Agricultural productivity remains central to food security and sustainable development, particularly in China, where persistent regional disparities, resource constraints, and input inefficiencies continue to shape production outcomes. This study therefore examines how fertilizer input (AGFU), agricultural mechanization (TPAM), and irrigation efficiency (EFIA) jointly influence agricultural output (AGOV) within a spatially interconnected production system.
Grounded in endogenous growth theory and the production function framework, the study addresses key gaps related to spatial dependence, input efficiency, and heterogeneous agricultural structures. Using provincial panel data from 31 Chinese provinces over the period 2005–2023. The Spatial Durbin Model (SDM) is used to estimate both direct and spillover effects. Robustness is ensured through IV, 2SLS, and System GMM estimations to address potential endogeneity. A mediation analysis is also conducted using agricultural patent counts (AGPC) to capture the role of technological diffusion.
The results indicate that AGFU, TPAM, and EFIA significantly enhance AGOV, with mechanization (TPAM) showing the most stable and consistent positive effect across specifications. Irrigation efficiency (EFIA) contributes significantly to agricultural output and generates positive spatial spillovers. At the same time, fertilizer input (AGFU) shows strong local effects but relatively weaker or negative spillover effects, suggesting diminishing returns and inefficiencies linked to overuse. Mediation results confirm that AGPC significantly transmits the effects of agricultural inputs to AGOV, highlighting the importance of technology diffusion as a key channel in agricultural productivity. Heterogeneity analysis further shows that the effects of AGFU, TPAM, and EFIA vary significantly across regions, farm operation scales, policy environments, and planting structures, confirming strong structural differences in agricultural production dynamics.
Southeast Asia plays a strategic role in global rice production, yet agricultural performance across countries may be shaped not only by internal production conditions but also by spatial interaction mechanisms. This study investigates sustainable agricultural efficiency and spatial dependence across five major ASEAN r...
Titin Dwi Aryanti, Suryanto, Evi Gravitiani· Nature Environment and Pollu...· 0 citations
Within China’s agricultural sector, agricultural new quality productive forces (ANQPFs) constitute an emerging productivity paradigm; however, further empirical testing is still needed to determine whether and through what mechanisms they affect rural economic sustainability. Previous academic studies have mainly exami...
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The empirical results demonstrate that agricultural digitalization significantly enhances AGTFP, a finding that is robust to a battery of specification checks, and Mechanism analysis reveals that rural industrial integration serves as a crucial partial mediator in this relationship.
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Agricultural sustainability remains a global priority, but how digital infrastructure accelerates this transition is still poorly specified. Drawing on provincial panel data from 30 Chinese provinces (2010–2023), this study quantifies the effect of digital infrastructure on agricultural green total factor productivity...
It is indicated that digitization considerably enhances AGTFP, and this association remains stable across a range of robustness checks, and regionally differentiated digital agriculture strategies, strengthening the socialized agricultural service system, and enhancing synergy between environmental regulation and digit...
Agricultural green development (AGD) is crucial for food security, eco-efficiency, and rural sustainability. However, existing studies seldom examine structural shifts in AGD drivers across development stages. Using 2004–2023 county data from Hunan, we measure AGD via combined-weighting–TOPSIS and apply a panel thresho...
Assistant Professor Benjamin Lindquist studies how engineers deliberately injected randomness into early AI, giving rise to deep-learning models that sometimes hallucinate.
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