Strategic outlook Green nitrogen fixation By Dubai Future Foundation The Haber-Bosch process, developed over a century ago, fundamentally altered humanity’s relationship with food production by enabling industrial-scale nitrogen fixation. Now, lithium-mediated electrochemical processes could present another significant advancement: the potential ability to produce ammonia using only air, water and renewable electricity. This technological shift might transform global ammonia production from a centralized, carbon-intensive industry into a more distributed, carbon-neutral network. The strategic significance extends far beyond decarbonization. The current Haber-Bosch process consumes 1-2% of global energy98 and emits 2.4 tons of CO2 per ton of ammonia produced – nearly twice that of steel production and four times that of cement manufacturing.99 Green ammonia production represents a critical opportunity to transform this carbon-intensive foundation of global agriculture while simultaneously enabling new energy applications. Agriculture stands to undergo the most profound transformation. With nearly 80% of industrially produced ammonia consumed in fertilizers,100 green nitrogen fixation could catalyse a shift towards distributed, smaller-scale production facilities that reduce transport vulnerabilities, stabilize fertilizer prices101 and enhance food system resilience. This distributed model could fundamentally reshape agricultural supply chains and empower regions currently dependent on imported fertilizers. Beyond agriculture, green ammonia emerges as a versatile energy carrier with strategic advantages over liquid hydrogen. With storage requirements up to 30 times lower in cost than liquid hydrogen,102 ammonia presents a more practical medium for hydrogen energy storage and transport. The shipping industry has recognized this potential, with maritime regulations evolving to accommodate ammonia-fuelled vessels, suggesting a pathway towards decarbonizing global shipping networks. While offering advantages over hydrogen in the Haber- Bosch process, technical and resource challenges remain significant but navigable. Recent advances have demonstrated electrochemical conversion rates approaching the efficiency of the Haber-Bosch process (60-75%),103,104,105 indicating technical viability. The dependence on lithium – a critical mineral with demand expected to more than double by 2030106 – presents a resource constraint that will require strategic supply chain development. Environmental considerations must also address ammonia’s toxicity107 and potential PM2.5 (particulate matter) emissions impacts.108 Strategically, the geopolitical landscape of ammonia production currently stands at a pivotal moment. With China currently accounting for 30% of global production and India and Middle Eastern countries poised to expand capacity,109 green nitrogen fixation could reshape regional dependencies and create new centres of agricultural and energy influence. Those who develop scalable green ammonia production capabilities may gain significant strategic advantages in both food security and clean energy transitions. Over the next decade, leadership in green nitrogen fixation would likely emerge from those who can integrate three distinct strategic capabilities: advanced electrochemical manufacturing, renewable energy infrastructure and agricultural innovation ecosystems. The technology represents a potential convergence where food security, energy innovation and climate action might intersect in a single transformative platform. Related DFF megatrends: Evolving Ecosystems and Advanced Health and Nutrition110 Top 10 Emerging Technologies of 2025 29