Influence of Inorganic and Organic Fertilizers on Biomass Production of Amaranthus sp.

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Available online atwww.pelagiaresearchlibrary.com European Journal of Experimental Biology, 2016, 6(4):33-37 ISSN: 2248 9215 CODEN (USA): EJEBAU Influence of Inorganic and Organic Fertilizers on Biomass Production of Amaranthus sp. Praveen Mohil and Usha Jain Department of Botany, University of Rajasthan, Jaipur ABSTRACT A pot culture study was carried out to evaluate the effects of inorganic fertilizer (NPK) and organic fertilizer (farmyard manure) on root and shoot biomass. Both farmyard manure and NPK were show uniform increasing impact on biomass. Farmyard manure has superior response as compared to NPK. Key words: A.hybridus subsp. cruentus var. paniculatus, Biomass, Fertilizers, NPK, Farmyard manure. INTRODUCTION Amaranth is a common name of the herbaceous genus Amaranthus of the family Amaranthaceae. Most of the species of this genus are annual weeds and few are valued as vegetable, grains and ornamental. Seeds of A.hybridus subsp. cruentus var. paniculatus are protein rich and consumed as pseudo cereal. Amaranthus is also known as pseudo cereal because the flavor, appearance and cooking of many species exhibit similarities to grains [1]. The seeds also ground into flour. They have high protein component and provide a good source of dietary fiber and dietary minerals like Iron, Magnesium, Phosphorus, Copper and especially Manganese [2]. Increased interest in amaranth appeared in the 1980s, when the United States National Academy of Science performed research on the grain and described its high nutritional value and agronomic potential [3]. The soil of Rajasthan is poor in fertility status, being low in nitrogen and low to medium in phosphorus while medium to high in potash. Organic matter content is very low [4]. Additional nutrients like NPK (Nitrogen, Phosphorus and Potassium) and farmyard manure (organic manure) if supplied to the soil may influence the growth and development of plants. The use of inorganic fertilizers to increase yield has been found to be effective only within few years, demanding consistent use on long-term basis. The hazardous environmental consequences and high cost of inorganic fertilizers make them undesirable, uneconomical and are out of reach of the poor farmers. Therefore, increased use of organic manure, a readily available alternative, which proves more environmental friendly. Keeping the above facts in view the investigation was carried out to study the influence of NPK and farmyard manure for biomass production. MATERIALS AND METHODS Seeds of A.hybridus subsp. cruentus var. paniculatus were collected from local shops of Jaipur by local name ramdana or rajgeera. Seeds were sown in earthen pots to confirm the plant species prior to set experiment. Specimen was identified at BSI Herbarium, Jodhpur. Pot culture study carried out with the seeds of Amaranthus hybridus subsp. cruentus var. paniculatus. The seeds were selected randomly for experiment. Seeds were sown under natural environmental conditions in earthen pots of 28 28 16 cm size. Each pot was filled with seven kg of garden soil. The soil was amended with different concentrations of NPK in ratio of 0.01 g/kg, 0.02 g/kg 0.03g/kg 33

