The global push for net-zero emissions is driving unprecedented investment into green hydrogen and its derivatives, with ammonia emerging as a key vector for energy transport and storage. Regulatory pressures and consumer demand for sustainable industrial processes are forcing industries to re-evaluate energy-intensive production methods. This technology directly addresses these challenges by offering a pathway to significantly lower the carbon footprint and operational costs of ammonia production, positioning licensees at the forefront of the sustainable chemical and energy transition.
Reduces energy consumption by up to ~25% compared to conventional Haber-Bosch processes.
Maintains long-term catalyst activity, reducing replacement frequency and maintenance costs.
Enables easy synthesis and integration into existing ammonia plants for rapid deployment.
This patent protects a novel oxynitride hydride composition and its use as a metal carrier and ammonia synthesis catalyst. It features 11 claims, establishing broad and robust protection, having successfully overcome examiner objections against seven prior art documents, indicating strong patentability and low invalidation risk.
This patent focuses on specific oxynitride hydride compositions for ammonia synthesis. White space exists in exploring other perovskite-type materials for diverse catalytic applications beyond ammonia, such as hydrogen production from water splitting or CO2 hydrogenation, or developing novel reactor designs optimized for these catalysts.
For a plant producing 100,000 tons of ammonia annually, this technology's reduction of reaction temperature by 100°C and pressure by 50 atm could reduce energy consumption by ~20% compared to conventional processes. For example, if annual electricity costs are ~$6.5M (AI est.), this reduction could save ~$1.5M (AI est.) per year, directly improving energy intensity and profitability in ammonia production.
X: Energy Efficiency
Y: Catalyst Stability & Lifespan