Journal of Food Security. 2013, 1(2), 58-64
DOI: 10.12691/JFS-1-2-8
Original Research

Mitigating Food Security Options through Climate Resilient Mustard-maize Based Intercropping Sequences for North-western –Himalayas

BRIJ NANDAN1, , B.C. SHARMA1 and ANIL KUMAR1

1Pulses Research Sub-station, She-e-Kashmir University of Agricultural Sciences and Technology, Jammu AraziFarm, Samba, Jammu & Kashmir

Pub. Date: December 17, 2013

Cite this paper

BRIJ NANDAN, B.C. SHARMA and ANIL KUMAR. Mitigating Food Security Options through Climate Resilient Mustard-maize Based Intercropping Sequences for North-western –Himalayas. Journal of Food Security. 2013; 1(2):58-64. doi: 10.12691/JFS-1-2-8

Abstract

Field experiments were conducted at Dry Land Research Sub-station of Sher-e Kashmir University of Agricultural Sciences and Technology, Jammu during rabi (winter) (winter) season of 2008-09 to kharif (monsoon)(monsoon) season of 2010 on the same site and layout. The experimental field was well drained upland with bulk density of 1.46 Mg/m3. The soil of the experimental site was sandy loam with low in organic carbon (0.42%), available nitrogen (174.2 kg/ha) and medium in available phosphorus (16.5 kg/ha), potassium (124.0 kg/ha) and sulphur (20.4 kg/ha). The study was conducted with the objective to identify the most suitable and promising mustard-maize intercropping sequence in changing climate scenario under kandi areas of Jammu region. The two years experimental findings revealed that the system productivity (47.0 and 49.1 kg/ha/day), production efficiency (59.6 and 62.3), nitrogen build up (18.7 kg/ha)and net returns (Rs.71608 and Rs.71090 /ha) with a benefit –cost ratio of 2.54 and 2.32 during the year 2008-09 and 2009-10,respectively were higher in the sequence where mustard was intercropped with fieldpea when succeeded by maize grown in association with cowpea followed by the sequence mustard+fieldpea succeeded by maize in association with moongbean intercropping sequences.

Keywords

mustard-maize intercropping sequences, kandi areas, system productivity, climate smart agriculture, North-western-Himalayas

Copyright

Creative CommonsThis work is licensed under a Creative Commons Attribution 4.0 International License. To view a copy of this license, visit http://creativecommons.org/licenses/by/4.0/

References

[1]  Srinivasarao, C, Ganeshamurthy, A N and Ali, M (2003a) Nutritional constraints in pulse production Bulletin, Indian Institute of Pulses Research, Kanpur, pp 1-34.
 
[2]  Srinivasarao, C, Venkateswarlu, B, Sharma, K L, Ramachandrappa, B K, Patel, JJ and Deshpande, AN (2011b). Analyzing nitrogen use efficiency in long term experiments in rainfed conditions. Indian Journal Fertilizers 7(9), (In press).
 
[3]  Srinivasarao, Ch,Vittal, KPR, Gajbhiye, PN, Sumanta Kundu and Sharma, K L, (2008a) Distribution of micronutrients in soils in rainfed production systems of India. Indian Journal of Dryland Agricultural Research and Development, 23: 29-35.
 
[4]  Srinivasarao, Ch., Venkateswarlu, B., Dixit, S., Kundu, S. and Gayatri Devi, K (2011a). Livelihood impacts of soil health improvement in backward and tribal rainfed districts of Andhra Pradesh. Central Research Institute for Dryland Agriculture. Hyderabad, Andhra Pradesh. P 119.
 
[5]  Srinivasarao, Ch, and Vittal, K PR. (2007). Emerging nutrient deficiencies in different soil types under rainfed production systems of India. Indian Journal of Fertilizers, 3: 37-46.
 
[6]  Pandey, I B, Bharti, V and Mishra, SS 2003. Effect of maize (Zeamays)-based intercropping systems on maize yield and associated weeds under rainfed conditions. Indian Journal of Agronomy, 48 (1):30-33.
 
[7]  Tripathi, A K,Kumar A and Nath S 2010. Production potential and monetary advantage of winter maize (Zea mays)-based intercropping systems under irrigated conditions in central Uttar Pradesh. Indian Journal of Agricultural Sciences, 80(2):125-128.
 
[8]  Pandita, A K, Shah, M H, and Bali, A S 1998. Row ratio in maize (Zeamays)-legume intercropping in temperate valley condition, Indian Journal of Agricultural Sciences, 68(10):633-35.
 
[9]  Padhi, A K and Panigrahi, R K 2006. Effect of intercrop and crop geometry on productivity, economics, energetic and soil fertility status of maize (Zeamays)-based intercropping systems, Indian Journal of Agronomy 51 (3):174-77.
 
[10]  Pathak, Kand Singh, N P 2008. Growth and yield of blackgram (Phaseolusmungo) varieties under intercropping systems with maize (Zeamays) during rainy season in North India .Farming System Research and Development, 14 (1):29-34.
 
[11]  Sharma, R S and Choubey, S D. 1991. Effect of maize (Zeamays)-legume intercropping systems on nitrogen economy and nutrient status of soil. Indian Journal of Agronomy, 36 (supple 1):60-63.
 
[12]  Singh, M K, Thakur, R, Verma, U N, Pal, S K and Pusupalak, S. 1998. Productivity and nutrient balance of maize (Zea mays)+blackgram (Phaseolusmungo) intercropping as affected by fertilizers and plant density management of blackgram. Indian Journal of Agronomy, 43 (3):495-500.
 
[13]  Choudhary, M. K and Rosario, E. L. 1994. Phosphorus utilization efficiency as affected by component population, rhizobial inoculation and applied nitrogen in maize-mungbean intercropping. Experimental Agriculture, 28:255-63.
 
[14]  Kumar N Srinivas, K Mina, B L Kumar, M and Srivastava, A K. 2010. System productivity, profitability and competition indicdes of horsegram intercropping under rainfed condition. Journal of Food Legumes, 23(3&4):196-200.
 
[15]  Prasad, R 1996. Effect of intercropping of wheat with lentil intercropping system on growth, yield and nutrient uptake,Journal of soil conservation, 13 (3):105-108.
 
[16]  Sheoran, P, Sardana, V Singh, S and Bhushan, B. 2009. Bio-economics evaluation of rainfed maize (Zeamays)-based intercropping systems with blackgram (Vignamungo) under different spatial arrangements. Indian Journal of Agricultural Sciences, 80(3):244-7.