Aidan Connolly is president of AgriTech Capital, a strategy and investment firm specializing in agricultural innovation and technology. He has more than 30 years of agribusiness experience and has worked in more than 100 countries. Connolly is an investor, adviser, keynote speaker and author of “The Future of Agriculture” and “As Easy as 2-1-4-3.” 

Camila Ulloa is a research assistant at Purdue University and market research analyst at AgriTech Capital.
Aidan Connolly is president of AgriTech Capital, a strategy and investment firm specializing in agricultural innovation and technology. He has more than 30 years of agribusiness experience and has worked in more than 100 countries. Connolly is an investor, adviser, keynote speaker and author of “The Future of Agriculture” and “As Easy as 2-1-4-3.” Camila Ulloa is a research assistant at Purdue University and market research analyst at AgriTech Capital.

The seed industry has always worked years ahead of the market. Long before a product is planted at scale, breeders and seed companies have decided which traits to prioritize, which genetic lines to advance and which environments to use for testing. By the time a seed reaches a farmer, much of its performance potential has already been shaped.

That long horizon has always defined the industry. It is also where uncertainty builds.

The Long Timeline Behind Every Seed

The scale of what is being shaped is significant. U.S. farmers plant about 90 million acres of corn each year, meaning small differences in seed performance can influence outcomes across a large share of agricultural production. Corn is the largest segment of the seed market, reinforcing how central seed decisions are to productivity and profitability.

Artificial intelligence is beginning to change how that uncertainty is managed — not by shortening biological timelines, but by changing how earlier choices are made within them.

Across the sector, AI is already being applied in areas such as gene discovery, trait selection and field evaluation. Machine-learning models are helping identify genetic patterns linked to nutrient use and stress tolerance. Imaging systems are improving how plant traits are measured and reducing the time required to evaluate breeding material.

These developments are often described in terms of speed: faster selection, faster analysis and faster iteration. But speed is not the most important shift.

The Shift Is in Decisions, Not Data

What is changing is how information moves through the system.

Historically, knowledge has flowed forward. Breeding decisions lead to trials. Trials lead to commercialization. Performance is evaluated after the fact. Artificial intelligence begins to change that direction by allowing future conditions to be considered earlier. Environmental variability, management differences and performance uncertainty can be incorporated into decisions before products reach commercial scale.

Instead of relying primarily on historical results, organizations can begin anticipating how products are likely to perform under a wider range of conditions. This does not eliminate uncertainty, but it changes where uncertainty is addressed.

It also changes how products are defined. As the connection between data science and plant science strengthens, traits can be evaluated in context rather than in isolation. The focus shifts from asking how a variety performs on average to understanding where it performs best. That distinction matters in a market where variability across regions and management practices continues to increase.

The implications extend beyond breeding. Seed production and distribution operate under their own constraints. Multiplication cycles, inventory planning and regional demand all introduce risk. Even small mismatches between supply and demand can affect availability and margins.

Artificial intelligence can improve forecasting in these areas, but its value does not come from prediction alone. It comes from how those insights influence actions across production, logistics and commercialization.

Why Many AI Efforts Do Not Change Outcomes

Progress often slows at this point. Many organizations are expanding their data capabilities and adopting new tools. Insights are improving, and analysis is becoming more sophisticated. Yet the way decisions are made often remains unchanged.

Breeding becomes more efficient. Forecasting becomes more accurate. But actions are still taken within the same organizational boundaries. That limits the impact.

Moving beyond that stage requires a more deliberate approach. One way to frame that approach is through the DRIVE framework:

  • Data comes first. Data should not be treated as a collection of separate datasets, but as a connected system spanning breeding, field performance, production and commercial activity.
  • Run purposeful pilots. Organizations should focus on specific questions for which results can be measured and applied.
  • Internal capability remains central. Expertise in genetics, agronomy and market dynamics continues to guide decisions, but the way that expertise is applied must evolve.
  • VIPs are not exempt. Leadership determines whether AI becomes part of how an organization operates or remains a side initiative.
  • Execute now. Meaningful progress depends on implementation, evaluation and continued learning.

This is not simply about adopting technology. It is about changing how decisions are structured.

A useful way to understand the shift is to consider infrastructure. When Japan introduced its Shinkansen high-speed rail system, the innovation was not the train alone. The entire system had to be redesigned to support it. Tracks, signaling and operations were aligned around a new level of performance.

Artificial intelligence presents a similar moment for the seed industry. Introducing AI into existing processes without adjusting how decisions connect across research, development and commercialization is unlikely to deliver its full value. The technology may be capable, but the system ultimately determines its impact.

The industry is now moving through that transition. Some organizations continue to improve individual stages, while others are beginning to connect those stages more deliberately. That integration allows information to influence decisions earlier and more consistently. As the connections strengthen, the value becomes more apparent.

The fundamentals of the seed industry remain unchanged. Genetics, agronomy and long-term investment cycles continue to define progress. What is changing is how those elements are coordinated.

Artificial intelligence makes it possible to manage variability in a more integrated way. It allows earlier signals to shape later outcomes and, increasingly, later conditions to inform earlier choices. In an industry built on long timelines, that shift matters.

The next phase of innovation will not come solely from new traits or technologies. It will come from how effectively decisions and actions are connected across the system. That is where artificial intelligence begins to deliver real impact.