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Cropping pattern in Punjab (1966-67 to 2014-15)

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Abstract

While rice and wheat occupied 90.1% of the area in Punjab and contributed 76.9% towards production in 2014-15, the combined area under other crops, which in 1966-67 was 54.54%, has decreased drastically to 9.87% in 2014-15. This changing cropping pattern is of key significance for the present state and future prospects of Punjab economy.
PUNJAB— EXPLOR ING PROSPECTS
january 21, 2017 vol lIi no 3 EPW Economic & Political Weekly
30
Cropping Pattern in Punjab
(1966 67 to 2014–15)
R S Mann
While rice and wheat occupied
90.1% of the area in Punjab
and contributed 76.9% towards
production in 2014–15, the
combined area under other crops,
which in 1966–67 was 54.54%,
has decreased drastically to
9.87% in 2014–15. This changing
cropping pattern is of key
signi cance for the present state
and future prospects of
Punjab economy.
Punjab with a 1.53% share in the
geographical area of India, pro-
duced 27.92% of the total wheat
and rice produced in the country in
2014–15.1 Punjab’s contribution towards
India’s food self-suffi ciency has been
widely acknowledged. In this article, we
review the changing cropping pattern in
Punjab between 1966–67 and 2014–15.
The crops considered here include rice,
wheat, tur, gram, bajra, barley, jowar,
ragi, maize, small millets, groundnut,
sesamum, sunfl ower, linseed, rapeseed
and mustard, sugar cane, and cotton.
Area under Major Crops
From all the agricultural crops grown in
Punjab, the above mentioned 17 crops
occupied 7,100 thousand hectares (90%)
of the total cropped area in Punjab in
2014–15.2 Hereafter, unless mentioned
otherwise, the term total cropped area
would refer to the total cropped area
under these 17 crops. The total area under
the major crops in 1966–67 was 4,179
thousand hectares, which in 2014–15 has
risen to 7,100 thousand hectares with
an increase of 2,921 thousand hectares
duri ng thi s p eriod (Table 1, p 31).
Out of the total cropped area in 1966–
67, rice and wheat together occupied
1,900 thousand hec ta res (45.46%) when
compared to the 2,279 thousand hec-
tares (54.54%) under all the other crops
put together (Table 2, p 31).
With the advent of green revolution,
the area under rice and wheat expanded,
and as per the latest data available for
2014–15, rice and wheat together occu-
pied 6,399 thousand hectares (90.13%),
whereas the area occupied by all the
other crops has reduced drastically to
701 thousand hectares (9.87%).
The area under wheat which in 1966–67
was 1,615 thousand hectares (38.64%)
has grown to 3,505 thousand hectares
(49.37%) in 2014–15. Thus, from 1966–
67 to 2014–15, the area under wheat
increased by 1,890 thousand hectares.
The area under rice which in 1966–67
was a meagre 285 thousand hectare
(6.82%) has increased phenomenally to
2,894 thousand hectares (40.76%) in
2014–15. Thus, from the period of
1966–67 to 2014–15, there was an in-
crease of 2,609 thousand hectares of
area under rice.
The interesting point to note is that
the area under wheat touched 49% of
the total cropped area in the early phase
of green revolution (in 1970–71) and has
stabilised since then, hovering around
the value of 49%.
In contrast with that, rice touched its
peak in y ear 2014–1 5 w ith 40.76% of the
total cropped area under it. Unlike
wheat where the area stabilised in the
early 1970s, there was a slow and gradu-
al increase in the expansion of area
under rice.
The area under the other crops which
was 54.54% of the total cropped area
during 1966–67, has come down drasti-
cally to 9.87% in 2014–15. The area
under the other crops has been mainly
can nibalised by the expansion of area
under rice.
From Table 1, it can be seen that
among the other crops, gram was the
only crop which occupied 15.16% of the
total cropped area in 1966– 67. Apart
from gram, only two other crops, maize
and cotton managed to occupy more
than 11% of the total cropped area, but
were never able to go beyond 12%.
Major Crops in Production
It is no surprise to see that the other
crops (tur, gram, bajra, jowar, ragi,
maize, small millets, groundnut, sesa-
mum, sunfl ower, linseed, rapeseed and
mustard, sugar cane, and cotton) con-
tributed towards the major share of
production during the years 1966–67,
1970–71 and 1975–76 (68.4%, 54.9%
and 53% respectively) (Table 3, p 31).
Thereafter, the contribution of other
crops started declining and touched the
lowest during 2010–11 (15.8%). Amongst
the other crops, the major contribution
was from sugar cane (48.7%, 40.8% and
39.8% in 1966–67, 1970–71 and 1975–76
respectively) and thereafter started
to decline.
R S Mann (15132198@brookes.ac.uk) is a
research scholar at the Department of
Accounting, Finance and Economics, Ox ford
Brookes University, Oxford.
