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The expanded BRICS grouping occupies a pivotal position in global agriculture. Collectively, its member countries account for more than 60 percent of global rice production and nearly half of the world’s wheat, meat, and pulses output. At the same time, BRICS countries represent a remarkable diversity of agricultural systems.
While countries such as India, China, and Ethiopia are characterized by smallholder-dominated and land-constrained farming systems, Brazil and Russia possess extensive land resources and large-scale mechanized agriculture. These differences shape the nature of agricultural innovation and investment priorities across member countries.
Despite their substantial contribution to global food production, many BRICS countries continue to pursue solutions to shared challenges related to food and nutrition security, productivity enhancement, natural resource management, and climate resilience. Addressing these priorities will increasingly depend on the strength of agricultural research and development (R&D), which has emerged as a critical driver of long-term agricultural transformation and sustainable growth.
Dynamics of public investment in BRICS agricultural R&D
Over the past three decades, agricultural R&D capacity has expanded considerably across BRICS countries, although the pace and scale of progress have varied. Public investments in agricultural research have played a crucial role in supporting technological advancement, strengthening scientific institutions, and promoting innovation throughout the agricultural sector.
The impact of these investments becomes particularly evident when viewed alongside productivity outcomes. Countries that have consistently strengthened agricultural R&D have generally experienced stronger growth in Total Factor Productivity (TFP), which reflects gains arising from technological progress, improved efficiency, and better resource utilization rather than simply increased use of inputs.
China and India provide notable examples of this relationship. Sustained investments in crop improvement, irrigation efficiency, digital agriculture, climate-resilient technologies, and scientific capacity have contributed significantly to productivity growth and agricultural modernization. In contrast, experiences across countries also demonstrate that maintaining productivity growth over the long term requires continuous investment in research systems, innovation ecosystems, and human capital development.
An important feature of agricultural innovation within BRICS is that research priorities differ according to national circumstances and resource endowments. In land-constrained economies such as India and China, innovation has largely focused on land-augmenting technologies. High-yielding crop varieties, climate-resilient seeds, precision agriculture, and efficient water management technologies have become essential for maximizing productivity within limited land resources. These innovations are particularly relevant for smallholder farming systems, where growth must largely come through intensification and improved resource efficiency.
By contrast, countries such as Brazil and Russia have focused more extensively on labor-saving and capital-intensive innovations, including mechanization, automation, digital agriculture, and advanced farm management systems. These technologies support operational efficiency and economies of scale in commercial farming systems where labor availability is relatively constrained.
This diversity highlights an important reality: agricultural innovation is not a uniform process. Research priorities are shaped by production systems, factor endowments, institutional capacities, and broader development objectives. Consequently, the future of agricultural transformation within BRICS will depend not only on the scale of investment in R&D but also on how effectively innovation strategies respond to country-specific needs and opportunities.
R&D for Climate Resilience and Sustainable Growth
The importance of agricultural R&D is becoming even more pronounced in the context of climate change. Rising temperatures, changing rainfall patterns, extreme weather events, and increasing resource pressures are reshaping agricultural production systems across the world.
Future productivity gains will increasingly depend on climate-smart agriculture, stress-tolerant crop varieties, resource-efficient technologies, digital advisory platforms, and innovative farm management practices that enable producers to adapt to changing environmental conditions. Agricultural research is therefore becoming central not only to productivity enhancement but also to strengthening resilience, sustainability, and long-term food security.
As countries seek to balance production growth with environmental stewardship, investments in science and innovation will remain indispensable for building agricultural systems capable of responding effectively to emerging challenges.
Pathways for Cooperation in Agricultural R&D
The diversity of BRICS agriculture also creates significant opportunities for collaboration. Each member country possesses unique strengths, experiences, and institutional capabilities that can complement those of others.
Brazil’s expertise in large-scale commercial agriculture, India’s and China’s experience in developing innovations for smallholder farming systems, South Africa’s strengths in biodiversity management and sustainable agriculture, and the financial and investment capacities of countries such as the United Arab Emirates and Saudi Arabia together provide a strong foundation for collaborative innovation.
In this context, science, technology, and innovation can serve as important pillars of BRICS cooperation. Strengthening partnerships in agricultural R&D offers opportunities to accelerate knowledge exchange, foster technological advancement, and develop solutions to common challenges facing member countries.
Enhanced collaboration could include sustained public investment in joint research initiatives, establishment of innovation hubs, expansion of researcher exchange programmes, promotion of digital knowledge-sharing platforms, and development of common research agendas focused on shared priorities. Such initiatives would enable member countries to leverage complementary strengths while avoiding duplication of efforts.
The BRICS Agricultural Research Platform (BARP) can play a particularly important role in advancing this agenda. By facilitating coordinated research, technology transfer, institutional partnerships, and collaborative innovation, the platform can help strengthen scientific cooperation across member countries and support collective efforts to improve agricultural productivity, sustainability, and resilience.
Building the Future Through Innovation
The future of agriculture within BRICS will be determined not only by the volume of food produced but also by the ability of member countries to harness science, technology, and innovation to create resilient, inclusive, and sustainable food systems.
As agricultural systems confront increasingly complex economic, environmental, and demographic challenges, investments in research and innovation will become even more critical. The pathway from farm productivity to farmer prosperity will increasingly be shaped by the capacity of countries to generate, adapt, and scale innovations that respond to evolving needs.
By strengthening cooperation in agricultural R&D, BRICS countries can contribute not only to their own food and nutrition security objectives but also to broader global efforts aimed at building more resilient and sustainable agricultural systems. In doing so, they can position science and innovation at the center of a shared vision for agricultural transformation and long-term prosperity.
Disclaimer: The opinions and views expressed in this article/column are those of the author(s) and do not necessarily reflect the views or positions of South Asian Herald.
