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About Us
CarbonFuelTech envisions a future where greenhouse gases are valuable resources — not pollutants. Our core research focuses on converting carbon dioxide (CO₂), nitrogen compounds, and water into renewable fuels through electrochemical processes. These technologies are powered by clean electricity from solar, wind, and other renewable sources, enabling carbon-neutral fuel production and sustainable energy solutions.
CO₂ Electrolysis
Process:
We convert captured CO₂ into high-value carbon-based fuels such as methanol and formate through electrochemical reduction. This process closes the carbon loop by reusing atmospheric or industrial CO₂ emissions.
Technology:
Our proprietary metal oxide catalysts and renewable-powered electrochemical cells drive efficient CO₂ conversion under mild conditions. By optimizing catalyst composition and cell design, we enhance fuel selectivity and energy efficiency.
Impact:
CO₂ electrolysis offers a dual benefit — reducing atmospheric carbon levels while generating sustainable fuels for transportation, power generation, and chemical industries.
Ammonia Production
Process:
We develop electrochemical methods for converting nitrogen (N₂) or nitrogen oxides (NOx) into ammonia (NH₃) at ambient temperatures and pressures.
Advantage:
Unlike the energy-intensive Haber-Bosch process, our electroreduction technology operates using renewable electricity, resulting in a low-emission, low-energy pathway to ammonia synthesis.
Application:
Ammonia serves as a vital input for fertilizers and also functions as an efficient hydrogen carrier, enabling carbon-free fuel applications.
Hydrogen Production
Process:
Through water electrolysis, we split water molecules into hydrogen and oxygen using renewable electricity.
Impact:
The produced hydrogen is a clean, high-energy fuel suitable for fuel cells, industrial energy systems, and green chemical manufacturing. This technology forms a cornerstone of the emerging hydrogen economy.
Catalyst Innovation
At the heart of all our technologies are advanced catalyst materials that drive efficiency and scalability. We employ innovative synthesis methods such as hydrothermal processing, ball milling, and electrodeposition to create high-performance, cost-effective catalysts.
Our research emphasizes durability, selectivity, and ease of manufacturing — ensuring that our solutions can transition seamlessly from laboratory to industrial scale.