PUNJAB— EXPLOR ING PROSPECTS
Economic & Political Weekly EPW january 21, 2017 vol lIi no 3 31
Rice and wheat together contributed
31.6% towards the production in 1966–67,
which touched the highest during
2010–11 (84.2%), before resting at 76.9%
in 201415. The contribution of wheat
which was 27.9% of the total production
during 1966–67, increased to 47.5% in
1980–81, and thereafter, remained be-
tween 43% and 50%. Surprisingly, rice
which contributed only 3.8% to the total
production during 1966–67 saw a gradu-
al increase in its contribution towards
total production (Table 3).
Yield of Major Crops
In terms of yield increase during the
period 1966–67 to 201415, barley saw
the major increase by 4.22 times from
848 kg/hectare in 1966–67 to 3,582
kg/hectare in 201415. The second
in this series is rice whose yield in-
creased 3.24 times between 1966–67
and 2014–15. The yield of wheat, third
in this pecking order, increased by 2.78
times. The other crops whose yield
doubled during this period include
jowar, maize, rapeseed and mustard,
cotton, and sugar cane. There has been
a variation in the yield of wheat which
in 2000– 01 was 4,563 kg/hectare,
followed by 4,179 kg/hectare, 4,693 kg/
hectare and 4,294 kg/hectare for the
year 2005– 06, 2010–11 and 2014–15
respectively. In contrast with that, the
yield of rice has stabilised, with 3,506 kg/
hectare, 3,858 kg/hectare, 3,828 kg/hec-
tare and 3,838 kg/hectare during the
year 2000–01, 2005–06, 2010–11 and
2014–15 respectively (Table 4, p 32).
MSP and Cropping Pattern
The increase in the minimum support
price (MSP) for major crops is given in
Table 5 (p 32). It can be noticed that al-
though the increase in the MSP of other
crops such as gram, arhar (tur), ra pe-
seed and mustard, sunfl ower, ground-
nut, cotton and moong was greater than
the increase in the MSP of wheat and
paddy for the same period, still the area
under wheat and mainly under rice
Table 1: Area unde r Major Crops in Pu njab (‘000 hectares)
Year Wheat Rice (R) W+R Tur Gram Bajra Barley Jowar Ragi Maize Small Ground- Sesamum Sun- Li nseed Rapese ed S ugar Cot ton Other s To tal
( W) Millets nut flowe r and Mustard Cane Tot al
1966–67 1,615 285 1,900 1.7 633.6 184 103.8 5.8 0.5 444 0.4 181.6 17.9 — 2 116 156 432 2, 279.3 4,179.3
1970–71 2,299 390 2,689.1 3 357.9 207.1 56.6 5.1 554.6 0.7 173.8 14.6 2.7 103 127.7 397.4 2,004.2 4,693.3
1975–76 2,439 567 3,005.6 5.6 381.2 181.7 120.2 5. 2 577.3 168.4 23 2.1 122 114.2 58 0.4 2,281.3 5,286 .9
1980–81 2,812 1,178 3,990 17.9 258 71 65 1.2 378 83 17.3 1.7 146 71 64 8 1,758.1 5,748.1
1985–86 3,112 1,714 4,826 40 108 31 49.8 260 45 13.7 1.3 146 78 559.6 1,332.4 6,158.4
1990–91 3,272 2,024 5,296 13.6 60.7 11 37 0.3 188 10 18.1 14 0.6 73 101 701 1,228.3 6,524.3
1995–96 3,223 2,161 5,384 9.8 19.5 8 38 2.6 171 9 22.7 103 0.5 117 132 750 1,383.1 6,767.1
2000– 01 3,408 2 ,611 6,019 8.7 7.7 5 32 0.1 165 0 4 19.2 9.7 0.6 53 121 474 900.0 6,919.0
2005–06 3,468 2,642 6,110 7.8 4 5 19 148 3 3.4 11.3 17.8 0.2 49 84 557 909.5 7,019.5
2010–11 3,510 2,831 6,341 4.2 2.1 3 12 0 133 0 2.2 5.7 14.6 31 70 530 807.8 7,148.8
2014–15 3,505 2,894 6,399 2.6 1.8 0 11 126 1.4 4.7 8.5 31 94 420 701.0 7,100.0
Table 2: Percent S hare of Area un der Major Crop s in Punjab (%)
Year Wheat Rice (R) W+R Tur Gram Bajra Barley Jowar Ragi Maize Small Ground- Ses amum Sun- Linseed Rapese ed Sugar Cotton O thers Tota l
