Q.(a) Examine the agricultural development in India since independence.

Part (a)

The way land is used is never random; it is a direct response to how people earn their living. Where the main activity is farming, we see fields, canals and granaries; where it is mining, quarries and processing plants; where it is trade and services, offices, shops and transport hubs.

Agrarian regions. In the fertile Indo-Gangetic plains agriculture is the backbone of the economy and over 80% of the land is under cultivation — wheat, rice and sugarcane — leaving little for forest or pasture. In hilly Himachal Pradesh and Uttarakhand, horticulture (apple orchards) and tourism dominate, so land shows orchards, forests and resorts rather than intensive cereals.

Industrial and mining regions. On the Chotanagpur plateau in Jharkhand the economy runs on coal, iron ore and steel, so land-use is dominated by mining leases, industrial estates and railway lines, with farmland sparse and degraded. Coastal Kerala, where tourism, fishing and cash crops (rubber, spices, coconut) matter, shows beaches, backwater resorts, rubber plantations and coconut groves.

Service and urban regions. In Mumbai and Delhi the dominant activities are services and manufacturing, so the land is almost entirely built-up. Even within one city, the central business district carries high-rise offices and banks while the outskirts hold factories and warehouses. …

Part (a)

Why productivity is low. Productivity means output per unit of land or per farmer, and India's is low by world standards because of a chain of linked problems. Over 86% of farmers are small or marginal, holding less than two hectares, so plots are too tiny for machinery or economies of scale. Only about half the cropland is irrigated; the rest depends on an increasingly erratic monsoon, and a dry spell can wipe out a season. Decades of unbalanced chemical fertiliser use have depleted soil organic carbon and micronutrients. Many farmers still use traditional seeds and methods, and weak storage and market access cause post-harvest losses and low prices that discourage investment. Together these keep farmers in a low-yield, low-income trap.

Role of the NMSA. The National Mission for Sustainable Agriculture, one of the eight missions under the National Action Plan on Climate Change, aims to make farming resilient to climate variability while raising productivity, through four components:

• Rainfed Area Development promotes integrated farming — crops combined with livestock, fisheries or horticulture — to spread risk and hold soil moisture on the large rain-fed area.
• Soil Health Management distributes Soil Health Cards that tell each farmer exactly which nutrients the land lacks, replacing blind urea use with balanced fertiliser and organic manure and raising yield per hectare.
• Water-Use Efficiency subsidises drip and sprinkler micro-irrigation and rainwater harvesting, which can raise water efficiency by 30-50% and yields by 20-40%.
• Climate-Change Adaptation spreads climate-resilient varieties (flood-tolerant rice, drought-tolerant wheat) and practices such as zero-tillage and crop diversification. …

Part (a)

At independence, Indian agriculture was marked by feudal land relations, low productivity and heavy dependence on the monsoon, causing frequent food shortages. Achieving food security and rural upliftment therefore became a central goal, and development proceeded in stages.

Institutional reforms. The first phase concentrated on land reforms. The zamindari and other intermediary systems, which had created absentee landlords and exploited tenants, were abolished so that cultivators dealt directly with the state. Tenancy reforms sought to regulate rent and grant security of tenure; land-ceiling laws fixed the maximum land an individual could hold, with surplus meant for redistribution to the landless; and the consolidation of fragmented holdings aimed to create more workable farms. These reforms weakened feudal structures but, because of legal loopholes and the influence of large landowners, their impact on redistribution was only partial.

The Green Revolution. From the mid-1960s, faced with food deficits, India adopted a new strategy built on High Yielding Variety (HYV) seeds, chemical fertilisers, pesticides and assured irrigation, chiefly for wheat and rice. Food-grain output rose dramatically, transforming India from a food-importing country to one that was largely self-sufficient. However, the benefits were concentrated in well-irrigated regions such as Punjab, Haryana and western Uttar Pradesh and among larger farmers, deepening regional and social disparities and raising environmental concerns. …

Indian agriculture remains the backbone of the economy, yet it operates under severe constraints that have persisted across decades. Understanding these problems reveals why agricultural growth has lagged behind other sectors and why rural distress remains a recurring crisis.

Fragmentation of landholdings stands as perhaps the most fundamental obstacle. Successive generations have divided family farms through inheritance, creating tiny plots that are economically unviable. The average holding size has shrunk to less than two hectares, and marginal farmers—those with less than one hectare—now constitute the majority. On such small parcels, mechanization becomes impractical, economies of scale vanish, and farmers cannot afford modern inputs. Each fragment often lies scattered across different locations, wasting time and effort in movement between plots.

