eChapters

5.1. Farm machinery implements

5.1.1. Tillage

Introduction Market-led extension is a strategic approach aimed at providing farmers with valuable and high-quality information to enhance their decision-making processes in both production and marketing. This approach acknowledges the global nature of modern markets and encourages farmers to transition from being mere producers in local markets to becoming sellers in broader, potentially international markets. To make this shift successful, it is essential to equip extension workers, those who offer agricultural guidance, with the necessary skills and knowledge about market dynamics (Ahmad and Slathia, 2011). This involves a shift in their approach, moving from solely focusing on increasing productivity to emphasizing profitability. It also involves transitioning from subsistence farming to a more commercial orientation, from single-commodity farming to diversified crop production, and from local markets to global export markets.

Agricultural innovations are crucial for addressing the pressing challenges of food security, environmental sustainability, and economic development. Around the world, innovative practices and technologies are transforming agriculture by increasing productivity, enhancing resilience to climate change, and improving livelihoods. This article provides an in-depth exploration of notable agricultural innovations, spanning traditional practices, cutting-edge technologies, and holistic approaches. By examining these innovations and their impacts, we can gain valuable insights into how agriculture is evolving to meet global needs.

Introduction

Agriculture is undergoing a profound transformation driven by technological advancements, sustainable practices, and innovative approaches. Innovations in farming have the potential to enhance productivity, resilience, and sustainability, thereby addressing global challenges such as population growth, climate change, and food insecurity. This article examines pioneering agricultural innovations from different continents, highlighting their applications, benefits, and implications for the future.

9.1. Agriculture Insurance Company of India Limited (AIC)

Formed 1 April 2003 took over implementation of National Agricultural Insurance Scheme (NAIS) from General Insurance Corporation of India.

Also transacts other insurance businesses directly or indirectly concerning agriculture and its allied activities.

Abstract

Entrepreneurship essentially involves economic and dynamic activities, risk- assuming and idea generation that help in developing, organising and managing a business opportunity for profits. Entrepreneurship in agriculture is not merely confined to farm activities but also involves activities interlinked and interdependent with core and peripheral agricultural activities. Impediments in the pathway of agricultural entrepreneurship in West Bengal are characterised by fragmented landholding, low financial resources and thereby debt stickiness & dependence on short-term agricultural loan. Though disbursements of short-term credit have increased substantially, the rate of increase is low. For most farmers, insurance for financial or crop crisis is unheard or have hardly any implication. The paper tries to explain the performance of various agricultural insurance schemes in terms of coverage and the benefits being delivered in India and in West Bengal. The paper analyses whether the recipients consider the schemes as an effective risk mitigation tool or merely a habit of credit-dependence in West Bengal through a diffusion model. The paper concludes with the focus on possible entrepreneurial opportunities that may offer more customised agri-insurance policies, where regional disparities could be considered and individual interests be given little more importance.

Agricultural Livelihood Systems (ALS) refer to the complex set of interactions between farming practices, economic activities, social structures, and environmental factors that influence the livelihoods of communities,
particularly in rural areas. In regions like India, where a significant portion of the population depends on farming for sustenance and income, understanding ALS is crucial for planning sustainable rural development and poverty alleviation. The meaning of Agricultural Livelihood Systems extends beyond just crop cultivation. It includes a variety of interlinked activities such as livestock rearing, agroforestry, fisheries, horticulture, and non-farm support services like input supply, processing, and marketing. These systems are influenced by agro-ecological conditions, landholding patterns, socio-economic status, access to infrastructure, and institutional support. A household’s livelihood strategy may be entirely agriculture-based or may combine farming with offfarm and non-farm income-generating activities. The approach to Agricultural Livelihood Systems is holistic and peoplecentered. It emphasizes understanding the livelihood strategies of farming households in the context of the resources they possess, the constraints they face, and the opportunities available to them. Rather than focusing solely on increasing agricultural productivity, the ALS approach takes into account sustainability, equity, resilience, and diversification. These systems encompass a mix of agricultural and non-agricultural activities that contribute to the
overall wellbeing of individuals and households.

Traditionally, agriculture in India was practiced on a subsistence basis; the villages were self sufficient, people exchanged their goods, and services within the village on a barter basis. But, with the development of means of transport, storage facilities and other infrastructure, agriculture has become commercial in character. The hills of India produces a wide range of goods starting from temperate fruits like apple to subtropical fruits like guava and cash crops like saffron, kala zeera, buckwheat etc. that are demanded at every corner of the country and even the world. The hills in India lacks infrastructure because of which farmers are not able to fetch a better price for their produce.

