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Research Article

Legume Research, volume 44 issue 9 (september 2021) : 1038-1045

​Effect of Irrigation Regimes and Phosphorus Fertilization on Water-use Efficiency, Phosphorus-agronomic Efficiency and Yield of Grass Pea (Lathyrus sativus L.) Ecotypes

A.R. Bahramnejad1,*, H. Heidari Sharif Abad2, H. Madani3
1Department of Agriculture, Islamic Azad University Giroft, Iran.
2Islamic Azad University, Arak, Iran.
3Science and Research University, Tehran, Iran.

  • Submitted10-12-2020|

  • Accepted19-04-2021|

  • First Online 05-08-2021|

  • doi 10.18805/LR-604

Cite article:- Bahramnejad A.R., Abad Sharif Heidari H., Madani H. (2021). ​Effect of Irrigation Regimes and Phosphorus Fertilization on Water-use Efficiency, Phosphorus-agronomic Efficiency and Yield of Grass Pea (Lathyrus sativus L.) Ecotypes . Legume Research. 44(9): 1038-1045. doi: 10.18805/LR-604.

ABSTRACT

Background: Grass pea (Lathyrus sativus L.) is a crop of immense economic significance. It is one of the most resilient to climate changes and to be survival food during drought-triggered famines.

Methods: In a field study split factorial experiment based on a randomized complete block design with 3 replications were used, effects of irrigation regimes (50, 75 and 100% evaporation of Pan class A) and different rates of phosphorous fertilizer (triple superphosphate 0, 60 and 120 kg/ha) on growth and yield of two grass pea ecotypes (Lalehzar and Sharekord) in Lalezar area (Kerman province, Iran) was carried out during 2018 and 2019.

Result: The results showed that drought stress reduced grass pea seed yield (401 kg/ha-1) and biological yield (863 kg/ha-1) and this reduction was depended on the severity of stress. In the other side, application of phosphorous fertilizer (60 kg/ha-1) increased grass pea yield (2401 kg/ha-1). This means that phosphorus fertilizer could partiaiiy offset the effect of drought stress and had a significant effect on the water use efficiency and phosphorus agronomic efficiency. Finally, drought stress, either no-application phosphorus fertilizer, could decrease yield. Overally, Shahrekord ecotype showed the higher and most desirable grain yield (2401 kg/ha-1), biological yield (5612 kg/ha-1), grain water use efficiency and biological water use efficiency, respectively, with (0.74 and 1.72 m3 water/ha-1) and phosphorus agronomic efficiency (18.76 kg yield/kg P) to the applied treatments (75% irrigation+ triple superphosphate fertilizer 60 kg/ha).

INTRODUCTION

Grass pea (Lathyrus sativus L.) is an annual plant of the leguminoseae, dicotyledonous, autumn and spring that grows well in adverse condition. This plant can be grown in most climatic conditions as rainfed and irrigated and can be grown anywhere  in Iran.
       
Regards the following properties, Lathyrus sativus L. is considered as an important agricultural product a grain plant whose aerial parts are used as forage,high amount of protein, high amount of dry matter production in a short time, high rate of growth,high ability of competition and prepotency against the weeds,its effect on soil improvement and its high level of tolerance toward the harsh environmental conditions such as drought, flood stress, salinity, low soil fertility and resistance to pests and plant diseases are the significant properties of this plant that have caused its production and cultivation economically viable and cost effective (Boukecha et al., 2018; Campell, 1997 ). Other studies have shown that the type of drought tolerance of this plant can be useful for drought resistance studies in te other plants  (Choudhary et al., 2016).
       
Water defict is one of the most important factors that not only affect plants growth and deveopment but also limit productivity (Boyer, 1982; Choudhary and Suri, 2014). In agronomy, the economic effeciency of irrigation is important, To evaluated this effeciency, a concept called water use effeciency is used. According to the definition, the ratio of crop yield to the amount of water that enters the field is called water use effeciency (Esmaeilan, 2017). Rastegari et al., (2015), in their field research to determine the effect of different levels of irrigation on the legume or forage traits of this plant reported that irrigation levels had no significant effect on grain weight and relative stability in biomass production by doubling the irrigation level, from 40 to 80 mm of water evaporation, indicates the high tolerance of this plant to drought.
       