( W) (%) Millets nut flower and Mustard Can e Total
1966–67 38.64 6.82 45.46 0.04 15.16 4.40 2.48 0.14 0.01 10.62 0.01 4.35 0.43 0.00 0.05 2.78 3.73 10.34 54.54 100
1970–71 48.99 8.31 57.30 0.06 7.63 4.41 1.21 0.11 0.00 11.82 0.01 3.70 0.31 0.00 0.06 2.19 2.72 8.47 42.70 100
1975–76 46.13 10.72 56.85 0.11 7.21 3.44 2.27 0.10 0.00 10.92 0.00 3.19 0.44 0.00 0.04 2.31 2.16 10.98 43.15 100
1980–81 48.92 20.49 69.41 0.31 4.49 1.24 1.13 0.02 0.00 6.58 0.00 1.44 0.30 0.00 0.03 2.54 1.24 11.27 30.59 100
1985–86 50.53 27.83 78.36 0.65 1.75 0.50 0.81 0.00 0.00 4.22 0.00 0.73 0.22 0.00 0.02 2.37 1.27 9.09 21.64 100
1990–91 50.15 31.02 81.17 0.21 0.93 0.17 0.57 0.00 0.00 2.88 0.00 0.15 0.28 0.21 0.01 1.12 1.55 10.74 18.83 100
1995–96 47.63 31.93 79.56 0.14 0.29 0.12 0.56 0.04 0.00 2.53 0.00 0.13 0.34 1.52 0.01 1.73 1.95 11.08 20.44 100
2000– 01 49.26 37.74 86.99 0.13 0.11 0.07 0.46 0.00 0.00 2.38 0.00 0.06 0.28 0.14 0.01 0.77 1.75 6.85 13.01 100
2005–06 49.41 37.64 87.04 0.11 0.06 0.07 0.27 0.00 0.00 2.11 0.04 0.05 0.16 0.25 0.00 0.70 1.20 7.94 12.96 100
2010–11 49.10 39.60 88.70 0.06 0.03 0.04 0.17 0.00 0.00 1.86 0.00 0.03 0.08 0.20 0.00 0.43 0.98 7.41 11.30 100
2014–15 49.37 40.76 90.13 0.04 0.03 0.00 0.15 0.00 0.00 1.77 0.00 0.02 0.07 0.12 0.00 0.44 1.32 5.92 9.87 100
Table 3: Percent S hare of Major Cr ops in Produc tion in Punjab (%)
Year Wheat Rice (R) W+R Tur Gram Bajra Barley Jowar Ragi Maize Small Ground- Ses amum Sun- Linseed Rapeseed Sugar Cotton Ot hers Tota l
( W) Millets nut flowe r and Mustard Cane Total
1966–67 27.9 3.8 31.6 0.0 5.7 1.7 1.0 0.0 0.0 6.9 0.0 2.2 0.1 0.0 0.0 0.7 48.7 1.5 68.4 100
1970–71 39.8 5.3 45.1 0.0 2.2 1.9 0.4 0.0 0.0 6.7 0.0 1.3 0.0 0.0 0.0 0.4 40.8 1.1 54.9 100
1975–76 37.6 9.4 47.0 0.0 2.4 1.2 1.0 0.0 0.0 5.5 0.0 1.1 0.1 0.0 0.0 0.5 39.8 1.4 53.0 100
1980–81 47.5 19.9 67.4 0.1 0.9 0.6 0.7 0.0 0.0 3.7 0.0 0.6 0.0 0.0 0.0 0.5 24.2 1.2 32.6 100
1985–86 48.6 24.1 72.7 0.2 0.4 0.1 0.5 0.0 0.0 1.8 0.0 0.2 0.0 0.0 0.0 0.7 22.3 1.1 27.3 100
1990–91 47.4 25.5 72.9 0.0 0.2 0.0 0.4 0.0 0.0 1.3 0.0 0.0 0.0 0.1 0.0 0.3 23.4 1.3 27.1 100
1995–96 43.2 23.3 66.5 0.0 0.1 0.0 0.4 0.0 0.0 1.1 0.0 0.0 0.0 0.5 0.0 0.4 29.7 1.1 33.5 100
2000– 01 46. 6 27.4 74.1 0.0 0.0 0.0 0.3 0.0 0.0 1.4 0.0 0.0 0.0 0.0 0.0 0.2 23.3 0.6 25.9 100
2005–06 47.5 33.4 80.9 0.0 0.0 0.0 0.2 0.0 0.0 1.3 0.0 0.0 0.0 0.1 0.0 0.2 15.9 1.3 19.1 100
2010–11 50. 8 33.4 84.2 0.0 0.0 0.0 0.1 0.0 0.0 1.5 0.0 0.0 0.0 0.1 0.0 0.1 12.8 1.1 15.8 100
2014–15 44. 2 32.6 76.9 0.0 0.0 0.0 0.1 0.0 0.0 1.4 0.0 0.0 0.0 0.0 0.0 0.1 20.7 0.8 23.1 100
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expanded due to the assured procurement
and higher yields of these crops. In the
recent times, although there have been
major increases in the MSP of pulses,
there is negligible interest on the part of
the farmers in adopting pulses. This is
mainly due to the absence of marketing
of these crops and their low yield levels.
Fertiliser and
Pesticide Consumption
The comparison of the fertiliser usage
for the last fi ve years in lakh tonnes, kg/
hectare and NPK ratio (nitrogen, phos-
phorus and potassium) of Punjab and at
all-India level is shown in Table 6. It can
be seen that in 2014–15 the usage of
nitrogen, phosphorus and potassium
was 179.03, 43.46 and 4.97 kg/hectare
respectively.
