Submitted:
04 January 2025
Posted:
07 January 2025
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Abstract
Keywords:
1. Introduction
2. Literature Review
2.1. Institutional Drivers of National Growth
2.2. Theoretical Characterizations of Inclusive and Extractive Instituions
"Inclusive economic institutions, are those that allow and encourage participation bythe great mass of people in economic activities that make best use of their talents and skills and that enable individuals to make the choices they wish. To be inclusive, economic institutions must feature secure private property, an unbiased system of law, and a provision of public services that provides a level playing field in which people can exchange and contract; it also must permit the entry of new businesses and allow people to choose their careers." [1]
Extractive political institutions concentrate power in the hands of a narrow elite and place few constraints on the exercise of this power. Economic institutions are then often structured by this elite to extract resources from the rest of the society. Extractive economic institutions thus naturally accompany extractive political institutions. In fact, they must inherently depend on extractive political institutions for their survival [1].
2.3. Research Objective
3. Hypotheses
- H1: In the resolute progression of institutional development, nations characterized by a higher degree of inclusiveness manifested in the amplification of voice and accountability, the establishment of effective governance, the adherence to the rule of law, and an augmented commitment to research and development shall inevitably achieve greater sustainability. Inclusive institutions by cultivating an environment where resources are equitably distributed, and innovation is not only encouraged but institutionalized, create the necessary conditions for sustainable practices. These institutions through their large participation, go beyond the limitations of narrow, self-serving interests, and establish congruity between economic growth and sustainability. Good governance and sustainability are inseparable aspects of the modern institution, as effective governance structures inherently facilitate the advancement of sustainability objectives. The integration of sustainability into the core operations of an institution is increasingly recognized as essential [13,14].
- H2: In contrast, nations that exhibit higher scores of extractiveness as evident in the prevalence of corruption, political instability, and low regulatory quality, will manifest diminished sustainability outcomes. These institutions, grounded in the concentration of power and wealth in the hands of a few, thwart the potential for sustainable development. By fostering a system wherein resources are misallocated and inequalities entrenched, such institutions obstruct the very conditions required for long-term prosperity and environmental equilibrium. Ineffective governance, as a limiting factor, can obstruct the advancement of environmental innovation. When governance structures are deficient, institutions are less likely to generate green innovations, particularly in circumstances where institutional ownership is minimal and financial constraints are prevalent. In this context, the lack of robust governance mechanisms acts as a barrier to the development of sustainable solutions, thus hindering the realization of the potential for environmental progress within the institution. The absence of such structures diminishes the capacity for innovation and reinforces the interdependence between governance quality and the pursuit of ecological sustainability [15].
- H3: We hypothesize that the relationship between inclusiveness and sustainability is mediated by the realization of economic growth, which is quantifiable by GDP. The economic growth that emerges from inclusive institutions provides the material foundation necessary for investments in sustainable infrastructures. Through the generation of capital, inclusive growth enables advancements in technology and the development of social programs, positioning economic growth as the essential conduit through which the aspirations of sustainability are actualized. Thus, GDP, as a manifestation of economic prosperity, reflects the material conditions that render sustainable progress achievable.
- H4: We suggest that a higher proportion of R&D expenditure relative to GDP amplifies the positive relationship between inclusiveness and sustainability. The rationale for this lies in the fact that economies driven by innovation, through the allocation of resources towards research and development, are better positioned to cultivate sustainable technologies and practices. In this hypothesis, R&D investment acts as a catalyst, by enhancing the capacity of inclusive institutions to achieve sustainable progress. Through innovation driven by R&D, economies achieve more efficient energy markets and achieve sustainable economic development. In the European Union and the United States, a clear connection emerges, wherein increased R&D spending is correlated with lower CO2 emissions, although the effect manifests more strongly within the European context (regarded as inclusive). However, in China (regarded as less inclusive), the relationship between R&D expenditure and CO2 emissions does not follow the same clear trajectory, as the economic and environmental contexts diverge [16].
- H5: The interaction between inclusiveness and GDP generates a significant positive effect on sustainability, as inclusive institutions channel economic resources toward sustainable outcomes. Inclusiveness amplifies the benefits of economic growth by engaging in equitable distribution of resources, thereby facilitating the pursuit of long-term sustainability. Conversely, the interaction between extractiveness and GDP exerts a negative influence on sustainability. In extractive systems, economic resources are disproportionately directed toward elite interests, which restricts the potential for widespread development and stalls sustainable progress. Thus, the concentration of power and wealth in such systems hinders the realization of sustainable objectives and creates a cycle that undermines sustainability.