Agriculture is the dominant activity in the hill economy, which confronts multiple risks and uncertainty. The low yield of food and cash crops, fodder, fuel and other minor forest produce and their stagnant growth affected the agrarian economy and in particular the household food security. The scattered land holdings, traditional mode of production, low use of modern inputs and lack of market incentives are the primary causes of the poor performance of agriculture in J&K. Increase in Seed Replacement Rate (SRR) of major crops, Popularization of hybrids, Soil and Water conservation measures, and Public-private partnership are important aspects need to be considered for agriculture development in hilly areas of J&K. Strengthening of markets, Innovative marketing techniques and On-line trading can help in a big way for solving the problems of marketing in such areas.

Mechanization should not be an end in itself and therefore, in a free choice situation, Governments should refrain from making policies which will stipulate by which means or by how much, agriculture will be mechanized. The type and degree of mechanization should be decided by the producer to best suit his business and his own particular circumstances, and the choice of suitable methods will therefore be just one of a number of choices that the farmer has to make. The decision on if and how to mechanize is often a complicated mix of reasons with economic reasons paramount. The introduction of machines will not only make agriculture more acceptable but will also provide opportunities for the use of higher intelligence, skill and initiative. This chapter attempts to work out the comparative economics of some of the machinery that are useful for hill regions.

For the sustainable development of agricultural mechanization, it is needed to locally fabricate widely used agricultural tools, implements and machinery. However, the prevailing policy does not favour production of agricultural machinery locally (high custom duty of raw materials, no support in promotion, irregular power supply, high electricity cost, poor research & testing support etc.). Hence there is need of reform in policy and program to encourage and support local fabricators to fabricate/manufacture agricultural machinery locally. There is need of testing and standardization of agricultural machinery to reduce the accidents related to agricultural machinery and to provide quality standard agricultural machinery to the farmers.

Mechanization is viewed as package of technology to increase land productivity by improved timeliness of operations, reduced crop losses and improved quality of agro-produce to increase efficiency of inputs used through their efficient measurement and placement, to increase labour productivity by using labour saving and drudgery reducing devices and reduce cost of cultivation. echnology and machinery enhanced the ability, quality, accuracy and efficiency of the human being. By using technology in any field the rate production and quality automatically increases. The country witnessed unprecedented growth in agriculture which has helped India to graduate from hunger to self sufficiency in food grains by increasing the food grain production from 51 million tonnes to 208 million tones. The estimated contributions of improved agricultural tools and equipment in augmenting total food production of India is encouraging; savings in seeds: 15-20%; savings in fertilizers: 15-20%; savings in time: 20-30%; reduction in labour: 20-30%; increase in cropping intensity: 5-20%, and increase in productivity 10-15 per cent. The major issues before Indian agriculture with respect to mechanization are; tractorization vs mechanization, custom hiring and contract farming, horticultural mechanization, effective extension activity, sugarcane mechanization, hill agriculture and industry institution interaction. The main technologies which can be taken to farmers’ field for enhancing productivity and production Aqua-ferti seed drill, two row powered seeder, okra planter, tractor mounted inclined plate planter, tractor mounted rotary tiller (Rotavator), tractor mounted zero-till drill, tractor mounted raised bed planter, tractor mounted sett cutter planter for sugarcane, pneumatic planter, vegetable transplanter, low land manual rice seeder, self-propelled rice transplanted, self-propelled power weeder, tractor operated aero blast sprayer, tractor mounted vertical conveyor reaper, maize dehusker-cum-sheller, tractor operated straw reaper (combine) and tractor operated fodder harvester. These technologies need to be introduced after necessary modifications and adjustments, depending upon the agroclimatic and terrain and soil conditions, through proper mode e.g. as individual /group ownership, on custom hiring basis or mechanization package for contract farming.

Agricultural Meteorology, also known as Agrometeorology, is a fascinating scientific field that explores the intricate relationship between weather, climate, and farming. It essentially bridges the gap between understanding the atmosphere and the practicalities of growing crops, raising livestock, managing forests, and even fisheries. The core idea is to figure out how environmental factors like light, temperature, water, and wind impact every stage of agricultural production, from initial planning to harvest and marketing. 1.2 Scope of Agricultural Meteorology At its heart, agrometeorology investigates how various weather elements— temperature, rainfall, humidity, sunlight, wind, and even atmospheric pressure and CO2 levels—directly and indirectly affect agricultural systems. This includes how weather influences crop growth and development, impacting crucial processes like photosynthesis, respiration, and