The common and strongly-held view
in India is that balanced fertiliser use re-
quires three major plant nutrients, name-
ly, nitrogen, phosphorus and potassium,
to be used in the ratio of 4:2:1 and any
deviation in fertiliser use from this norm
would constrain growth in crop produc-
tivity (Chand and Pavithra 2015: 98).
The NPK ratio of Punjab 36:9:1 (in
2014–15) is towards the higher side
when compared to the generally accept-
ed NPK ratio of 4:2:1. The intensive culti-
vation has led to the decline in the soil
fertility status in Punjab (Singh 2008).
Punjab has approximately 4% of the to-
tal cropped area of the country but con-
sumes 11% of the total pesticides con-
sumed in India3 (TSMG and FICCI 2016).
Groundwater Level
Owing to the widespread cultivation of
rice, the groundwater levels have gone
down drastically in Punjab. As of 2011,
out of the total 138 blocks in Punjab, 110
are overexploited, four are critical, two
are semi-critical and only 22 are safe
(CGWB 2015). Thus, 84% of the blocks in
Punjab are either overexploited, critical
or in a semi-critical category, and only
16% blocks are safe.
As per CGWB (2015), Punjab has the
highest stage of groundwater development
of 172 amongst all the states in the country.
This is not a good indicator for the
groundwater status of Punjab. The ground-
water development of 100% indicates
that its consumption is equal to its re-
charge, groundwater deve lopment stage
of above 100% indicates that the “annual
groundwater consumption is more than
the annual groundwater recharge” (CGWB
2015). A very high stage of groundwater
development of 172 indicates that its an-
nual consumption in Punjab is very high
compared to its annual recharge. The
groundwater availability for future irri-
gation use for Punjab is least in the
country (Table 7, p 33). The high stage of
groundwater development gives an alar-
ming warning signal about the future
water problem in Punjab.
Value of O ut put
To see how the major crops of Punjab,
that is, wheat and paddy, compare with
the other agricultural items, the value of
output for the entire country (in rupees per
hectare) was calculated for 74 agricultural
crops for which the data was available
Table 4: Yield o f Major Crops in P unjab (kg/hectare)
Year Wheat Rice Tur Gram Bajra Barley Jowar Ragi Maize Small Groundnut Sesa mum Sunf lower Linseed Rapese ed Cotton Sugar C ane
Millet s and Mustar d
1966–67 1,544 1,186 647 802 815 848 448 200 1,383 250 1,071 369 500 526 302 27,949
1970–71 2,238 1,765 400 794 1,173 1,007 549 1,552 571 970 390 407 553 350 41,269
1975–76 2,373 2,552 500 986 1,040 1,265 596 1,465 1,045 339 524 639 362 53,678
1980–81 2,730 2,736 1,017 581 1,254 1,662 667 1,601 1,253 324 412 527 309 55,211
1985–86 3,531 3,179 1,093 911 871 2,197 1,585 962 401 538 1,014 426 64,744
1990–91 3,715 3,229 824 745 1,091 2,757 1,000 1,787 800 376 1,607 833 1,00 0 463 59,406
1995–96 3,884 3,132 878 892 1,000 3,132 846 1,795 889 379 1,544 1,000 1,111 442 65,303
2000– 01 4,563 3,506 874 94 8 1,000 3,406 1,000 2,79 4 1,000 396 1,155 1,000 1,208 430 64, 215
2005–06 4,179 3, 858 885 750 1,00 0 3,316 2,723 333 882 336 1,612 500 1,102 731 57,857
2010–11 4,693 3,828 929 1,286 1,000 3,667 3,692 1,773 40 4 1,664 1,323 674 59,571
2014–15 4,294 3,838 923 1,056 3,582 3,651 1,857 298 1,765 1,248 648 74,883
Table 5: Increa se in MSP for the Ti me Period* (`)
Year Paddy Wheat Gram Arhar R&M Sunf lower Groundn ut Cotton Sugar Cane Moong Urad
1975–76 to 1980–81 31 25 190 0 183 20 6 0 13 200 200
1980–81 to 1985–86 37 32 26 0 110 400 152 144 535 3.5 100 100
1985–86 to 1990–91 63 63 190 180 200 265 230 215 5.5 180 180
1990–91 to 1995–96 155 155 250 320 26 0 350 320 600 20.5 320 320
1995–96 to 2000 –01 150 230 400 400 340 220 320 475 17 4 00 400
2000– 01 to 2005–06 60 40 335 200 515 330 300 155 20 320 320
2005–0 6 to 2010–11 430 520 665 2,100 135 850 780 1020 59.62 2,150 1,8 80
2010–11 to 2014–15 360 350 1,415 2,050 1,270 1,535 1,900 1,050 90.16 1,840 1,830
* The increa se in MSP is calcu lated by subs tractin g the MSP of earli er year from the l atest year fo r the time per iod. For exam ple,
the figure of `25 for wheat f or the period 1975–76 to 1980– 81 has been arr ived at by subtr acting the M SP of wheat in
1975–76 from MSP of wheat in 1980 –81.
Source: Res erve Bank of I ndia (2016).
