Scinovex
article Open Access

Unlocking prosperity: Economic viability and returns from paddy cultivation in Haryana’s Shivalik foothills

Gurnam SinghMehak KangSurinder KaurAnkush .

Abstract

The present study was undertaken to estimate the costs and returns of paddy cultivation in the Shivalik foothills of Haryana during 2024. The analysis was based on primary data. The districts of Panchkula district and Yamunanagar district were purposively selected for the study. From each district, four villages were chosen: Tabar, Rehore, Tharwa, and Batour from Panchkula district, and Harnoul, Pabni Kalan, Kazibans, and Sagri from Yamunanagar district. A total of 80 farmers were randomly selected from these eight villages and interviewed to collect the required information. The per hectare cost of paddy cultivation was estimated at ₹1,25,810 in Panchkula district and ₹1,34,010 in Yamunanagar district. In Panchkula district, the average per hectare yield was 66.5 quintals, with gross returns of ₹1,56,780 and net returns of ₹30,970. In Yamunanagar district, the corresponding figures were 71.1 quintals for yield, ₹1,67,510 for gross returns, and ₹33,500 for net returns. The benefit-cost (B:C) ratio for paddy cultivation was calculated as 1:1.24 in both Panchkula and Yamunanagar districts. The B:C ratio over variable cost was found to be 1:2.58 in Panchkula and 1:2.74 in Yamunanagar district.

Full Text

Tables and figures are in the full-text PDF.

Introduction

Rice (Oryza sativa) is one of the most significant food crops in the world and plays a central role in ensuring global food security. It serves as the staple diet for more than half of the world's population, particularly in Asia and parts of Africa. Asia dominates global rice cultivation, accounting for nearly 90 percent of the world's rice area and production. The crop's adaptability to diverse climatic and soil conditions has enabled its cultivation across almost all continents, except Antarctica [Prasad, 2016] [8] . The top five rice producers in the world in the year 2023-2024 are China, India, Indonesia, Bangladesh and Vietnam [FAOSTAT, 2020] [3] . Over the decades, global rice production has steadily increased due to technological advancements, improved seed varieties, irrigation expansion, and supportive government policies. India holds a prominent position in the global rice economy. It has the largest area under rice cultivation in the world and ranks second in production after China. It contributes 42 percent of total food grains production and 45 percent of cereal production in the country (Directorate of Rice Development, GOI, 2009) [12] . Rice also provides more than 50 percent of the daily calories ingested [Braun, 2006] [1] . It is also a critical component of the Public Distribution System (PDS), ensuring food security for millions of households under the National Food Security Act. India is also the world's leading exporter of rice. In recent years, the country has consistently maintained a dominant position in global rice trade, particularly in basmati rice exports. Indian basmati rice is widely appreciated for its aroma, grain length, and cooking quality, and it commands a premium price in international markets. Despite global disruptions, including the COVID-19 pandemic and trade uncertainties, India's rice exports have remained strong, contributing significantly to agricultural export earnings [USDA, 2020] [10] . Domestic consumption of rice has also shown a steady upward trend, driven by population growth and sustained demand through welfare schemes. The strength of India's rice sector can largely be attributed to its diverse agro-ecological conditions, which allow rice cultivation under irrigated, rainfed, upland, and lowland systems Continuous improvements in high-yielding varieties, hybrid rice technology, mechanization, and extension services have helped enhance productivity. Government initiatives such as minimum support prices (MSP), assured procurement by agencies like the Food Corporation of India (FCI), and input subsidies have further encouraged farmers to continue rice cultivation. Within the national framework, Haryana occupies an important place among rice-producing states. Although traditionally known for wheat production, Haryana has emerged as a significant contributor to the country's rice output, particularly in basmati rice. As per recent state agricultural statistics, rice is cultivated on approximately 1.5 million hectares in Haryana, with total production exceeding 5 million tonnes. The state contributes a notable share to the central procurement pool and plays a crucial role in India's basmati rice exports. Districts located in the Shivalik foothills and irrigated plains benefit from well-developed irrigation infrastructure, favourable soil conditions, and access to markets, which support rice cultivation. Rice cultivation in Haryana is not only important for food security but also for farm incomes, employment generation, and agro-based industries such as milling, processing, and export logistics. However, the sector also faces challenges including rising input costs, groundwater depletion, and the need for sustainable resource management. In this context, evaluating the economic performance and profitability of rice cultivation becomes essential for informed policymaking. The present study is therefore undertaken to examine the growth trends and economic profitability of the rice value chain in Haryana. By analysing production patterns, costs, returns, and market linkages, the study aims to generate insights that can assist policymakers, agricultural planners, researchers, and farmers in strengthening the sustainability and competitiveness of rice cultivation in the state.

