India’s cotton story is one of the clearest examples of what happens when science is allowed to work—and what follows when politics overtakes innovation.
India did not arrive at BT cotton through a smooth policy rollout; it arrived there through a clash between regulation, farmer demand, and field-level evidence. Before commercial approval was granted, the government had withheld permission for BT cotton, even as farmers in Gujarat began planting unapproved genetically modified seeds that appeared to withstand bollworm attacks far better than conventional cotton. Sharad Joshi and the Shetkari Sanghatana publicly backed these farmers, arguing that Indian cultivators deserved access to the same technologies already being used elsewhere.
The introduction of BT cotton in 2002 helped lift yields dramatically, turning a chronically vulnerable crop into a national success story. Cotton production rose from 13.6 million bales in 2002-03 to 39.8 million bales in 2013-14, while yields climbed from roughly 302 kg per hectare to 566 kg per hectare over the same period. In effect, India moved from being a modest player to becoming the world’s largest cotton producer and second-largest exporter. [1]
That surge did not emerge from a vacuum. It was built on earlier scientific advances such as the hybrid cotton era of the 1970s—represented by varieties like H4 and Varalaxmi —and then accelerated by BT technology that targeted devastating pests such as the American bollworm. The policy decision to commercialise Bt cotton in 2002 was, in retrospect, a watershed moment. A later Financial Express assessment argued that BT cotton generated cumulative gains of about $67 billion during FY04-FY17 through additional cotton exports, yarn exports, and import savings over a business-as-usual scenario. [3]
The scale of the transformation matters because it establishes a benchmark for what Indian agriculture can achieve when science, regulation, and markets move in the same direction. For roughly a decade after Bt cotton’s commercial introduction, annual cotton output expanded strongly, acreage grew from 7.6 million hectares to 11.9 million hectares, and India briefly looked like a country capable of competing with the world’s most advanced cotton economies. [1]
But this momentum did not last.
Post-2010 phase marked the beginning of policy retreat where, activist-driven policies halted GM innovation after Bt brinjal protests; Environment Minister Jairam Ramesh shifted approvals from scientists to politics, labeling GM crops "hazardous." Decision-making moved away from scientific institutions and toward political caution. That shift mattered because cotton is not a static crop. Pests evolve. Resistance develops. New diseases emerge. If seed technology does not keep pace, yesterday’s breakthrough becomes today’s bottleneck.
That is precisely what happened. After Bollgard II, approved in 2006, India’s cotton innovation pipeline slowed sharply. The next generation of seed technologies was never meaningfully scaled. State-level caps began when Andhra Pradesh fixed Bt cotton seed prices at ₹750 per packet in 2006 while actual cost including trait fees was ₹1600, with Maharashtra and Gujarat quickly following, sharply compressing trait-fee economics for seed developers. As policy uncertainty deepened and commercial incentives weakened, newer technologies such as Bollgard II-RRF and Bollgard III did not reach Indian farmers, even while other cotton-producing countries kept moving ahead. That approach was later reinforced by the Centre through the Cotton Seed Price Control Order, trait-fee cuts, and finally zero trait fee by 2020—after which newer technologies such as Bollgard II-RRF and Bollgard III were effectively withdrawn or never released in India because innovation had become commercially unviable. Monsanto eventually withdrew newer products from regulatory consideration. [1], [4]
The consequences are now visible in the field. Yields that once touched 566 kg/ha in 2013-14 have slipped to around 441–448 kg/ha in recent years, depending on the source and year of estimation.
The pest story explains much of this decline. Agricultural scientists and sector experts have pointed to the growing resistance of pests such as pink bollworm to older BT traits. In North India, whitefly and pink bollworm have repeatedly damaged the crop, shrinking acreage and depressing farmer confidence. A report reproduced by the Cotton Association of India notes that Punjab’s cotton acreage fell to about 1 lakh hectares in 2024, down from nearly 8 lakh hectares three decades ago, while the number of operational ginning units dropped from 422 in 2004 to just 22. [5]
The deeper problem, however, is not only biological. It is institutional. Cotton pests are evolving, but India’s policy framework has not evolved with them. Farmers remain dependent on aging technology while new threats—such as viral diseases and shifting pest complexes—spread through mono-cropped landscapes and stressed agro-ecologies. The result is an agricultural system caught in technological stagnation: old seeds, rising vulnerability, falling productivity, and growing frustration across the cotton value chain.