Table 6: Fertil iser Consump tion and NPK Rati o for Punjab and In dia
State/ Year Fertil iser Consump tion (lakh to nnes) Fertil iser Consump tion (Kg/he ctare) NPK Rati o
Countr y N P K Total N P K Total N P K
Punjab 2010–11 1,402.91 435.17 73.43 1,911.51 177.97 55.20 9.31 242.73 19 6 1
2011–12 1,416.56 448.65 52.85 1,918.06 179.70 56.91 6.70 243.56 27 8 1
2012–13 1,485.70 462.48 24.06 1,972.24 188.78 58.76 3.06 250.60 62 19 1
2013–14 1,364.02 325.23 24.02 1,713.27 174.68 41.65 3.08 219.41 57 14 1
2014–15 1,352.05 328.17 37.53 1,717.75 179.03 43.46 4.97 227.46 36 9 1
All India 2010–11 16,558.23 8, 049.71 3,514.27 28,122.21 86.15 41.88 18.28 146 .32 5 2 1
2011–12 17,300.25 7,914.30 2,575.45 27,790 88.61 4 0.54 13.19 142.33 7 3 1
2012–13 16,820.93 6,653.42 2,061.80 25,5361.15 86.15 34.08 10.56 130.79 8 3 1
2013–14 16,750.08 5,633.46 2,098.87 24,482.41 81.11 27.28 10.16 118.55 8 3 1
2014–15 16,945.43 6,098.37 2,532.32 25,576.12 84.858 30.54 12.68 128.08 7 2 1
Source: Agri cultural Sta tistics at a Gl ance (ASAG) 2013, 2014 and 2015.
PUNJAB— EXPLOR ING PROSPECTS
Economic & Political Weekly EPW january 21, 2017 vol lIi no 3 33
(data available with the author on re-
quest). The value of agricultural output
was calculated for 2011–12, 2012–13 and
2013–14 at both the constant 2011–12
prices and current prices.
When the value of output for all these
agricultural commodities was arranged
in descending order for 2013–14 (at cur-
rent prices), it was observed that the
wheat and paddy ranked 58th and 60th
(with a value of `49,918 and `45,968 per
hectare respectively) amongst the 74
items on the list. Only 14 other agricul-
tural crops, namely coriander, ajwain,
rapeseed and mustard, maize, arhar,
masoor, soyabean, cloves, gram, cocoa,
sunfl ower, sann hemp, jowar and bajra
were lower in value of output per hec-
tare than paddy and wheat.
The top 10 which provided highest
value of output per hectare include grapes
(`5,86,471 per hectare), papaya (`5,58,045
per hectare), watermelon (`44,7733 per
hectare), banana (`4,29,589 per hectare),
orange (`3,71,182 per hectare), caulifl ower
(`3,58,664 per hectare), beans (`3,44,275
per hectare), tapioca (`3,36,404 per hec-
tare), brinjal (`3,20,450 per hectare) and
dry ginger (`3,15,489 per hectare).
In spite of the fact that paddy and wheat
provide very low value of output per hec-
tare, in Punjab 81.3% of the total cropped
area is under rice and wheat.4 One of the
major reasons which keep the farmers
glued to cultivation of wheat and rice is
their assured procurement at the MSP,
which is not available for other crops.
Summary and Conclusions
With the advent of green revolution, the
area under low value rice and wheat
crops in Punjab expanded enormously.
Although these crops might have ush-
ered in economic prosperity in Punjab
for a few decades, they have now
brought in a socio-economic–ecological
crisis to the famers of Punjab and to the
state itself. Rice has double impact as it
depletes groundwater, and like wheat
also has a low value of output per hectare.
In order to improve the economic con-
dition of the farmers and save depleting
groundwater, the crops with higher val-
ue of output which are suitable for culti-
vation in Punjab must be selected and
effort must be made to expand the area
under those crops. Some of the crops
may require greater initial investment
than wheat or paddy. This requires suit-
able policy interventions. In terms of
area covered, Punjab has the highest
number of regulated markets in the
cou nt ry, however, it is not ef ciently uti-
lising these markets for crops other than
wheat and paddy. Punjab is not on board
on the electronic-National Agricultural
Market (e-NAM) and there is a need to
explore how the state can utilise e-NAM
for the benefi t of the farmers.
Notes
1 Calc ulations made by the author based on the
data available at the Directorate of Econom ics
and Statistics, Ministry of Agricult ure and
Farmers Welfare, Government of India (GoI).
Th is da ta sour ce is t he sa me fo r Table s 1 to 4.
2 T he gure for 90% is arrived at by dividing the
area under the 17 crops in 2014–15 wit h the
area under all the c rops grown in Pu njab for
year 2012–13 . The data source is Di rectorate of
Economics and Stat istics, Ministr y of Agri-
culture and Farmers Welfare, GoI and A SAG
(2015 ).
3 Calculation for percentage of total cropped
area here refers to area under all the crops
grown i n Punjab; and is based on t he data for
2012–13, ob tained from ASAG 2015.
4 The gure for 81.30% is arrived at by dividing
the area u nder wheat and rice (2014–15) with
the area under all t he crops g rown in Punjab
for 2012–13. The data source is same as men-
tioned in note 2.
