Abstract
Can artificial intelligence (AI) algorithms help policymakers in their decisions on inclusive growth? In this study, we introduce artificial intelligence algorithms to calibrate China's inclusive growth determinants. We uncover various factors that significantly influence inclusive growth using machine learning forecasts. Furthermore, our results using best practice methods outperform findings from traditional regression-based strategies on other dimensions, which miss non-linear interactions in their estimations. However, we observe that when the actual value of the inclusive growth index is too large, the accuracy of the machine learning model is diminished. Meanwhile, the results of heterogeneity analysis reveal that the determinants of inclusive growth in cities with different region and different marketization level are distinct. In addition, we adopt the scenario simulation and prediction approach to reveal the best policy measure to promote inclusive growth in China. Our findings indicate that machine learning holds promise for understanding how inclusive growth can be achieved and can assist real-world economies in enhancing inclusive growth.
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Data Availability
The datasets used and/or analyzed during the current study are available from the corresponding author on reasonable request.
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The authors are grateful to the editor and anonymous reviewers for their insightful and helpful comments.
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SF: data curation, writing original draft preparation, visualisation. WM: conceptualization, writing, reviewing, editing, and supervisor. YL: reviewing, editing and supervisor. XL: writing, reviewing, editing and proofreading.
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Appendices
Appendix A: The Indicator System of Inclusive Growth
Dimension | Sub-dimension | Basic indicator | Direction | Unit |
---|---|---|---|---|
Economic growth | Economic output | GDP per capita | + | Yuan |
Economic efficiency | Labor productivity | + | % | |
Capital productivity | + | % | ||
Economic resilience | Economic resilience index | + | – | |
Equality of opportunity | Opportunity of employment | Employment in the secondary and tertiary industries | + | % |
Registered urban unemployment rate | - | % | ||
Opportunity of employment | Investment intensity of education funds | + | % | |
Teacher/student ratio in primary schools | + | – | ||
The ratio of teachers to students in secondary schools | + | – | ||
Opportunity of education | Health technicians per thousand population | + | People | |
Number of beds in health institutions per 1,000 population | + | Piece | ||
Opportunity of medical | Endowment insurance participation rate | + | % | |
Health insurance participation rate | + | % | ||
Unemployment insurance participation rate | + | % | ||
Achievement sharing | The income gap between urban–rural | Per capita net income of rural residents | + | Yuan |
Per capita disposable income of urban residents | + | Yuan | ||
Urban–rural income ratio | - | – | ||
Regional income distribution | Regional income gap | - | – | |
Economic output sharing | Per capita income to GDP ratio | + | % |
Appendix B: Definition of Acronyms and Variables
Acronyms | Definition |
---|---|
\({\text{S}}\) | The training set of machine learning models, which is mainly used to train models |
\({\text{N}}\) | The number of features of a training set in a machine learning model |
\({\text{Q}}\) | The total number of samples in the original data set |
\({\text{M}}\) | The number of candidate features in a new feature set when constructing a decision tree |
\({\text{B}}\) | The number of training subsets extracted from the original sample by placing back sampling |
\({\text{Y}}\) | The average of prediction results of each decision tree in the random forest model |
DFI | Digital financial index |
IS | Industrial structure |
FD | Traditional financial development |
GI | Government intervention |
URB | Urbanization level |
FDI | Foreign direct investment |
TRS | Transportation level |
MAE | The mean absolute error |
MAPE | The mean absolute percentage error |
MSE | The mean square error |
RMSE | The root mean square error |
R2 | The goodness of fit |
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Fan, S., Li, Y., Mbanyele, W. et al. Determinants and Pathways for Inclusive Growth in China: Investigation Based on Artificial Intelligence (AI) Algorithm. Comput Econ (2024). https://doi.org/10.1007/s10614-024-10591-8
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DOI: https://doi.org/10.1007/s10614-024-10591-8