In an era defined by increasing climate variability and the urgent need for sustainable food production, the science of Agricultural Meteorology has risen to unprecedented importance. This final chapter, “Agricultural Meteorology: A Science for Global and National Food Security (in the context of climate change),” synthesizes the principles and applications we have explored, highlighting their critical role in ensuring food security at both global and national levels, particularly within the challenging framework of a changing climate.
We have seen how weather and climate intricately influence every aspect of agriculture, from planting to harvest, and how extreme events can decimate livelihoods and threaten food supplies.1 Now, we will focus on how the interdisciplinary field of agricultural meteorology – the study of the interactions between meteorological and hydrological factors and agriculture in the widest sense – provides the knowledge and tools necessary to navigate these challenges.
This chapter will underscore how understanding and applying agrometeorological principles, including crop-weather relationships, climate risk assessment, and the use of decision support systems, are essential for developing climate-resilient agricultural practices. We will explore how this science aids in optimizing resource management, predicting and mitigating the impacts of weather-related hazards, and ultimately, in building sustainable and secure food systems for the future, both globally and specifically within the Indian context.

In an era defined by increasing climate variability and the urgent need for sustainable food production, the science of Agricultural Meteorology has risen to unprecedented importance. This chapter, “Agricultural Meteorology: An Essential Associate for Natural Farming,” synthesizes the principles and applications we have explored, highlighting their critical role by providing timely, location-specific insights into weather and climate - factors that directly influence crop growth, soil health, and ecological balance. Unlike conventional farming, which often relies on synthetic inputs to manage uncertainty, natural farming depends heavily on understanding and adapting to natural rhythms. Here, agrometeorology becomes an indispensable ally.
Natural farming systems are sensitive to changes in temperature, rainfall, humidity, wind, and solar radiation. Agrometeorology helps farmers monitor and interpret these parameters, enabling them to make informed decisions such as when to sow, irrigate, mulch, or harvest — all without chemical interventions. For instance, knowing the onset of monsoon or forecasted dry spells helps in planning sowing operations or preparing natural plant protection measures like cow dung-based formulations.

Agricultural policies shape the landscape of farming and food production globally. They encompass a range of interventions by governments to influence agricultural practices, food security, trade, and rural development. This article delves into the various types of agricultural policies, their historical context, and their socio-economic and environmental implications. It examines case studies from different regions to highlight the diverse approaches and outcomes of these policies. Additionally, the article discusses the challenges and opportunities in formulating and implementing effective agricultural policies, particularly in the face of global issues such as climate change, food insecurity, and market volatility. By understanding the impact of agricultural policies, stakeholders can better navigate the complexities of the agricultural sector and promote sustainable development.

14.1. Commission for Agricultural Costs and Prices (CACP)

Set up in January, 1965 in name of Agricultural Prices Commission (APC) on recommendations of Food grains Prices Committee headed by Shri L.K.Jha.

Prices for different agricultural crops by GOI on the recommendations of CACP are announced as minimum support prices, statutory minimum prices, procurement prices and issue prices.

Introduction

India has made impressive strides on the agricultural front during the past three decades. Much of the credit for this success should go to the several million small farming families that form the backbone of Indian agriculture and Indian economy. Policy support, production strategies, public investment in infrastructure, research and extension for crop, livestock and fisheries have significantly helped in increasing the agricultural productivity, food production and its availability. Notwithstanding these achievements, producing additional food with limited land, and providing economic access to food at the household level for ensuring food security would continue to be a major challenge for the nation. India has experienced considerable changes in the crop mix, yield and production since the inception of the Green Revolution. The Green Revolution phase displayed a high yield growth per unit of input. The first post-Green Revolution phase (from late-1960s to mid-1980s) was marked by the continued growth in returns from land through the intensification in use of chemical inputs and machine labour. The second post-Green Revolution phase (beginning the mid-1980s) was characterized by high input-use and decelerating productivity growth. It calls for an examination of the issues related to the trends in agricultural productivity, particularly with reference to individual crops in recent years. In the present paper, the temporal and spatial variations in the productivity status of major crops in India have been analyzed using the TFPG estimates. Some policy measures have also been suggested for sustaining TFP of the crops.

The recent earthquake in Nepal brings back memories of 26th January 2001. While the nation was busy in celebrating Republic Day, an earthquake shattered Gujarat especially Kutch and Saurashtra regions. A large number of buildings and houses collapsed within moments. Thousands were injured and many lost their lives and many more became homeless.

Kutch received quick responses from all over the world and a large number of individuals, institutions, government and semi-government bodies, professional experts, religious and social organizations etc. sprang into action to bring back some normalcy in the lives. However, long-term rehabilitation program based on scientific planning is most vital after such disasters.