Thought Leaders

Agriculture’s 4th Revolution: How AI in Agriculture will Shape the Global Food Supply

mm

Agriculture has undergone profound transformations in recent decades – from the localized manual field labor of pre-industrial societies to today’s smart farming technologies, which use advanced sensing solutions, data insights, and high-tech equipment to feed billions of people around the world.

The transformation from traditional practices and inherited knowhow to digitally-optimized farming at a global scale is well underway – approximately 68% of large crop farms in the United States already utilize precision digital agriculture technologies, such as yield monitors, yield maps, and soil maps, to aid in decision-making and cultivation processes.

But as technology becomes more integrated into agricultural practices, the size of the workforce continues to shrink. Today, less than 10% of the global workforce is employed in this sector, down 90% in developed countries, yet we still depend on farmers to feed the entire world.

In this sense, agriculture’s digital revolution isn’t just about using new tools to work smarter, it’s about transforming the way farming uses data, AI, machine learning, and automation, allowing the industry to thrive even as its workforce varies. And with the planet facing unprecedented disruption from unpredictable weather, market volatility, and other challenges, this revolution couldn’t have come at a better time.

Redefining the Role of the Farmer

As in many industries around the globe, agriculture is already experiencing the impact of AI. For farmers, AI delivers real, measurable benefits by replacing uniformity with precision, enabling management on the level of micro-plot or even individual plants, and offering predictive insights that allow for proactive responses to droughts, pests, and disease.

In other words, AI allows farmers to replace guesswork with data-driven decisions through real-time analytics while also driving environmental and economic efficiency. In addition to supporting regenerative agriculture through the optimization of water, fertilizers, and crop protection, AI-empowered farming will enable substantial cost reductions, directly translating into increased profitability and ROI for farmers.

For instance, sensors embedded in the soil across the diverse crops on a single farm can relay data directly back to an AI-driven system that allocates water and fertilizer. Rather than a farmer guessing about the needs of each respective crop or applying a one-size-fits-all approach to various crops with different cultivation needs, AI can assess the needs of each crop in real time and allocate water, fertilizers, or pesticides accordingly. Not only is it less tedious work for farmers themselves, but it allows for greater precision in healthy crop maintenance.

Beyond the analytics, AI-powered autonomous systems can also be used to handle routine tasks such as field preparation, sowing, planning, crop monitoring, irrigation, pest detection, fertilization, and even harvesting, allowing farmers to focus more on strategic decision-making and innovation in the field.

In this sense, AI doesn’t just act as an extra set of farmhands, it’s helping agriculture evolve and change into a high-tech profession where farmers act as “digital agronomists” who guide sophisticated AI-driven operations across mechanized farming systems and oversee sustainable, productive operations at scale.

Revealing New Frontiers: Expect the Unexpected

Thanks to real-time data inputs and algorithmic inferences, AI is already challenging longstanding agronomic norms and offering farmers new levels of insight and uncovering new opportunities for improvement.

Consider, for example, AI’s advanced modelling capabilities, which can reveal complex, non-linear patterns, like soil carbon dynamics or the unique way irrigation timing subtly affects pest behavior, that humans might miss, especially in real time. AI can use generative models to simulate millions of “what-if” scenarios, recommending novel crop rotations, irrigation rhythms, or intercropping strategies that may never have previously been considered. This unlocks the potential for new resource-efficient practices, like microbial optimization to reduce nitrogen dependence or identifying, and even suggesting crop varieties better suited to evolving climates and market demands.

AI is already being used to auto-calibrate irrigation, fertilization, and pest control at the micro-zone level; create digital twin farms to simulate and test future weather or pest scenarios; streamline predictive crop insurance by anticipating potentials risks to a given crop; and accelerate insight-driven plant breeding. In the future, AI may enable new farming paradigms like “centralized swarm farming,” closed-loop zero-waste urban micro-farms, and entirely new cultivation patterns including nonintuitive asynchronous cropping cycles.

Closing the Yield Gap for Global Food Security

It’s not just industrial growers who will benefit from AI. It also holds promise for smallholder farms, particularly those in low-income countries. The democratization of AI-powered tools, like hyper-local weather forecasting, has already show measurable impact, cutting growers’ debts in half by allowing them to better prepare for and adapt to unstable weather patterns.

Improved yield is just the beginning. AI allows farmers to optimize multiple goals simultaneously – profitability, sustainability, climate adaptation, labor shortage mitigation, and beyond. Consider that GenAI has the potential to create $100 billion in value by enhancing on-farm economics, including labor and input cost optimization and yield improvements. The ability to ensure maximum efficiency for both labor and resource allocation is even more critical at a time when food production hinges on sustainability and reducing waste.

The UN’s Food and Agriculture Organization estimates that up to one-third of annual global food production, about 1.3 billion tons, is lost each year from farm to fork. Addressing these food losses at the root is a win-win – it’s a clear way to create more equitable food systems and stronger economies for growers.

Elevating Global Farmers for the Age of Intelligence

The ongoing agricultural revolution is fundamentally transforming the way we produce food to meet the demands of a rapidly changing world.

As AI empowers farmers with data-driven insights, predictive capabilities, and precision tools, it enables them to address the challenges of today and anticipate those that may arise tomorrow, from climate instability and labor shortages to resource constraints. Whether supporting smallholder farmers in developing nations or large-scale industrial growers, AI will play a key role in closing the yield gap, reducing waste, and fostering sustainability.

It’s not just about building a smarter food system, but one that is more resilient, equitable, and capable of feeding the world sustainably for generations to come.

Max Moldavsky serves as the Global Director of Innovation and Climate Solutions at Orbia’s Precision Agriculture business Netafim, where he spearheads the integration and introduction of cutting-edge solutions in precision irrigation, digital farming, and data-driven agriculture. Under his leadership, Netafim is advancing the adoption of AI-powered platforms, sensor technologies, and automation tools that help growers optimize yields, reduce inputs, and make smarter decisions. He also oversees initiatives that combine digital solutions with new business models, enabling farmers worldwide to benefit from precision agriculture at scale. Before joining Netafim, Max held several roles in management consulting, including Director of Strategy, advising organizations on innovation, operational excellence, and technology transformation. Max earned a Bachelor of Science and a Master of Engineering in Industrial Engineering and Management from the Technion – Israel Institute of Technology.