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Smart Agriculture ›› 2026, Vol. 8 ›› Issue (3): 239-252.doi: 10.12133/j.smartag.SA202602010

• 专刊--数字技术赋能与农业经济范式转型 • 上一篇    下一篇

大数据技术驱动农业经济研究范式转型:维度、趋势与建议

赵炳坤1, 闫琰1,2,3, 王秀东1,2,3()   

  1. 1. 中国农业科学院农业经济与发展研究所,北京 100081,中国
    2. 中国农业科学院战略研究中心,北京 100081,中国
    3. 中国农业发展战略研究院,北京 100081,中国
  • 收稿日期:2026-02-03 出版日期:2026-05-30
  • 基金项目:
    中国农业科学院科技创新工程项目(10-IAED-RC-04-2026); 中央级公益性科研院所基本科研业务费专项(Y2026ZZ53;Y2026ZK10); 中国工程院科技战略咨询项目(2025-PP-10-01); 中国工程院战略研究与咨询项目(2025-XBZD-11-02)
  • 作者简介:

    赵炳坤,博士研究生,研究方向为种植业经济。E-mail:

  • 通信作者:
    王秀东,博士,研究员,研究方向为粮食及食物安全、农业农村发展战略、农业产业经济。E-mail:

The Transformation of Agricultural Economics Research Paradigms Driven by Big Data Technology: Dimensions, Trends and Suggestions

ZHAO Bingkun1, YAN Yan1,2,3, WANG Xiudong1,2,3()   

  1. 1. Institute of Agricultural Economy and Development, Chinese Academy of Agricultural Sciences, Beijing 100081, China
    2. Centre for Strategic Studies, Chinese Academy of Agricultural Sciences, Beijing 100081, China
    3. Chinese Institute of Agricultural Development Strategies, Beijing 100081, China
  • Received:2026-02-03 Online:2026-05-30
  • Foundation items:Science and Technology Innovation Project of the Chinese Academy of Agricultural Sciences(10-IAED-RC-04-2026); Central Public-interest Scientific Institution Basal Research Fund(Y2026ZZ53;Y2026ZK10); Science and Technology Strategic Consultation Project of Chinese Academy of Engineering(2025-PP-10-01); Strategic Research and Consulting Project of Chinese Academy of Engineering(2025-XBZD-11-02)
  • About author:

    ZHAO Bingkun, E-mail:

  • Corresponding author:
    WANG Xiudong, E-mail:

摘要:

【目的/意义】 传统农业经济学研究范式对现实问题的分析能力弱,难以适配数字时代复杂农业系统。深入分析大数据技术驱动下农业经济研究范式的转型动因、核心特征与发展趋势,对于推动农业经济学科的理论创新、指导农业经济学科范式发展等重大现实议题具有重要意义。本研究围绕两个核心问题展开:其一,大数据技术如何重塑农业经济研究的数据来源、研究载体等7个维度,进而推动其向数据密集型范式转型;其二,这一转型过程在数据、方法与治理层面伴生的挑战。 【方法】 基于库恩科学范式理论,从数据来源、研究载体、研究对象、研究思路、研究方法、评价标准和组织形式7个维度,对比农业经济研究四阶段演进特征,剖析数据密集型第 4 范式的变革逻辑,识别转型多重困境并提出优化路径。 【结果和讨论】 大数据技术正推动农业经济研究向数据密集型的第4科学范式跃迁,这一转型涉及7个维度。数据来源从小样本、结构化、低频静态形态转向全量、多源异构、高频实时形态;研究载体从现实场景延伸至数字孪生与平台观测构成的虚实融合空间;研究对象拓展至农户异质性行为、有限理性决策、长周期演化及生态-经济-社会耦合等议题;研究思路从事后归纳转向前瞻推演,形成数据与理论的双向迭代;方法层面,双重机器学习、因果森林等算法与计量模型结合,兼顾因果识别与模式发现;评价标准从理论简洁性与回归显著性转向数据有效性、预测精度与方法-问题适配性;组织形式上,跨学科团队与数据共享平台逐步常态化。转型同时伴随选择性偏误与数字鸿沟、相关性与因果性的方法论张力、算法可解释性缺失及数据安全风险等挑战。 【结论】 大数据带来农经学科整体性范式革新,并非单纯工具升级。未来应加快农业数据基础设施建设,推动跨学科协作与方法融合,完善数据治理与伦理规范,为农业经济学科自主知识体系建设奠定基础。

