Coal mining activities, while promoting urban development, also lead to significant ecological and environmental issues that directly impact regional habitat quality and perception levels. The effective assessment of habitat services and zoning optimization can facilitate ecological restoration in coal mining subsidence areas and enhance public awareness of the ecological service value of habitats. Taking the Longdai River Basin in Huaibei City as a case study, this research constructs a “habitat quality–habitat perception” assessment framework from a social–ecological coupling perspective, integrating the InVEST and SolVES models for a comprehensive evaluation. The coupling coordination degree model is used to analyze the relationship between habitat quality and perception, allowing for the zoning of habitat services. The results indicate that the average habitat quality in the study area is 0.373, reflecting an overall low level. Its spatial distribution exhibits a trend of “higher in the central–southern and northwestern regions and lower in the southwestern and northeastern regions”. Habitat perception mainly presents a “multi-patch” spatial pattern. The coupling degree C between habitat quality and habitat perception is 0.676, while the coupling coordination degree D is only 0.377, indicating a state of mild imbalance in the coupling coordination development. Moreover, disordered units account for as much as 69.22%. Based on the matching and coupling coordination between habitat quality and perception, the study area can be classified into four main categories and eight smaller habitat service zones. Considering the differences in urban–rural gradient spaces, optimization strategies for habitat services based on social–ecological coupling are proposed.

Coal mining in areas with high groundwater levels often induces land subsidence and water accumulation, leading to the formation of artificial secondary wetlands. Reclaimed wetlands may provide important opportunities for regional biodiversity recovery. Taking Shuoxi Lake Wetland in Huaibei City as a case study, this research aims to reveal the characteristics of waterbird diversity in artificial wetlands after ecological reclamation in a coal mining subsidence area and to identify their key environmental drivers, thereby providing a scientific basis for optimizing the habitat service functions of such wetlands. Based on habitat identification and classification of the reclaimed wetland, waterbird diversity was surveyed, and redundancy analysis (RDA), Mantel tests, and ridge regression models were used to identify the major environmental factors influencing the distribution of different waterbird groups and to quantify their relative contributions. The results showed that after ecological reclamation, a total of 28 waterbird species belonging to 7 families and 6 orders were recorded in the artificial wetland of the coal mining subsidence area. Redundancy analysis (RDA) indicated that wader assemblages were more sensitive to vegetation cover (VC), distance to water bodies (DTW), and distance to buildings (DTB), whereas waterfowl assemblages were mainly affected by distance to buildings (DTB), area (A), and distance to water bodies (DTW), and showed no significant response to vegetation heterogeneity. Mantel tests further confirmed significant spatial correlations between waterbird assemblages and area (A), distance to major roads (DTR), distance to buildings (DTB), water depth (WD), and distance to water bodies (DTW). Ridge regression analysis showed that, under conditions in which anthropogenic disturbance was minimized, vegetation cover (VC) and water depth (WD) were the main positive drivers of wader diversity, whereas perimeter to area ratio (PAR) was the main negative driver. Waterfowl diversity was mainly negatively affected by perimeter to area ratio (PAR) and distance to water bodies (DTW). These findings suggest that appropriately regulating water depth, increasing vegetation cover, and reducing patch fragmentation and anthropogenic disturbance are key measures for enhancing the habitat service functions of artificial secondary wetlands in mining areas. These management strategies provide an important reference for wetland rehabilitation in other coal mining subsidence areas.