effect of integrated nutrients management on cane yield, juice quality and soil fertility under...
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SHORT COMMUNICATION
Effect of Integrated Nutrients Management on Cane Yield, JuiceQuality and Soil Fertility Under Sugarcane Based CroppingSystem
Vijay Kumar • Mehar Chand
Received: 18 July 2012 / Accepted: 2 January 2013 / Published online: 20 January 2013
� Society for Sugar Research & Promotion 2013
Abstract Two field experiments were conducted at CCS
HAU Regional Research Station, Karnal, Haryana, India
during 2004–2007 on the plant–ratoon–plant sequence of
sugarcane crops in and during 2008–2010 on plant–ratoon
in sequence. In both the experiments, the application
of NPK fertilizer increased the cane yield of plant
(3.8–7.9 %) and ratoon crops (4.9–6.2 %) of sugarcane,
over NP treatment. Cane yields produced with the appli-
cation of farm yard manure (FYM) ? N 1/2 P, press-mud
(PM)/press-mud compost (PMC) ? N 1/2 P, FYM ? NP,
PM/PMC ? NP, green manure (GM) ? NP were at par
with application of NPK, respectively (cane yields pro-
duced with NPK were 83.0, 77.9 and 85.7 t/ha for plant–
ratoon–plant crops, respectively and 76.3 and 90.4 t/ha for
plant–ratoon crop, respectively). These treatments pro-
duced higher cane yield of plant and ratoon crop than NP
fertilizers alone. The application of FYM ? NPK or PM/
PMC ? NPK or GM ? NPK produced significantly higher
cane yield (3–5 % of plant and 5–8 % of ratoon crops) than
the application of NPK alone. In both the experiments, the
application of NPK fertilizer increased the CCS% of plant
and ratoon crops of sugarcane over NP treatment. The
application of organic manure (FYM or PM/PMC or
GM) ? N 1/2 P or NP or NPK increased the soil organic
carbon (OC%) over NPK (from 0.39 up to 0.52 % in first
experiment and 0.44 up to 0.48 % in second experiment).
The application of NPK increased the available K in the
soil over NP (from 180 up to 194 kg/ha in the first
experiment and 142 to 150 kg/ha in second experiment).
The application of organic manure (FYM or PM at 12.5 t/
ha) ? NPK substantially increased the available K in the
soil (from 180 up to 200 kg/ha in the first experiment and
142 up to 154 kg/ha in second experiment).
Keywords Inorganic fertilizers � Organic manures �Soil properties � Green manuring
Sugarcane is an exhaustive crop and depletes the soil
nutrients heavily. Continuous sugarcane cropping with the
use of only inorganic fertilizers has led to depletion of
essential available nutrients beside organic carbon in the
soil. To stop the continuous decline in soil fertility it is
important to use organic manure in combination of inor-
ganic fertilizers i.e. integrated nutrients management in
sugarcane (Kumar and Verma 2005). This will not only
improve the chemical fertility of soil but also maintain the
physical and biological health of soil. Use of organic
manure not only provide the essential nutrients but improve
the water holding capacity, aeration, exchange capacity of
soil, solubility of essential nutrients thereby increasing
their availability (Sagwal and Kumar 1998). The use of
organic manure activates the soil micro-organism which
helps in decomposition of crop residues thus maintaining
the proper C:N ratio and soil pH. The various organic
manure viz. Farm yard manure (FYM), sugar factory waste
like PM or PMC, green manuring, can be used in inte-
gration with chemical fertilizer to increase the sugarcane
production and maintain of soil fertility (Bokhtiar and
Sakurai 2005). The fresh press mud, when incorporated in
the soil may cause burning in the crop. The application of
decomposed press mud compost in combination with
inorganic fertilizers could be more beneficial. Keeping
these in view, the experiments were conducted at Regional
Research Station, Karnal (Haryana) to study the effect of
V. Kumar � M. Chand (&)
Regional Research Station, CCS Haryana Agricultural
University, Karnal 132001, India
e-mail: [email protected]
123
Sugar Tech (Apr-June 2013) 15(2):214–218
DOI 10.1007/s12355-013-0204-2
application various combination of FYM, sulphitation PM
or PMC, green manuring of Sesbania aculeata in situ with
inorganic fertilizers (NPK or NP) on cane yield of sugar-
cane and on available nutrients in the soil.
