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Given the alarming rate of ecological corrosion, countries around the globe are seeking ways of curtailing environmental deficits to attain future sustainability. In this quest for green development, economies are motivated to adopt eco-friendly practices that can assist in the fulfilment of resource conservation and efficiency to achieve green eco-systems. Keeping the importance of the concept in mind, the current study analyzed the influence of renewable energy transition, ecological innovation and environmental policy stringency on the ecological footprint of OECD economies from 1990 to 2017 under the theoretical concepts of the Environmental Kuznets Curve. Applying the advanced Method of Moment Quantile-Regression (MM-QR), the empirical findings reported the negative association of the studied green variables with the ecological footprint across all quantiles while also validating the Kuznets curve in the sampled sample economies. Moreover, the outcomes of heterogeneous panel causality revealed the uni-directional causal link from ecological innovation and renewable energy transition to ecological footprint. On the other hand, economic growth and policy stringency have been found to have feedback causal association with the ecological footprint. The study recommended the formulation of policies to syndicate countries' economic and financial tools with environmental and technological incentives to promote sustainable business operations and country-wide green awareness. • Increase in energy transition, eco-innovation and environmental policy reduce the levels of ecological footprint. • Environmental Kuznets Curve is validated in OECD economies. • Eco-innovation and energy transition cause environmental sustainability. • Economic growth and policy stringency have bidirectional causal link with ecological footprint. [ABSTRACT FROM AUTHOR]

Given the global inclination of economies toward green solutions, the current study aims to explore the association between green energy transition, adjusted net saving, energy intensity, and carbon dioxide emission in China. To achieve this, a novel approach utilizing Wavelet analysis is employed to examine the dynamic association among these variables from 1979 to 2020. The analysis utilized continuous wavelet, wavelet coherence, and partial and multiple wavelet coherence techniques, offering a comprehensive understanding beyond the limitations of prior research by investigating the relationships over various time frames. The findings from the wavelet coherence analysis yielded intriguing insights, indicating that an increase in energy transition is likely to result in higher energy intensity and increased CO2 emissions. Surprisingly, the study observed a negative impact of adjusted savings on energy transition in the medium run, whereas in the long term, an increase in adjusted net savings was associated with higher carbon emissions in the Chinese economy. This highlights the intricate interplay between energy transition, adjusted savings, and environmental impacts, with different time scales playing a significant role in shaping these connections. Policymakers should carefully consider these dynamics to formulate effective strategies for sustainable development and carbon emission reduction in China. Furthermore, employing partial and multiple coherence analysis, the outcomes has demonstrated a strong interconnected correlations between energy intensity, green energy transition, CO2 emissions, and adjusted net savings across short-run, medium-run, and long-run time frequencies. Overall, the study concludes the positive link between energy and carbon emissions in China, while the effectiveness of the green energy transition remains vulnerable. The findings offer valuable insights for informed decision-making and policy implications, facilitating the adoption of appropriate measures to promote a greener and more sustainable future in China. • Study explores green energy transition, net saving, energy intensity, and CO 2 in China. • Advanced time-frequency based Wavelet analysis is used to analyze asymmetric relationships. • Energy transition is found to have positive link with CO 2 and energy intensity. • Net adjusted saving have positive effect on CO2 but negative on energy transition. [ABSTRACT FROM AUTHOR]