This reversal is especially jarring because India still has enormous cotton acreage. The Ministry of Textiles states that India has about 113.60 lakh hectares under cotton—roughly 36% of the world’s cotton area—yet its productivity remains low at about 448 kg/ha in 2024-25. In other words, India dominates in scale but underperforms in efficiency. The gap is stark when compared with global benchmarks. The Indian Express, citing International Cotton Advisory Committee data for the triennium ending 2025-26, reports lint yields of 2,340 kg/ha in Australia, 2,311 kg/ha in China, 1,943 kg/ha in Brazil, and 976 kg/ha in the United States, versus 441 kg/ha in India. [6]
That gap is not merely statistical—it is strategic. It tells us that India’s cotton problem is no longer primarily about land, labour, or intent. It is about technology adoption, research investment, and regulatory will.
This is not just a farm story; it is also a textile story. India’s cotton economy feeds spinning mills, ginning units, textile exporters, and MSMEs that depend on reliable, affordable lint. The provided input correctly notes that the decline in domestic output has pushed India toward imports. India’s cotton import bill at roughly $1 billion, with net dependence still substantial after exports. The Indian Express similarly notes that India imported around 4 million bales in 2025-26 while India’s actual cotton output is about 29 million bales in 2025-26, showing a dramatic reversal how India has shifted from a net exporter to a net importer. [1]
The cotton debate is not only about farm productivity; it is equally about the quality of lint demanded by India’s textile value chain. Programs such as Kasturi Cotton Bharat were conceived precisely to address this gap through traceability, certification, and branding of Indian cotton across the supply chain. Kasturi-certified cotton is expected to meet defined benchmarks on staple length, micronaire, RD value, fibre strength, uniformity index, trash content, and moisture content, all of which directly affect spinning efficiency, yarn strength, dye uptake, fabric feel, and export-grade consistency. Exporters and textile manufacturers argue that this dependence raises raw material costs and erodes India’s ability to compete with countries such as Bangladesh and Vietnam, whose manufacturers enjoy duty-free or easier access to imported cotton. If India wants both Kasturi-grade quality and globally competitive volumes, it cannot rely on outdated genetics, fragile pest control, and post-facto import relief.
The government’s answer is the Mission for Cotton Productivity, approved with an outlay of ₹5,659.22 crore for 2026-27 to 2030-31. The mission aims to raise lint productivity from 440 kg/ha to 755 kg/ha, increase production to 498 lakh bales by 2031, cover 140 districts in 14 states, modernise 2,000 ginning and processing factories, and benefit approximately 32 lakh farmers. These are ambitious targets, and the intent is welcome. [2]
But the central question remains the one raised in your source material: Can India bridge the productivity gap without fixing the innovation gap?
If the answer is no, then a mission that focuses only on extension, branding, agronomy, and infrastructure—while leaving unresolved the deeper issues of R&D incentives, intellectual property, biosafety approvals, and biotech acceptance—may struggle to deliver the transformation it promises. Modern cotton productivity is not achieved by slogans alone. It requires pest-resistant breakthroughs, seed system renewal, improved breeding pipelines, robust public research, private innovation incentives, and rapid field-level dissemination.
The tragedy is that India has already shown it can do this. BT cotton proved that technology can improve yields, reduce pest losses caused by pink bollworm and whitefly, and raise incomes when science is allowed to lead. The current cotton crisis, therefore, is not proof that biotechnology failed. It is stronger evidence that innovation was frozen while pests, markets, and competitors kept moving.
India’s cotton heartland deserves better than technological drift wrapped in administrative optimism. It deserves a farmer-first science policy—one that restores credibility to research, places evidence above ideology, and treats seed innovation not as a political liability but as a strategic necessity. The challenge is no longer to rediscover what worked. The challenge is to stop being afraid of it.