is changing. Industrial buyers are looking for dependable hydrogen at the right specification, volume, location, and carbon intensity. That creates room for regional production built around local resources and long-term offtake.

“Hydrogen is difficult and expensive to move. A well-sited project can connect local material supply directly with local industrial demand.”

Where industrial hydrogen comes from today

The vast majority of hydrogen is still produced from fossil fuels without emissions capture. The IEA estimates that unabated natural-gas pathways typically produce about 10–14 kilograms of CO₂-equivalent per kilogram of hydrogen, depending on plant performance and methane emissions.

Electrolysis, carbon-managed natural-gas pathways, biomass conversion, and chemical looping each bring different infrastructure, feedstock, energy, and cost requirements. Buyers need more than a color label; they need a project that can meet a real product specification reliably.

Location matters because hydrogen has low volumetric energy density and requires specialized compression, storage, or pipelines. Production near demand can reduce part of that logistics burden.

Regional hydrogen projects can diversify supply, reduce transport requirements, and connect local resources with established industrial demand.

The distributed supply opportunity

A GenesisLoop™ configuration with a steam reactor can produce a separate hydrogen-rich gas stream. Oxygen-depleted Revodox™ reacts with steam and releases a hydrogen-rich gas stream separated from the nitrogen introduced in the air-regeneration stage.

That separation creates a clearer path to conditioning and purification. Because GenesisLoop™ projects can be built near both waste supply and industrial demand, they can also reduce the transport burden associated with moving hydrogen over long distances.

The commercial case is strongest where consistent waste supply, a suitable site, a defined hydrogen specification, and a credible buyer come together.

How material contracts can affect project economics

Material supply contracts can affect project economics in several ways. A project may pay for prepared feedstock, receive material at no charge, avoid an existing disposal cost, or receive a contracted processing fee. The result depends on the stream, location, preprocessing, transport, and contract.

A GenesisLoop™ project can combine material-supply arrangements with revenue from useful gas and recoverable heat. Any value associated with a CO₂-rich stream would depend on conditioning, local infrastructure, regulation, and an available buyer or storage pathway.

“Material cost, product value, site integration, and long-term contracts all shape the economics of a hydrogen project.”

What this means for industrial gas buyers

A GenesisLoop™ project can be configured to produce a separate hydrogen-rich gas stream for downstream conditioning and purification. The commercial case depends on the material supply, site, required product specification, scale, cleanup system, and offtake agreement.

For industrial gas buyers and end users, this is a project-development opportunity rather than a generic commodity claim. The strongest cases begin with a defined customer and work backward through product requirements, engineering, and feedstock.

Local waste-derived hydrogen will not replace every production pathway. It can add a valuable option where the waste resource, site, and industrial market fit together.