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How does the robot adoption promote carbon reduction?: spatial correlation and heterogeneity analysis
Yang Nie1, Yang Zhou2,3, Hankun Wang4
1Guanghua School of Management, Peking University, Beijing, 100871, China.
Environmental Science and Pollution Research International
|October 18, 2023
Summary
Robot adoption significantly cuts carbon emissions by enhancing industrial intelligence. However, marketization can mask this effect, while spatial spillover benefits neighboring regions, aiding overall carbon reduction efforts.
Area of Science:
- Environmental Science
- Industrial Engineering
- Economics
Background:
- Robots are increasingly vital for industrial intelligence and achieving carbon reduction goals.
- Limited research exists on the specific carbon reduction effects and mechanisms of robot adoption.
- Understanding these impacts is crucial for effective environmental policy.
Purpose of the Study:
- To investigate the impact of robot adoption on carbon emissions in China.
- To analyze the underlying mechanisms through which robots influence carbon reduction.
- To explore moderating and spatial spillover effects of robot adoption on emissions.
Main Methods:
- Utilized provincial panel data from China (2006-2019) covering 30 provinces.
- Employed econometric models to assess the relationship between robot adoption and carbon emissions.
- Analyzed the moderating role of marketization and spatial spillover effects.
Main Results:
- Robot adoption demonstrates a significant carbon emission reduction effect.
- Marketization degree acts as a masking factor, partially limiting the carbon reduction benefits of robots.
- The carbon reduction impact of robots is more pronounced in regions with initially lower carbon emissions.
- Robot adoption exhibits significant positive spatial spillover effects on adjacent regions.
Conclusions:
- Robot adoption is a viable strategy for reducing carbon emissions, particularly in less developed regions.
- Policy interventions should consider the marketization context to maximize robot-driven carbon reduction.
- The positive spatial externalities of robot adoption highlight the importance of regional cooperation in emission reduction efforts.
- Findings support the integration of robotics into environmental policies for sustainable development.
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