Subsidies vs Science: The Future of Farming in India

Experts emphasize the need for enhanced R&D spending to secure India’s agricultural future amidst climate change and farm distress.
S
Surya
3 mins read
Subsidies rise, farm research lags, productivity suffers

Introduction

Agriculture employs nearly 45% of India’s workforce but contributes only ~15–16% to GDP, reflecting low productivity. Despite rising climate risks, India spends just 0.6–0.7% of GDP on R&D, far below the 2–3% in developed economies. Notably, subsidies exceed ₹4.1 trillion, nearly 44 times agricultural R&D spending. This imbalance raises concerns about long-term sustainability and farm resilience.


Background & Context

  • Indian farm policy is often framed as:

    • Subsidies vs Reforms
  • However:

    • Subsidies address short-term distress
    • R&D drives long-term productivity and resilience

➡️ Current policy tilt is heavily subsidy-driven, not innovation-driven.


Key Data Snapshot

IndicatorValue
Agricultural R&D spending (2026-27)₹9,266 crore
Growth (2014–2026)~6% CAGR
Bayer India R&D (2024-25)₹7,230 crore
Total subsidies (2026-27)₹4.1 trillion
R&D Return (NIAP)₹13.85 per ₹1 invested

Key Issues in India’s Agricultural Policy

1. Imbalance: Subsidies vs R&D

  • 73% of agriculture budget goes to subsidies
  • Fertiliser subsidy alone exceeds core agriculture spending

➡️ Leads to:

  • Fiscal burden
  • Limited productivity gains

2. Low Public Investment in R&D

  • DARE budget reduced (~5% cut recently)
  • Limited capital expenditure → fewer labs, trials

Ashok Gulati: “India’s public agricultural R&D spending is not even peanuts globally.”


3. Private Sector Limitations

  • Focus on:

    • Hybrids
    • Short-term returns
  • Constraints:

    • Price controls on seeds
    • Low incentive for long-term research

4. Low Crop Productivity

CropIndia YieldUS YieldGap
Corn~3.5 t/ha>11 t/ha~3x
SoybeanLow~3x higherLarge gap

➡️ Reasons:

  • Limited adoption of GM/gene-editing technologies
  • Over-focus on rice & wheat

Key Concepts

1. Agricultural Innovation

  • Includes:

    • GM crops
    • Gene editing
    • Climate-resilient varieties

2. Efficiency vs Input-Driven Growth

  • India’s growth:

    • Input-intensive (fertiliser, water)
  • Ideal growth:

    • Productivity-driven (technology, innovation)

3. Climate Resilience

  • Increasing:

    • Droughts
    • Heat stress
    • Erratic monsoons ➡️ Requires science-based solutions

Implications of Current Approach

Economic

  • Rising subsidy burden
  • Low farmer incomes
  • High food prices

Environmental

  • Soil degradation
  • Water depletion
  • Air pollution (stubble burning)

Social

  • 50%+ population cannot afford a healthy diet
  • Persistent rural distress

International Best Practice: Brazil (Embrapa Model)

FeatureBrazil (Embrapa)India
StructureDecentralisedCentralised
FocusLocal agro-climatic needsLimited regional focus
IntegrationResearch + Extension + MarketsFragmented
Impact>100% productivity gainsModerate gains

➡️ Demonstrates power of institutional design in R&D.


Institutional & Structural Challenges in India

  • Centralised research (ICAR dominance)
  • Weak state-level capacity
  • Limited extension services
  • Slow technology adoption

Example

  • NICRA programme:

    • Covers 693,000 farmers
    • Total farmers: ~146 million

➡️ Scale gap remains huge.


