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LONG-TERM EFFECT OF PULSES AND NUTRIENT MANAGEMENT ON SOIL ORGANIC CARBON DYNAMICS AND SUSTAINABILITY ON AN INCEPTISOL OF INDO-GANGETIC PLAINS OF INDIA

Published online by Cambridge University Press:  18 April 2012

P. K. GHOSH ,
M. S. VENKATESH ,
K. K. HAZRA  and
NARENDRA KUMAR
P. K. GHOSH
Affiliation:
Division of Crop Production, Indian Institute of Pulses Research, Kanpur, Uttar Pradesh 208 024, India
M. S. VENKATESH*
Affiliation:
Division of Crop Production, Indian Institute of Pulses Research, Kanpur, Uttar Pradesh 208 024, India
K. K. HAZRA
Affiliation:
Division of Crop Production, Indian Institute of Pulses Research, Kanpur, Uttar Pradesh 208 024, India
NARENDRA KUMAR
Affiliation:
Division of Crop Production, Indian Institute of Pulses Research, Kanpur, Uttar Pradesh 208 024, India
*
†Corresponding author. Email: [email protected]
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Summary

Continuous cultivation of rice–wheat cropping system in the Indo-Gangetic plains is under threat with decline in soil organic carbon (SOC), total factor productivity and overall sustainability. Pulses, an important component of crop diversification, are known to improve soil quality through their unique ability of biological N2 fixation, leaf litter fall and deep root system. Therefore, the effect of inclusion of pulses in the puddled rice system under organic and inorganic amendments on SOC pool and its management indices were evaluated in a long-term experiment after seven cropping cycles. The results indicated that inclusion of pulses in the rice-based system improved the SOC content, being greater in surface soil (0–20 cm) and declining with soil depth. Among the four carbon fractions determined, less labile carbon fraction (Cfrac3) was the dominant fraction in the puddled rice system, particularly under organic treatments, indicating that it is possible to maintain organic carbon for longer time in this system. The rice–wheat–mung bean system resulted in 6% increase in SOC and 85% increase in soil microbial biomass carbon as compared with the conventional rice–wheat system. Application of crop residues, farm yard manure (5 t ha−1) and biofertilisers had greater amount of carbon fractions and carbon management index (CMI) over control and the recommended inorganic (NPKSZnB) treatment in the soil surface, particularly in the system where pulses are included. Interestingly, in the puddled rice system, passive carbon pool is more in surface soil than deeper layers. The relative proportion of active carbon pool in surface layer (0–20 cm) to subsurface layer (20–40 cm) was highest in rice–wheat–rice–chickpea (1.14:1) followed by rice–wheat–mung bean (1.07:1) and lowest in the rice–wheat system (0.69:1). Replacing wheat with chickpea either completely or during alternate year in the conventional rice–wheat system also had positive impact on SOC restoration and CMI. Therefore, inclusion of pulses in the rice-based cropping system and organic nutrient management practices had significant impact on maintaining SOC in an Inceptisol of the Indo-Gangetic plains of India.

Type
Research Article
Information
Experimental Agriculture , Volume 48 , Issue 4 , October 2012 , pp. 473 - 487
Copyright
Copyright © Cambridge University Press 2012