The legumes that have not received the required phosphorus do not have a very satisfactory growth and the importance of phosphorus in accelerating the time of seed ripening and increasing the plant tolerance to drought at the end of the season, which usually coincides with seed formation, has also been proven. Also phosphorus is necessary for root development and seed formation; and in addition, in severe dehydration or water shortage conditions, the release of phosphorus in the soil will be prolonged, which has a reduced effect on the uptake of phosphorus by the plant; however, phosphorus is effective in increasing and producing a number of vitamins and proteins and Nowadays, crop efficiency index or efficiency of phosphorus consumption/uptake has been proposed as a practical index to evaluate the efficiency of consumption of this element for the production of the crops per unit of phosphorus consumed and becomes as a key indicator in the management of phosphorus fertilizers in crop production (Heydari Sharif Abad, 2019). Alizadeh et al., (2014) reported critical role of phosphorus fertilizers on growth and yield of grass pea.The agronomic efficiency of applied phosphorus in different treatments was expressed in term of  phosphorus response ratio (Yadav et al., 2017). In Fanaei et al., (2014) experiment, the effect of different amounts of phosphorus fertilizer on grain yield, oil and some agronomic traits of Brassica junceae L. under drought stress was investigated and was reported that the effect of drought stress and consumption of phosphorus was significant on grain yield; as well, increasing the phosphorus consumption increases the grain yield, but among fertilizer treatments, the highest grain yield belonged to 150 kg treatment of triple superphosphate per hectare, which was 35% higher than the other non-phosphorus treatments. The consumption or usage of phosphorus from 150 kg to 200 kg caused a decrease of yield. Therefore, the purpose of this study was to investigate the agronomic characteristics of Lathyrus sativus L. and compare the efficiency of water use and phosphorus in two native ecotypes of Lathyrus sativus L. of Shahrekordi and Lalehzar under different irrigation plans and in cold mountainous climates of Lalehzar region of Kerman province, which is one the most important centers of Lathyrus sativus L. production in Iran.

MATERIALS AND METHODS

Descripton of study area
 
Field studies were conducted on grass pea two ecotypes (Lalehzar and Sharekord) cropping system during 2018-2019 in Lalehzar town (Kreman provice, Iran). The Lalehzar is located along one of Iran’s tallest mountains (Lalehzar Shah Mountains) at an altitude of over 4300 meters and has a hilltop position. The climate of the experimental area is characterized as cold and mountanous with cool summers (April to August) and very cold winters (October to March) and with (29° 29' N latitude and 56° 42'E longitude, 3000 m above mean sea level). Average annual rainfull 213.6mm and the highest maximum temperature +32°C and the lowest minimum temperature is -21°C. Physico-chemical properties of experimental soil and Chemical properties of the irrigation water before initiation of field experimentation (Table 1 and 2). Mean temperature, rainfall and evaporation at experimental site (Lalehzar, Kerman) during 2018 and 2019 (March to August) (Fig 1 and 2).
 

Table 1: Physico-chemical properties of experimental soil before initiation of field experimentation.


 

Table 2: Chemical properties of the irrigation water.


 

Fig 1: Mean temperature, rainfall and evaporation at experimental site (Lalehzar, Kerman) during 2018 (March to August).


 

Fig 2: Mean temperature, rainfall and evaporation at experimental site (Lalehzar, Kerman) during 2019 (March to August).


 
Experimental treatment and design
 

The experiment was designed as split factorial (split plot) comprised of 18 treatments  replicated thrice in a randomized complete blocks design at Lalehzar during two consecutive years, 2018 and 2019. Irrigation treatments based on 3 levels of water (50, 75, 100% evaporation from Class A evaporation Pan) as main factor and 3 levels of single super phosphate fertilizer source (P2O5) (0, 60 and 120 kg ha-1) and two ecotypes (Lalehzar and Sharekord) as sub factor (Table 3).

 

Table 3: Details of experimental treatments evaluated in grass pea in current study.

 
Irrigation scheduling
       
The values of water with constant irrigation interval of seven days were obtained using the following formula:
       
Amount of water (m3 water ha-1): mm evaporation during 7 days in class A pan × 75% (class A pan coefficient) × coefficient for each treatment × 10
       
The amount of water per plot using water cubic meters per hectare (m3 water ha-1) and the level of each plot is specified and each treatment was provided using a discharge tube. Irrigaion treatments were carried out after plant emergence (Table 4).
 

Table 4: Amount of irrigation water used in each treatment based on Class A pan evaporation (m3 ha-1).