Policy Solutions

1. Increase R&D Investment

  • Target at least 1–2% of agri-GDP

  • Focus on:

    • Climate-resilient crops
    • Biotechnology

2. Rebalance Subsidies

  • Shift from:

    • Input subsidies → income support & innovation funding

3. Decentralised Research Model

  • Empower states and regional institutions
  • Localised solutions

4. Strengthen Extension Systems

  • Digital advisory platforms
  • Farmer training and awareness

5. Promote Advanced Technologies

  • GM crops (regulated adoption)
  • Gene editing
  • Precision agriculture

6. Institutional Reform

  • Create National Agricultural Council

  • Integrate:

    • Research
    • Insurance
    • Credit

Case Study: Returns to Agricultural R&D

  • NIAP estimate:

    • ₹1 investment → ₹13.85 return ➡️ Higher than most agricultural interventions

Conclusion

India’s agricultural policy faces a structural paradox: high spending but low productivity gains. Subsidies remain essential for short-term stability, but without robust investment in science-driven, decentralised R&D, farm distress will persist. A strategic shift toward innovation-led agriculture is critical for ensuring food security, farmer prosperity, and climate resilience in the long run.

Quick Q&A

Everything you need to know

Understanding the Policy Debate: India’s agricultural policy discourse is often framed as a binary choice between subsidies and structural reforms through research and development (R&D). Subsidies—such as food, fertiliser, and power support—play a crucial role in stabilising farm incomes and ensuring food security. They act as a short-term safety net, particularly in a country where agriculture is highly vulnerable to monsoon variability and price fluctuations.

Limitations of Subsidy-Driven Approach: However, subsidies largely address symptoms rather than root causes. They do not significantly improve productivity, reduce input inefficiencies, or enhance resilience to climate change. For instance, despite massive fertiliser subsidies, soil degradation and declining factor productivity persist. This indicates that financial support alone cannot drive sustainable agricultural growth.

Role of Agricultural R&D: In contrast, investment in R&D focuses on long-term transformation by improving crop yields, developing climate-resilient varieties, and enhancing resource-use efficiency. Empirical evidence suggests that every rupee invested in agricultural research yields nearly ₹13.85 in returns, making it a highly productive investment. Thus, the debate is not about choosing one over the other, but about achieving a balanced policy mix where subsidies stabilise and R&D transforms agriculture.

Low R&D Intensity: India’s expenditure on research and development remains at around 0.6–0.7% of GDP, significantly lower than the 2% or more seen in developed economies. Within this, agricultural R&D receives a modest allocation, with the Department of Agricultural Research and Education (DARE) witnessing even a decline in recent budgets. This underinvestment limits India’s ability to innovate in critical areas such as climate-resilient crops and precision farming.

Comparative Perspective: The inadequacy becomes more evident when compared with private sector investments. For instance, Bayer’s India R&D expenditure alone reached ₹7,230 crore, nearly 75% of India’s public agricultural R&D allocation. Globally, multinational corporations invest far more in innovation, highlighting the gap between India’s ambitions and actual resource commitment.

Implications: This insufficient investment leads to stagnant productivity, continued farm distress, and rising fiscal burden due to subsidies. Without robust research, India risks falling behind in adopting advanced technologies such as gene editing and GM crops. Therefore, increasing and rationalising R&D spending is essential for ensuring long-term agricultural sustainability and global competitiveness.

Skewed Resource Allocation: A significant portion—around 73% of India’s agriculture budget—is devoted to subsidies and welfare schemes, while agricultural R&D receives a comparatively negligible share. In 2026–27, subsidies are projected to exceed ₹4.1 trillion, which is over 44 times the allocation for research and education. This imbalance creates a system that prioritises short-term relief over long-term capacity building.

Economic and Environmental Consequences: This skew leads to an input-intensive growth model, where increased use of fertilisers, water, and energy drives output rather than efficiency gains. Consequently, farmers face rising costs, consumers deal with higher food prices, and the environment suffers from soil degradation and water depletion. For example, excessive fertiliser use in Punjab and Haryana has led to declining soil health.

