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Technology Roadmap

Carbon280 are developing the technology for the HydrilyteTM System and, working closely with Safe Hydrogen, on improvements to the HydrilyteTM itself.

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First prototype

Technology readiness level 3

Technology readiness

The Hydrilyte™ Storage System has been through two prototype iterations and is now at Technology Readiness Level 4.

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2nd Prototype

Technology readiness level 4

The first prototype demonstrated that the Hydrilyte™ could successfully store and release hydrogen.

 

The second prototype demonstrated that this could be done over repeated cycles.

Technology Pilot (TRL 6) estimated duration 12 months

The purpose of the Technology Pilot is:

Design

  • Front End Engineering Design (FEED) and Detailed Design of the Hydriding and Dehydriding batch reactors and integration of balance of plant

  • Develop a digital twin for system development and enhancement

  • Simple remote monitoring of the technology demonstrator

Build

  • Fabricate a technology demonstrator

  • Integrate technology demonstrator into a demonstration microgrid

Demonstrate

  • The operational efficiency of the technology demonstrator from hydrogen in to hydrogen out (closed loop)

  • The reliability of the basic design by integration into a demonstration microgrid where it can run continuously

  • Remote monitoring

Commercial Pilot (TRL 8/9) estimated duration 24 months

The purpose of the Commercial Pilot is:

Design

  • Refine design from lessons learned

  • Minimise rotating equipment

  • Simplify maintenance

  • Integrate component redundancy to enable continuous operations over a 20 year design life

  • Containerise the system so that it is easily transportable

  • Extend digital twin for system demonstration, systems integration and operator training

  • Basic design for continuous reactors (for large scale plants)

Build

  • Fabricate the commercial demonstrator

  • Factory acceptance tests with customer

  • Site acceptance tests with customer

Demonstrate

  • Integrate system into an operating microgrid

  • Commission system into operation

Comparative Analysis

Please download these reports if you want a more in depth understanding of the key differences. If you want access to the data behind these reports, we can share under a Non Disclosure Agreement.

Hydrilyte™ vs Ammonia

Cost of storage in Australian $/Kg-H2

Cost of storage in Australian $/Kg-H2

Ammonia has a higher hydrogen density than Hydrilyte™ which make it more attractive where volumetric density is the only consideration.

However:

  • The Hydrilyte™ plant is simpler and less expensive per Kg-H2 stored.

  • Hydrilyte™ requires less energy to make 1 Kg-H2

  • Together, these make a Hydrilyte™ plant cheaper to run per Kg-H2 stored

  • Unlike Ammonia, the Hydrilyte™ System can operate optimally with a variable supply of hydrogen.

  • Hydrilyte™ is safe and non toxic to people and the environment, while ammonia is a toxic and hazardous material requiring special handling procedures.

 

Hydrilyte™ vs Compressed Hydrogen

Cost of Storage in Australian $/Kg-H2

Cost of Storage in Australian $/Kg-H2

Compressed Hydrogen is a good solution for vehicles that have to travel long distances and where the ability to instantly release hydrogen on demand is critical.

However, for use in Microgrids:

  • Hydrilyte™ can store hydrogen at a lower cost per Kg H2 than compressed hydrogen

  • Hydrilyte™ is safer than compressed hydrogen

  • Hydrilyte™ has an equivalent density of hydrogen and, with future improvements, we expect a significant increase in that density.

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