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Seeds, Gene Editing, and the New Ag Powers

Monsanto-Bayer, ChemChina-Syngenta, and Corteva redraw the seed map. GM crops, CRISPR rice, EU rules, and a Filipino scientist racing to beat vitamin A deficiency.

Episode Narrative

The world in the early 1990s was undergoing a seismic shift. The collapse of the Soviet Union in 1991 not only heralded the end of an era marked by dichotomous ideologies but sparked a dramatic transformation in agricultural dynamics. Former Soviet republics, particularly Ukraine, began to emerge as vital players on the global stage, transforming into significant exporters of grain and oilseeds. The geographical landscape of food security was redrawn, with grain silos shifting eastward and new supply chains beginning to weave a complex tapestry of interdependencies. It was a time when the ideals of self-sufficiency were confronted with the harsh realities of a global marketplace, a marketplace that promised both opportunity and vulnerability.

As the nineties unfolded, agricultural trade networks became increasingly intricate and interconnected. The rise of globalization was not just a buzzword in boardrooms but a palpable force redefining food trade relationships across continents. Countries began to rely on one another in tighter, more efficient networks, mirroring a world that was becoming smaller as borders became more porous. The nature of food security and agricultural supply chains was not only a story of commodities and prices but also of cultural exchanges, shifting diets, and evolving consumption patterns.

The legacy of the Green Revolution continued to cast a long shadow over agricultural production, particularly in developing nations. High-yield crop varieties and intensive farming were providing an essential boost to global food production. However, by the 2010s, something unsettling began to emerge. Yield growth rates for staples like maize, rice, wheat, and soy were leveling off. This plateau raised a crucial question: how could an ever-growing global population — projected to reach 9.7 billion by 2050 — be fed without further innovation? The echoes of past triumphs began to reverberate alongside nagging worries about the future.

In wealthier OECD countries, this period also marked an observable shift in dietary habits. Per capita daily calorie supply remained high, a comforting statistic in a world where many still went hungry. But the makeup of that supply was changing, tilting increasingly toward animal products, fats, and sugars, with protein and fat intake steadily on the rise. This trend was more than a reflection of economic development; it offered a clear mirror to the evolving desires and tastes of an ever-more affluent consumer base. The interaction between diet and economics was reshaping not only health outcomes but also agricultural practices worldwide.

As we moved toward the 2010s and beyond, the realm of agriculture was once again on the cusp of transformation, this time marked by the tension between tradition and innovation. The introduction of genetically modified organisms, or GM crops, began to revolutionize the seed market, driven by leading firms such as Monsanto and Syngenta. While these crops promised greater yields and resilience, they faced fierce resistance in regions like the European Union, where strict regulations imposed significant hurdles. The ongoing battle over GM crops mirrored a larger global discourse on sustainability, ethics, and food sovereignty.

At the same time, the emergence of CRISPR-Cas9 and other gene-editing technologies opened exciting avenues for crop improvement. Researchers, particularly in places like the Philippines, raced to develop climate-resilient and nutritionally enhanced crops. Biofortified rice aimed at combating vitamin A deficiency became a focal point, highlighting the potential of advanced genetics to address malnutrition in the Global South. In this narrative, science was not merely about manipulation but about hope — a beacon of promise amid a global hunger crisis that was as complex as it was dire.

The landscape of agricultural production was also beginning to broaden with the rise of the global bioeconomy. Plant-based, insect-based, and algae-based proteins began gaining traction as sustainable alternatives to conventional livestock. This shift not only offered solutions to reduce greenhouse gas emissions but also the potential to alleviate pressures on land use. With the world grappling with the consequences of climate change, these innovations felt like small storms of revolution forming over the culinary horizon, ready to disrupt the status quo.

By the late 2010s, unconventional cultivation systems such as hydroponics and vertical farming were emerging as critical players, especially in urban settings. These methods could produce impressive yields, utilizing 90 percent less water than traditional agriculture. The challenges posed by urbanization and water scarcity needed addressing, and these innovative practices began to offer a way forward. For communities, especially in areas where arable land was diminishing, vertical farms represented a new dawn in food production. They promised not only a secure supply of fresh produce but a vision for a sustainable future.

Yet, the path was not without its challenges. The COVID-19 pandemic in 2020 underscored the fragility of global food markets. The ripple effects were felt across nations, as supply chains faltered, revealing vulnerabilities in import-dependent countries, particularly in Africa and the Middle East. The pandemic acted as a magnifying glass, amplifying the structural inequalities that punctuated global food systems. As countries scrambled to secure their food supplies, it became glaringly evident that food security was about more than just production; it was also about justice, equity, and accessibility.

In 2022, as war broke out in Ukraine, an agricultural powerhouse turned critical to global food security found itself engulfed in conflict. Once a leading supplier of grain to Africa and the Middle East, its production and export capacity plummeted, leading to a food crisis that sent shockwaves around the world. The delicate balance of global food security, once thought to have stabilized, became uncertain once more. In a cruel twist of irony, one of the linchpins of food supply fell victim to the very forces that globalization had sought to address.

As 2023 gave way to 2024, signs of resilience emerged. Global feed production rebounded, overcoming challenges such as avian flu and climate shocks. This recovery underscored the agricultural sector's ability to adapt, a testament to the enduring spirit of farmers and innovators alike. But the echoes of the previous crises lingered, and the journey toward food security remained fraught with complexities and contradictions.