 
Water use efficiency
 
The water use efficiency (WUE) was computed by using following formula:

 
                                                                     Esmaeilan, (2017)

Where,
Y was the yield (kg ha-1) and TWU refers to total amount of water (m3) used in a hectare.
       
*Total water used (TWU) was calculated by taking into consideration the total number of irrigations and water applied through irrigation (m3 ha-1) and effective rainfall during crop growth.
 
Agronomic efficiency of applied P
 
Following methodology suggested by Dordas et al., (2008) was used to calculate different efficiencies of applied phosphorus (P) in the current study:

 
 

 
Where,
Yp was crop yields with applied P (kg ha-1), Y0 was crop
 
yield (kg ha-1) in a control treatment with no P and Fp was Amount of fertilizer P applied (kg ha-1),
 
Statistical analysis
 
All the data obtained from grasspea crops for the consecutive 2 years were statistically analyzed using the MSTAT- C (1982) and the comparison of mean values was done by the use of  Duncan’s new multiple range test at P≤0.05 level.

RESULTS AND DISCUSSION

Grain yield in grass pea
The effect of drought stress reduction (50% of irrigation water) was especially evident in the no-fertilizer treatments in both ecotypes  E1P0Iw50% and E2P0Iw50% (Table 5).
 

Table 5: Effect of irrigation regimes and fertilization phosphorus on grain yield and water use efficiency in grass pea ecotypes during 2018-19 (pooled data of 2 years).


       
Data in Table 6 show that was no significant difference between E1P100%Iw75% and E2P50%IW75%, this means that phosphorus fertilizer could partiaiiy offset the effect of drough stress.
 
The most desirable and highest grain yield of  E2P50%IW75% (2401 kg ha-1) and the lowest grain yield (401 kg ha-1) in both years 2018-2019 was from non fertilizer (control) treatment with severe stress (50% irrigation) of E2P0 Iw50% (Table 5).
       
In a field research on pea (Pisum sativum L.) results showed that by increasing phosphorus fertilizer from 50% to 100% pea yield increased from 1.2 to 2.2 t  ha-1  (Yadav et al., 2017). P application can significantly increase grain yield and biomass in wheat (Zhang, 2006).
       
Khan et al., (2010) reported that phosphorus from different sources such as superphosphate or superphosphate triple and di-ammonium-phosphate depending on planting conditions, experiment location and cultivar type could have different effects on plant yield.
 
Biological yield in grass pea
 
The effect of drought stress reduction 50% irrigation was especially evident in the no-fertilizer treatments in both ecotypes: E1P0 Iw50% and E2P0 Iw50% (Table 6).
       
The highest biological yield was obtained from 75 and 100% irrigation treatments with 60 kg ha-1 phosphorus fertilizer from Shahrekord ecotype with treatmeants code E2P50%IW100% ; E2P50%IW75% (Table 7).
 

Table 7: Effect of applied phosphorus and irrigation regimes on phosphorus agronomic efficiency in grass pea ecotypes during 2018 – 19 (pooled data of 2 years).


       
The lowest biological yield was obtained from non-fertilizer treatment with severe drought stress 50% irrigation: E2P0 Iw50% (Table 6).
       
Data in Table 6 showed that E2P50%IW75% treatmeant as the most desirable biological yield (Shahrekord ecotype was obtained in 75% irrigation with 60 ha-1 kg phosphorus).
       
The results of this study regarding low drought stress are in agreement with the results reported by Rastgari, (2015) and increasing phosphorus fertilizer according by Yadav et al., (2017) increases grain yield in pea (Pisum sativum L.). Therefore, it can be concluded that higher grain yield under optimum irrigation conditions can be attributed to better vegetative growth, canopy development and thus better utilization of solar and photosynthetic irradiation under optimum irrigation conditions, which is consistent with the report Mozaffari et al., (2000).
         
In this experiment, application of 75% water irrigation and 60 kg ha-1 phosphorus fertilizer (E2P50%IW75%) was recommended for optimum yield and recommended under water restriction conditions.
 
Grain water use efficiency in grass pea
 
The highest grain water use efficiency of  E2P50%IW75% ; E1P100% Iw75% and the lowest grain water use efficiency was observed the E2P0 Iw50% treatment, this means that phosphorus fertilizer can partially increase grain water use efficiency (Table 5).
       
