Analysis of the Potential for Crop-livestock Integration in Bu-rang County, China

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  • 1. Key Laboratory of Ecosystem Network Observation and Modeling, Institute of Geographic Sciences and Natural Resources Research, Chinese Academy of Sciences, Beijing 100101, China;
    2. University of Chinese Academy of Sciences, Beijing 100190, China

Received date: 2019-07-18

  Accepted date: 2019-09-04

  Online published: 2020-01-30

Supported by

The National Key Research and Development Program of China (2016YFC0502001, 2016YFC0501803); Kailash Sacred Landscape

Abstract

Crop-livestock integration (CLI) is a significant practice for livestock grazing systems in alpine rangelands. It offers the potential to achieve sustainable crop and livestock production. However, the separate crop and livestock systems that exist today have led to issues of intensive agriculture, rangeland degradation and forage shortage in the Tibetan Plateau. Developing crop-livestock integration through sown pastures can be an effective way to lift pasture productivity and improve livestock production. Thus, to explore the potential for integrating crop and livestock production in alpine grazing systems, an assessment of potential forage and livestock production using multiple datasets was carried out in Burang County, China. Results showed the marginal land potentially available for sown pastures was about 560 ha, located mostly in the Burang township of the Karnali basin. Accumulated temperature was the dominant limiting factor for establishing sown pastures, therefore cold tolerance of forage species and growth period should be taken into consideration. Furthermore, the number of livestock decreased during the period 2012–2016; yet often, the number of livestock in rangeland landscape was greater than that in agro-pastoral landscape. The average number of livestock was about 110000 standard sheep units (SU) in the study area, but forage from sown pastures and crop residues could potentially feed about 11000 SU, accounting for 50% of the livestock population in the Karnali basin. We found that integrating crop and forage production could fill feed gaps for grazing systems, particularly in the agro-pastoral landscape of the Karnali basin. The results of this study provide scientific support to guide future forage production and to promote further crop and livestock integration in Burang County.

Cite this article

DUAN Cheng, SHI Peili, ZONG Ning, ZHANG Xianzhou . Analysis of the Potential for Crop-livestock Integration in Bu-rang County, China[J]. Journal of Resources and Ecology, 2020 , 11(1) : 69 -76 . DOI: 10.5814/j.issn.1674-764x.2020.01.007

