Sulphur Levels on Nutrient Uptake and Yield of Sesame Varieties and Nutrient Availability
K. Omar Hattab,
A field experiment was conducted in sandy clay loam soils to study the influence of sulphur on yield of sesame and nutrient uptake and available nutrient status at different growth stages of the crop during summer season of 2005 in Randomized Block Design (FRBD) with three replications. Three sesame varieties (TMV 4, TMV 6 and KS 95010) were tested with five levels of sulphur (S0: 0, S15: 15, S30: 30, S45: 45 and S60: 60 kg S ha-1). The available sulphur (S) was found to be higher at higher levels of S because of treatmental variation but the available nitrogen (N), phosphorus (P) and potassium (K) status in soil was decreasing with increased levels of S due to enhanced crop growth and development. The maximum S uptake was at 60 kg S ha-1 and N uptake was at 60 kg S ha-1 because increased S uptake accelerated increased N utilization. Maximum P uptake was with 45 kg S ha-1 due to the positive interaction i.e., S application might have been increased P availability in soil by reducing the soil pH. The K uptake was higher with 60 kg S ha-1 to KS 95010. Application 60 and 45 kg S ha-1 recorded higher seed yield and KS 95010 was significantly superior over varieties. The highest seed yield was obtained from KS 95010 with the application of 60 kg S ha-1. The physical optimal rate was 47.27 kg S ha-1 and the economic optimal rate was 46.09 kg S ha-1. The highest levels of S increased crop uptake and resulted in better seed yield. The results revealed that 60 kg S ha-1 increased the nutrient uptake and yield of sesame and maintain the soil available nutrient status and the optimum level of S can be fixed as 48 kg ha-1.
Oilseeds are important constituent in human dietary system next to carbohydrate
and protein, (Pal and Gangwar, 2004). Among the oilseeds crops, sesame has the
highest oil content of 46-64% (Goel and Sanjayakumar, 1994). Sulphur (S) plays
a vital role in chlorophyll formation (Singh et al., 2000) and constituent
of a number of organic compounds (Shamina and Imamul, 2003); oil storage organs
particularly oil glands (Jaggi et al., 2000) and vitamin B1
(Thirumalaisamy et al., 2001). Sulphur increases cold resistance and
drought hardiness (Patel and Shelke, 1995). Sulphur requirement of sesame is
equal to that of phosphorus (Scherer, 2001). The response of sesame to S for
producing higher yield ranges between 40 kg ha-1 (Nagwani et al.,
2001; Kathiresan, 2002) and 50 kg ha-1 (Sarkar and Panik, 2002).
As the intensity of cropping is gradually increasing, the response of oilseeds
to sulphur is also increasing (Ghosh et al., 2002). Use of high analysis
S free fertilizers, heavy S removal by the crops under intensive cultivation
and neglect of S replenishment contributed to widespread S deficiencies in arable
soils. Hence this study was attempted to study the importance of S in realizing
the better nutrient uptake and yield in sesame crop and available nutrient status
of the soil at different stages of crop growth.
MATERIALS AND METHODS
Experimental Site, Design and Treatment Details
The experiment was conducted in a sandy clay loam soil of Pandit Jawaharlal
Nehru College of Agriculture and Research Institute, Karaikal, Union Territory
of Pondicherry, India during the year 2004-2005. The experimental site is situated
12 km from Bay of Bengal, lies between 10° 49' and 11° 01 North
latitude and 78° 43 and 79° 52 East longitude with an altitude
of 4 m above Mean Sea Level (MSL). The initial soil analyses show that the soil
was sandy clay loam in texture falls in Fluventic haplustept taxonomic
class. The soil was optimum in bulk density (1.25 M g-3) and particle
density (2.20 M gm-3) with the porosity of 43.18%. The soil reaction
was neutral (pH: 7.61) and the Electrical Conductivity was low (0.35 dS m-1).
The soil was low in available nitrogen (KMnO4-N: 146 kg ha-1)
and available potassium (NH4OAc-K: 145 kg ha-1), medium
in available phosphorous (Olsen-P: 12.6 kg ha-1) and high in organic
carbon content (0.88%). The sulphur content was 16.9 kg ha-1.