- H6: We hypothesize that the relationship between GDP and sustainability is nonlinear, but follows a quadratic pattern, where the initial stages of economic growth promotes sustainability, yet beyond a certain point, the benefits of growth may plateau or even worsen. This occurs as overconsumption and environmental degradation begin to counterbalance the positive effects of economic development. We posit that the interaction between inclusiveness, extractiveness, and sustainability is not universal, but varies significantly across regions. Local factors and regional contexts, such as specific governance systems and the availability of resources, shape how these institutional frameworks influence sustainability.
4. Data
4.1. Governance Indicators
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Mechanisms of Political Selection and Stability:
- -
- Voice and Accountability (VA) : measures the extent to which citizens can participate in governance through free expression, association, and media.
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- Political Stability and Absence of Violence/Terrorism (PV): assesses the likelihood of governmental stability and the absence of politically motivated unrest or terrorism.
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Governmental Capacity for Policy Implementation:
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- Government Effectiveness (GE): measures the quality of public service delivery, civil service independence, and the credibility of policy commitments.
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- Regulatory Quality (RQ) : evaluates the ability to design and enforce regulations conducive to private sector development.
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Institutional Respect and Legal Integrity:
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- Rule of Law (RL): examines confidence in societal rules, contract enforcement, property rights, and protection from crime and violence.
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- Control of Corruption (CC): assesses the extent of misuse of public power for private gain, encompassing both systemic and opportunistic corruption.
4.2. Economic Indicators
4.3. Innovation Indicators
4.4. Sustainibility Indicators
5. Institutions and Sustainability: Methodological Analysis
5.1. OLS Estimates
5.2. Machine Learning Estimates
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Random Forest is an ensemble learning method that builds multiple decision trees and aggregates their outputs. For regression tasks, the final prediction is computed as the average of predictions from n trees:where is the prediction of the i-th tree for input X. Random sampling of both the data and features ensures model diversity, reducing overfitting and variance.We evaluate the importance of each feature by the total reduction in impurity it provides across all trees. The impurity decrease can be computed using metrics such as the Gini Index or Mean Squared Error:where is the reduction in impurity for feature j in tree t.
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Gradient Boosting sequentially builds decision trees to minimize a specified loss function . For regression tasks, this is commonly the Mean Squared Error:At each iteration, the algorithm fits a new tree to the negative gradient of the loss function (also the residuals):The model updates predictions as:where is the prediction of the k-th tree, and is the learning rate.The scatter plots for both models (See Figure 3 and Figure 4:) Random Forest and Gradient Boosting Regressors show a strong correlation between actual and predicted sustainability scores. This alignment confirms the models capability to observe patterns in the data effectively. The clustering of points near the diagonal line in both scatter plots confirm that the predictions closely follow the true values which leads us to conclude a minimal bias and a good fit.The feature importance analysis further helps us to find the significance of the predictors (Inclusiveness Score, Extractiveness Score, and GDP) in driving the models predictions. In the Random Forest model, feature importance is derived from the reduction in loss across the ensemble of decision trees. The results show that all three predictors contribute meaningfully to the sustainability score predictions, with the relative contributions that ensure their influence on the target variable.The Random Forest model builds on the diversity of decision trees by using bootstrap aggregation (bagging), which reduces variance and guards against overfitting. By averaging predictions across multiple trees, the model achieves robust performance, even when the data includes noise or complex interactions between variables.In contrast, the Gradient Boosting model follows a sequential shape, where each new tree corrects the residual errors of the previous ones. It’s an iterative learning mechanism that helps Gradient Boosting to focus on areas where the model struggles and leads to reduced bias and improved accuracy. The learning rate () in the Gradient Boosting controls the step size of corrections and balances the trade-off between training time and model precision.
