Abstract
Ongoing fiscal support is a crucial assurance for achieving green development, while the increasingly prominent fiscal expenditure stress has been subjected to a great challenge in achieving green transformation. Based on China’s education authority reform as a quasi-natural experiment, this study uses green total factor productivity to represent urban green development, which has been widely used in the literature, and reveals how local government fiscal expenditure stress affects green total factor productivity. It is found that local fiscal stress significantly decreases the green total factor productivity of cities. This effect is particularly pronounced for resource-based cities, cities with laxer environmental regulations, and cities under greater pressure to promote and develop their economies. Moreover, it is confirmed that it is not the revenue-raising effect but rather the expenditure reduction effect that is at play. Specifically, local governments have reduced environmental protection expenditures and green subsidies, leading to a decline in the green innovation capacity of cities and corporations. Finally, based on the above findings, policy implications are provided to reduce the risk of green transformation from the perspective of policymakers.
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Notes
Data source: The World Bank. Available at https://data.worldbank.org.cn/indicator/NY.GDP.MKTP.KD.ZG.
Data source: The World Bank. Available at https://data.worldbank.org.cn/indicator/EN.ATM.CO2E.KT.
Data source: China National Bureau of Statistics. The results are calculated by the authors.
The calculation of GTFP requires that there are no missing values for the input and output data for each city. Therefore, we had to exclude those cities with missing values.
We also examine the relationship between education expenditure and GTFP in Appendix B.
In fact, this policy was proposed by the central government in July 2010. For a local government, its budgeted expenditures have already been prepared in the previous year (2009), and there is little possibility for the local government to immediately change the scale and structure of its fiscal expenditures in the current year.
The ML index has the following advantages over parametric methods: first, it does not need to give the specific statistical distribution of decision-making units (DMUs). Second, it can handle small sample data and categorical variables. Third, it does not need to introduce time trends into the data analysis and can thus avoid the phenomenon of smoothing productivity changes that is inherent in most parametric methods.
Following Young (2003), the fixed assets stock of the first period is estimated to be 10 times the fixed asset investment in 2007. The calculations are as follows:
$${K}_{2007}={I}_{2007}*10$$$${K}_{t+1}={K}_{t}*(1-\theta )+{I}_{t+1}$$Specifically, \({K}_{2007}\) is the fixed capital stock in the base year, 2007; \({I}_{2007}\) is the total fixed assets investment of the whole city in 2007; \({K}_{t+1}\) and \({K}_{t}\) are the fixed capital stock in year t + 1 and t;\(\theta\) is the depreciation rate; and \({I}_{t+1}\) is the total fixed assets investment of the whole city in year t + 1.
GDP per capita pressures = GDP per capita of prefecture-level cities ranked one place ahead in the same province/GDP per capita of this prefecture-level city; similarly, fixed asset investment pressures = fixed asset investment of prefecture-level cities ranked one place ahead in the same province/fixed asset investment of this prefecture-level city.
We do so because local governments do not know where their city ranks this year in terms of economic development compared to other cities in the province, and local governments’ behavior in the current year is heavily influenced by the previous year’s economic development pressures. This approach of lagging one period can avoid the effects of endogeneity and yield a reasonable result.
Firm-level control variables include firm size, leverage, cash ratio, city GDP, and city fiscal expenditure size. Specifically, firm size is measured by the logarithm of total assets, leverage is measured by the ratio of total liabilities to total assets, cash ratio is measured by the ratio of total liabilities to total assets, city GDP is measured by the logarithm of GDP and city fiscal expenditure size is measured by the logarithm of fiscal expenditure.
The pilot area includes the provinces of Guangdong, Liaoning, Hubei, Shaanxi and Yunnan and the cities of Tianjin, Chongqing, Shenzhen, Xiamen, Hangzhou, Nanchang, Guiyang and Baoding.
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Acknowledgements
We acknowledge the financial support from the National Social Science Foundation of China (Grant No. 18ZDA064), National Natural Science Foundation of China (Grant Nos. 72273038, 72271080, 71803035 and 71801068), and the Fundamental Research Funds for the Central Universities of China (#JZ2021HGTB0067).
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Appendices
Appendix A
Specifically, the ML productivity index is based on the directional distance function denoted by \(\vec{D}\left( {L,K,E,Y,CO2} \right) = sup\left\{ {\beta :\left( {\left( {L,K,E,Y,CO2} \right) + g \cdot \beta } \right) \in T} \right\}\). T is the production technology, and g is the vector of direction. In this study, we set \(g = \left( {Y, - CO2} \right)\), which means desirable output is pursued to increase and undesirable output is pursued to decrease. The output-oriented Malmquist–Luenberger (ML) productivity index is as follows:
Specifically, and respectively denote the inputs, desirable output as well as undesirable output in adjacent periods t and t + 1. means the efficiency increases, and means the efficiency decreases. The Malmquist–Luenberger productivity index can be decomposed into two components, and, measure the efficiency change and technology change, respectively.
Appendix B
We examine the relationship between education expenditure and GTFP and the result is shown in Fig.
5. Figure 5 shows GTFP is negatively associated with the ratio of education expenditure to fiscal expenditure, indicating that cities have lower levels of green development when local government spend more on education. What’s more, we also examine the relationship between the scale of environmental expenditures and GTFP in Fig.
6, finding that a larger scale of environmental expenditures is beneficial to urban green transformation. Our explanation of the results in Figs. 5 and 6 is shown below.
First of all, according to the theoretical logic of this paper, the increase of education expenditure target has caused a steep increase of fiscal expenditure pressure in the short term, and in order to cope with the increase of education expenditure, under the condition of limited “open source” of fiscal revenue, “cutting down” of fiscal expenditure and adjusting the structure of fiscal expenditure will be important channels. This paper finds that education expenditure is negatively correlated with GTFP and environmental expenditure is positively correlated with GTFP. The logic is that in order to cope with the pressure of education expenditure, local governments may reduce environmental protection expenditure, thus reducing GTFP.
Second, our results do not imply that we deny that human capital promotes GTFP. We would like to declare that the role of human capital in promoting GTFP is not equivalent to the role of education expenditure. On the one hand, it takes a long time for education investment to promote human capital upgrading, and the short-term growth of education expenditure, which is the focus of this paper, can hardly play a long-term role in human capital upgrading, and thus can hardly provide human capital support for GTFP enhancement. According to Ahmed et al. (2020), there is a strong correlation between human capital and sustainable development over a sizable period of time (1970–2016).
Third, China, as a developing country, has a bias in educational investment toward primary education rather than higher education. Wang et al. (2023) find that not all human capital contributes to GTFP, only higher education human capital contributes to GTFP, and primary education human capital even reduces GTFP. The National Medium- and The National Medium- and Long-Term Education Reform and Development Plan (2010–2020) stipulates that compulsory education is fully included in the scope of financial protection, and local governments at all levels are responsible for its implementation. Higher education implements a mechanism to raise funds mainly by the organizers' input, the recipients' reasonable share of training costs, and the schools' establishment of funds to accept social donations. In other words, the growth target of education expenditure of local governments reflects more the requirement for the growth of primary education investment, thus finding a negative correlation between education expenditure and GTFP growth. And it should be emphasized that this paper focuses on the relationship between education expenditures pressure and GTFP rather than the relationship between education expenditures and GTFP.
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Peng, F., Zhou, S., Ding, T. et al. Impact of fiscal expenditure stress on green transformation risk: evidence from China education authority reform. Econ Change Restruct 56, 4565–4601 (2023). https://doi.org/10.1007/s10644-023-09567-9
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DOI: https://doi.org/10.1007/s10644-023-09567-9