Hydrogen In Motion (H2M) provides a proprietary solid-state nanomaterial for safe, cost-effective hydrogen storage. Their conformable material enables versatile container designs for applications from drones to grid-scale energy, simplifying logistics and reducing infrastructure needs.
Funding
Funding not disclosed
Founders
Product
Problem
Current hydrogen storage and logistics present significant challenges, including high costs, safety concerns, and infrastructure limitations, hindering the widespread adoption of hydrogen as a clean energy source. Existing solutions often require high pressures or cryogenic temperatures, complicating transportation and end-use applications.
Solution
Hydrogen In Motion (H2M) has developed a proprietary solid-state hydrogen storage nanomaterial that offers a safer, more cost-effective, and versatile alternative to conventional hydrogen containment methods. This conformable material allows for the creation of hydrogen storage containers that can be shaped to meet specific application requirements, from portable power for drones to grid-scale energy storage for renewables. H2M's technology simplifies hydrogen logistics by enabling direct-to-consumer delivery models, bypassing the need for extensive refueling infrastructure. This breakthrough addresses key constraints in the hydrogen economy, positioning hydrogen as a viable solution for a carbon-free future.
Target Audience
The primary target audience includes developers and operators in the renewable energy sector, manufacturers of drones and electric vehicles, and entities involved in hydrogen gas transport and distribution seeking advanced storage solutions.
Features
- Proprietary solid-state hydrogen storage nanomaterial with conformable properties.
- Enables the design of hydrogen storage containers adaptable to diverse application geometries.
- Offers a safer alternative to high-pressure or cryogenic hydrogen storage systems.
- Facilitates direct-to-consumer hydrogen delivery, reducing reliance on traditional refueling infrastructure.
- Supports applications ranging from portable power for unmanned aerial vehicles (UAVs) to grid-scale energy storage for solar, wind, and wave power.
- Research and development process integrates computational modeling (DFT, Molecular Dynamics, CFD), material synthesis, advanced characterization (SEM, TEM, XPS, BET, Raman spectroscopy), and a validated Sieverts-like apparatus for precise hydrogen absorption/desorption measurements.
- Non-pressurized, non-toxic, and portable hydrogen gas storage solutions.