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Linear Programming Approach- Application in Agriculture

Authors:
  • St.Xavier's College Jaipur

Abstract

In real scenario farm planning in terms of water management, the type of crop to be grown, the crop combination and different agricultural techniques applied to increase the farm production are the challenges faced by decision makers. These challenges are further being associated with socio -economic development and the scarcity of resources in particular region. To overcome these problems faced by farm linear programming technique is applied in order to optimize the farm’s returns by allocating the available farm resources optimally. The aim of the study is to develop a farm model for Jaipur District of Rajasthan by using linear programming in order to determine the feasible optimal crop combination and how these crops will be allocated to increase the production
© 2019 JETIR May 2019, Volume 6, Issue 5 www.jetir.org (ISSN-2349-5162)
JETIRBM06024
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155
Linear Programming Approach- Application in
Agriculture
[1]Mahak Bhatia, [2] Prof. G.M.J.Bhat
[1]Research Scholar, [2] Professor of Mathematics
Abstract In real scenario farm planning in terms of water
management, the type of crop to be grown, the crop
combination and different agricultural techniques applied
to increase the farm production are the challenges faced by
decision makers. These challenges are further being
associated with socio -economic development and the
scarcity of resources in particular region. To overcome
these problems faced by farm linear programming
technique is applied in order to optimize the farm’s returns
by allocating the available farm resources optimally. The
aim of the study is to develop a farm model for Jaipur
District of Rajasthan by using linear programming in order
to determine the feasible optimal crop combination and how
these crops will be allocated to increase the production.
Index Termscrop combination, farm planning, linear
programming
I.
INTRODUCTION
Agriculture sector plays a vital role in social and economic
development of India. The overall development of a sector
depends on available land and water resources. Proper
utilization of land and water resources is very important for
optimum agricultural production. This requires proper
allocation of resources in a farm. Farmers have to take a
complex decision as to what to grow, suitable season,
available farm techniques and the required quantity.
Decisions are made subject to the prevailing physical and
financial farm conditions but an uncertainty still prevails in
a planning horizon ahead in this sector. Uncertainty may
arise in the yield, cost of resources such as labor, seeds,
manures and fertilizers. Due to the complexity of the
agricultural sector a mathematical programming approach is
applied to develop a farm model that represents complete
farm subject to the constraints in terms of mathematical
equations. Farm planning can assist the farmers in
allocating the available resources in an optimal manner.
Management of water resources and allocation of land
under limited resources such as labor, fertilizers, seeds,
etc.is one of the major issues in farm model that needs to be
optimized. Generally, allocation of land under each crop is
based on the land area that is used to be cultivated in
previous season, depending on the availability of resources.
Hence, both land and water resources for different crops
needs to be optimized by allocating the resources efficiently
to obtain the maximum production. But maximization of
production does not guarantee the maximization of profit
Thus, it can be concluded that linear programming approach
is one of the tools to optimize the decision variables that
provide us with the combination of farm enterprise that is
feasible with respect to the set of fixed farm constraints.
.
Fig1: Farm Model
II.
LITERATURE REVIEW
Linear programming is an optimizing technique which is
widely used to allocate the resources optimally in order to
increase the production. Pap Zoltan [1] [2008] Developed a
linear programming model for an agricultural farm to
maximize the total gross margin by adopting crop rotation
policy The results of the study reveals that the income obtain
by applying linear programming model is more than that
obtain by binary crop rotation model. Raniraghavay & Dr.
Rao Tirupathi P. [2] [2012] develop three multi objective
mathematical model for two seasons depending upon the
availability of water resources and the results reveals that
optimization approach improves the annual net benefits of
the farm under study. MajekeF.et.al. [3] [2013] develops a
linear programming model to overcome the problem of
allocation of resources faced by the resettled farmers in
Bindura, Zimbabwe in order to enhance the farm’ income.
Sofi, N. A. et.al. [4] [2015] use simplex algorithm to determine
the solution of a linear programming model developed to
determine the allocation of land to optimise the farm
productivity. A linear programming crop mix model for a
finite time planning horizon under limited available
resources such as budget and land acreage, acrop-mix
planning model was formulated in order to maximize the
total returns at the end of planning horizon
[5] [Mohamad Hj. Nordin and Fatimah Said]. Kulshrestha
S.K [6] observes that the growth of cereals depends on the
wheat. The wheat production in Rajasthan is double than
the cropped area shows that the yield had improved over
a time.
III.
STUDY AREA
Jaipur District is located at 26°55′10″ N to 75°47′16″ E Total
geographical region of the state is 1106148 ha .Most of the
people are engaged in primary sector especially those that
resides in rural regions. Net sown area of the district is about
663167 ha and gross sown area is about 848313 ha. Major
Kharif crops of the region includes Groundnut, Bajra, Kharif
Pulses and the crops cultivated in Rabi season are Wheat,
Mustard, Barley & Gram.
Tomato, Pea, Chili, Brinjal, Cabbage, Cauliflower etc. are
Farm model
