
This paper describes the stability calculations of the most common road embankments slopes and their results using the modified Bishop method. By searching for the smallest possible effective angle of internal friction of the different slope steepness embankments, the possible different bases of the embankment, the weight of the embankment soil, the load caused by transport and the location of load application (shoulder) were evaluated. Analyzing the obtained calculation results, it was determined that at a slope of 1:2 (26.57°) steepness, to ensure slope stability, the calculated effective internal friction angle of the embankment soil should be φʹd ≥ 28.5°, and at a slope of 1:1.75 (29.74°) steepness – φʹd ≥ 29.8°. When the slope is 2:3 (33.69°) steepness, the stability of the slope cannot be guaranteed.
Technology, roads, T, Science, Q, slope stability, soil embankment, transport loads, Civil Engineering / Statybos inžinerija, angle of internal friction, modified Bishop method, slope steepness
Technology, roads, T, Science, Q, slope stability, soil embankment, transport loads, Civil Engineering / Statybos inžinerija, angle of internal friction, modified Bishop method, slope steepness
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