Two field experiments were conducted at CCS HAU
Regional Research Station, Karnal, Haryana, India during
2004–2007 on the plant–ratoon–plant sequence of sugar-
cane crops and during 2008–2010 on plant–ratoon in
sequence. For the first experiment the treatment consisted
of the application of NP, NPK, FYM at 12.5/t/ha ? N ? 1/
2 P, FYM ? NP, FYM ? NPK, PM at 12.5/t/ha ? N 1/2
P, PM ? NP, PM ? NPK, green manuring of S. aculeata
in situ (green manure, GM) ? NP, GM ? NPK in ran-
domized block design with four replications. The N, P, K
were applied at 150 kg N/ha, 50 kg P2O5/ha, 50 kg K2O/
ha, respectively for plant and 225 kg N/ha, 50 kg P2O5/ha,
50 kg K2O/ha for ratoon as per treatments. The application
of inorganic fertilizer NPK is recommended practice for
both plant and ratoon crops of sugarcane grown in Haryana
state. The sugarcane was planted in spring season in month
of March and the ratoon crop was initiated in the month of
February in both the years. The top 15 cm of soil of
experiment site was clay loam in texture and had pH (1:2)
8.9, electrical conductivity 0.40 dS/m, organic carbon
0.39 %, available P (Olsen) 7 kg/ha, available K 180 kg/
ha. Second experiment consisted of the treatments
i.e. the application of NP, NPK, FYM ? N 1/2 P,
FYM ? NP, FYM ? NPK, PMC ? N 1/2 P, PMC ? NP,
PMC ? NPK, GM ? NP, GM ? NPK. The top 15 cm
of soil of this experiment site was clay loam in texture
and had pH (1:2) 8.6, electrical conductivity 0.30 dS/m,
organic carbon 0.44 %, available P (Olsen) 7 kg/ha,
available K 142 kg/ha. Cane yield (t/ha) for plant and
ratoon crops were recorded at the harvest. For juice quality
analysis of both plant and ratoon crops at the harvest, ten
canes stalk per plot were randomly collected, weighed and
passed through a three roller sample mill for juice extrac-
tion. The crusher juice was analysed for brix (soluble solid)
by brix hydrometer. After clarifying the juice with lead
sub-acetate, the sucrose concentration was determined by
polarimeter. The percentage of sucrose and commercial
cane sugar (CCS%) in juice were determined by the
methods of Meade and Chen (1977). Sugar yield was cal-
culated by multiplying CCS% with cane yield. The
response of different organic manure ? inorganic fertiliz-
ers on the cane yield and CCS (%) of both plant and ratoon
crops were determined by the ANOVA and LSD (P \ 0.5).
The soil samples 0–15 cm were collected at grand growth
stage (September) every year and were analysed for vari-
ous physico-chemical properties (Van Reeuwijk 1987).
In both the experiments the application of NPK fertilizer
increased the cane yield of both plant (3.8–7.9 %) and
ratoon crop (4.9–6.2 %) of sugarcane, over NP treatment
(Table 1). For the first experiment cane yields produced
with the application of FYM ? N 1/2 P, PM ? N 1/2 P,
FYM ? NP, PM ? NP, GM ? NP, were at par with the
cane yields produced with application of NPK (cane yields
produced with NPK were 83.0, 77.9 and 85.73 t/ha for
plant–ratoon–plant crops, respectively and 76.3 and 90.4 t/
ha for plant–ratoon crop, respectively) and these treatments
produced higher cane yield of plant crop and ratoon crop
than NP fertilizers. Similarly cane yields produced with the
application of FYM ? N 1/2 P, PM/PMC ? N 1/2 P,
FYM ? NP, PM/PMC ? NP, GM ? NP were at par with
the cane yields produced with application of NPK (cane
yields of 76.3 and 90.4 t/ha for ratoon crop, respectively)
and these treatments produced higher cane yield of plant
crop and ratoon crop than NP fertilizers. This indicate that
the application of organic manure FYM and press-mud can
compensates the application of half dose of P and full dose
of K to achieve the similar cane yield as produced by the
recommended dose of inorganic fertilizer NPK. In both
the experiments, the application of FYM ? NPK, PM/
PMC ? NPK, GM ? NPK produced significantly higher
than the application of NPK. These treatments produced
3–5 % higher cane yield of plant and 5–8 % of ratoon
crops respectively over NPK fertilizes alone. Jeyaraman
and Alagudurai (2003) conducted the experiment at Sug-
arcane Research Station, Sirugamani, Tamil Nadu to study
the nitrogen and phosphorous management in sugarcane
with GM as intercrop and phosphobacteria incorporation.
