Solar-to-Hydrogen Efficiency Testing and Hydrodynamic Optimization

Automotive

Green hydrogen technology

Solar cell modules manufacturing

Automotive

SunHydrogen's proprietary technology uses electroplated nanoparticles to split water into hydrogen and oxygen using solar energy. The system operates autonomously without environmentally harmful compounds, producing cost-effective green hydrogen.

Developed as part of SunHydrogen's technology advancement, these units enable safe and economical separation of hydrogen and oxygen without traditional membranes, enhancing panel efficiency and longevity.

Solar cells created using a thin-film technology that employs inexpensive materials such as zinc and iron instead of costly materials like iridium. IBM's process demonstrated conversion efficiency of 9.6% in 2010.

Japan

Germany

California

SunHydrogen's initiative to fabricate and test large-scale green hydrogen modules incorporating nanoparticle technology for solar-powered water splitting. The project includes implementation of corrosion protection measures.

Strategic collaboration announced in July 2024 to integrate CTF Solar's solar cell modules with SunHydrogen's hydrogen production technology, leveraging CTF's manufacturing framework for deployment of green hydrogen solutions.

Collaborative testing and development agreement between SunHydrogen and Honda R&D Co., LTD to test hydrogen modules in Japan and explore hydrodynamic conditions for optimizing hydrogen production efficiency.

Scaled thin-film solar cell modules integrated with nanoparticle water-splitting technology. These panels are equipped with membraneless housing units for safe and economical separation of hydrogen and oxygen products.

Large-scale hydrogen production modules incorporating SunHydrogen's proprietary nanoparticle technology. The modules split water into hydrogen and oxygen using solar energy, operating autonomously without environmentally harmful compounds. Designed to function similarly to solar panels with billions of electroplated nanoparticles.