Scientia Agricultura Sinica ›› 2012, Vol. 45 ›› Issue (15): 3189-3196.doi: 10.3864/j.issn.0578-1752.2012.15.022

• AGRICULTURAL ECONOMY & MANAGMENT • Previous Articles     Next Articles

Will the Recession of Efficiency in China’s Agriculture End? —An Investigation Based on the Angle of Openness and Convergence

 MA  Shu-Zhong, FENG HAN    

  1. 浙江大学区域经济开放与发展研究中心,杭州 310027
  • Received:2011-08-19 Online:2012-08-01 Published:2011-11-18

Abstract: 【Objective】 The technology efficiency in China’s agriculture had keep recession for decades. This paper tries to find the influence of the open environment on China’s agricultural productivity, and answer whether the recession of efficiency in China’s agriculture will end. 【Method】 A second stage regression using the output-oriented Malmquist productivity indexes and their decompositions of China’s agricultural sector as dependent variables.【Result】A robust convergence in China's agricultural efficiency was found, which also has been enlarged by the open environment. It was also found that the “equilibrium” efficiency level was growing in the recent years.【Conclusion】The results show that the open environment will end the recession of China’s agricultural efficiency at last.

Key words: China, agriculture productivity, efficiency change, open environment, convergence

[1]Mao W, Koo W. Productivity growth, technological progress, and efficiency change in Chinese agriculture after rural economic reforms: a DEA approach. China Economic Review, 1997, 8 (2): 157-174.

[2]Tian W M, Wan G H. Technical efficiency and its determinants in China’s grain production. Journal of Productivity Analysis, 2000, 13(2): 159-174.

[3]陈卫平. 中国农业生产率增长、技术进步与效率变化:1990—2003年. 中国农村观察, 2006(1): 18-23.

Chen W P. Productivity growth, technical progress and efficiency change in Chinese agriculture: 1990-2003. China Rural Survey, 2006(1): 18-23. (in Chinese)

[4]Chen P Z, Yu M M, Chang C C, Hsu S H. Total factor productivity growth in China’s agricultural sector. China Economic Review, 2008, 19(4): 580-593.

[5]Jin S, Ma H Y, Huang J K, Hu R F, Scott R. Productivity, efficiency and technical change: measuring the performance of China’s transforming agriculture. Journal of Productivity Analysis, 2010, 33(3): 191-207.

[6]颜鹏飞, 王  兵. 技术效率、技术进步与生产率增长:基于DEA的实证分析. 经济研究, 2004(12): 55-65.

Yan P F, Wang B. Technical efficiency, technical progress and productivity growth: an empirical analysis based on DEA. Economic Research Journal, 2004(12): 55-65. (in Chinese)

[7]车维汉, 杨  荣. 技术效率、技术进步与中国全要素生产率提高——基于国际比较的实证分析. 财经研究, 2010(3): 113-123.

Che W H, Yang R. Technical efficiency, technical progress and the increase of agricultural total factor productivity in China: empirical study based on international comparisons. Journal of Finance and Economics, 2010(3): 113-123. (in Chinese)

[8]Chen Z, Song S F. Efficiency and technology gap in China’s agriculture: a regional meta-frontier analysis. China Economic Review, 2008, 19: 287-296.

[9]李谷成, 冯中朝, 占绍文. 家庭禀赋对农户家庭经营技术效率的影响冲击——基于湖北省农户的随机前沿生产函数实证. 统计研究, 2008(1): 35-42.

Li G C, Feng Z C, Zhan S W. An empirical analysis about the effect of household endowments on the technical efficiency of farmer’s household management-evidence from the farmers of Hubei province. Statistical Research, 2008(1): 35-42. (in Chinese)

[10]Coelli T J, Rao D S P. Total factor productivity growth in agriculture: a malmquist index analysis of 93 countries, 1980-2000. Agricultural Economics, 2005, 32 (1): 115-134.

[11]孔祥智, 方松梅, 庞晓鹏, 马九杰. 西部地区农户禀赋对农业技术采纳的影响分析. 经济研究, 2004(12): 85-95, 122.

Kong X Z, Fang S M, Pang X P, Ma J J. Analysis of the effect of household endowments on the agricultural technology adoption decision in west China. Economic Research Journal, 2004(12): 85-95, 122. (in Chinese)

[12]Madsen J. Technology spillover through trade and TFP convergence: 135 years of evidence for the OECD countries. Journal of International Economics, 2007, 72 (2): 464-480.

[13]Coelli T J, Rao D S P, O’Donnell C J, Battese G E. An Introduction to Efficiency and Productivity Analysis. 2nd ed. New York: Springer, 2005.

[14]Deng X, Huang J K, Scott R, Uchida E. Cultivated land conversion and potential agricultural productivity in China. Land Use Policy, 2006, 23(4): 372-384.

[15]白人朴. 我国农机化作业水平的统计误差分析. 现代农业装备, 2005(2): 72-76.

Bai R P. An analysis of the statistical errors in agricultural mechanization level in China. Modern Agricultural Machinery, 2005(2): 72-76. (in Chinese)

[16]Monchuk D, Chen Z, Bonaparte Y. Explaining production inefficiency in China’s agriculture using data envelopment analysis and semi-parametric bootstrapping. China Economic Review, 2010, 21: 346-354.

[17]Arnade C. Using a programming approach to measure international agricultural efficiency and productivity. Journal of Agricultural Economics, 1998, 49 (1): 67-84.

[18]Huang J K, Rozelle S, Pray C, Wang Q. Plant biotechnology in China. Science, 2002, 295 (5555): 674-676.

[19]Herrmann-Pillath C, Kirchert D, Pan J C. Prefecture-level statistics as a source of research into China’s regional development. The China Quarterly, 2002, 172: 956-985.

[20]Tauer L W. Input aggregation and computed technical efficiency. Applied Economics Letters, 2001, 8(5): 295-297.

[21]Wu S, Walker D, Devadoss S, Lu Y C. Productivity growth and its components in Chinese agriculture after reforms. Review of Development, 2001, 5(3): 375-391.

[22]Chen Z, Huffman W E, Rozelle S. Farm technology and technical efficiency: evidence from four regions in China. China Economic Review, 2009, 20 (2): 153-161.

[23]Rawski T, Mead R. On the trail of China’s phantom farmers. World Development, 1998, 20 (5): 767-781.
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