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(State-wise Data)
The Economic and Political Weekly Research Foundation (EPWRF) has added state-wise
data to the existing Banking Statistics module of its online India Time Series (ITS) database.
State-wise and region-wise (north, north-east, east, central, west and south) ti me series data
are provided for deposits, credit (sanction and utilisation), credit-deposit (CD) ratio, and
number of ba nk of ces and employees.
Data on bank credit are given for a wide range of sectors and sub-sectors (occupation) such
as agricultu re, industry, transport operators, professional services, personal loans (housing,
vehicle, education, etc), trade and na nce. These state-wise data are also presented by bank
group and by population group (ru ral, sem i-urba n, urban and metropolita n).
The data series a re available f rom December 1972; half-yearly basis till June 1989 and annual
basis thereafter. These data have been sourced f rom the Reserve Ban k of India’s publication ,
Basic Statistical Returns of Scheduled Commercial Banks in India.
Including the Banking Statistics module, the EPW RF ITS has 16 modules covering a range
of macroeconomic and nancial d ata on the Indian economy. For more details, visit www.
epwr ts.in or e-mail to: its@epwrf.in
Table 7: Groundw ater Resource s Availabilit y, Utilisatio n and Stage of Devel opment in Punj ab
(as on 2011, in billion cubic meter)
State Annual Re plenishabl e Groundwa ter Resourc es Natural Net Annual G roundwate r Draft Projec ted Ground - Sta ge of
Monsoo n Season No n-monso on Season Total Discha rge Annual Irri gation Dome stic Total Demand wa ter Ground -
Recharge Recharge Recharge Recharge during Ground- and for Domestic Avail- water
from from from from Non- water Industrial and ability for Develop-
Rainfall Other Rainfall Other monsoon Avail- Uses Industrial Future ment
So urces Sour ces Season ability Uses up to Irri gation (%)
2025 Use
Punjab 5.82 10.64 1.33 4.74 22.53 2.21 20.32 34.17 0.71 34.88 0.98 -14.83 172
Source: Adap ted from CGWB (2015).
... This requires a holistic approach integrating ecological principles with agricultural practices to ensure the resilience of Punjab's agricultural systems amidst evolving challenges and opportunities. Several studies have explored crop diversification and cropping patterns in Punjab (Adhikari & Sekhon, 2014;Dhindsa & Sharma, 1995;Mann, 2017;Sajjad & Prasad, 2014;Singh et al., 2020), focusing on specific aspects or geographic areas, leaving gaps in understanding the broader context and interconnections. This study aims to fill these research gaps by providing a comprehensive understanding of changes in agricultural land use patterns, crop diversification levels, and cropping patterns in Punjab. ...
... Punjab has a semihumid to semi-arid climate in the northern region, arid in the south and southwest, and semi-arid across the remaining state. Punjab accounts for 1.53% of the country's total geographical area (Mann, 2017;Singh et al., 2020) and has roughly 81% of its land under cultivation. Punjab, which was central to the Green Revolution, spearheaded national food security efforts. ...
... These results align with previous studies (Dhindsa & Sharma, 1995;Mann, 2017;Singh et al., 2020;Environ Monit Assess (2024) 196:855 855 Page 12 of 24 ...
Article
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Agricultural transformation in Punjab, spurred by the Green Revolution of the mid-1960s, has led to significant shifts in land use patterns, crop diversification, and cropping dynamics. This transformation has profound implications for sustainability and economic resilience. This study delves into the complex relationship among agricultural growth, instability, and environmental sustainability in Punjab. It examines the growth and instability in the state’s key crops’ area, production, and yield/productivity over 56 years, from 1966–1967 to 2021–2022. Using secondary data, this study employs an assortment of methodologies, including compound annual growth rate, simple linear regression, diversity indices such as the Herfindahl index and Simpson diversity index, instability analysis, and decomposition analysis. The results indicate an increase in cropping intensity, indicating agricultural intensification, with a shift towards wheat and rice monoculture from once diverse cropping patterns. The instability analysis reveals that wheat and rice emerge as the most stable crops in their area, production, and yield, while others exhibit instability, raising concerns about diminishing crop diversity and its implications for Punjab’s natural resources. The study emphasizes the urgent necessity for sustainable agricultural practices and policies to counteract monoculture’s adverse effects and ensure long-term agricultural resilience.
... Odpowiednią interwencją polityczną jest wymóg czasu dla utrzymania dywersyfikacji upraw w państwie. Pendżab ma największą liczbę rynków regulowanych w kraju (Mann, 2017). Ponadto Banjare (2016) podkreślił, że głównymi ograniczeniami w marketingu upraw przypraw są wysokie koszty, brak zarządzania po zbiorach i wahania cen produkcji, a Sonwani i in. ...
... Suitable policy intervention is the requirement of time for sustaining crop diversification in the state. Punjab has the greatest number of regulated markets in the country (Mann, 2017). Furthermore, Banjare (2016) highlighted that the major constraints in the marketing of spice crops were high cost, lack of post-harvest management, and fluctuation in production prices, whereas Sonwani et al. (2018) argued that lack of storage facility, standardization, and grading at the grower level were the main constraints in the efficient marketing of spice crops. ...