Long-term Impact: Without sufficient investment in innovation, India’s agriculture remains vulnerable to climate shocks and productivity stagnation. In contrast, R&D-driven systems—like those in the US—achieve higher yields with fewer resources. Thus, rebalancing expenditure towards research is critical for achieving sustainable, climate-resilient, and cost-effective agricultural growth.

Positive Contributions: The private sector plays a significant role in advancing agricultural innovation, particularly in areas like hybrid seeds, biotechnology, and crop protection. Companies invest heavily in R&D to develop high-yielding and disease-resistant varieties, contributing to productivity improvements. For instance, multinational firms like Bayer have introduced advanced seed technologies that enhance output and resilience.

Limitations and Concerns: However, private investment is often driven by profit motives, leading to a focus on crops and technologies with quick commercial returns. This results in underinvestment in staples, pulses, and long-term research areas that are crucial for food security but less profitable. Additionally, regulatory interventions such as price caps on seeds may discourage private innovation by limiting returns on investment.

Balanced Approach Needed: While private participation is essential, it cannot replace the role of public R&D, which focuses on equity, sustainability, and long-term resilience. A synergistic model—where public institutions handle fundamental research and private players drive commercialization—would be ideal. This ensures both innovation and inclusivity in India’s agricultural development.

Embrapa as a Model: Brazil’s agricultural transformation is largely attributed to Embrapa, a government-linked research institution that revolutionised farming through decentralised and region-specific innovation. Embrapa focused on adapting technologies to local agro-climatic conditions and integrated research with extension services, credit systems, and market access.

Key Lessons for India:

  • Decentralisation: Research must be tailored to diverse agro-climatic zones rather than a one-size-fits-all approach.
  • Integration: Linking research with extension services ensures faster adoption by farmers.
  • Autonomy and Funding: Adequate financial and institutional autonomy enhances innovation.
Embrapa’s efforts led to productivity gains exceeding 100% in some commodities, showcasing the transformative potential of well-structured R&D.

Relevance to India: India’s current system remains highly centralised, limiting local innovation. Initiatives like NICRA have shown promise but operate on a limited scale. Adopting Embrapa-like reforms could significantly enhance productivity, resilience, and farmer incomes across India.

Scenario Analysis: If India continues its current trajectory of prioritising subsidies over R&D, the agricultural sector may face structural stagnation. While subsidies will provide temporary relief, they will not address underlying issues such as low productivity, climate vulnerability, and inefficient resource use.

Potential Consequences:

  • Rising Fiscal Burden: Increasing subsidy bills will strain government finances, limiting investments in infrastructure and innovation.
  • Environmental Degradation: Continued reliance on input-intensive farming will worsen soil health, water scarcity, and pollution.
  • Farmer Distress: Without productivity gains, farm incomes will stagnate, exacerbating rural distress.
For example, regions heavily dependent on subsidies often show diminishing returns over time.

Strategic Implications: India may also fall behind globally in adopting advanced technologies like gene editing, reducing its competitiveness. In contrast, investing in R&D could create a virtuous cycle of higher productivity, lower costs, and greater resilience. Thus, a shift in priorities is essential for ensuring sustainable agricultural growth and food security.

Structural Causes of Low Productivity: Despite substantial public spending, India’s agricultural productivity remains low due to inefficient allocation of resources. A large share of expenditure is directed towards subsidies rather than investments in research, infrastructure, and innovation. This limits the sector’s ability to achieve efficiency gains.

Technological and Institutional Gaps: India has been slow in adopting advanced technologies such as genetically modified crops and gene editing, which have significantly boosted yields in countries like the United States. Additionally, the research system is highly centralised, with limited autonomy at state and regional levels, restricting innovation tailored to local conditions.

Policy and Market Distortions: Distortions in input and output pricing, such as subsidised fertilisers and minimum support prices, encourage inefficient practices. For instance, overemphasis on rice and wheat has led to neglect of pulses and oilseeds, resulting in lower overall productivity. Addressing these structural issues through targeted R&D and policy reforms is essential for improving agricultural outcomes.