·The Hindu·15 marks·250–350 words

Evaluate the role of public research institutes in building India's agri-biotechnology capabilities. What bottlenecks prevent lab discoveries from reaching farmers?

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In this answer
  1. Role: Strengths
  2. Role: Limitations
  3. Bottlenecks from Lab to Farm

Pests cost India an estimated 10–30% of total crop production each year [2]. That makes public research bodies such as ICAR, DBT institutes and university centres central to India's biotech answer. They are strong at discovery but weak at delivery.

Role: Strengths

  • Frontier basic science: NIPGR, New Delhi found CNGC13. This is a calcium channel in the xylem and phloem that carries a plant's insect-attack alarm to its other leaves. The work was published in PNAS [1].
  • Home-grown GM crops: Delhi University's CGMCP developed GM mustard DMH-11. GEAC approved its environmental release in October 2022 after toxicity, allergenicity and field studies [3].
  • Sustainable crop protection: CNGC13 could help design chemicals that trigger plants' own defences [1]. That fits the national IPM programme, under which chemical pesticide use fell from 75,033 t (1990-91) to 50,583 t (2011-12) [4].
  • Public-good focus: Their work targets crops important for food security, such as mustard, rather than only profitable markets.

Role: Limitations

  • Discovery without products: The CNGC13 payoff is only a possibility so far ("may help") [1]. Its results likely come from lab model plants, not crops.
  • Weak commercial footprint: India's most widely grown GM crop, Bt cotton, came from the private sector, not from public labs.

Bottlenecks from Lab to Farm

  • Regulatory uncertainty: DMH-11 is still being heard in the Supreme Court years after GEAC cleared it [3]. This discourages investment.
  • Field-validation gap: Turning on plant defences can reduce growth and yield. ICAR trials must therefore measure yield, not just insect damage.
  • Weak industry links: Few licensing partnerships exist with agrochemical firms. Any new product also needs registration under the Insecticides Act, 1968.
  • Extension and benchmarking: IPM already cuts chemical sprays by 50–100% in rice and 30–50% in cotton [4][5]. New tools must do better than this and reach farmers through Krishi Vigyan Kendras (KVKs, district farm-science centres).

Public institutes have built India's agri-biotech knowledge base. However, gaps in translation, regulation and outreach limit their impact. The way forward is a DBT–ICAR crop-translation pipeline: for example, test CNGC13 in mustard, where glucosinolates are found. This should come with public-private licensing, time-bound GEAC decisions and delivery through IPM. Together these would turn lab success into farm resilience, in line with SDG 2 (Zero Hunger) and SDG 12 (Responsible Consumption and Production).

Sources

  1. 1"Indian scientists find new gateway in plants' alarm system", The Hindu, 1 Nov 2026 (news report)NIPGR's CNGC13 discovery, PNAS publication, possible use in defence-triggering chemicals
  2. 2FAO — Curriculum Development for Plant Pest Management in Asia-Pacific (India country statement)avoidable pest losses of 10–30% of India's crop production
  3. 3PIB — Approval for Genetically Modified MustardDMH-11 by CGMCP; GEAC approval in Oct 2022; Supreme Court case
  4. 4PIB — Integrated Pest Management for Safe and Judicious Use of Pesticidesfall in chemical pesticide use; IPM spray reductions
  5. 5PIB — Integrated Pest ManagementIPM programme and spray reductions in rice and cotton

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