The experiment was conducted during summer season 2005 in Randomized Block
Design (RBD) with three replications. Three sesame varieties (TMV 4, TMV 6 and
KS 95010) were tested to five levels of sulphur (S0: 0, S15:
15, S30: 30, S45: 45 and S60: 60 kg S ha-1)
(Table 1). The sulphur (S) was supplied through gypsum as
per the treatments to the corresponding plots. The nitrogen (N) was supplied
through di-ammonium phosphate (at the rate of 35 kg N ha-1) in three
splits half at basal and remaining half in two equal splits at vegetative stage
(VS) and at flower initiation stage (FI); phosphorous (P) (at the rate of 23
kg P2O5 ha-1) was supplied through Di-Ammonium
Phosphate as basal; potassium (K) (at the rate of 23 kg K2O ha-1)
through muriate of potash as basal. Thinning was done twice at 15 and 30 days
after sowing. The Dry Matter Production (DMP) was recorded at VS, FI and Harvest
Stage (HS). The N, P, K and S content in plant was analyzed and recorded at
VS and FI and by seeds and stover. Multiplying the DMP with nutrient content,
the nutrient uptakes were calculated. The soil available N, P, K and S were
analyzed at VS, FI and post harvest stage (PH). The crop was harvested separately
from the plots, harvested and winnowed and grain yield was recorded. The observations
collected from the experiment and the data on the results of analysis of plant
samples were subjected to statistical scrutiny as per the procedure of Gomez
and Gomez (1984).
|| Sulphur application on seed and stover yield sesame varieties
|ns: non significant
RESULTS AND DISCUSSION
Effect of Sulphur on Available S, N, P and K at Different Stages of Growth
Available Sulphur at Different Stages
The soil available S status was significantly influenced by S levels at
VS, FI and PH. Soil available S was higher at 60 kg S ha-1. This
could be quite possible that higher the supply of S keeps higher availability
in soil. The lowest value for soil available S was observed under S control
plot, where the S was not supplemented (Table 2). Increased
supply of any nutrient increases availability and it was reported for N by Prabhu
Available N, P and K
Though the application of S might increased the N, P and K availability
as synergistic, the available N, P and K recorded in soil at higher levels of
S decreased due to uptake by the crop. As such, application of S increased the
growth and yield and nutrient uptake of crop. This probably resulted in low
available N, P and K at all stages of crop growth with higher doses of S (Table
2 and 3). The available N, P and K decreased with advancement
of growth stages of sesame. Any crop with advancement of growth results in more
biomass and more accumulation of nutrients in plants and decreased the available
status in soil. Therefore, increased S application up to 60 kg S ha-1
decreased the available N, P and K at VS, FI and PH. Of course, the higher available
N, P and K were recorded with S control. Among the varieties compared, in PH
stage, the lowest available N, P and K was registered with KS 95010 due to its
higher absorption for the higher biomass. A marked reduction of available K
associated with higher S levels of 45 kg S ha-1 at all the stages.
|| Sulphur application on Available S and N at different stages
|ns: non significant
|| Sulphur application on Available P and K at different stages
|ns: non significant
This type of result and positive interaction is quite normal and is in accordance
with the theoretical background explained by Ravichandran et al. (2003)
in sesame; Pasricha (1987) in toria; Rathee and Chahal (1977) in groundnut.
Effect of Sulphur on S, N, P and K Uptake at Different Stages of Growth:
Sulphur uptake was significantly influenced by the increased S application.
Among the S levels, 60 kg ha-1 recorded maximum S uptake. The same
was reported by Tandon (1990). Application of 60 kg S ha-1 to KS
95010 recorded higher S uptake at VS, FI and by stover in HS, whereas application
of 60 kg S ha-1 to TMV4 recorded higher S uptake in seeds. This showed
the behaviour of varieties at different environment and their genetic characters.
The amount of S absorbed was large due to the highest tissue S concentration
The higher N uptake was recorded with the application of 60 kg S ha-1
at all the stages and by seeds and stover (Table 4). The interaction
between the N and S was synergistic and hence application of S increases the
concentration and uptake of nitrogen and vice versa (Kumar et al., 2002).
Sulphur increases the chlorophyll content of leaf, which has nitrogen as a constituent
and thus increased nitrogen concentration in plants (Aulakh and Pasricha, 1988).