Crop Allocation
Resource
Allocation
Water resources
Allocation
© 2019 JETIR May 2019, Volume 6, Issue 5 www.jetir.org (ISSN-2349-5162)
JETIRBM06024
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156
cultivated. Ber, Aonla, Bael, Guava, Lemon etc. are important
fruit crops of the district [7].
Jaipur has a semi-arid climate. Temperatures vary in different
seasons. In the summer months of April to June, average
daily temperature of around 35oC. May and June are the
hottest months in Jaipur. Temperature reaches up to 40-45oC
in these months. Annually the rainfall is concentrated in the
monsoon months between June (Last of June) and September.
It receives over 500 mm (approx 20 inch) of rainfall an
average. The winter months of November to February are
mild and pleasant, with average temperatures in the 15-18oC
range and little or no humidity. December and January are the
coldest months in Jaipur. Temperature varies between 5-10oC
in these months. There are however occasional cold waves
that lead to temperatures near freezing [8].
Table 1: Area, Production and Productivity of major
crops cultivated in the district [7]
IV.
METHODOLOGY
A Linear programming problem with “n “decision variables
and “m “constraints is formulated as:
Max.Z=∑ cixi i=1,2,3,…,n
s.t. ∑ ai xi bj j=1,2,3,…,m
xi 0
xi= represents the decision variables (to be determined by
policy makers)
ci= represents the cost vector
ai= represents activity coefficient
bj= represents the available resources
The objective function is:
Max.Z = 3190 x1+ 1023 x2 + 2139 x3 +726 x4
Subject to constraints:
Land: 157649 x1+ 114503 x2 + 9064x3 +118627 x4 ≤ 663167
Seeds & fertilizers: x1+ x2 + x3 + x4 ≤ 100000
Labor: x1+ x2 + x3 + x4 ≤ 200450
Non-negativity conditions:
x1, x2 , x3 , x4 0
x1, x2, x3 and x4 are the decision variables for wheat,
rapeseed & mustard, peas and gram respectively .
V.
Mathematical Formulation
The objective of the study is to maximize the farm returns by
allocating the resources optimally. Only the crops grown in
Rabi season i.e. wheat, rapeseed & mustard, peas and gram is
considered for the study. The problem is to determine the
suitable crop combination in order to get maximum profit.
The land available for cultivation is 663167 hectares. Proper
allocation of crops and the available resources is very
important in order to increase the productivity and also for the
efficient utilization of resources as Jaipur district of Rajasthan
receives erratic rainfall. Therefore, the variation in cropping
pattern is observed within district depending upon the
availability of water resources. Farms with sufficient water
prefer to cultivate peas and wheat more whereas the farms
with less availability of water grow mustard and wheat as a
major crops. Moreover, in order to increase the production
farmers adopt different farming patters such as crop rotation,
inter cropping and mixed cropping. It is observed that there is
increase in production to about 25% by adopting theses crop
policies Farmers especially the small farmers prefer to adopt
mixed cropping that includes both livestock as well as
cultivation of crops within the same farm. Livestock rearing
contributes to increases the farm returns to great extent.
Area
(ha)
Production
(ton)
Productivity
(kg/ha)
297162
486981
1639
40478
23175
573
76260
35740
469
8532
4342
509
6396
1682
263
36080
68333
1894
59525
61050
1026
157649
502927
3190
60542
187003
3089
118627
86174
726
9064
19390
2139
114503
117090
1023
9988
4549
455
3551
8436
2376
2554
2510
983
© 2019 JETIR May 2019, Volume 6, Issue 5 www.jetir.org (ISSN-2349-5162)
JETIRBM06024
Journal of Emerging Technologies and Innovative Research (JETIR) www.jetir.org
157
Results
Fig2: Process of Linear Programming
6.
Kulshrestha, S. K. (2017). An Analysis of Growth of
Area, Production and Yield of Wheat Crop in
Rajasthan.
7.
Krishi Vigyan Kendra, Chomu (Jaipur), VPO Tankarda,
Dist - Jaipur (303 702) - (Rajasthan) INDIA Retrived
From:http://jaipur1.kvk2.in/district-profile.html
8.
Jaipur geography and climate Retrieved From:
http://www.jaipurthepinkcity.com/geography/geogr
aphy_climate.htm#.XJlFLIhuaUk
9.
Taha A. Hamdy (2014) Operations Research an
Result of the developed linear programming farm model is
obtained by using EXCEL. Result of the problem shows that
farmer can get a profit of 15,6499 Rs. The solution of the
problem yields the following results:x1= 0, x2=0, x3=
73.164938 and x4=0
A.
References
1.
Pap, Z. (2008, September). Crop rotation constraints
in agricultural production planning. In Intelligent
Systems and Informatics, 2008. SISY 2008. 6th
International Symposium on (pp. 1-5). IEEE
2.
Rani, Y. R., & Rao, P. T. (2012). Multi objective crop
planning for optimal benefits. International Journal
of Engineering Research and Applications
(IJERA), 2(5), 279-287.
3.
Majeke F.et.al. (2013) “A Farm Resource Allocation
Problem: A Case Study of Model A2 Resettled
Farmers in Bindura, Zimbabwe”.International
Journal of Economics and Management Sciences
Vol. 2, No. 7, 2013, pp. 01-04.
4.
Sofi, N. A., Ahmed, A., Ahmad, M., & Bhat, B. A.
(2015). Decision making in agriculture: A linear
programming approach. International Journal of
Modern Mathematical Sciences, 13(2), 160-169
5.
Mohamad Hj. Nordin and Fatimah Said (2011) “A
mathematical programming approach to crop mix
problem.”African Journal of Agricultural Research
Vol. 6(1), pp. 191-197.Retrieved from: DOI:
10.5897/AJAR10.028
Introduction .Ninth Edition. United States. Dorling
Kindersley Pvt. Ltd
Optimization
Decision
Variables
Objective
Function
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The solution of the problem yields the following results:x1= 0, x2=0, x3= 73
  • Rs
Rs. The solution of the problem yields the following results:x1= 0, x2=0, x3= 73.164938 and x4=0
Decision making in agriculture: A linear programming approach
  • N A Sofi
  • A Ahmed
  • M Ahmad
  • B A Bhat
Sofi, N. A., Ahmed, A., Ahmad, M., & Bhat, B. A. (2015). Decision making in agriculture: A linear programming approach. International Journal of Modern Mathematical Sciences, 13(2), 160-169