and 0.05g/kg and farmyard manure in ratio of 1.0g/kg, 3.0g/kg 5.0g/kg and 10g/kg. For each treatment three replicates were taken. A set of pots without any additives considered as control. Pots were irrigated manually using watering cans regularly i.e., every day. After every 15 days the plants were harvested and data regarding biomass (fresh weight) were recorded up to three and half months (105 days) and statistically analyzed. Every 15 days of interval was considered as a single period. Vegetative growth, flowering and fruiting were recorded in treated as well as control plants in pot culture experiment. RESULTS The effect of nitrogen, phosphorus and potassium on biomass of root on biomass of root and shoot were studied in A. hybridus subsp. cruentus var. paniculatus. These nutrients were found to be affecting both biomass of root as well shoot. There was gradual increase in biomass of root and shoot with increase in concentration of NPK along with periods(tables 1-2). Table-1 : Effect of NPK on root biomass (fresh weight) of A. hybridus subsp. cruentus var. paniculatus in pot culture experiment Control 0.09 0.19 0.92 1.23 1.90 2.25 2.35 0.01 g/kg 0.18 0.36 0.69 0.95 2.07 2.91 3.50 0.02 g/kg 0.21 0.49 0.93 1.65 2.24 3.31 3.81 0.03 g/kg 0.24 0.51 0.93 2.56 4.23 5.57 5.58 0.05 g/kg 0.31 0.60 0.75 3.00 5.27 6.30 6.96 Conc. within 0.00g/kg 6 12.1332 2.0222 8.52** Conc. within 0.01 gm/kg 6 28.1458 4.6909 19.76** Conc. within 0.02 gm/kg 6 30.9655 5.1609 21.75** Conc. within 0.03 gm/kg 6 93.0486 15.5081 65.35** Conc. within 0.05 gm/kg 6 135.1631 22.5271 94.93** Between concentrations 4 63.6733 15.9183 67.08** Error 70 16.6111 0.2373 - Table-2 : Effect of NPK on shoot biomass (fresh weight) of A. hybridus subsp. cruentus var. paniculatus in pot culture experiment Control 1.62 2.32 4.46 9.20 14.05 16.02 16.80 0.01 g/kg 0.71 1.56 3.35 12.21 20.15 22.55 23.69 0.02 g/kg 1.03 2.13 4.43 18.12 34.54 36.75 38.30 0.03 g/kg 1.21 2.41 4.29 26.77 50.48 53.19 54.31 0.05 g/kg 1.17 2.39 8.90 37.62 70.37 73.54 74.63 Conc. within 0.00g/kg 6 844.5467 140.7578 26.96** Conc. within 0.01 gm/kg 6 1877.3062 312.8843 59.94** Conc. within 0.02 gm/kg 6 5246.3062 874.3843 167.52** Conc. within 0.03 gm/kg 6 11302.1595 1883.6932 360.92** Conc. within 0.05 gm/kg 6 22498.2060 3749.7011 718.33** Between concentrations 4 11503.1555 2875.7883 550.97** Error 70 365.3638 5.1294 In case of root biomass significant enhancement in fresh weight was found in V th as compared to control; although decline was observed only in 0.01g/kg concentration of NPK at III and IV periods of intervals. Maximum biomass was observed in 0.05 g/kg concentration of NPK at VII period. Biomass of shoot also increases with increase in concentration of NPK treatment at different periods. Significant enhancement in shoot biomass was found in IV th and V th period as compared to biomass of root, almost in all the treatments. Although biomass decrease in all the concentrations at I st period as compared to control (Plate1A&B). 34

Plate: 1A: Showing the effect of different concentrations of NPK on biomass at III rd period 1B: Showing the effect of different concentrations of farmyard manure on biomass at III rd Period Note: Flowering observed Biomass of root and shoot gradually increase with increase in concentration of farmyard manure in different intervals of periods. Maximum root biomass was found in 10.00g/kg concentration at VII th period and minimum root biomass found in 1.0g/kg concentration of farmyard manure. Biomass of root affected in III rd period with increase in concentrations from 1.0g/kg to 5.0g/kg, where reduction was observed as compared to control and other treatments (Table-3-4). Table-3 : Effect of farm yard manure on root biomass (fresh weight) of A. hybridus subsp. cruentus var. paniculatus in pot culture experiment Control 0.09 0.19 0.92 1.23 1.90 2.25 2.35 1.00 g/kg 0.06 0.12 0.25 2.12 3.94 4.19 5.40 3.00 g/kg 0.08 0.36 0.67 2.30 4.56 5.71 6.11 5.00 g/kg 0.15 0.37 0.62 2.80 5.06 6.95 7.13 10.00 g/kg 0.59 1.08 2.12 3.37 6.57 7.46 7.95 Conc. within 0.00 gm/kg 6 12.1332 2.0222 1.08 NS Conc. within 1.0 gm/kg 6 36.3364 6.0560 3.25** Conc. within 3.0 gm/kg 6 39.6807 6.6134 3.55** Conc. within 5.0 gm/kg 6 66.3981 11.0663 5.95** Conc. within 10.0 gm/kg 6 72.7294 12.1215 6.52** Between concentrations 4 28.0729 7.0182 3.77** Error 70 130.2048 1.8600 - Table-4 : Effect of farmyard manure on shoot biomass (fresh weight) of A. hybridus subsp. cruentus var. paniculatus in pot culture experiment Control 1.62 2.32 4.46 3.20 14.02 16.02 16.80 1.00 g/kg 0.79 1.54 3.70 18.41 35.52 37.53 38.51 3.00 g/kg 1.71 3.68 7.03 20.62 36.37 42.21 42.19 5.00 g/kg 2.14 4.89 8.67 22.12 43.52 44.31 45.99 10.00 g/kg 3.43 7.39 16.25 40.29 69.03 71.38 73.06 35