Article
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The study aims to measure the profitability of spice crops, their marketing channels, marketing efficiency , and price spread effects. The study was based on a field survey of 320 spice farmers of Haryana state in India carried out between 2020 and 2021. The authors presented analytical purposes, compound growth rate, cost-benefit ratio, marketing channels, marketing efficiency and price spread effect. The growth of area and production of spice crops is not very strong compared to the profitability of spice crops. Cost-benefit ratio shows that spice crops are more profitable than traditional crops for farmers. However, due to high cost of cultivation, volatile prices, and fear of crop failure, area under spices cultivation is very small. Price spread effect is very high in channel I and II. The majority of farmers adopted inefficient marketing channel (low price for producer and high price for consumer) due to lack of storage facility and weak financial health. The role of government is important for protecting the rights of producers as well as consumers. Mediators' role should be minimized by government policy in the marketing of spice crops in Haryana so that farmers can charge the right price for their spice crops.
... Mann [10] conducted detailed studies regarding shifting cropping patterns in Punjab from 1966-67 to 2014-15, focusing on the dominance of the wheat-paddy crop rotation. He examined the causes and consequences particularly the decline in soil fertility and depletion of groundwater resources. ...
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This study aims to comprehensively analyze the multifaceted socioeconomic challenges faced by agricultural laborers in Punjab, India, stemming from the capitalist agrarian practices introduced during the era of the Green Revolution. It delves into employment patterns, debt burdens, and household conditions to uncover the complex realities these laborers endure. Additionally, the study seeks to fill a significant research gap, as most economists emphasize the problems faced by land-owning farmers, often overlooking the substantial issues confronting agricultural laborers who constitute a large share of the total working population. Utilizing a mixed-method approach, this research combines primary data from a comprehensive multidimensional survey with a critical review of secondary literature. The findings from this approach reveal the profound socioeconomic vulnerabilities faced by these laborers. The majority is ensnared in severe debt, grapple with unemployment, and endure substandard living conditions, with many lacking access to basic necessities such as decent housing and sanitation facilities. Due to their limited access to institutional credit facilities, agricultural laborers are forced to seek credit from non-institutional 22 sources at exorbitant interest rates. Shifting cropping patterns in favor of wheat-paddy crop rotation, seasonality of labor, and labor-saving techniques such as extensive mechanization of agriculture and the use of herbicides have resulted in shrinking employment opportunities, further aggravating their economic plight. In response, the study proposes policy recommendations including radical land reforms, strengthening the public distribution system, providing affordable loans, ensuring employment opportunities, and enhancing social welfare measures. Implementing these recommendations is crucial to addressing systemic issues and improving the socioeconomic conditions of agricultural laborers in Punjab.
... This region experiences variety of seasons ranging from a hot and dry summer (exceeding 40 � C) followed by monsoon bringing heavy rainfall from July to September. Winters in this region are very cold and dry having very low temperatures from (5-20Þ: Cropping patterns in Punjab are distributed among Rabbi, Kharif, and Zaid crops while rice wheat is its major product (Mann 2017). RW crops have 28 lakh hectares of land cover in Punjab and produce 18% of the national residue surplus. ...
Article
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Stubble burning is a conventional technique of residue management that has affected the physio-chemical properties of the soils. In soil sciences, dielectric properties of soils using radio and microwave-based remote sensing have huge applications. Thus, presented paper has studied the burning effects of stubble on soil's physical, chemical and dielectric properties (ε' and ε"). Moreover, the experimentally observed soil's dielectric data has been explored with various classical Machine Learning (ML) and Neural Network (NN) based regression models. The soil samples were taken from the fields of Punjab, India, in the October-November months following a multistage soil sampling method. Then, Dak-12 open-ended coaxial probe (DOCP) has been used in alliance with a two-port Vector Network Analyzer (VNA) E5071C, Agilent Technologies, to investigate the dielectric properties of soil samples. The obtained results indicate that physio-chemical and dielectric properties have been strongly affected by burning as well as because of the presence of high concentrations of ash residues.ε' and ε" variations with depth indicate that ash residues can seep up to depths of 10 cm in a single burning process. Moreover, the continuous burning of stubble can have permanent effects on soil's properties. Among considered regression models, the Deep NN-based regression model has given the most accurate predictions of the regressor variables ε' and ε" , with a root-mean-square-error (RMSE) of 0.06 and 0.07, respectively. Stubble burning has visible effects on physical, chemical as well as dielectric properties of soil. The burning of stubble damages natural ecosystem and essential nutrients which decrease fertility of soil. Also, the resultant residue ash becomes permanent part of soil profile and alters basic properties of soil. Moreover, exploration of ML-based regression models suggests the tremendous applications of data-centric models in soil and material sciences. KEYWORDS Stubble burning; dielectric properties; residue ash effect; DAK-12 open ended coaxial probe; Machine learning (ML); Deep neural networks (DNN)
... Good Agricultural Practices (GAP) are practices "that address Environmental, Economic, and Social Sustainability for on farm processes and result in safe and quality food and nonfood agri products" (FAO CAOG 2003 GAP Paper). Agronomic Practices followed by a farmer represent his knowledge about farming and his experience in it [6][7][8][9][10][11]. ...
