New Method and Optimal Design of Ecological Cement–Soil Slope Protection for Hydropower Stations

Steep rock slopes in mountainous regions present the coupled challenges of mechanical instability and ecological degradation, yet existing protection methods often focus on structural reinforcement alone, neglecting ecological recovery. To bridge this gap, this study develops an integrated ecological cement–soil (ECS) slope protection system that couples a porous cement–soil layer, galvanized mesh, and anchors to achieve simultaneous mechanical stabilization and vegetation restoration. Field experiments and finite-element simulations were conducted to evaluate the deformation control, strength development, and stress transfer mechanism of the ECS system. Results demonstrate that the ECS layer effectively limited surface displacement (<2 mm) while maintaining sufficient porosity (0.3–0.5 MPa strength) to support plant growth. This work provides a generalizable framework for eco-friendly slope protection, offering new insights for the sustainable rehabilitation of steep rocky terrains beyond the studied project site.

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Publication Details

Journal
Applied Sciences
Published
2025-11-21
DOI
https://doi.org/10.3390/app152312380
Primary Topic
Tree Root and Stability Studies
Type
article
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article

New Method and Optimal Design of Ecological Cement–Soil Slope Protection for Hydropower Stations

Xin Liu, Hongqiang Chu, Weihao Zhang, Jie Xu et al.
Applied Sciences
Tree Root and Stability Studies
article

New Method and Optimal Design of Ecological Cement–Soil Slope Protection for Hydropower Stations

Xin Liu, Hongqiang Chu, Weihao Zhang, Jie Xu, Xiaoyan Zhou
article en

Abstract

Steep rock slopes in mountainous regions present the coupled challenges of mechanical instability and ecological degradation, yet existing protection methods often focus on structural reinforcement alone, neglecting ecological recovery. To bridge this gap, this study develops an integrated ecological cement–soil (ECS) slope protection system that couples a porous cement–soil layer, galvanized mesh, and anchors to achieve simultaneous mechanical stabilization and vegetation restoration. Field experiments and finite-element simulations were conducted to evaluate the deformation control, strength development, and stress transfer mechanism of the ECS system. Results demonstrate that the ECS layer effectively limited surface displacement (<2 mm) while maintaining sufficient porosity (0.3–0.5 MPa strength) to support plant growth. This work provides a generalizable framework for eco-friendly slope protection, offering new insights for the sustainable rehabilitation of steep rocky terrains beyond the studied project site.

Applied SciencesVol. 15(23)
Hohai University (CN), Yangtze River Pharmaceutical Group (China) (CN)
Openalex Percentile: Top 63%
Tree Root and Stability Studies
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