Methodology

For the present research, the districts of Panchkula and Yamunanagar, located in the Shivalik foothills of Haryana, were selected. These districts were chosen because they have a relatively large area under the wheat-rice-sugarcane cropping system. From each district, four villages situated in the plains were selected randomly. In Yamunanagar district, ten farmers were chosen from each selected village for detailed study. Similarly, forty farmers from Panchkula district and forty farmers from Yamunanagar district were included in the sample. In total, 80 paddy farmers from eight villages constituted the sample for the study. A multistage random sampling technique was employed to select the respondents. Primary data for the year 2024 were collected through a survey method by conducting personal interviews with the selected farmers using a pre-tested interview schedule

Selection of study area

The present study was undertaken in Haryana with clearly defined objectives focusing on the paddy crop. Haryana was carved out of Punjab in 1966 and has a geographical area of 44,212 square kilometres. Since its formation, the state has witnessed a significant expansion in cultivated area. The gross area sown in 1966-67 was 4,599 thousand hectares, which increased to 6,570 thousand hectares in 2023-24, reflecting an overall rise of 1,971 thousand hectares over the period. Paddy occupies a prominent place in the state's cropping pattern. In 2023-24, the crop covered about 1,837.07 thousand hectares, with a total production of 7,137.18 thousand tonnes and an average productivity of 3,885.08 kg per hectare in Haryana. At the district level, variations in area and productivity are observed. In Panchkula district, paddy was cultivated on 14.76 thousand hectares, producing 61.70 thousand tonnes with an average yield of 4,180.80 kg per hectare. In Yamunanagar district, the crop covered a larger area of 87.60 thousand hectares, yielding a total production of 417.65 thousand tonnes with a higher average productivity of 4,767.82 kg per hectare. These statistics, sourced from the Department of Agriculture and Farmers' Welfare, Haryana (Economic and Statistical Analysis, 2023-24), highlight the importance of paddy cultivation in both the state and the selected districts.

Selection of Villages

A total of eight villages were selected randomly from both the districts that are four villages from each district.

Collection of data

The present study was primarily based on first-hand data collected from selected farmers. It was undertaken to estimate the costs and returns of paddy cultivation, examine its economic viability, and analyse production aspects in Panchkula and Yamunanagar districts of Haryana for the agricultural year 2023. Primary data pertaining to the year 2022 were collected through a survey method. Personal interviews were conducted with the selected farmers using a well-structured and pre-tested interview schedule. The schedule was designed to obtain comprehensive information covering the following aspects: 1. General profile of the selected farmers, including socioeconomic characteristics and farm-related details. 2. Detailed information on per hectare input use patterns, input prices, and various expenses incurred in paddy cultivation. This included data on seed rate, quantity of fertilizers and pesticides applied, labour use, irrigation charges, machinery expenses, and other production costs necessary for estimating the cost of cultivation. 3. Information related to crop yield and returns, including output from both main products (grain) and by-products (such as straw), to assess gross and net returns from paddy cultivation. 4. This systematic data collection helped in conducting a comprehensive economic analysis of paddy cultivation in the selected districts.

Analytical Tools

Various statistical tools such as averages, percentages, cost analysis, return analysis, and the Benefit-Cost (B:C) ratio were used to derive meaningful conclusions from the study. These tools helped in systematically analysing the data and assessing the economic performance of paddy cultivation. To estimate the cost and returns from paddy production, appropriate analytical methods and standard cost concepts were applied.

The following tools and formulae were used to calculate the cost of cultivation and profitability of the paddy crop:

Result and Discussion

A comparative economic analysis of paddy cultivation in the Shivalik foothills was conducted on a per hectare basis for the selected districts. The cost structure of paddy cultivation in Panchkula and Yamunanagar districts is presented in Table 1.

The findings indicate that the total cost of cultivation in Panchkula district (₹1,25,810 per hectare) was lower than that in Yamunanagar district (₹1,34,010 per hectare). The higher total cost in Yamunanagar was mainly attributed to the comparatively greater rental value of land in that district. The total variable cost accounted for 48.2 percent (₹60,682 per hectare) of the total cost in Panchkula district and 45.6 percent (₹61,068 per hectare) in Yamunanagar district. On an overall average basis for both districts, the variable cost and total cost were estimated at ₹60,875 per hectare and ₹1,29,910 per hectare, respectively. Among the major components of variable cost, preparatory tillage, irrigation charges, and harvesting expenses were the leading contributors, accounting for 9.0 percent, 6.8 percent, and 3.5 percent of the total cost, respectively.

In terms of fixed costs, the rental value of land constituted the largest share, contributing 45.5 percent of the total cost. This was followed by management charges (4.7 percent), risk factor (1.6 percent), and transportation charges (1.4 percent).