Conc. within control 6 844.5467 140.7578 90.63** Conc. within 1.0 gm/kg 6 5567.2451 927.8791 597.49** Conc. within 3.0 gm/kg 6 5830.2523 971.7087 625.72** Conc. within 5.0 gm/kg 6 7070.0494 1178.3415 758.77** Conc. within 10.0 gm/kg 6 1785.2439 29.30.8739 1887.30** Between concentrations 4 10795.4226 2698.8556 1737.90** Error 70 108.7056 1.5529 Effect on shoot biomass found that in lower concentration (1.00g/kg) at I st to III rd period biomass reduced. At higher concentration gradual increase in biomass was observed in all the periods studied. Maximum value of shoot biomass was found in 10.0g/kg in VII th period (Plate2A&B). Plate: 2A: Showing the effect of different concentrations of NPK on biomass at VI th period 2B: Showing the effect of different concentrations of farmyard manure on biomass at VI th period Analysis of NPK and farmyard manure treatment concluded that farmyard manure showed better response against the NPK treatment in both root and shoot biomass DISCUSSION Nitrogen, Potassium and Phosphorus (NPK) are essential elements for the growth and reproduction of plants. Nitrogen is an essential constituent of all proteins. Phosphorus is necessary for certain enzymatic processes too but it doesn t appear to be involved directly in catalysis. For the metabolites, phosphorus plays a direct role as a carrier of energy. The use of compost or manure in agriculture as an organic source of nutrients is common in many tropical, developing countries. One of the drawbacks of such materials is their low nitrogen content. Farmers commonly use chemical N fertilizers such as urea, calcium ammonium nitrate and NPK formulations to obtain better crop growth and yield. These chemical supplements may have a negative impact on the environment through nitrate leaching into water, leading to eutrophication of surface waters that can affect public health. Gliricidia sepium, a fast growing, tropical perennial hedge plant was tested as a source of N in organo-mineral fertilizer formulations. Average nutrient content of Gliricidia is 3.8% N, 0.32% P, 1.8% K, 0.8% Ca and 0.2% Mg using a sand culture and Amaranthus caudatus as a test crop. It was shown that amending commercial compost with 30% Gliricidia pruning would benefit many small-scale farmers and control environmental pollution [5]. Increased biomass production were observed under the treatment of NPK in the cultivation of A. cruentus [6]. NPK and poultry manure favoured growth and yield of the Amaranthus species but influenced proximate composition 36

differently [7]. Enhanced effect were reported with NPK and farmyard manure treatment on Amaranthus palmeri Wats, and found that both the treatments show enhancing effect [8]. Present findings are similar and showing that the farmyard manure is superior on NPK. In general, relative effectiveness of used organic and inorganic manure may sequenced as farmyard manure > NPK were observed in studied plants for root as well as shoot fresh weight. Flowering and fruiting in A. hybridus subsp. cruentus var. paniculatus take place almost throughout the year. In present investigation, period of flowering was observed to be July and August whereas seed setting (fruiting) takes place in the month of September. CONCLUSION Farmyard manure and NPK were used to study the biomass of root and shoot on A. hybridus subsp. cruentus var. paniculatus. Both the inorganic and organic manure showed the enhancing effect on biomass production. Farmyard manure is found superior than the NPK for root as well as shoot fresh weight.. REFERENCES [1] A. Gajdosova, Report of the Second Research Coordination Meeting of FAO/IAEA CRP Genetic Improvement Under Utilized and Neglected Crops in LIFDCs Through Irradiation and Related Techniques, San jose, Costa Rica,2002, 27-28. [2] I.E. Akubugwo, N.A. Obasi, G.C. Chinyere, A.E. Ugbogu, Afr. J. Biotechnol, 2007, 6: 2833. [3] C.J. Monteros, N.C. Nieto, C.V. Caicedo, M.M. Rivera, C.N. Vimos, In: Produccion y procesamiento de quinnua en Ecuador.2011. [4] Y.B. Roy, R.P. Dhir, A.S. Kolarkar, Proc. Ind. Nat. Sci. Acad.1978,4:161-167 [5] M..K. Sridhar, G.O. Adeoye, O.O. Adeoluwa, Scientific World J., 2001, 1(2): 142-147. [6] M. Ognalaga, P. I.O. Odjogui, A. O. Azi, J. Ndzoutsi, Internat. J. Agro. Agri. Res. 2015, 7(2) : 163-172. [7] S. Oyedeji, D. A. Animasaun, A. A. Bello, O.O. Agboola, J. Bot. 2014 :6 [8] P. Mohil, U. Jain, Asian J. Pt. Sci. Res. 2014, 4(2):7-12. 37