·PIB·15 marks·250–350 wordsPolityEconomy

Examine how India's Sub-Mission on Agricultural Mechanization is integrating drone technology into precision agriculture. What are the associated risks and regulatory concerns?

In this answer
  1. How SMAM integrates drone technology
  2. Risks and regulatory concerns

Launched in 2014-15 as a Centrally Sponsored component of the Rashtriya Krishi Vikas Yojana, SMAM was designed to "reach the unreached" through subsidised machines, Custom Hiring Centres and Farm Machinery Banks [3]. Its recent drone component marks a shift from mechanical power to precision agriculture, but diffusion is still shallow and the regulatory scaffolding incomplete.

How SMAM integrates drone technology

  • Institutional demonstration pipeline: 100% assistance up to Rs. 10 lakh per drone to ICAR institutes, FMTTIs, KVKs and SAUs, creating a testing-and-extension route before farmer-level adoption [2].
  • Equity-weighted ownership subsidy: 50% up to Rs. 5 lakh for Small/Marginal, SC-ST, Women and North-Eastern farmers, against 40% up to Rs. 4 lakh for others; FPOs get up to 75% for field demonstrations [2].
  • Service-model diffusion: assistance to agriculture graduates for drone CHCs lets small holders hire rather than own — over 1,500 Kisan Drone CHCs sanctioned alongside Rs. 141.39 crore released [2].
  • Scale achieved: roughly 40,900 drone demonstrations covering a comparable area, with Rs. 52.5 crore routed through ICAR [1][2].
  • Convergence: dovetails with Namo Drone Didi, which places drones with Women SHGs as rental enterprises [6].

Risks and regulatory concerns

  • Airspace and safety compliance: operations must satisfy Drone Rules, 2021 — registration, zone restrictions, remote-pilot certification and insurance — burdensome for rural operators [5].
  • Agro-chemical safety: drone spraying needs pesticide formulations specifically registered by CIB&RC, with phyto-toxicity and bio-efficacy protocols; SOPs cover drift, buffer distances and operator protection [4].
  • Skill and repair deficit: certified pilots and service networks are thin, risking idle assets in CHCs.
  • Equity and labour: high unit cost may concentrate benefits among better-off farmers and FPOs, while displacing manual spraying labour.
  • Federal implementation gap: being State-implemented, utilisation varies with State capacity [3].

Drones can genuinely lower input use and drudgery, but their gains depend on regulation, skilling and servicing maturing together. Strengthening pesticide registration for aerial use, expanding remote-pilot training through KVKs, and anchoring drones in SHG- and FPO-run hiring centres would convert a subsidy-led push into durable, equitable precision farming.

Sources

  1. 1PIB Backgrounder — Sub-Mission on Agricultural Mechanizationcumulative drone demonstration scale and area covered
  2. 2Funds for Kisan Drones, PIBdrone subsidy slabs, FPO grants, drone CHCs, Rs. 141.39 crore and Rs. 52.50 crore releases
  3. 3Sub-Mission on Agricultural Mechanization, PIBRKVY component status, State implementation, CHC/FMB architecture
  4. 4SOP for use of Drone in Pesticide Application and Spraying of Soil and Crop Nutrients, PIBCIB&RC registration protocols and spraying SOPs
  5. 5Ministry of Civil Aviation notifies liberalised Drone Rules, 2021, PIBregistration, zones, pilot certification requirements
  6. 6Operational Guidelines of Central Sector Scheme "Namo Drone Didi", PIBWomen SHG drone rental convergence

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