There is a particular kind of humility you develop when you spend years building technology platforms for agriculture. The farm does not care about your roadmap – soil microbiomes disregard sprint cycles, and plants operate on extraordinarily sophisticated biological webs evolved over millions of years.
The ceiling we have hit
The 20th-century Green Revolution saved lives through extraordinary productivity gains, based primarily on input intensification: more fertilizer, pesticides and irrigation. However, this model has reached its physical limits.
Today, Nutrient Use Efficiency (NUE) is deeply suboptimal – India’s NPK ratio stands at a severe 10:9:4 – contributing to soil degradation and yield plateaus despite escalating costs. This widening gap between input costs and yield response marks the birthplace of agriculture’s next architectural shift.
Why platforms, not products
Building better products like fungicides and fertilizers is key, but product-centric thinking is slow and poorly adapted to agriculture’s diversity. A platform is fundamentally different: it is a capability infrastructure that enables continuous discovery, modular recombination, and compounding learning.
Unlike a product pipeline, where development is a long, linear process, a platform makes discovery continuous. Each experiment feeds a shared data layer, allowing molecules and microbial strains to be screened across an expanding matrix of conditions.
The secondary metabolite frontier
Secondary metabolites are a vast chemical library of compounds beyond the core growth machinery. They signal stress, recruit beneficial microbes, and initiate crucial immune responses. Conventional agronomy has systematically overlooked them.
This new approach shifts from adding inputs to modulating biology. Instead of a plant taking up only 30 per cent of applied nitrogen, we can activate its own nitrogen-acquisition pathways to take up 50 per cent. Instead of relying on fungicides alone, we can prime the plant’s systemic resistance. For climate resilience, biomolecules pave the way for drought, salinity, and heat tolerance.
Rethinking microbial intelligence
Agricultural microbiology has existed for decades, but the dominant product model has been single-strain biofertilizers. Their field performance record is inconsistent. Establishment in complex soil microbiomes is not guaranteed.
What is becoming clear is that microbial function in agriculture is emergent – it arises from communities, not individuals. Consortia design – assembling microbial teams that are functionally complementary – is enormously more complex than single-strain development, but also enormously more effective.
A unique opportunity for India
The strategic takeaway is clear: winners in the next decade will not be those who sell more inputs, but those who control discovery, understand biology at scale, and translate it into reliable farmer outcomes.
For India, this presents a unique opportunity. Its diversity – once seen as a constraint – can become the foundation for building globally relevant, climate-resilient agricultural solutions.
Ultimately, the next agricultural upgrade is not about replacing chemistry with biology – it is about integrating intelligence into the system. Those who can build, scale, and continuously learn from these biological platforms will define the future of farming – not just in India, but globally.