They found that the application of 275–62.5–112.5 kg of
N, P2O5 and K2O/ha with daincha as intercrop and incor-
poration on 60 days after sowing along with soil applica-
tion of phosphobacteria at the time of planting of setts
recorded the highest tiller production of 163,680, millable
cane of 133,667, brix 22.1 %, pol 18.2 %, purity 88.9 %,
CCS 12.7 %, cane yield and sugar yield of 196 and 24.8 t/
ha respectively. This was comparable with application of
275–62.5–112.5 kg of N, P2O5 and K2O/ha along with
daincha as intercrop. The data showed that there was a
saving of 25 % nitrogen when intercropped with daincha
and in situ incorporation on 60 days after sowing in sug-
arcane. Gana (2008) conducted field trials in Nigeria to
evaluate the effect of organic fertiliser on chewing sugar-
cane production. The results showed the best sugarcane
growth and yield (t/ha) were obtained from the plots
incorporated with cow-dung at 10 t/ha and also supple-
mented with in-organic fertilizer at 120N-60P2O5–
90K2O kg/ha. Paul et al. (2001) conducted a field experi-
ment with integrated nutrient management by organic and
inorganic fertilizers on sugarcane ratoon at Regional
Sugarcane Research Station farm under Old Himalayan
Piedmont Plain of Bangladesh. It was comprised of nine
treatments including organic manure and Rice mill ash and
press-mud integrated with inorganic fertilizers. Results
Sugar Tech (Apr-June 2013) 15(2):214–218 215
123
revealed that all the treatments with organic and inorganic
fertilizers significantly produced higher ratoon cane
yield over recommended fertilizers and control. The
treatment having combinations of 50 % recommended
N120P35K100S25Zn2 kg/ha with press mud at 20 t/ha and
rice mill ash at 10 t/ha showed the highest net economic
benefit and better apparent nutrient balance in soil.
The application of NPK fertilizer significantly increased
the juice quality i.e. commercial cane sugar (CCS%) of
both plant crop and sugarcane ratoon, over NP treatment
(Table 2). With application of NP only the CCS% of plant
and ratton crops ranged from 11.51 to 11.87 % in first
experiment and 12.14 to 12.32 % whereas for NPK treat-
ment, the CCS% ranged from 12.04 to 12.36 % in first
experiment and 12.45 to 12.82 % in second experiment.
The application of FYM ? NPK, PM/PMC ? NPK and
GM ? NPK produced CCS% of plant and ratoon crops at
par with NPK fertilizes. However the application of
FYM ? N 1/2 P or PM/PMC ? N 1/2 P produced lower
juice quality (CCS%) of plant and ratoon crop than the
application of NPK fertilizers. Similarly the application of
FYM ? NP or PM/PMC ? NP produced lower juice
quality (CCS%) or at par juice quality (CCS%) of plant
and ratoon crop than the application of NPK fertilizers
(Tables 1, 2).
The application of NPK fertilizer significantly increased
the sugar yield of both plant crop and sugarcane ratoon,
over NP treatment (Tables 1, 2). The application of
Table 1 Effect of inorganic fertilizers and organic manure on cane yield, CCS% and sugar yield of sugarcane
Treatments Cane yield (t/ha) CCS% Sugar yield (q/ha)
Plant
04–05
Ratoon
05–06
Plant
06–07
Plant
04–05
Ratoon
05–06
Plant
06–07
Plant
04–05
Ratoon
05–06
Plant
06–07
NP 80.0 73.34 80.50 11.87 11.51 11.84 95.0 84.4 95.3
NPK 83.0 77.91 85.73 12.04 12.09 12.36 99.9 94.2 105.6
FYM ? N 1/2 P 83.5 76.84 83.64 11.71 11.54 11.87 97.8 88.7 99.3
FYM ? NP 83.9 78.20 84.84 11.85 11.79 12.05 99.4 92.2 102.2
FYM ? NPK 85.4 82.96 89.59 12.14 12.15 12.39 103.7 100.8 110.