关键词: 大数据技术, 农业经济, 数据密集型科学, 数据驱动, 学科自主知识体系, 库恩科学范式理论, 数字鸿沟

Abstract:

[Objective] In the context of climate change, increased production risks, the digital reconfiguration of the allocation of agricultural factors, and the current challenges of food security, green development, and rural revitalisation, traditional agricultural economics research based on small-sample survey, the aggregated statistics, and the linear causal inference has shown decreasing ability to describe nonlinear relationships, spatial-temporal heterogeneity and dynamic interactions in agricultural production and rural society. This research aims to explore the paradigm shift of agricultural economics research catalyzed by big data technologies, explain the implications of big data for the discipline's evidence foundation, analytical thinking and organizational forms, and to draw out the key analytical, data-governance, and ethical problems that come with this shift. It further intends to provide theoretical references for constructing an independent agricultural economic knowledge system with Chinese characteristics amid the ongoing digital transformation of agriculture. [Methods] Drawing on Kuhn's theory of scientific paradigms, the agricultural economics research paradigm is a historically situated ensemble of common commitments, data conventions, and analytical practices and disciplinary norms that guided research. The historical trajectory of agricultural economics in China was traced, and the big-data-driven transformation was examined across seven dimensions: data source, research carrier, research object, research approach, research method, evaluation standard, and research organization. The analysis focused on the way the construction of digital infrastructure and the rise of intelligent analytics transformed agricultural knowledge production. Salient risks attending the deployment of big data were also identified, including biases in data, loss of capacity for causal identification, algorithmic opacity, and new challenges in the field of research ethics and governance. [Results and Discussions] Chinese agricultural economics has experienced four eras of evolution: the early theoretical importation and localization period, the rise of quantitative and econometric analysis period, computationally-assisted inquiry period, and data-intensive scientific inquiry period. The evidentiary base of the field has been transformed, as a massive volume of multi-source data, derived from different technologies, has emerged. Research that used to be limited to small scale, low frequency, structured datasets is now increasingly based on large-scale streams of high-frequency, multi-modal, near real-time data, greatly extending the range and granularity of empirical research. In addition to household surveys and field observations, a hybrid virtual-physical platform, such as digital twin systems, platform-based monitoring and integrated data observatories, was now introduced. The focus expanded from a relatively homogeneous group of farm households to a much more diverse group of small farmers, agribusinesses, actors in the digital platform, rural service providers, and policy actors. Research questions, which were mainly related to static production decisions, were increasingly focusing on bounded rationality, long-term dynamics of behaviour and the ecological-economic-social interactions of rural transformation. Research strategies became more future-oriented, combining forecasting, the modeling of scenarios and cycles of theory revisions. At the method level, machine learning, double machine learning, causal forests, and other tools started to complement standard econometrics, allowing to expand the toolkit to predictive modeling, heterogeneity analysis and more sophisticated causal inference. Evaluative standards were revised also: data quality, predictive fidelity, out-of-sample validity and method-problem fit grew in importance relative to theoretical parsimony and statistical significance alone. Research shifted from isolated, discipline-based research teams to open, collaborative research ecosystems, based on interdisciplinary collaborations and data-sharing platforms. This change was accompanied by four challenges. First, issues of representativeness of data at the data level arose as digital cleavages and a false sense of comprehensiveness often underrepresented remote areas, elderly, and digitally ignored smallholders. Second, at the methodological level, the correlation-causation dichotomy was more prominent since machine learning has been more successful at prediction than in identifying generative mechanisms. Third, algorithmic opacity led to issues of transparency, accountability and fairness in various contexts, including in agricultural subsidy allocation, credit scoring and risk assessment. Fourth, there were increasing risks of privacy infringement and data insecurity, as agricultural big data can also include sensitive personal, operational and strategic data. [Conclusions] Big data technology is driving a transition of agricultural economics from a purely model-centric paradigm towards a data-model co-driven "fourth data-intensive scientific paradigm". It reframes the questions addressed by the discipline, the assumptions it makes, the analytical frameworks it utilizes and the organization of research. Future efforts should focus on four aspects: establishing national unified agricultural big data infrastructure, the integration of data resources, analytical models and algorithmic tools into a shared infrastructure, training and research activities to be undertaken in an interdisciplinary fashion, and constructing governance mechanisms and ethics for agricultural big data.

Key words: big data technology, agricultural economics, data-intensive science, data-driven, independent knowledge system of agricultural economics, Kuhn's theory of scientific paradigms, digital divide

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