Online shop



Biohydrogen represents a sustainable and environmentally friendly approach to producing hydrogen, with the potential to play a crucial role in the transition to a cleaner energy future. However, overcoming the technical, economic, and scalability challenges is essential for it to become a mainstream energy source.

Biophotolysis: This process involves the use of microalgae or cyanobacteria that can split water into hydrogen and oxygen under sunlight.
Dark Fermentation: Certain bacteria can produce hydrogen from organic substrates in the absence of light. This process is advantageous because it can occur continuously, day and night.
Photo-Fermentation: Some bacteria can produce hydrogen from organic acids under light conditions. This process is typically used in combination with dark fermentation for better efficiency.
Direct Biophotolysis: Direct biophotolysis involves the direct conversion of solar energy into hydrogen by photosynthetic microorganisms like green algae.

Renewable: Biohydrogen can be produced from various renewable sources, including agricultural waste, wastewater, and organic matter.
Low Environmental Impact: The production and use of biohydrogen produce minimal pollutants, particularly when compared to fossil fuels.
Energy Security: It can be produced locally, reducing dependence on imported fuels.

Efficiency: The efficiency of biohydrogen production processes is currently lower than that of conventional hydrogen production methods.
Cost: High production costs are a significant barrier to the widespread adoption of biohydrogen.
Scale: Scaling up production to meet industrial needs while maintaining efficiency and sustainability is a challenge.

Fuel Cells: Biohydrogen can be used in fuel cells to produce electricity for various applications, including power for electric vehicles and stationary power sources.
Industrial Processes: It can serve as a feedstock for various industrial processes, potentially replacing fossil fuels.
Research and Development: Significant research is being conducted to improve the production efficiency, reduce costs, and develop practical applications for biohydrogen, making it a promising field in renewable energy.