Kumar et al., (2016) reported that increasing phosphorus fertilizer causes increased water use efficiency which, was in consistent with our results. Some genotypes increase dry weight due to higher water use efficiency (Ghaedi, 2014).
 
Forage water use efficiency in grass pea
 
The highest forage water use efficiency of E2P50%IW75% and the lowest forage water use efficiency was observed in 50% irrigation and non-fertilizer treatment in the ecotype of Shahrekord (E2P0IW50%). This means that phosphorus fertilizer can increase forage water use efficiency (Table 6). Hasan et al., (2016) reported that  droght stress cause increased water use effecincy in sorghum and  that ratio is higher than maize.
 
Agronomic efficiency of applied -P
 

The data analyzed on two years mean basis data of phosphorus agronomic efficiency was tabulated in (Table 7). The effect of reducing drought stress (50% irrigation) was especially evident in the E1P0Iw50% and E2P0Iw50% (non-fertilizer treatments in both ecotypes). The highest phosphorus agronomic efficiency was obtained the E2P50%IW75% ; E2P50%IW100% there was no significant difference between these treatments. The E2P100%Iw50% exhibited the lowest phosphorus agronomic efficiency in the current study (Table 7). In a field study  by Kumar et al., (2015) Influence of AM-fungi and applied phosphorus on growth indices,production efficiency, phosphorus-use efficiency and fruit-succulence in okra (Abelmoschus esculentus)-pea (Pisum sativum) cropping system in an acid Alfisol results showed that in irrigation treatment, under-irrigated conditions have increased phosphorus use efficiency and Similar magnitude of increases in PEP (partial factor productivity of applied phosphorus) both in okra and pea were also registered in treatments irrigated at 40% AWC (Available water holding capacity) in the presence or absence of AMF at varying applied phosphorus and also  Overall, there was an impressive increase in phosphorus use efficiency in AMF imbedded treatments though, the response was comparatively lower at higher applied phosphorus probably due to lower efficiency of AMF at higher phosphorus (Harrier and Watson 2003). However, in pursuance of the law of diminishing returns, phosphorus use efficiency decreased as the phosphorus levels increased both in AMF inoculated and non-inoculated counterparts with every additional increment of phosphorus.

​CONCLUSION

In the cultivation of grass pea as a forage crop, the optimal use of water and phosphorus fertilizers follow the eco-physiological relationships of the plant; so that the balanced consumption of phosphorus fertilizers is useful in saving water consumption at least up to 25% and avoid the over use of chemical fertilizers. In this study, the highest level of grain yield, biological properties, water use efficiency for grain and biomass yield were obtained in the conditions of 75% of the plant irrigation water, which can result in at least 25% of water savings to produce this product in Lalehzar and similar regions. Also, by comparing the two ecotypes of Shahrekord and Lalehzar, it was found that Shahrekord ecotype was superior in terms of less phosphorus fertilizer and less water usage.

REFERENCES


  1. Alizadeh, K., Pooryousef, M. and Kumar, S. (2014). Bi-culturing of grass pea and barley in the semi-arid regions of Iran. Legume Research. 37 (1): 98-100. DOI: 10.5958/LR- 171.

  2. Boukecha, D., Laouare, M., Mekliche Hanif, L. and Harek, D. (2018). Drought tolerance in some population of grass pea (Lathyrus sativus L.). Legume Research. 41(1): 12-19. DOI: 10.1880/LR-346.

  3. Boyer, J.S. (1982). Plant productivity and environment. Science. 218: 443-448.

  4. Campbell, C.G. (1997). Grass pea (Lathyrus sativus L). Institute of Plant Genetics and Crop Plant Research, Gatersleben/ International Plant Genetic Resources Institute, Rome, Italy. 1-92.

  5. Choudhary, A.K. and Suri, V.K.  (2014). Scaling up of pules production under frontline demonstration technology progrmme in Himachal Himalayas, India. Communication in Soil Science and Plant Analysis. 45(14): 1934-48.

  6. Choudhary, A.K., Pandey, P. and Senthil-Kumar, M. (2016). Tailored responeses to simultaneous drought stress and pathogen infection in plants, in Drought stress Tolerance in Plant Vol. 1 [(eds Hossain, M.A., Wani, S.H., Bhattacharjee, S., Burritt., D.J., Tran, L.S.P., (eds)]. (Cham: Springer International Publishing;). 10: 427-438. 