Sulphur ensures better root and shoot growth and thus increase absorption of
N, P and S from soil (Shivran, 2001). Among the varieties, KS 95010 recorded
higher N uptake at all the stages due to higher DMP especially at 60 kg S ha-1.
|| Sulphur application on S and N uptake at different stages
|ns: non Sifnificant
|| Sulphur application on P and K uptake at different stages
|ns: non Significant
With 45 kg S ha-1 the P uptake at VS, FI and HS was higher (Table
5). The main reason would be, the high level of S increased the availability
of P in soil by reducing pH due to the formation of sulphuric acid (Marok and
Dev, 1980). The same was reported by Gangawar and Parameshwaran (1976) in sunflower;
Rauth and Ali (1985) in rapeseed mustard; Shinde (1988) in sorghum; Singh and
Ram (1989) in chickpea and Ravichandran et al. (2003) in sesame.
Sulphur increased the K uptake. The beneficial influence might be due to
better root establishment, crop growth and thereby total DMP. The K uptake was
higher in stover than seeds (Table 5). Application of 60 kg
S ha-1 to KS 95010 recorded higher K uptake at VS, FI and stover
in HS, whereas the K uptake by seeds was recorded differently higher with 45
kg ha-1 in TMV 6 and TMV 4 for KS 95010 with 60 kg S ha-1.
This kind of positive interaction between S and K in mustard (Chandal and Virmani,
1983) and groundnut (Sarkar and Panick, 2002) were observed.
Seed and Stover Yield
The effect due to S levels, varieties and their interactions was seen very
conspicuously in realizing the seed yield (Table 1). Among
the different S levels compared 45 and 60 kg S ha-1 recorded the
highest seed yield of 601 and 587 kg ha-1, respectively. With respect
to the varieties, the highest seed yield (548 kg ha¯1) was recorded in
KS 95010 with, followed by TMV 6 and TMV 4 Application of 60 kg S ha-1
to KS 95010 produced highest seed yield of 617 kg ha-1 but it was
comparable with the yield of TMV 6 (610 kg ha-1) with 45 kg S ha-1.
Supply of S in addition to N, P and K might act as a lifting factor behind the
increased seed yield. Application of sulphur resulted in improved growth and
yield parameters and therefore, finally increased the seed yield. These findings
are in accordance with the earlier reports of Devakumar and Giri (1998) and
Tiwari et al. (2000). The lowest yield recorded under control treatment
might be due to the limited availability of nutrient in soil and uptake of nutrient
by the crop, which ultimately reflected on these results. This finds support
from the study of Singh et al. (1997) and Ansari et al. (1998).
The interaction of S with varieties revealed that, application 60 kg S ha-1
performed better in KS 95010 (617 kg ha-1) which was followed by
TMV 6 and TMV 4 respectively at 45 kg S ha-1 and the lower yields
in the variety of TMV 4 at different levels of S are ascribed due to their intrinsic
characters and growth potential (Govindarasu et al., 1998). The stover
yield was highest with the application of 60 kg S ha-1 and among
the varieties KS95010 recorded highest stover yield.
The Response Function and Optimization of Sulphur
Response function between levels of S and seed yield of varieties were characterized
by quadratic relationship. The results indicated that the physical optimal rate
was 41.25 kg S ha-1 for TMV 4, 48.74 kg S ha-1 for TMV
6 and 56.25 kg S ha-1 for KS95010 and as a whole 47.27 kg S ha-1
for sesame. The economic optimal rate was 40.32 kg S ha-1 for TMV
4, 47.39 kg S ha-1 for TMV 6, 54.66 kg S ha-1 for KS95010
and as a whole 46.09 kg S ha-1 for sesame. From this investigation,
the optimum level of S can be fixed as 48 kg ha-1 for irrigated sesame.
The available S was found to be higher at higher levels of S but available N, P and K status in soil was decreasing with increased levels of S due to enhanced crop growth and development of the crop with increased S levels. The S maximum N, K and S uptake was recorded at 60 kg S ha-1. The higher N uptake because of increased S uptake accelerated the nitrate and nitrogen metabolism in plants. Maximum uptake of P at VS, FI and HS was recorded with 45 kg S ha-1 due to the positive interaction between P and S up to this level. The main reason would be high level of S application might increase P availability by reducing soil pH. Application of 60 and 45 kg S ha-1 recorded higher seed yield and KS 95010 was significantly superior to other varieties. The highest seed yield was obtained from KS 95010 with the application of 60 kg S ha-1. The physical optimal rate was 47.27 kg S ha-1 and the economic optimal rate was 46.09 kg S ha-1. The highest levels of S increased crop performance and yielded better seed yield. From this investigation, the optimum level of S can be fixed as 48 kg ha-1 for sesame and KS 951010 will be the more suitable varieties.
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