Chapter
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The agricultural sector serves as the basis of the Indian economy because it directly supports 65% of the country's population. When growing crops, the farmer strives for maximum yields. A study was conducted on the agronomic practices used by 120 farmers from Hasanpur (42 farmers), Kalewal (54 farmers), and Singhpura (24 farmers) in three villages. Wheat, paddy, mustard, sugarcane, maize, berseem, cauliflower, and carrot were reported to be the major crops grown. The information that was gathered from the respondents covered the following topics: seed rate, fertilizer application, seed treatment, number of irrigations, organic manure use, major weeds infesting the fields, herbicide use, major pests attacking crops, pesticide use, major diseases infesting the fields, disease chemicals use, and yield range of crops. The study's conclusions illustrated the techniques used by farmers in the fields to ensure the best crop stand and highest yields.
... In crop production, the ultimate goal of any farmer is to get maximum yield per unit area. To obtain high yield, effective crop management practices, which are otherwise known as cultural practices, appeared to be of paramount value [1,2]. Cultural practices simply refer to all the operations carried out in the farm, right from the beginning of the farming season to the end [3]. ...
Article
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In India, Agriculture has 65% of total population directly dependent on itself making it the backbone of the Indian economy. The farmer while producing crops aims at getting maximum yields. A study on agronomic practices followed by 120 farmers from three villages viz. Hasanpur (42 farmers), Kalewal 54 farmers), Singhpura 24 farmers) was carried out. Major crops cultivated were known to be wheat, paddy, mustard, sugarcane, maize, berseem, cauliflower and carrot. The collected from the respondents included the seed rate, fertilizer dosage, seed treatment, number of irrigations provided, organic manure used, major weeds infesting the fields, herbicides used, major pest attacking crops, pesticides used, major diseases infesting the fields, disease chemicals used and yield range of crops. The findings of the study showed the practices followed by the farmers in the fields for optimum crop stand and get maximum yields.
... Diversity in indigenous agriculture was replaced with a mono-cropping pattern of cultivation based on wheat and rice cultivation. Wheat and rice cultivation now accounts for 90 per cent of the total cropped area in the state, whereas the area under all other crops has been reduced to less than 10 per cent (Mann, 2017). Wheat and rice cultivation in Punjab is primarily based on High Yielding Varieties (HYV) seeds. ...
Chapter
Human society is currently facing multipronged grand challenges whose impacts transcend national and regional boundaries. Of these, environmental degradation is an increasingly complex challenge with grave consequences for the social and economic realms of life. It is being increasingly recognised that the existing approaches to solving the environmental crisis are insufficient and piecemeal, and there is a dire need to explore new philosophical paradigms to charter a sustainable development pathway. In consonance with other major religions of the world, Sikhism is increasing taking a “green turn” through re-interpretation of scriptural sources and drawing on elements of Sikh philosophy. The field-based research documents the role of Sikh organisations in promoting ecological consciousness and creating new forms of environmental governance.
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India is second most densely country in the world having 125.08 crore of population (census 2011) and about 60% population engage in agriculture both directly or indirectly. With the improvement of technology to feed the population and growth of economy cropping pattern affect change over period of time. Changing cropping pattern shows need and desire of population and for the sake of country’s Economy. Cropping patterns in the Chandauli district of Uttar Pradesh and their changes through time are the key topics of discussion in this study (2010 to 2020). Cropping is a fluid idea that evolves throughout time. However, the study also identified the elements that influence changes in cropping patterns in the study area over time, including technological advancements, farmer rationality, educational attainment, and government intervention in the agriculture sector. The data for the study was gathered from secondary sources and taken from the Statical Handbook. Rice and wheat are the most important crops, accounting for over 90% of net seeded area from 2010 to 2020
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The common and strongly-held view in India is that balanced fertiliser use requires three major plant nutrients, namely, nitrogen, phosphorous and potassium, to be used in the ratio of 4:2:1, and any deviation in fertiliser use from this norm would constrain growth in crop productivity. This officially-accepted perception, a product of 1950s experiments, has led to wrong policies on fertilisers. Estimating actual and normative quantity of N, P and K for each state of India corresponding to the current cropping pattern, it is found that contrary to the notion that there is excess use of nitrogen in India, 12 major states were found using less than the required level. India, in fact, faces large deficits in use of P and K. It calls for curtailing the use of N in one-third of the states and raising it in the remaining two-thirds.
National Accounts Statistics, Ministry of Statistics and Programme Implementation
NAS (2016): "Disaggregated Statements," National Accounts Statistics, Ministry of Statistics and Programme Implementation, GoI. RBI (2016): Database on Indian Economy, Reserve Bank of India, HBS Table No 26 and 27.