DRIP AND PAIRED ROW PLANTING FOR PADDY CULTIVATION

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DRIP AND PAIRED ROW PLANTING FOR PADDY CULTIVATION Vilas Tajane 1, Arvind Gulghane 2 and Abhijeet page 3 ABSTRACT Traditionally paddy is planted in India by square method or random method. Usually farmers plant 6 to 9 seedlings per hill with standing water within a bunded field. Now a day s, due to scarcity of water, area under paddy cultivation has been decreasing gradually. To overcome the water scarcity problem we have developed a paired planting method of paddy cultivation with MIS system for better water use efficiency. With the help of 'paired row', system at 40 50 40 cm planting method with inline drip system at every 90 cm. We use 16 mm 'drip line' with 40 cm emitter spacing having 2 lph as emitter discharge. We had an economically viable system with fulfilling water requirement of paddy crop with better productivity with all befits of 'MIS','(Micro irrigation system). In various 'trials' conducted on farmers field in Tamil Nadu, Andhra Pradesh, and Punjab, we got nearly 97% saving, in water over traditional methods with increase in yield up to 30% i.e., 6.9 tons/ha with reduction in seed rate and other input costs as per climatic condition and planting time. This MIS system is suitable for most of crops with sustainable growth & desired crop rotation Keywords: MIS, drip line, paired row, saving, trials. 1. INTRODUCTION Expansion of rice cultivation is linked to availability of water. Rice cultivation expanded too many areas due to growing infrastructure such as dams, canals etc, and facilitating irrigation. Modern methods of rice cultivation require irrigation, which implies dependence on large quantities of surface and ground water. Due to water scarcity, rice cultivation is becoming unaffordable and unpredictable in many areas across the world. This will have serious implications on food security in many countries. Rice cultivation requires a large amount of water. With water becoming scarce, we need to find ways to reduce its consumption," The popular System of Rice Intensification (SRI) method uses around 120 to 150 lakh litres per hectare to produce 7 tonnes of rice. Using drip irrigation, with 50 to 60 lakh litres of water in one hectare, around 5 to 6.5 tonnes of rice was produced. This was more effective than the existing methods (Pandian 2013). Rice cultivation requires nearly 1000 mm to 2250 mm water throughout the crop cycle Micro Irrigation System (MIS) coming strongly as effective system for irrigating the paddy crop with more efficient in water use as well as more environment friendly in operation and management. With MIS system we can move towards more crop per drop. 1 Vilas Tajane, Agronomy Manager, EPC Industrie Limited (A Mahindra Group Company) Nashik, Maharashtra- 422 010. India. E-mail: tajane.vilas@epcind.com 2 Arvind Gulghane, Head, Agron. & Design Deptt. & Sales for Vidarbha, EPC Industrie Limited (A Mahindra Group Company) Nashik, Maharashtra- 422 010. India. E-mail: gulghane.arvind@epcind.com 3 Abhijeet Page, Head, Sales & Marketing, EPC Industrie Limited (A Mahindra Group Company) Nashik, Maharashtra- 422 010. India. E-mail: PAGE.A.A@mahindra.com 1

2. METHODS 2.1 Paddy cultivation on MIS system Based on SRI (System of Rice intensification) method of paddy cultivation, we developed a model for paddy cultivation under drip system. The main objective of this model is to have cost effective system, Multi cropping throughout the year with more production per unit area with less amount of water consumption. The system of rice intensification (SRI) is a new and evolving alternative to conventional methods of rice cultivation. In this method, rice seedlings are transplanted early (eight to 12 days old compared to 21 days in the conventional method). They are transplanted in un-puddle condition; the seedlings are widely spaced (up to 20, 25, 30 or even 50 cm apart). The fields are alternately kept wet and dry. We have made small changes in terms of plant spacing keeping in mind wet and dry field condition for better productivity by using MIS system. We have maintained the salient features of SRI method like 1. Wide planting distance 2. Transplanting young seedling 3.Less seed 4. Less water 5.Use of organic manures Table 1. Various method of Paddy plantation with respective plant spacing Method of planting Row to row (m) Plant to plant (m) Seed rate (Kg / acre) Conventional 0.3 0.1 15 to 20 Conventional 0.3 0.15 15 to 20 SRI-1 0.3 0.2 7 SRI-2 0.4 0.2 6 Proposed on MIS (paired row method) 0.4-0.5-0.4 0.20 4.5 2.3 Why Paddy on MIS System We have tried paddy cultivation on drip irrigation to achieve maximum harvest from single /each seedling by providing then desired quality of water as per need, age of crop and climatic conditions, type of cultivar etc. by maintaining the soil moisture at field capacity to nearly saturated conditions. The MIS in paddy offers the following advantages: 1. A plant has more number of tillers 2. The number of effective tillers are greater 3. Panicle length and number of grains per panicle are higher 4. The grain weight is more 5. The root growth is extensive and healthy 6. Leaching loss of nutrients is prevented. 7. Valuable water is saved for sustainable rice production. 8. Good soil health is maintained. 9. Allows crop rotation to increase land utilization capability of farmers 2