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References

REFERENCES

Addiscott, T. (1995). Entropy and sustainability. European Journal of Soil Science 46:161–168.CrossRefGoogle Scholar
Balloli, S. S., Ratan, R. K., Garg, R. N., Singh, G. and Krishna Kumari, M. (2000). Soil physical and chemical environment influenced by duration of rice-wheat cropping system. Journal of Indian Society of Soil Science 48:75–78.Google Scholar
Blair, N. and Crocker, G. J. (2000). Crop rotation effects on soil carbon and physical fertility of two Australian soils. Australian Journal of Soil Research 38:71–84.CrossRefGoogle Scholar
Blair, N., Faulkner, R. D., Till, A. R. and Poulton, P. R. (2006). Long-term management impactions on soil C, N and physical fertility. Part I: broadbalk experiment. Soil and Tillage Research 91:30–38.CrossRefGoogle Scholar
Blair, G. J., Lefroy, R. D. B. and Lisle, L. (1995). Soil carbon fractions based on their degree of oxidation and development of a carbon management index for agricultural systems. Australian Journal of Agricultural Research 46:1459–1466.CrossRefGoogle Scholar
Calegari, A., Hargrove, W. L., Rheinheimer, D. D. S., Ralish, R., Tessier, D., Tourdonnet, S. and Guimaraes, M. F. (2008). Impact of long-term no tillage and cropping system management on soil organic carbon in an Oxisol: a model for sustainability. Agronomy Journal 100:1013–1019.CrossRefGoogle Scholar
Campbell, C. A., Biederbeck, V.O., McConkey, B. G., Curtin, D. and Zentner, R. P. (1999). Soil quality–effect of tillage and fallow frequency. Soil organic matter quality as influenced by tillage and fallow frequency in a silt loam in South-Western Saskatchewan. Soil Biology and Biochemistry 31:1–7.CrossRefGoogle Scholar
Chan, K. Y., Bowman, A. and Oates, A. (2001). Oxidizible organic carbon fractions and soil quality changes in oxic paleustalf under different pasture leys. Soil Science 166:61–67.CrossRefGoogle Scholar
Cheshire, M. Y., Christensen, B. T. and Sorensen, L. H. (1990). Labeled and native sugars in particle size fractions from soils incubated with 14C straw for 6 to 18 years. Soil Science 41:29–39.CrossRefGoogle Scholar
Diekow, J., Mielniczuk, J., Knicker, H., Bayer, C., Dick, D. P. and Kogel-Knabe, I. (2005). Carbon and nitrogen stocks in physical fractions of a subtropical acrisol as influenced by long-term no-till cropping systems and N fertilization. Plant and Soil 268:319–328.CrossRefGoogle Scholar
Ding, G., Novak, J. M., Amarasiriwardena, D., Hunt, P. G. and Xing, B. (2002). Soil organic matter as affected by tillage management. Soil Science Society of America Journal 66:421–429.CrossRefGoogle Scholar
Fujisaka, S., Harrington, L. W. and Hobbs, P. R. (1994). Rice-wheat in south Asia: system and long-term priorities established through diagnostic research. Agricultural System 46:169–187.CrossRefGoogle Scholar
Ganeshamurthy, A. N. (2009). Soil changes following long-term cultivation of pulses. Journal of Agricultural Science 147:699–706.CrossRefGoogle Scholar
Ghosh, S., Wilson, B. R., Mandal, B., Ghoshal, S. K. and Growns, I. (2010). Changes in soil organic carbon pool in three long-term fertility experiments with different cropping systems and inorganic and organic soil amendments in the eastern cereal belt of India. Australian Journal of Soil Research 48:413–420.CrossRefGoogle Scholar
Gong, W., Yan, X. Y., Wang, J. Y., Hu, T. X. and Gong, Y. B. (2009). Long-term manuring and fertilization effects on soil organic carbon pools under a wheat–maize cropping system in North China Plain. Plant and Soil 314:67–76.CrossRefGoogle Scholar
Havlin, J. L., Kissel, D. E., Maddux, L. D., Classen, M. M. and Long, J. H. (1990). Crop rotation and tillage effects on soil organic carbon and nitrogen. Soil Science Society of America Journal 54:448–452.CrossRefGoogle Scholar
Hesse, P. R. (2002). A Text Book of Soil Chemical Analysis. New Delhi, India: CBS.Google Scholar
Hobbs, P. R. and Morris, M. (1996). Meeting South Asia's Future Requirement from Rice–Wheat Cropping System: Priority Facing Researchers in the Post-Green Revolution Era. NRG Report No. 96–01 CIMMYT, Mexico DF, 49 pp.Google Scholar
Hutchinson, J. J., Campbell, C. A. and Desjardins, R. L. (2007). Some perspectives on carbon sequestration in agriculture. Agriculture and Forest Meteorology 142:288–302.CrossRefGoogle Scholar
Ingram, J. S. I. and Fernandes, E. C. M. (2001). Managing carbon sequestration in soils: concept and terminology. Agriculture, Ecosystems and Environment 87:111–117.CrossRefGoogle Scholar
Jenkinson, D. S. and Powlson, D. S. (1976). The effects of biocidal treatments on metabolism in soil V. A method for measuring soil biomass. Soil Biology & Biochemistry 8:209–213.CrossRefGoogle Scholar
Kaur, T., Brar, B. S. and Dhillon, N. S. (2008). Soil organic matter dynamics as affected by long-term use of organic and inorganic fertilizers under maize – wheat cropping system. Nutrient Cycling in Agro-Ecosystems 81:59–69.CrossRefGoogle Scholar
Ladha, J. K., Dawas, D., Pathak, H., Padre, A. T., Yadav, R. L. and Singh, B. (2003). How extensive are yield decline in long-term rice–wheat experiments in Asia. Field Crop Research 81:159–180.CrossRefGoogle Scholar
