CAPER Process

CAPER (Caustic Aqueous-phase Chemical Reforming) is an advanced method of generating hydrogen from biomass. Our proprietary technology excels in this process by exclusively producing hydrogen as a gaseous output through aqueous-phase reactions. This unique feature eliminates the need for cumbersome separation and compression steps typically required for gaseous products.

This innovative conversion occurs under mild conditions of low temperatures and pressures, markedly enhancing efficiency and demanding less energy compared to conventional water electrolysis.

A distinctive advantage of our technology is its adaptability, capable of operating on either electrical or thermal power sources. This versatility expands its potential applications, allowing direct connection to the electrical grid or utilization of waste heat from other industrial operations. Notably, in electrically driven scenarios, our process can be rapidly switched on and off, facilitating on-demand hydrogen production.

Envisioning the integration of our technology into diverse energy contexts, we foresee its pivotal role in refueling hydrogen-powered vehicles and bolstering independent grid networks. This integration effectively sidesteps the challenges associated with transporting hydrogen in pressurized containers, overcoming a significant hurdle.

In summation, our electrochemical reforming technology stands poised to revolutionize hydrogen production through streamlined operation, energy efficiency, and adaptable power inputs. It holds promise as a catalyst for advancing energy infrastructure, driving sustainable transportation with hydrogen fuel cell vehicles, and fortifying the resilience of localized energy systems.

• Low temperature, liquid phase electrochemical processes compared to conventional high temperature gas phase processes.
• Low energy molecule dissociation vs High energy water splitting
• Continuous green hydrogen on demand, on-site vs Intermittent green hydrogen production requiring high cost transportation of pressurized containers

1. Agave:  Harnessing hydrogen from agave offers a net carbon-zero solution. This resilient plant efficiently captures and stores carbon during its growth, making it an environmentally friendly choice. The extraction process taps into this stored carbon, contributing to sustainable hydrogen production.
2. Cane Sugar: Similar to agave, cane sugar feedstock is net carbon-zero, thanks to its carbon capture properties during growth. The conversion of cane sugar into hydrogen not only provides a clean energy source but also supports carbon reduction efforts
3. Methanol: Hydrogen extraction from methanol provides a versatile option. Methanol, a liquid at room temperature, allows for easier handling and transport, enhancing the feasibility of hydrogen distribution.
4. Ethanol: Ethanol-based hydrogen production leverages existing biofuel infrastructure. Converting ethanol into hydrogen taps into established supply chains and simplifies integration into existing energy systems.