References

1 Akiyama T, Kawamura K.2007. Grassland degradation in China: Methods of monitoring, management and restoration.Grassland Science, 53(1): 1-17.
2 Allen V G, Baker M T, Segarra E, et al.2007. Integrated irrigated crop- livestock systems in dry climates.Agronomy Journal, 99(2): 346-360.
3 Bai Y, Pan Q, Xing Q.2016. Fundamental theories and technologies for optimizing the production functions and ecological functions in grassland ecosystems.Chinese Science Bulletin, 61(2): 201-212. (in Chinese)
4 Bell LW, Moore A D. Kirkegaard J A.2014. Evolution in crop-livestock integration systems that improve farm productivity and environmental performance in Australia.European Journal of Agronomy, 57: 10-20.
5 de Oliveira C A O, Bremm C, Anghinoni I, et al.2013. Comparison of an integrated crop-livestock system with soybean only: Economic and production responses in southern Brazil.Renewable Agriculture and Food Systems, 29(3): 230-238.
6 Dhima K V, Vasilakoglou I B, Keco R X, et al.2014. Forage yield and competition indices of faba bean intercropped with oat.Grass and Forage Science, 69(2): 376-383.
7 Duan C, Shi P, Zhang X, et al.2017. The rangeland livestock carrying capacity and stocking rate in the Kailash Sacred Landscape in China.Journal of Resources and Ecology, 8(6): 551-558.
8 Fan J W, Shao Q Q, Liu J Y, et al.2010. Assessment of effects of climate change and grazing activity on grassland yield in the Three Rivers Headwaters Region of Qinghai-Tibet Plateau, China.Environmental Monitoring & Assessment, 170(1-4): 571-584.
9 Franzluebbers A J.2007. Integrated Crop-Livestock Systems in the Southeastern USA.Agronomy Journal, 99(2): 361-372.
10 Garrett R D, Niles M T, Gil J D B, et al.2017. Social and ecological analysis of commercial integrated crop livestock systems: Current knowledge and remaining uncertainty.Agricultural Systems, 155: 136-146.
11 Harris R B.2010. Rangeland degradation on the Qinghai-Tibetan plateau: A review of the evidence of its magnitude and causes.Journal of Arid Environments, 74(1): 1-12.
12 Li D, Liu J, Chen H, et al.2018. Forage grass cultivation increases soil organic carbon and nitrogen pools in a karst region, Southwest China.Land Degradation & Development, 29: 4397-4404.
13 Li L, Lu P, Gu X, et al.2016. Principles and paradigms for developing artificial pastures.Chinese Science Bulletin, 61(2): 193-200. (in Chinese)
14 Liu S.1988. The heat conditions of artificial forage in growing period.Journal of Gansu Agricultural University, 2: 82-87. (in Chinese)
15 Liu S, Cheng F, Dong S, et al.2017a. Spatiotemporal dynamics of grassland aboveground biomass on the Qinghai-Tibet Plateau based on validated MODIS NDVI.Scientific Reports, 7(1): 4182. DOI: 10.1038/s41598-017-04038-4
16 Liu S, Schleuss P M, Kuzyakov Y.2017b. Carbon and nitrogen losses from soil depend on degradation of Tibetan Kobresia Pastures.Land Degradation & Development, 28: 1253-1262.
17 Liu S, Schleuss P M, Kuzyakov Y.2018. Responses of degraded Tibetan Kobresia Pastures to N addition.Land Degradation & Development, 29: 303-314.
18 Liu X, Zhu X, Pan Y, et al.2016. Thermal growing season and response of alpine grassland to climate variability across the Three-Rivers Headwater Region, China.Agricultural and Forest Meteorology, 220: 30-37.
19 Ma X, Li Z, Deng K.2001. The present situation and development strategy of the production of cropping industry in the middle area of the Xizang Autonomous Region.Journal of China Agricultural Resources and Regional Planning, 22(1): 37-40. (in Chinese)
20 Maughan M W, Flores J P C, Anghinoni I, et al.2009. Soil quality and corn yield under crop-livestock integration in Illinois.Agronomy Journal, 101(6): 1503-1510.
21 O’Reagain P, Bushell J, Holloway C, et al.2009. Managing for rainfall variability: Effect of grazing strategy on cattle production in a dry tropical savanna. Animal Production Science, 49(2): 85-99.
22 O’Reagain P, Bushell J, Holmes B.2011. Managing for rainfall variability: long-term profitability of different grazing strategies in a northern Australian tropical savanna.Animal Production Science, 51(3): 210-224.
23 O’Reagain P, Scanlan J.2012. Sustainable management for rangelands in a variable climate: evidence and insights from northern Australia.Animal, 7(s1): 1-11.
24 O’Reagain P, Scanlan J, Hunt L, et al.2014. Sustainable grazing management for temporal and spatial variability in north Australian rangelands—A synthesis of the latest evidence and recommendations.The Rangeland Journal, 36(3): 223-232.
25 Piao S, Fang J, He J.2006. Variations in vegetation net primary production in the Qinghai-Xizang Plateau, China from 1982 to 1999.Climatic Change, 74(1-3): 253-267.
26 Reddy P P.2016. Integrated Crop-Livestock Farming Systems. In: Reddy P P (ed) . Sustainable Intensification of Crop Production. Singapore, Springer Singapore: 357-370.
27 Ross S M, King J R, O’Donovan J T, et al.2005. The productivity of oats and berseem clover intercrops. II. Effects of cutting date and density of oats on annual forage yield.Grass and Forage Science, 60(1): 87-98.
28 Russelle M P, Entz M H, Franzluebbers A J.2007. Reconsidering integrated crop-livestock systems in North America.Agronomy Journal, 99(2): 325-334.
29 Sekamatte B M, Ogenga Latigo M, Russell Smith A.2003. Effects of maize-legume intercrops on termite damage to maize, activity of predatory ants and maize yields in Uganda.Crop Protection, 22(1): 87-93.
30 Tanaka D L, Karn J F, Scholljegerdes E J.2008. Integrated crop/livestock systems research: Practical research considerations.Renewable Agriculture & Food Systems, 23(1): 80-86.
31 Tozer K N, Douglas G B, Moss R A, et al.2016. Effect of seed mix, sowing time, summer fallow, site location and aspect on the establishment of sown pasture species on uncultivable hill country.New Zealand Journal of Agricultural Research, 59(4): 389-411.
32 Vasilakoglou I, Dhima K, Lithourgidis A S, et al.2008. Competitive ability of winter cereal-common vetch intercrops against sterile oat.Experimental Agriculture, 44(4): 509-520.
33 Vere D T, Dowling P M.2003. An economic analysis of sown pasture trends on the tablelands of south-eastern New South Wales.Rangeland Journal, 25(1): 56-69.
34 Viaud V, Santillàn Carvantes P, Akkal Corfini N, et al.2018. Landscape- scale analysis of cropping system effects on soil quality in a context of crop-livestock farming.Agriculture Ecosystems & Environment, 265: 166-177.
35 Xiong D, Shi P, Sun Y, et al.2014. Effects of grazing exclusion on plant productivity and soil carbon, nitrogen storage in alpine meadows in northern Tibet, China.Chinese Geographical Science, 24(4): 488-498.
36 Xiong D, Shi P, Zhang X, et al.2016. Effects of grazing exclusion on carbon sequestration and plant diversity in grasslands of China—A meta- analysis.Ecological Engineering, 94: 647-655.
37 Zhao H, Liu S, Dong S, et al.2015. Analysis of vegetation change associated with human disturbance using MODIS data on the rangelands of the Qinghai-Tibet Plateau.Rangeland Journal, 37(1): 77-87.
38 Zhong Z, Huang X, Feng D, et al.2018. Long-term effects of legume mulching on soil chemical properties and bacterial community composition and structure.Agriculture, Ecosystems & Environment, 268: 24-33.
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