Irrigation deficiency leaves Indian farming dangerously dependent on monsoon rains. Only about half of the cultivated area receives assured irrigation, forcing the rest to rely on erratic rainfall. This dependence makes agriculture a gamble: a delayed monsoon or mid-season dry spell can devastate entire harvests. Even where irrigation infrastructure exists, it often suffers from poor maintenance, silted canals, and inequitable water distribution. Groundwater exploitation has surged to compensate, but this has led to rapidly falling water tables in many regions, creating a looming crisis.

Technological backwardness keeps yields far below potential. Many farmers still use traditional seeds, apply fertilizers inefficiently, and follow age-old cultivation practices. High-yielding varieties and hybrid seeds remain out of reach for small and marginal farmers due to cost. Mechanization is limited—bullock-drawn ploughs coexist with modern tractors, but the former still dominate in poorer regions. Extension services that should bridge the knowledge gap between research stations and fields are weak, understaffed, and often fail to reach those who need them most. The result is a productivity gap: Indian crop yields per hectare lag significantly behind global averages.

Market access and price volatility trap farmers in a cycle of uncertainty. The agricultural marketing system remains fragmented and exploitative. Farmers often sell to local traders or middlemen who dictate terms, especially when produce is perishable and storage absent. Mandis (wholesale markets) are few and far between in many states, forcing long-distance transport that eats into margins. Price fluctuations are wild—a bumper harvest can paradoxically impoverish farmers when prices crash due to supply gluts, while consumers pay high prices when shortages occur. Minimum Support Prices exist for select crops, but procurement infrastructure covers only a fraction of farmers and regions. Cold storage, processing facilities, and direct market linkages remain inadequate, leaving farmers with little bargaining power.

India is blessed with an extensive network of rivers, canals, and backwaters stretching over 14,500 kilometres, yet inland water transport accounts for barely 2% of the country's total freight movement. This glaring underutilisation stems from a cluster of persistent, interrelated problems that have prevented waterways from realising their economic promise.

The most fundamental challenge is the seasonal and uneven flow of rivers. Most Indian rivers are rain-fed and experience dramatic fluctuations between monsoon abundance and summer scarcity. The Ganga, for instance, swells during the rains but shrinks to shallow channels in the dry months, making year-round navigation impossible on many stretches. This unreliability discourages commercial operators who need consistent schedules. In contrast, perennial snow-fed rivers like the Brahmaputra fare better, but even they face challenges.

Silting and sedimentation plague nearly every major waterway. Rivers carry enormous sediment loads, especially during the monsoon, which deposit along riverbeds and reduce navigable depth. The Hooghly river near Kolkata requires constant dredging to keep the port accessible; without it, channels become too shallow for cargo vessels. Dredging is expensive and must be repeated regularly, straining budgets and delaying operations.

Infrastructure deficits compound these natural problems. India lacks adequate terminals, cargo-handling facilities, and modern vessels on most waterways. The National Waterway 1 (Ganga between Allahabad and Haldia) was declared navigable decades ago, yet proper jetties, roll-on/roll-off facilities, and mechanised loading equipment remain sparse. Cargo still moves slowly, and the absence of integrated multimodal connectivity—linking waterways seamlessly to road and rail—means goods often cannot reach their final destinations efficiently.

Pollution and encroachment further degrade waterways. Industrial effluents, untreated sewage, and plastic waste choke rivers, making them less navigable and environmentally hazardous. Illegal construction along riverbanks narrows channels and obstructs flow. The Yamuna in Delhi, for example, is so polluted and constricted that navigation is virtually impossible in urban stretches. …

The statement captures two structural weaknesses that have plagued Indian agriculture for decades. Understanding why these are major problems requires looking at how farming actually works in India: the overwhelming dependence on rainfall, the small size of most farms, and the gap between potential and actual yields.

Why the monsoon matters so much

Indian agriculture is still predominantly rain-fed. Nearly 60% of the net sown area depends entirely on monsoon rains, with irrigation covering the rest only partially. The monsoon is not a steady, predictable event — it arrives in pulses, varies in intensity, and can fail in some regions while flooding others. When the monsoon is late, crops like paddy and pulses miss their planting window. When it is excessive, standing crops are destroyed. When it withdraws early, the maturation phase suffers. This variability translates directly into fluctuating food production, rural incomes, and even national GDP growth in years of severe drought or flood.

The term "erratic" is not an exaggeration. Recent decades have seen increased frequency of both droughts and unseasonal rains. Farmers operate without reliable weather forecasts at the micro level, making decisions about sowing, fertiliser application, and harvesting under uncertainty. Crop insurance schemes exist but often fail to compensate adequately or in time.