PM ? 1/2 P 84.0 76.93 82.97 11.80 11.54 12.04 99.1 88.7 99.9
PM ? NP 84.3 78.30 83.88 11.89 11.79 12.13 100.2 92.3 101.7
PM ? NPK 86.2 82.00 88.18 12.18 12.14 12.36 105.0 99.5 109.0
GM ? NP 84.0 77.02 86.01 11.84 11.65 12.30 99.5 89.7 105.7
GM ? NPK 86.4 81.50 87.85 12.13 12.13 12.31 104.8 98.9 108.4
CD at 5 % 2.08 2.03 3.15 0.13 0.17 0.291 2.73 2.55 4.34
Table 2 Effect of inorganic fertilizers and organic manure on cane yield CCS% and sugar yield of sugarcane
Treatments Cane yield (t/ha) CCS% Sugar yield (q/ha)
Plant
08–09
Ratoon
09–10
Plant
08–09
Ratoon
09–10
Plant
08–09
Ratoon
09–10
NP 70.77 86.6 12.32 12.14 87.2 105.1
NPK 76.34 90.4 12.82 12.45 97.9 112.5
FYM ? N 1/2 P 74.47 90.3 12.56 12.41 93.5 109.6
FYM ? NP 76.23 92.5 12.80 12.44 97.6 113.0
FYM ? NPK 80.50 96.2 13.24 12.78 106.6 122.9
PMC ? 1/2 P 74.48 90.2 12.61 12.46 93.9 109.7
PMC ? NP 75.05 91.4 12.73 12.49 95.5 111.4
PMC ? NPK 79.87 96.5 13.22 12.72 105.6 122.7
GM ? NP 75.23 90.3 12.83 12.48 96.5 110.7
GM ? NPK 79.00 98.0 13.13 12.76 103.7 125.0
CD at 5 % 2.511 3.50 0.208 0.210 3.50 4.73
FYM at 12.5 t/ha
PM press-mud (12.5 t/ha), GM green manuring of daincha in situ
216 Sugar Tech (Apr-June 2013) 15(2):214–218
123
FYM ? NPK, or PM/PMC ? NPK or GM ? NPK pro-
duced significantly higher sugar yield of plant and ratoon
crops as compared to NPK fertilizes. However with the
application of FYM N 1/2 P or PM/PMC N 1/2 P produced
lower sugar yield of plant and ratoon crop than the appli-
cation of NPK fertilizers. The application of FYM and PM/
PMC with full NP produced lower sugar yield or at par
sugar yield of plant and ratoon crop than the application of
NPK fertilizers. Bokhtiar and Sakurai (2005) conducted
experiment to study the effects of integrated nutrient
management on plant crop and successive first and second
ratoon crops of sugarcane in Bangladesh. The organic
materials included press mud, farmyard manure (FYM),
and GM of Sunhemp (Crotalaria juncea). The result of the
study revealed that 25 % reduction of inorganic fertilizer
with FYM or press mud at 15 t/ha in plant cane and
addition of 50 % more N with same amount of fertilizer
suggested for plant cane showed better yield and improved
juice quality in first and second ratoon crops of sugarcane.
The application of organic manure (FYM or PM/PMC
or green manuring in situ) ? N 1/2 P or NP or NPK
increased the soil OC% over NPK (from 0.39 up to 0.52 %
in first experiment and 0.44 up to 0.48 % in second
experiment). (Tables 3 and 4). The application of organic
Table 3 Effect of inorganic fertilizers and organic manure on organic carbon, available P and K in soil
Treatments Organic carbon (%) Available P (kg/ha) Available K (kg/ha)
Plant
04–05
Ratoon
05–06
Plant
06–07
Plant
04–05
Ratoon
05–06
Plant
06–07
Plant
04–05
Ratoon
05–06
Plant
06–07
NP 0.39 0.39 0.39 7 7 7 180 180 180
NPK 0.39 0.39 0.38 8 8 8 190 190 194
FYM ? N 1/2 P 0.46 0.48 0.50 7 6 5 186 186 188
FYM ? NP 0.47 0.48 0.50 8 8 8 188 188 188
FYM ? NPK 0.46 0.49 0.52 8 8 8 192 196 198
PM ? 1/2 P 0.45 0.47 0.50 7 6 5 188 188 191
PM ? NP 0.46 0.48 0.51 8 8 8 190 190 192
PM ? NPK 0.46 0.47 0.50 9 8 8 195 198 200
GM ? NP 0.44 0.46 0.48 7 7 7 182 182 184
GM ? NPK 0.46 0.47 0.48 7 7 7 190 192 194
CD at 5 % 0.04 0.04 0.03 NS NS 1.5 5.5 4.1 4.7
FYM at 2.5 t/ha
PM press-mud (12.5 t/ha), GM green manuring of daincha in situ
Table 4 Effect of inorganic fertilizers and organic manure on organic carbon, available K in soil
Treatments Organic carbon (%) Available P (kg/ha) Available K (kg/ha)
Plant
08–09
Ratoon
09–10
Plant
08–09
Ratoon