With respect to returns, the average yield of paddy was recorded at 66.5 quintals per hectare in Panchkula district and 71.1 quintals per hectare in Yamunanagar district. The gross returns were estimated at ₹1,56,780 per hectare in Panchkula and ₹1,67,510 per hectare in Yamunanagar. Net returns were also higher in Yamunanagar (₹33,500 per hectare) compared to Panchkula (₹30,970 per hectare).

The Benefit-Cost (B:C) ratio was found to be 1:1.24 in both districts, indicating that paddy cultivation was economically viable in the selected areas of the Shivalik foothills. Irrigation is a crucial component of paddy cultivation in the region. On average, 11.5 irrigations were provided per hectare in Panchkula district, while 11.0 irrigations were given in Yamunanagar district by the sampled farmers. These input-use patterns reflect the intensive cultivation practices followed in the selected districts.

Conclusion

It may be concluded that paddy cultivation in the Shivalik foothills of the selected districts is economically feasible. The gross returns from paddy cultivation were estimated at ₹1,56,780 per hectare in Panchkula district and ₹1,67,510 per hectare in Yamunanagar district. The total cost of cultivation was ₹1,25,810 per hectare in Panchkula and ₹1,34,010 per hectare in Yamunanagar. Consequently, the net returns were ₹30,970 per hectare in Panchkula and ₹33,500 per hectare in Yamunanagar district. The per hectare return over variable cost was calculated at ₹96,098 in Panchkula and ₹1,06,442 in Yamunanagar district. The corresponding net returns from paddy cultivation were ₹30,970 and ₹33,500 per hectare, respectively. Among the various components of variable cost in Panchkula district, preparatory tillage (9.2 percent), irrigation (7.0 percent), fertilizers (6.5 percent), harvesting (3.6 percent), and seed (2.9 percent) accounted for the major share of total expenditure. In Yamunanagar district, the respective shares were 8.8 percent for preparatory tillage, 6.6 percent for irrigation, 6.3 percent for fertilizers, 3.4 percent for harvesting, and 2.6 percent for seed. With regard to fixed costs, the rental value of land constituted the largest proportion, accounting for 44.0 percent of the total cost in Panchkula and 47.0 percent in Yamunanagar district. The Benefit-Cost (B:C) ratio was found to be 1:1.24 in both districts. Since the B:C ratio is greater than one, it indicates that paddy cultivation in the Shivalik foothill region of Haryana is economically viable and profitable under the existing conditions.

References

  1. Braun VJ. Public policy and international collaboration for sustaining and expanding the rice revolution. Paper presented at: International Rice Congress on Science, Technology and Trade for Peace and Prosperity; 2006; New Delhi, India.
  2. Doreen IC. Rice value chain analysis in Thailand. Final Report submitted to: International Fair-Trade Association (IFAT), European Fair-Trade Association (EFTA) and Fair-Trade Labelling Organisation International (FLO). Thailand; 2005. 156 p.
  3. FAOSTAT. FAO database [Internet]. Rome: Food and Agriculture Organization of the United Nations; 2020 [cited 2020 Dec]. Available from: http://www.devtest.fao.org/cgi-bin/nph-db.pl
  4. Government of India. Agricultural statistics at a glance 2020. New Delhi: Department of Agriculture, Cooperation and Farmers Welfare, Ministry of Agriculture and Farmers Welfare, Directorate of Economics and Statistics; 2020.
  5. Nain M, Nisha, Sanjeev, Aneja DR. Instability and trend in area, production and productivity of rice crop in Haryana and India. Curr J Appl Sci Technol. 2019;37(5):1-9.
  6. Nirmala B, Muthuraman P. Economic and constraint analysis of rice cultivation in Kaithal district of Haryana. Indian Res J Ext Edu. 2009;9(1):47-49.
  7. Pavithra AS, Singh KM, Ahmad N, Sinha DK, Mishra RR. Economic analysis of rice value chain in Bihar and Karnataka states of India. Int J Curr Microbiol App Sci. 2018;7(3):2738-2747.
  8. Prasad R, Shivay YS, Nene YL. Asia's contribution to evolution of world agriculture. Asian Agri-Hist. 2016;20(4):233-250.
  9. Government of Haryana. Statistical abstracts of Haryana. Panchkula: Department of Economics and Statistical Analysis, Haryana; 2020.
  10. United States Department of Agriculture. Global rice outlook 2020. Washington, DC: USDA; 2020.
  11. Washington, DC: Foreign Agricultural Service/USDA Global Market Analysis; 2021 [cited 2021 Sep 25]. Available from: https://apps.fas.usda.gov/psdonline/circulars/grainrice.pdf
  12. Government of India. Agricultural statistics at a glance 2009. New Delhi: Directorate of Economics and Statistics, Department of Agriculture and Cooperation, Ministry of Agriculture; 2009.
Citations
0
FWCI
0.00
field-weighted impact
References
0
Percentile
18%
vs. same field & year
Citation Network

How this paper connects to the literature. Drag to explore, click any node to open that paper.