Editorial: Ecosystem Services and Sustainable Restoration Interlinking Soil, Geological, and Vegetation Interactions for Sustainable Development

Tianjiao Feng^*

• Beijing Forestry University, Beijing, China

The restoration of ecosystems is increasingly critical in the context of global environmental and ecological challenges. As the world faces the growing impacts of climate change and land degradation, restoring ecosystems to enhance their services-such as water regulation, carbon sequestration, and biodiversity-is paramount. This research topic explores the interrelations between geological attributes, soil properties, and vegetation in ecosystem restoration, focusing on how these interactions influence ecosystem services and contribute to sustainable development goals (SDGs). Specifically, SDG 6 (Clean Water and Sanitation), SDG 13 (Climate Action), and SDG 15 (Life on Land) are particularly relevant as they align with the goals of enhancing water management, mitigating climate change, and restoring terrestrial ecosystems. Through examining empirical research and integrating findings from diverse geomorphological conditions, the articles in this collection offer novel insights into enhancing ecosystem resilience and advancing ecosystem-based solutions for water and land management.Ecosystem restoration offers a pathway to address multiple environmental issues simultaneously, particularly in regions affected by overexploitation, desertification, and deforestation. By understanding how soil, geology, and vegetation interact, researchers can design more effective restoration strategies that improve ecosystem functions and contribute to climate adaptation and the achievement of SDGs. The studies included in this collection emphasize the need for interdisciplinary approaches that combine ecological, hydrological, and geological knowledge. They provide critical insights into how restoration practices can enhance ecosystem services, improve land and water management, and ultimately support the achievement of sustainable development goals in the face of global environmental stressors. Soil-plant interactions are fundamental to ecosystem restoration, as they influence nutrient cycling, water retention, and plant growth. Soil properties such as texture, organic matter content, and moisture availability directly impact vegetation health, which in turn affects ecosystem functions. These studies underscore the importance of soil-plant interactions in ecosystem restoration and their broader implications for land and water management. Advances in monitoring technology have revolutionized our ability to assess and manage ecosystems. Remote sensing, GIS, and hydrological modeling tools enable more precise tracking of vegetation dynamics, soil moisture, and overall ecosystem health. Yue et al. used advanced spatial analysis to measure the impact of photovoltaic panels on soil properties in desert ecosystems, providing critical data for ecological restoration efforts. Cheng et al. also utilized remote sensing technology to study the influence of vegetation characteristics and soil properties on ecosystem dynamics in tropical forests. These innovations not only improve our understanding of ecosystem processes but also enhance the effectiveness of restoration strategies. Biogeochemical processes are essential for understanding how ecosystems recover and enhance their ability to sequester carbon. This is particularly important in the context of climate change, as restored ecosystems can contribute to mitigating carbon emissions. Zhang et al. found that soil carbon and nitrogen changes due to soil particle redistribution in photovoltaic arrays influenced soil fertility and carbon sequestration potential. In a similar study, Zhang et al. investigated the role of vegetation restoration in improving soil organic carbon storage in degraded landscapes. These studies highlight the significant role of biogeochemical processes in carbon cycling and their potential for enhancing ecosystem services related to climate change mitigation. Effective water management is a critical aspect of ecosystem restoration, particularly in regions affected by droughts and water scarcity. Restoration practices that enhance water regulation, such as reforestation and wetland restoration, can help restore the hydrological cycle and mitigate the impacts of climate change. Ma et al. (2024) demonstrated that moderate grazing promotes plant diversity and increases grassland water retention in the Qinghai-Tibet Plateau, which is crucial for sustainable water management. Similarly, Ma et al. assessed the role of vegetation restoration in improving water yield in China's arid regions. Collectively, these studies underscore the importance of integrating ecosystem-based water management strategies in restoration efforts. The research presented in this special issue collection highlights the critical connections between soil, geology, and vegetation in the restoration of ecosystems and the enhancement of their services. From improving water retention and carbon sequestration to advancing ecosystem monitoring and management strategies, these research findings offer valuable insights into how ecological restoration can contribute to sustainable development goals. Restoration is a complex and multifaceted process, and a one-size-fits-all approach is unlikely to be effective. Ecosystem restoration requires a holistic approach that incorporates local geological, soil, and vegetation conditions, as well as socio-economic factors, to ensure long-term success. These studies reinforce the need for interdisciplinary strategies to tackle the diverse challenges of ecosystem restoration and to achieve lasting improvements in ecosystem services.