09–10
Plant
08–09
Ratoon
09–10
NP 0.44 0.44 7 7 142 142
NPK 0.44 0.44 7 7 150 152
FYM ? N 1/2 P 0.47 0.48 6 7 142 141
FYM ? NP 0.47 0.48 7 8 142 142
FYM ? NPK 0.47 0.48 7 7 148 150
PMC ? 1/2 P 0.45 0.46 6 6 142 144
PMC ? NP 0.46 0.47 7 7 142 144
PMC ? NPK 0.47 0.48 7 8 152 154
GM ? NP 0.45 0.46 7 7 142 142
GM ? NPK 0.46 0.46 7 7 150 152
CD at 5 % 0.02 0.03 NS NS 2.7 1.8
FYM at 12.5 t/ha
PMC press-mud compost (5 t/ha), GM green manuring of daincha in situ
Sugar Tech (Apr-June 2013) 15(2):214–218 217
123
manure (FYM or PM/PMC) ? N 1/2 P decrease the
available P (from 7 up to 5 kg/ha) in 2006–2007. However
the application of these organic manure (FYM or press-
mud) ? NP or NPK usually did not affected available P.
The application of NPK increased the available K in the
soil over recommended NP (from 180 up to 194 kg/ha in
the first experiment and 142 up to 152 kg/ha in second
experiment). The application of organic manure (FYM or
PM/PMC) ? N 1/2 P or NP increased the available K
(from 180 up to 192 kg/ha in the first experiment and 142
up to 144 kg/ha in second experiment) over NP alone. The
application of organic manure (FYM or PM/PMC) ? NPK
increased substantial available K in the soil (from 180 up to
200 kg/ha in the first experiment and from 142 up to
154 kg/ha in second experiment) over NP alone. Bokhtiar
and Sakurai (2005) studied the effect of application of
inorganic and organic fertilizers (FYM, press-mud and
GM) in sugarcane and reported that the organic carbon,
total N, and available P, K and S contents of soils increased
slightly due to incorporation of organic materials. Chandra
et al. (2008) at Pantnagar, India studied the effect of trash
burning ? S. aculeata GM incorporation, trash removal
and trash burning on plant and ratoon crops of sugarcane
and wheat. Soil organic C and available N after ratoon and
wheat crops were highest with trash removal ? GM
incorporation and available P and K with trash remo-
val ? GM mulch. The different treatments of trash and
GM management were also superior to trash removal and
trash burning in organic C and available N and P in soil at
termination of the study.
The application of FYM ? N 1/2 P or PM/PMC ? N
1/2 P produced at par cane yield of plant and ratoon crop to
NPK fertilizers. This indicates that with the application of
organic manure FYM or PM/PMC ? half dose of phos-
phorus (25 kg P2O5/ha) and full N, we can achieve the
similar yield as with recommended dose of NPK fertilizer.
However the application of FYM ? N 1/2 P or PM/
PMC ? N 1/2 P produced lower juice quality (CCS%) of
plant and ratoon crop than the application of NPK fertil-
izers. Similarly the application of FYM ? NP or PM/
PMC ? NP produced at par cane yield and at par juice
quality (CCS%) or lower juice quality (CCS%) of plant and
ratoon crop than the application of NPK fertilizers. The
application of FYM ? NPK, or PM/PMC ? NPK or
GM ? NPK produced significantly higher cane and at par
juice quality of plant and ratoon crops as compared to NPK
fertilizes. Therefore to achieve still higher cane yield and
the similar juice quality as compare to recommended NPK,
the application of organic manure (FYM or PM/PMC or
GM of S. aculeata) ? full dose of NPK is required. Results
showed that the integrated use of organic manure and
inorganic fertilizers improves the soil fertility in term of
organic carbon and available K in soil. The result showed
the paramount importance of organic manure inclusion in
fertilizer practices of sugarcane.
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