  7. Dordas, C. A., Lithourgidis, A.S., Matsi, T. and Barbayiannis, N. (2008).   Application of liquid cattle manure and inorganic fertilizers affect dry matter, nitrogen accumulation and partitioning in maize. Nutrient Cycling in Agroecosystems. 80: 283-296. 

  8. Esmaeilan, K.S. (2017). Agronomy. Payame Noor University Publications. 376pp. 

  9. Fanaei, H.R., Piree, E. and Narouei, M.R. (2014). Assessing the effect of different rates of phosphorous fertilizer on grain and oil yield and some agronomic traits of Indian mustard (Brassica junceae L.) under drough stress. Iranian Journal of Environmental Stresses in Crop Science.University of Birjand. 6(2): 147-157.

  10. Ghaedi, R. (2014). Effect of hydro priming and irrigation regimes on yield, yield components and grain quality of Pinto beans (Phaseolus vulgaris L).  MS.c. Thesis. Isfahan University of Technology, 115pp.

  11. Harrier, L.A. and Watson, C.A. (2003). The role of arbuscular mycorrhizal fungi in sustainable cropping systems. Advances in Agronomy. 42: 185-225.

  12. Hasan, S.M., Rabei, S.H., Nada, R.M. and Abogadallah, G.M. ( 2016). Water use efficiency in the drought-stressed sorghum and maize in relation to expression of aquaporin genes. journal Biologia Plantarum, 61(1): 127-137.

  13. Heydari Sharif Abad, H. (2019). Total Factors Productivity. Pars Andisheh Publications. 649pp.

  14. Jackson, M.L. (1967). Soil Chemical Analysis. Prentice Hall of India Private Limited, New Dehli.

  15. Khan, M.B., Lone, M., Ulah, M., Kaleen, S. And Ahmed, M. (2010). Effect of different phosphorus fertilizers on growth attributes of wheat. Journal of American Science. 6(12): 1256-1262.

  16. Kumar, A., Choudhary, A.K. and Suri, V.K. (2015). Influence of AM- fungi and applied phosphorus on growth indices,production efficiency, phosphorus–use efficiency and fruit–succulence in okra (Abelmoschus esculentus)–pea (Pisum  sativum) cropping system in an acid Alfisol. Indian Journal of Agricultural Sciences. 85(8): 1030-7.

  17. Kumar, A., Choudhary, A.K. and Suri, V.K. (2016). Influence of AM fungi, inorganic phosphorus and irrigation regimes on plant water relations and soil physical properties in okra (Abelmoschus esculentus L.) – pea (Pisum sativum L.) cropping system in Himalayan acid alfisol. Indian Journal of Plant Nutrition. 39(5): 666-682. DOI: 10.1080/ 01904167.2015.1087030.

  18. Lindsay, W.L. and Norvell, W.A. (1978). Development of a DTPA soil test for zinc, iron, manganese and copper. Soil Science Society of American Journal. 42: 421-8. DOI: 10.2136/ sssaj1978.03615995004200030009x.

  19. Mozaffari, F., Ghorbanli, M., Babai, A. and Sepehr, M.F. (2000). The effect of water stress on the seed oil of Nigella sativa L. Journal of Essential Oil Research. 12: 36-38.  

  20. Piper, C.S. (1950). Soil and Plant Analysis. New York, USA: Scientific Publishers Inc.

  21. Rastegari, E., Madah Hoseini, Sh. and Azari, A. (2015). Effect of different Irrigation levels on some quality and quantity traits of grass pea (Lathyrus sativus L.). Journal of Crops Improvement. 17(3): 701-711.

  22. Walkley, A. and Black, C.A. (1934). An examination of the Dagtjareff (wet acid) method for determining soil organic matter and a proposed modification of the chromic acid titration method. Soil Science. 37: 29-38. DOI: 10.1097/00010694- 193401000.00003.

  23. Yadav, A., Suri, V.K., Kumar, A. and Choudhary, A.K. (2017). Effect of AM fungi and phosphorus fertilization on P-use efficiency, nutrient acquisition and root morphology in pea (Pisum sativum L.) in an acid Alfisol. Journal of Plant Nutrition. 41(6):689-701.DOI:10.1080/1904167.2017.1406107.

  24. Zhang, Y., Li, Y., Xiao, O.K. and Wang, F. (2006). Effects of nitrogen and phosphorus application rate on population growth and grain yield of Hybrid wheat. Chineze journal of Applied Ecology. 17(9): 1599-1603. 
 
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