Analysis on Stability of Reinforced Retaining Wall Using Simplified Horizontal Slice Method
Sun Shulin
Abstract
Sun Shulin
Abstract
Simplified horizontal slice method is adopted to deduce the formula for the required tensile force of reinforcement and the equation for the critical failure angle when the reinforcements are ductile materials.At the same time,the equations have also considered both horizontal and vertical seismic force,both cohesion and internal friction of fill for reinforced retaining wall,and groundwater et al.,and furthermore,the effect of these factors upon the critical failure angles,required tensile force of reinforcement and coefficients for required tensile force of reinforcement is also considered.It is found that the critical failure angle increases with the increase of cohesion or internal friction of fill for reinforced retaining wall and reduces with the increase of horizontal seismic force,the influence of vertical seismic force versus critical failure angle and required tensile force of reinforcement is agreement with the results of Ling Leshchinsky,the coefficients for required tensile force of reinforcement increase with the increase of groundwater table or pore water pressure ratio and reduce with the increase of internal friction of fill for reinforced retaining wall.
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Simplified horizontal slice method is adopted to deduce the formula for the required tensile force of reinforcement and the equation for the critical failure angle when the reinforcements are ductile materials.At the same time,the equations have also considered both horizontal and vertical seismic force,both cohesion and internal friction of fill for reinforced retaining wall,and groundwater et al.,and furthermore,the effect of these factors upon the critical failure angles,required tensile force of reinforcement and coefficients for required tensile force of reinforcement is also considered.It is found that the critical failure angle increases with the increase of cohesion or internal friction of fill for reinforced retaining wall and reduces with the increase of horizontal seismic force,the influence of vertical seismic force versus critical failure angle and required tensile force of reinforcement is agreement with the results of Ling Leshchinsky,the coefficients for required tensile force of reinforcement increase with the increase of groundwater table or pore water pressure ratio and reduce with the increase of internal friction of fill for reinforced retaining wall.
Key concepts: Retaining wall, Cohesion (chemistry), Ultimate tensile strength, Reinforcement, Friction angle, Materials science, Geotechnical engineering, Restoring force