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Gleby gliniaste, ze względu na podatność na pęcznienie i kurczenie, stanowią poważne wyzwanie w zastosowaniach inżynieryjnych, szczególnie w projektowaniu i budowie fundamentów. Niniejsze badania oparte na kompleksowej serii testów, przeprowadzonych w Laboratorium Robót Publicznych w Adrar w południowej Algierii, dotyczą wzmocnienia gruntów gliniastych poprzez włączenie włókien, zagęszczenie i użycie cementu. Zgodne ze standardami technicznymi w zakresie mechaniki gleby testy badały właściwości fizyczne, mechaniczne i termiczne gleby gliniastej. Wyniki wykazały, że zastosowanie wytrzymałości na ściskanie 2,5 MPa i włączenie włókien palmowych i szklanych w proporcjach od 0% do 0,3% zmniejszyło gęstość nasypową o 0,95% do 7%. Kapilarny współczynnik absorpcji wody wzrósł o 10,61% do 12,63%, podczas gdy wytrzymałość na ściskanie poprawiła się o 11,4% do 34,37%. Ponadto przewodność cieplna spadła o 0,71% do 11,9%. Wyniki te dostarczają cennych informacji na temat właściwości gleb gliniastych i zaobserwowanych ulepszeń. Można stwierdzić, że wzmocnienie gleby za pomocą różnych materiałów i włókien jest wykonalne i przynosi pozytywne rezultaty w zastosowaniach geotechnicznych.
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