5.3. Granger Causality Test: Research and Development as Driver for Sustainability
| Statistic | Value | Notes |
|---|---|---|
| R&D Expenditure ADF Test p-value | 0.0 | Stationary time series |
| SDG Index Score ADF Test p-value | 1.5818561954387344e-13 | Stationary time series |
| Lag | F-Test Value | p-value |
| Lag 1 F-Test | 5.8948 | 0.0152 |
| Lag 1 Chi-Square Test | 5.8991 | 0.0151 |
| Lag 1 Likelihood Ratio Test | 5.8949 | 0.0152 |
| Lag 1 Parameter F-Test | 5.8948 | 0.0152 |
| Lag 2 F-Test | 3.4995 | 0.0303 |
| Lag 2 Chi-Square Test | 7.0074 | 0.0301 |
| Lag 2 Likelihood Ratio Test | 7.0015 | 0.0302 |
| Lag 2 Parameter F-Test | 3.4995 | 0.0303 |
| Lag 3 F-Test | 2.3078 | 0.0745 |
| Lag 3 Chi-Square Test | 6.9350 | 0.0740 |
| Lag 3 Likelihood Ratio Test | 6.9292 | 0.0742 |
| Lag 3 Parameter F-Test | 2.3078 | 0.0745 |
| Lag 4 F-Test | 1.7889 | 0.1281 |
| Lag 4 Chi-Square Test | 7.1712 | 0.1271 |
| Lag 4 Likelihood Ratio Test | 7.1650 | 0.1274 |
| Lag 4 Parameter F-Test | 1.7889 | 0.1281 |
6. Discussion



7. Conclusions
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| Statistic | Value | Notes |
|---|---|---|
| Dependent Variable | Sustainability_Score | |
| R-squared | 0.367 | |
| Adjusted R-squared | 0.366 | |
| F-statistic | 830.8 | 1 |
| Prob (F-statistic) | 0.00 | Significant at the 0.01 level |
| Log-Likelihood | -15324 | |
| No. Observations | 4306 | |
| AIC | 30660 | Akaike Information Criterion |
| BIC | 30680 | Bayesian Information Criterion |
| Covariance Type | Nonrobust | |
| Variable | Coefficient | Confidence Interval (95%) |
| const | 63.3737 | [63.120, 63.628] |
| x1 | 2.9577 | [2.267, 3.649] |
| x2 | -2.8416 | [-3.516, -2.167] |
| x3 | 1.0927 | [0.752, 1.433] |
| Statistic | Value | Notes |
|---|---|---|
| Dependent Variable | Sustainability_Score | |
| R-squared | 0.367 | |
| Adjusted R-squared | 0.366 | |
| F-statistic | 830.8 | 1 |
| Prob (F-statistic) | 0.00 | Significant at the 0.01 level |
| Log-Likelihood | -15324 | |
| No. Observations | 4306 | |
| AIC | 30660 | Akaike Information Criterion |
| BIC | 30680 | Bayesian Information Criterion |
| Covariance Type | Nonrobust | |
| Variable | Coefficient | Confidence Interval (95%) |
| const | 63.3737 | [63.120, 63.628] |
| x1 | 2.9577 | [2.267, 3.649] |
| x2 | -2.8416 | [-3.516, -2.167] |
| x3 | 1.0927 | [0.752, 1.433] |
| Statistic | Value | Notes |
|---|---|---|
| Dependent Variable | log_Sustainability_Score | |
| Model | RLM | Robust Linear Model |
| Method | IRLS | Iteratively Reweighted Least Squares |
| Norm | HuberT | |
| Scale Estimation | MAD | Median Absolute Deviation |
| Covariance Type | H1 | |
| No. Observations | 4306 | |
| Df Residuals | 4302 | |
| Df Model | 3 | |
| Date | Fri, 20 Dec 2024 | |
| Time | 11:59:20 | |
| No. Iterations | 21 | |
| Variable | Coefficient | Confidence Interval (95%) |
| const | 4.1567 | [4.153, 4.161] |
| x1 | 0.0461 | [0.035, 0.057] |
| x2 | -0.0448 | [-0.056, -0.034] |
| x3 | 0.0205 | [0.015, 0.026] |
| Statistic | Value | Notes |
|---|---|---|
| Dependent Variable | Sustainability_Score | |
| Model | OLS | Ordinary Least Squares |
| Method | Least Squares | |
| Covariance Type | Nonrobust | |
| No. Observations | 4306 | |
| Df Residuals | 4300 | |
| Df Model | 5 | |
| Date | Fri, 20 Dec 2024 | |
| Time | 12:00:02 | |
| Variable | Coefficient | Confidence Interval (95%) |
| const | 63.3737 | [63.133, 63.614] |
| Inclusiveness_Score | 1.4549 | [0.640, 2.270] |
| GDP | -3.0980 | [-3.753, -2.443] |
| Extractiveness_Score | 8.2382 | [7.532, 8.945] |
| Extractiveness_GDP_Interaction | -1.2000 | [-1.725, -0.675] |
| Inclusiveness_GDP_Interaction | -6.1485 | [-6.721, -5.576] |
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