The landscape of global agriculture was continuously evolving. In Australia, a new platform for innovation in sustainable agriculture was launched, showcasing the nation's ambition as a leader in agri-science. Initiatives like the Australian Journal of Agricultural, Veterinary and Animal Sciences reflected a growing recognition of the importance of sustainability and ethical livestock practices. Australia, once seen as merely a supplier of raw materials, began to assert itself as a hub of research and innovation.

But even as research progresses, stark disparities within regions lingered. In Africa, for instance, agricultural land, education, and food production drastically influenced family income. While nations like Ethiopia and Kenya made strides, others like Nigeria and South Africa lagged behind, raising urgent questions about the need for tailored policy interventions.

Amid these changes, the research into sweet corn showed promising advances through genetic modification and sustainable practices. New hybrids were emerging with enhanced sweetness and pest resistance, poised to meet the growing global demand. Similarly, sustainable cocoa production gained urgency as the industry began adopting practices to combat deforestation and climate change.

However, even as production flourished, global dietary data revealed troubling shortfalls in fruits, vegetables, and protein. Overproduction of certain staples, such as grains, fats, and sugars, highlighted a critical mismatch with nutritional guidelines. The challenge was clear: how to align agricultural production with the health needs of a growing population? Addressing these disparities called for dietary shifts and whole systems thinking, encapsulating the complex dance between production and consumption.

Looking ahead, the world stood at a crossroads regarding the types of protein that would dominate future diets. As alternatives such as cultured meat, insects, and algae gained traction, disparities in accessibility would shape the outcomes. For certain populations, these innovations could lead to a reduction in food prices, while others might face increased costs, complicating the equity of this dietary transition.

As projections emerged for 2025, it became evident that the current global crop production could theoretically meet the nutritional needs of 9.7 billion people by 2050. However, achieving that potential would demand radical societal adaptations, including significant reductions in meat consumption and food waste, as well as improvements in distribution.

The narrative of agriculture from 1991 to 2025 is more than a chronicle of crops and yields. It reflects the interconnectedness of our world, where the consequences of local actions reverberate globally. As we step into an uncertain future, the journey raised essential questions: How do we cultivate not just crops but resilient communities? As nations grow ever more dependent on one another for food, what will it take to ensure that security is equitable and sustainable?

In this evolving story of seeds, gene editing, and the new agricultural powers of the world, the lessons learned thus far provide both caution and hope. The cultivation of our global food system is ongoing, and the path forward remains complex. The choices made today will echo through generations, shaping the face of agriculture and food security for years to come. How we navigate this terrain of innovation, sustainability, and accessibility will define the legacy that we leave behind.

Highlights

  • 1991–2025: The collapse of the USSR in 1991 triggered a dramatic shift in global agricultural trade, with former Soviet republics — especially Ukraine — emerging as major grain and oilseed exporters, fundamentally altering the geography of food security and global supply chains.
  • 1992–2018: Global food trade networks became increasingly complex and interconnected, with food trade relations intensifying and the network growing more efficient and tightly linked, reflecting the rise of globalization in agriculture.
  • 1990s–2020s: The Green Revolution’s legacy of high-yield crop varieties and intensive farming continued to boost global food production, but by the 2010s, yield growth rates for major staples like maize, rice, wheat, and soy began to plateau, raising concerns about meeting future demand without further innovation.
  • 2000–2019: In OECD countries, per capita daily calorie supply remained high, but the composition shifted toward more animal products, fats, and sugars, with protein and fat intake rising steadily — a trend linked to economic development and changing diets.
  • 2010–2025: The adoption of genetically modified (GM) crops, led by firms like Monsanto (now Bayer), Syngenta (acquired by ChemChina), and Corteva, transformed seed markets, especially in the Americas and parts of Asia, but faced persistent resistance in the EU, where strict regulations slowed adoption.
  • 2010s–2025: CRISPR-Cas9 and other gene-editing technologies enabled rapid development of climate-resilient, pest-resistant, and nutritionally enhanced crops, such as biofortified rice aimed at combating vitamin A deficiency — a priority for researchers in the Philippines and beyond.
  • 2015–2025: The global bioeconomy expanded, with “green” (plant-based and insect) and “blue” (algae-based) protein sources gaining traction as sustainable alternatives to conventional livestock, reducing greenhouse gas emissions and land use.
  • 2018–2025: Unconventional cultivation systems — hydroponics, aeroponics, aquaponics, and vertical farming — achieved lettuce yields up to 6.88 kg/m² in controlled environments, using 90% less water than traditional agriculture and eliminating soil-borne diseases, making them critical for urban and water-scarce regions.
  • 2020–2025: The COVID-19 pandemic and Russia’s invasion of Ukraine in 2022 disrupted global grain markets, spiking food prices and exposing vulnerabilities in countries dependent on imports, especially in Africa and the Middle East.
  • 2021–2025: Despite global production of over 5,000 kcal per person per day — enough to feed everyone — persistent hunger and malnutrition remained, driven by poverty, inequality, and distribution challenges rather than absolute scarcity.

Sources

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  5. https://www.mdpi.com/2076-3417/15/12/6555
  6. https://revistas.unal.edu.co/index.php/refame/article/view/119620
  7. https://www.marciasaustralia-jomaus.com.au/journal_article/ajavas-the-australian-source-of-sound-science-innovation-and-global-authenticity-in-sustainable-agricultural-food-security-ethical-livestock-production-veterinary-medicine-natural-resources-and-c/
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