What low productivity means on the ground

Productivity in agriculture is measured as yield per hectare. India's average yields for most crops — rice, wheat, pulses, oilseeds — remain well below global benchmarks and far below what is achievable with better practices. Several factors drive this:

1. Fragmented landholdings: The average operational holding is now below 1.1 hectares and continues to shrink due to inheritance laws. Small farms cannot afford mechanisation, high-quality seeds, or soil testing. Economies of scale are absent.

2. Outdated techniques: A large proportion of farmers still use traditional methods — broadcasting seeds instead of line sowing, applying fertilisers without soil health cards, relying on flood irrigation where drip or sprinkler systems would save water and boost yields.

3. Poor seed quality and variety: High-yielding and climate-resilient varieties developed by research institutions often do not reach small farmers. Seed replacement rates are low.

4. Soil degradation: Decades of imbalanced fertiliser use (excess urea, deficient micronutrients) have depleted soil health. Organic carbon content has fallen, reducing the soil's water-holding capacity and making it more vulnerable to drought.

5. Inadequate irrigation: Even in irrigated areas, water supply is erratic. Groundwater is over-exploited in some states, leading to falling water tables. Canal systems suffer from poor maintenance and inequitable distribution.

6. Lack of credit and extension services: Institutional credit does not reach all farmers; many depend on moneylenders at high interest rates. Agricultural extension — the system that brings new knowledge to farmers — is underfunded and understaffed.

7. Post-harvest losses: Poor storage, lack of cold chains, and inadequate market linkages mean that 15–20% of produce is lost before it reaches consumers. This effective loss in productivity discourages investment in better farming.

How the two problems reinforce each other

Erratic monsoons hit hardest where productivity is already low. A farmer with poor soil health, no irrigation backup, and low-quality seeds has no buffer when the rains fail or arrive late. Conversely, low productivity means low incomes, which means farmers cannot invest in irrigation, soil improvement, or insurance — leaving them even more exposed to the next monsoon failure. …

The story of modern agricultural technology in India is really the story of the Green Revolution, which began in the mid-1960s. Before that, Indian farming was largely traditional, dependent on monsoons and local seeds that gave modest yields. The country faced chronic food shortages and had to rely on imports, especially from the United States under the PL-480 agreement. The turning point came when the government, with help from international agricultural research centres, introduced high-yielding variety (HYV) seeds, primarily for wheat and rice. These seeds were the first big technological leap.

HYV seeds were not magic on their own. They needed a whole package of complementary inputs to deliver their potential. The most critical was chemical fertilisers — nitrogen, phosphorus, and potassium — which the new seeds could convert into grain much more efficiently than traditional varieties. Alongside fertilisers came chemical pesticides and weedicides to protect the crops from pests and diseases that became more aggressive in the dense, well-fed fields. The result was a dramatic jump in yield per hectare. For example, wheat yields that had stagnated at around 800–900 kg per hectare in the early 1960s rose to over 2,500 kg per hectare by the early 2000s. Rice yields followed a similar, though slightly less dramatic, trajectory.

Mechanisation was the second pillar of this transformation. The traditional wooden plough pulled by bullocks could only scratch the surface of the soil. The iron plough, and later the tractor, allowed for deeper ploughing, better soil aeration, and faster preparation of land. This meant farmers could plant more area in a shorter window, crucial for multiple cropping — growing two or three crops in a year on the same land. Tractors, power tillers, and combine harvesters reduced the time between harvesting one crop and sowing the next, enabling the intensive use of land that is now common in states like Punjab, Haryana, and western Uttar Pradesh. The thresher replaced manual beating of grain from stalks, and the harvester-combine did the work of dozens of labourers in a single pass.

Irrigation technology was the third critical component. The HYV seeds were highly responsive to water but also very sensitive to drought — they could not survive the long dry spells that traditional varieties sometimes endured. So the spread of tubewells, canals, and electric/diesel pumps allowed farmers to control water supply. This was transformative in two ways. First, it freed agriculture from the uncertainty of the monsoon. Second, it made possible the cultivation of high-value, water-intensive crops like sugarcane and paddy in areas that were not naturally suited to them. The area under irrigation in India more than doubled between 1960 and 2000, and this was a direct driver of increased output.

Let us take a concrete example. In the early 1960s, a farmer in Punjab growing traditional wheat varieties would get about 1,000 kg per hectare. By the 1970s, using HYV seeds like Kalyan Sona or Sonalika, along with 100–120 kg of nitrogen fertiliser per hectare and assured irrigation from a tubewell, the same farmer could get 3,000–4,000 kg per hectare. That is a three-to-four-fold increase in output from the same piece of land. Multiply that across millions of hectares, and you see how India went from a food-importing nation to a food-surplus one by the late 1970s. The buffer stocks of wheat and rice that the government now holds — often exceeding 60 million tonnes — are a direct consequence of this technological shift. …