Ladha, J. K., Fischer, K. S., Hossain, M., Hobbs, P. R. and Hardy, B. (2000). Improving the productivity and sustainability of rice–wheat system of Indo-Gangetic plains: a synthesis of NARS–IRRI partnership research. IRRI Discussion Paper Series No. 40, Manila, Philippines, 31 pp.Google Scholar
Lefroy, R. D. B., Blair, G. J. and Strong, W. M. (1994). Changes in soil organic matter with cropping as measured by organic carbon fractions and 13C natural isotope abundance. Plant and Soil 155/156;399–402.Google Scholar
Leigh, R. A. and Johnstone, A. E. (1994). Long-Term Experiments in Agricultural and Ecological Sciences. Wallingford, UK: CAB International.Google Scholar
Ma, L., Yang, L. Z., Xia, L. Z., Shen, M. X., Yin, S. X. and Li, Y. D. (2011). Long-term effects of inorganic and organic amendments on organic carbon in a paddy soil of the Taihu Lake Region, China. Pedosphere 21:186–196.CrossRefGoogle Scholar
Mandal, B., Majumder, B., Bandypadhyay, P. K., Hazra, G. C., Gangopadhyay, A., Santaray, R. N., Misra, A. K., Chaudhury, J., Saha, M. N. and Kundu, S. (2008). Potential of cropping systems and soil amendments for carbon sequestration in soils under long-term experiments in sub-tropical India. Global Change Biology 3:357–369.Google Scholar
Nelson, D. W. and Sommers, L. E. (1982). Total carbon, organic carbon, and organic matter. In Methods of Soil Analysis, 2nd ed. ASA Monograph 9(2), 539–579 (Ed. Page, A. L.). Madison, WI: American Society of Agronomy.Google Scholar
Newaj, R. and Yadav, D. S. (1994). Changes in physico-chemical properties of soil under intensive cropping systems. Indian Journal of Agronomy 39:373–378.Google Scholar
Powlson, D. S., Smith, P., Cloeman, K., Smith, J. U., Glendining, M. J., Korshens, M. and Franco, U. (1998). A European network of long-term sites for studies on soil organic matter. Soil and Tillage Research 47:263–274.CrossRefGoogle Scholar
Purakayastha, T. J., Rudrappa, L., Singh, D., Swarup, A. and Bhadraray, S. (2008). Long-term impact of fertilizers on soil organic carbon pools and sequestration rates in maize–wheat–cowpea cropping system. Geoderma 144:370–378.CrossRefGoogle Scholar
Rogasik, J., Schroetter, S., Funde, U., Schnug, E. and Kurtineez, P. (2004). Long-term fertilizer experiment as a database for calculating carbon sink potential of arable soils. Archives of Agronomy and Soil Science 50:11–19.CrossRefGoogle Scholar
Sharma, K. N., Bhandari, A. L. and Rana, D. S. (1992). Long-term influence of ingradient of crop technology in pigeonpea–wheat sequence on crop yield and soil fertility changes. Journal of Research (PAU) 28:125–131.Google Scholar
Shukla, A. K., Sharma, S. K., Singh, V. K. and Upadhay, N. C. (2004). Rice–wheat system: fertilizer management constraints and their remedial measures. In Souvenir of National Symposium on Second Generation Problem in Agriculture and its Remedies, Modipuram, India, 26–27 November, 121–139.Google Scholar
Singh, G. and Sandhu, H.S. (1980). Studies on multiple cropping II. Effect of crop rotation on physical and chemical properties of soils. Indian Journal of Agronomy 25:57–67.Google Scholar
Timsina, J. and Connor, D. J. (2001). Productivity and management of rice–wheat cropping systems: issues and challenges. Field Crop Research 69:93–132.CrossRefGoogle Scholar
Tirol-Padre, A. and Ladha, J. K. (2004). Assessing the reliability of permanganate-oxidizable carbon as an index of soil labile carbon. Soil Science Society of America Journal 68:969–978.Google Scholar
Tiwari, R. C., Verma, U. N. and Mishra, A. K. (1995). Effect of long-term cropping system on chemical characteristics of soil properties. Journal of the Indian Society of Soil Science 43:278–279.Google Scholar
Vance, E. D., Brookes, P. C. and Jenkinson, D. S. (1987). An extraction method for measuring soil microbial biomass carbon. Soil Biology and Biochemistry 19:703–707.CrossRefGoogle Scholar
Vezzani, F. M. (2001). Quality of Soil System in the Agriculture Production. PhD thesis, Federal University of Rio Grande do Sul, Porto Alegre, 184 pp. (in Portuguese).Google Scholar
Walkley, A. and Black, I. A. (1934). An examination of method for determining organic carbon in soils: effect of variations in digestion conditions and of inorganic soil constituents. Soil Science 63:251–263.CrossRefGoogle Scholar
Whitbread, A. M., Lefroy, R. D. B. and Blair, G. J. (1998). A survey of the impact of cropping on soil physical and chemical properties in north-western New South Wales. Australian Journal of Soil Research 36:669–681.CrossRefGoogle Scholar
Yadav, R. L. (1998). Factor productivity trend in rice–wheat cropping system under long-term use of chemical fertilizers. Experimental Agriculture 34:1–18.CrossRefGoogle Scholar
Yadav, R. L., Dwivedi, B. S., Gangwar, K. S. and Prasad, K. (1998). Overview and prospects for enhancing residual benefits of legumes in rice–wheat cropping system in India. In Residual Effect of Legumes in Rice and Wheat Cropping system of Indo-Gangetic Plains, 207–226 (Eds. Rao, J. V. D. K. K., Johansen, C. and Rego, T. J.) New Delhi, India: Oxford and IBH Publishing Co. Pvt. Ltd.Google Scholar