Figure 1. Improved method of paddy cultivation on MIS system To make MIS system economical viable and most suitable for crop rotation as per need of farmers we had developed above (Figure 1) MIS system for paddy grower in India. 3. RESULTS AND DISCUSSION 3.1 Selection of demo plots for paddy cultivation Understanding the importance of water conservation and food grain requirement to meet the growing need of world, we had interaction with several paddy grower in Tamil Nadu, Andhra Pradesh, Maharashtra and Punjab (having plots area from 0.2 to 0.4 ha). Planting was done in various plots was done from July to Jan as per respective planting seasons of that area. We focus on various agronomical practices like less seed rate 4 to 5 Kg.acre, plant spacing : paired row method, transplanting of seedlings after 15 days of Nursery i.e. 3 leaf stage, No. of seedlings per hill,wet and dry conditions in field and crop rotation, Puddling s (one pass) on etc. (Figure 2 and Figure 3). We selected farmers with the help of our agronomical, sales team members and respective channel partners. Figure 2 Various operation before palnting on MIS system by paddy grower 3

Figure 3. Selection of seedling for transplanting To utilize available water source judiciously, we started our paddy trial on farmers field over traditional way of cultivation, specially use of flood irrigation to achieve the desired production. We encouraged the paddy growers by practically participating in the cultivation process. Table 2. Average Water Requirements for Irrigated Rice Farm Process /methodology Water Requirement (mm) Land Preparation 150-200 Evapotranspiration 500-1,200 Seepage & Percolation 200-700 Mid-season drainage 50-100 Total 1000-2,250 Source : FAO STAT 2004 After explaining the objectives of demo plots for paddy cultivation to growers, Paddy growers started land preparation by adding desired amount of FYM and followed by Puddlings- one pas only, we started transplanting of seedling of 12 to 15 days old or 3 rd leave initiating stage by putting one seedling per hill. This planting was done as paired row method 40 50 40 cm.in paired row method 50 cm is open space between two rows and 20 cm seedling distance from drip line or 40 cm a distance between rows and plant to plant distance is 20 cm. So in paired row method of planting drip lines comes at every 0.90 m distance. Maintaining drip lines distance at every 0.90 m reduces the cost of MIS system and this system is use to most of crop as crop rotation. In MIS system we chose emitter spacing at every 40 cm with emitter discharge @ 2 lph. Selection of emitter spacing at every 40 cm instead of closer spacing to support regular wet and dry condition in field as per soil type and to reduce the growers budget for MIS system. 4

Figure 3. Seedling growth on MIS system Table 3. Irrigation schedule for paddy cultivation on MIS system Month Total Irrigation Time ( per day ) Monthly Avg. Shift - I Total PET (mm/day) ( V1) ( hr) Crop Factor Water Requirement (mm/day) Application Rate (mm/hr) Jan 0.98 1.0 4.72 1.15 5.43 5.55 Feb 0.93 0.9 5.74 0.9 5.16 5.55 Mar 0.00 0.0 6.40 0.00 5.55 Apr 0.00 0.0 6.87 0.00 5.55 May 0.00 0.0 7.29 0.00 5.55 Jun 0.00 0.0 7.69 0.00 5.55 Jul 0.00 0.0 7.40 0.00 5.55 Aug 0.00 0.0 7.10 0.00 5.55 Sep 0.00 0.0 6.05 0.00 5.55 Oct 0.45 0.4 4.51 0.55 2.48 (planting) 5.55 Nov 0.59 0.6 3.85 0.85 3.27 5.55 Dec 0.72 0.7 3.98 1 3.98 5.55 Note: Irrigation schedule considering drip line distance 90 cm emitter spacing 40 cm & 2lph As per above irrigation schedule farmers done the irrigation for paddy crop in his field. For different location and planting month, irrigation scheduling may vary as per change in MIS system too. Irrigation schedule also varies as per spacing and variation in 5

