This study examines the importance of natural resource diversification for China's green economic revival using the data from 1990 to 2021. The study makes use of a massive dataset spanning more than three decades, sheds light on the environmental sustainability and economic resilience measures taken by China's resource business. As China's economy grew at an unprecedented rate, environmental damage increased. Studies show increasing rates of carbon emissions, water use, and land deterioration. Information also indicates that people are becoming more conscious of the need for change and are open to adopting novel approaches and cutting-edge tools. The results of our study, which covers the years 1990 through 2021, on China's efforts to diversify its natural resources for a green recovery highlight the importance of sustainable resource sector practices. China's environmental problems, such as carbon emissions, water usage, and soil erosion, have worsened as the country's economy has expanded rapidly. It's not all bad, however. In an effort to reduce human use of natural resources, there has been a growth in the adoption of eco-friendly technologies and regulations. China is aware that it must find a middle ground between environmental conservation and economic growth. China needs to take advantage of these trends over time. The extraction of resources, the reduction of emissions, and the usage of land all need to be governed by clear and consistent standards. It's crucial to put money into green technology like renewable energy and eco-efficient production. By taking the lead in ethical resource management, China can ensure a greener recovery for the world.

The conservation of the environment and the protection of natural resources are urgent and current challenges. The objective of this experimental investigation was to evaluate the potential use of aggregates derived from recycled glass waste, blast furnace slag, recycled brick waste aggregates and recycled electronic waste aggregates (textolite) as replacements for natural aggregates in cement -based composites. The experimental tests aimed to investigate how the replacement of natural aggregates with recycled waste aggregates affects various physico-mechanical parameters, including density, compressive strength, flexural strength, abrasion resistance and capillary water absorption. This investigation also included detailed microstructural analysis using optical microscopy, SEM, EDX and XRD techniques. The aim of the research was to explore the potential for soil conservation by reducing the amount of waste to be disposed of, and at the same time to conserve natural resources by identifying alternatives using recycled materials, thereby contributing to the implementation of the circular economy concept. The results of the research confirmed this potential; however, depending on the nature of the recycled aggregates, there are influences on the physico-mechanical performance of the cement composite that can be seen at the microstructural level.