4.7 Article

Path mechanism and spatial spillover effect of green technology innovation on agricultural CO2 emission intensity: A case study in Jiangsu Province, China

Journal

ECOLOGICAL INDICATORS
Volume 157, Issue -, Pages -

Publisher

ELSEVIER
DOI: 10.1016/j.ecolind.2023.111147

Keywords

Green technology innovation; Agricultural carbon emission intensity; dynamic SAR model; LSDVC; Spatial spillover effect; Moderating effect

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This study investigates the impact mechanism of green technology innovation on agricultural carbon emission intensity and finds that it can effectively inhibit carbon emission intensity under the regulation of energy structure optimization and agricultural industry agglomeration. The study also reveals positive spatial spillover effects and highlights the importance of managing the transfer and distribution of green technology innovation to reduce carbon emission intensity.
Green technology innovation (GTI) is one of the most important factors influencing agricultural carbon emission intensity (ACEI). Various studies have explored the impact of GTI on ACEI, but the path mechanism has not been fully explained. This study incorporates GTI and ACEI into the constant elasticity of substitution (CES) production function and constructs a theoretical model to analyse their direct impact mechanisms. Drawing on the substitution effect theory and the Marshall-Arrow-Romer (MAR) externalities theory, this study introduces two regulatory mechanisms: optimization of energy structure and agricultural industry agglomeration (AIG). Additionally, it explores the pathway mechanisms under the influence of spatial spillover effects based on Tobler's first law of geography. Then, taking Jiangsu Province in China as a case study, empirical tests are conducted using LSDVC and dynamic spatial SAR models. The results are as follows. (1) GTI effectively inhibits ACEI directly, and has significantly positive spatial spillover effects on ACEI reduction in the short and long terms. (2) Energy structure optimization positively regulates the effect of GTI on ACEI reduction, and energy structure optimization in nearby cities may help GTI restrain ACEI in the local city in the short term. (3) AIG has a positive regulating effect on GTI reducing ACEI, and the moderating effect of AIG has positive spillover effects in the short term. (4) When both regulatory pathways are employed simultaneously, the moderating effect of AIG in local or neighbouring areas is expected to become ineffective. These findings are useful for solving the problem of ACEI reduction by managing the transfer and distribution of GTI between different regions, considering spatial spillover and moderating effects.

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