climatic condition and rain fall etc. We also encourage to farmer for fertigation to get maximum benefit from MIS system. MIS system is found very useful for maintaining wet and dry condition in field as per growth stages of paddy. On MIS system we found more root growth (length) compare to traditional method of cultivation. Nearly 20 to 27 % increase in root growth was observed in all demo plots. We also found more number of tillers per hill. There were nearly 32 to 39 tillers per hill we got on MIS while that was in traditional methods 19 to 29 tillers per hill (Table -4) As growth of crop progress we found that effective tillers per hills were more than that with farmers local practices, with increase in panicle length in MIS system. This is mainly due to need based irrigation and effective nutrition management through fertigation (Table 4 & 5). This result was similar with two different demo plots at two different locations. Table 4. Yield parameters of paddy cultivation on MIS & traditional method (D-1) Parameters Under MIS system Traditional method Average number of Productive tillers per sq. meter area 37.2 29.3 Average yield per sq. meter area (Kg) 0.860 0.763 Average number of grains/panicle 220 180 Total yield / acre in Kg 3480 2970 Table 5. Yield parameters of paddy cultivation on MIS & traditional method (D-2) Parameters Under MIS system Traditional method Average number of Productive tillers/m 2 32.3 26.1 Average yield per sq. meter area (Kg) 0.703 0.613 Average number of grains/panicle 182 179 Total yield / acre in Kg 2804 2237 10000 8000 6000 4000 2000 0 MIS system Traditonal method Demo plot 1 demo plot 2 Figure 4. Average productivity of Paddy in two different demo plot per ha (Kg) Paddy grower got nearly 15 to 30 percent increase in productivity (Fig. 4) over traditional in the MIS system. With our improved method, paddy grower got nearly 6900 to 8400 kg paddy/ha in MIS system viable conducting demo plots in different location across Tamil Nadu, Andra Pradesh and Maharashtra, as per planting time, season, 6

and cultivar. We got nearly 97 % in saving in water requirement for optimum production under MIS system (Table -6) (Agro One- 2013) Table 6. Water budget for Paddy cultivation Planting Mont h Water requir ement mm/d ay On MIS sy st e m (mm) Traditiona l m et ho d (m m) Growth Stage of Paddy crop Daily water level to be maintaine d (in traditional method) 150 150 Puddling s /land preparati on July 5.3 106.56 210 Transplanting up to 1 cm Aug 4.9 131.87 364 Panicle imitation up to 1 to 2cm Sep 5.8 144.3 400 P.I, development to flowering Oct 6.7 179.82 336 Milk grain, Dough grain up to 1 to 2cm up to 1 to 1.5 cm Nov 6.216 93.24 135 Maturity up to 1 cm Total water need ed (mm) 806 1595 789.21 Difference in water amount 97.94 % saving in water Figure 5. Paddy grower showing difference in growth on MIS system & traditional way 7

4. CONCLUSION In the present scenario the world is facing water scarcity that is likely to aggravate in the future. Paddy growers, particularly, due to high water requirement in paddy cultivation, are finding it difficult to continue with paddy cultivation. The situation warrants trying paddy cultivation using micro irrigation system (MIS). MIS offers lot of water saving for future crop /additional area under cultivation with maintaining the soil healthy for sustainable growth towards achieving growing food grain demand. REFERENCE Agro one 2013. Drip and Paired row cultivation of Paddy Aug 3, 2013, page No. 9, Pune Maharashtra India Pandian B. J. 2013, Tamil Nadu Agricultural University, Experiment with drip irrigation in paddy Cultivation. The Times of India October 17, 2013. News article. FAO STAT, 2004 Bulletin. 8