World Food Day: What Technology Can Truly Ensure Food Security?

Foodthink Says
16 October marks the 44th World Food Day, with the UN Food and Agriculture Organization (FAO) designating this year’s global theme as: “Food Security for All, Building a Better Life, Creating a Brighter Future.”
Advocates and promoters of GM technology have long packaged it as the premier solution for guaranteeing food security. Yet *Seed Empire*, a new book chronicling Monsanto’s history by US environmental historians, effectively debunks the company’s GM myth with rigorous facts and data.
Centring on the book, several Chinese scholars and practitioners engaged in a discussion: how should the public understand GM technology? How do these agricultural and food-related technologies shape our dietary systems? What kind of innovation can truly safeguard food security? And as everyday consumers, what part can we play?

I. The Complexity of GM Technology Is Overlooked

What makes this case particularly compelling is that it challenges both proponents and opponents of GM technology alike. Proponents point to lax government oversight and the infringement of GM patents. Yet, because the exact origin of this hybrid cannot be pinpointed, no one faces legal repercussions. For critics of GM, it poses a pressing dilemma: what seeds do farmers truly require, and who ought to fulfil their practical needs? Could public breeding programmes, for instance, step into this role?
II. Will the wider public continue to benefit from future technological advances?
Take the Green Revolution in 1960s India as an example. The government embraced the initiative, introducing high-yield crop varieties in the hope that technological means would boost agricultural output. At the time, many harboured great hopes for the Green Revolution, anticipating it would narrow the wealth gap and deliver broader social benefits. In reality, the opposite proved true. These high-yield varieties were more expensive than local traditional ones, and cultivating them demanded vast amounts of water and sophisticated irrigation infrastructure. Yet rural infrastructure in India was generally poor. Consequently, these high-yield crops did not lift the already impoverished farmers out of hardship; instead, they exacerbated poverty in certain regions.
Therefore, rather than offering blanket support or opposition to science and technology in the abstract, we should examine concretely what a given technology brings to people under current social conditions.
Turning to Monsanto again, the book reveals that many of the problems associated with its technology rarely even operate on a scientific level. Whether dealing with herbicides or pesticides, their researchers would simply observe in a trial that a product effectively killed weeds or pests. That finding would then be locked away as a trade secret, patented, and turned into a revenue-generating formula. Little interest was shown in understanding the underlying mechanisms or why it worked, and open scientific discourse was actively discouraged, meaning its actual contribution to science remained limited.
III. How can breeding technology better serve farmers?
So, could we now establish a support mechanism to enable them to regain these techniques and knowledge? The case from the Philippines shows that farmers not only have the potential to master these skills but, once they do, can select and breed varieties tailored to their own needs.
Establishing such a social support mechanism cannot rely solely on civil society organisations, as their funding and manpower are limited and they can only run local pilot projects. Ultimately, the solution will likely need to centre on the public breeding system. Our country once established a powerful agricultural research and extension system, but how to revitalise these systems and effectively gauge farmers’ needs today demands serious reflection.
Take the early days of Mexico’s Green Revolution, for instance. Even within the Rockefeller Foundation, there were divergent approaches to seed introduction. Project staff at the time largely fell into two disciplinary camps: those with a scientific research background, who wanted to directly transplant high-yielding US varieties into Mexico for distribution; and those with a social science background, who emphasised introducing varieties that local farmers actually needed. Consequently, they advocated for improving local landraces to better suit Mexico’s specific conditions.
These were essentially two different development pathways. Looking back, we find that the social science-backed approach ultimately lost out. There was a growing consensus against investing further time in improving local varieties, leading to the displacement of many Mexican maize landraces. Ultimately, it was Mexico’s large-scale farms that benefited, rather than the countless smallholder farmers.
Apart from the vertical process of transferring technology to the public or farmers, the breeding industry also operates through a horizontal dimension. When breeders undertake varietal improvement, a fundamental prerequisite is the preservation of seed resource diversity. To mitigate the uncertainty and complexity inherent in breeding, the most efficient approach is to conduct pre-breeding and screening using large-scale germplasm resources.
Today, competition among seed and agribusiness firms is intense, with market concentration rising steadily. Driven by this rivalry, laboratories and companies rarely share information; breeding materials are treated as commercial secrets, which frequently hinders collaboration between them.
Take Argentina’s GDM Seed Group, for example. As one of the world’s largest soybean biotech breeding companies, it operates 700 experimental stations across 15 countries. It houses an extensive germplasm collection and has conducted extensive selection and breeding, building a formidable competitive advantage. For developing nations and emerging enterprises, such resource-rich corporations exert immense pressure. In practice, many agricultural biotech firms simply purchase germplasm from them to conduct their own transgenic research and development.
But who actually preserves these germplasm resources? Farmers do. We operate under a principle often summarised as ‘keeping seeds with the people’. Why do we continuously encourage farmers to preserve and protect the seed resources they still hold? Only by conserving them first can we later undertake further evaluation of these landraces. This forms the groundwork for pre-breeding and for meeting diverse societal demands.
Therefore, involving farmers—and consumers alike—is crucial. As consumers, we can convey our preferences to breeders; for instance, expressing a desire for less sweet fruit. This gives breeders a channel to understand such feedback and adjust breeding objectives accordingly to meet societal needs.

IV. Do Consumers Really Know What They Want to Eat?

Will consumers have more opportunities in the future to choose agricultural products and foods that are friendlier to both the environment and producers? It’s a question we all need to work together to answer.

*This article was first published on Tencent News in “Let’s Chat Science”
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Edited by: Tian Le
