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A Study(VI) on the Development of Charts and Equations Predicting Bearing Capacity for Prebored PHC Piles Socketed into Weathered Rock through Sandy Soil Layers - Axial Compressive Bearing Capacity Prediction Table Solution or Chart Solution -
Author(s) -
Moon S. Nam,
Ohkyun Kwon,
Min-Cheol Park,
Lee Chang Uk,
Yongkyu Choi
Publication year - 2019
Publication title -
journal of the korean geotechnical society
Language(s) - English
Resource type - Journals
eISSN - 2288-646X
pISSN - 1229-2427
DOI - 10.7843/kgs.2019.35.11.75
Subject(s) - bearing capacity , geotechnical engineering , bearing (navigation) , geology , compressive strength , materials science , computer science , composite material , artificial intelligence
The numerical analysis on PHC piles socketed into weathered rocks through sandy soil layers was conducted to propose the table solution or the chart solution to obtain the mobilization capacity. The mobilization capacity was determined at the settlement of 5% pile diameter and applied a safety factor of 3.0. In order to utilize the excellent compressive strength of the PHC pile effectively, it is recommended that the allowable bearing capacity of ground would be designed to be more than the long-term allowable compressive pile load. A procedure for determining an allowable pile capacity for PHC piles socketed into weathered rocks through sandy soil layers is given by the sum of the allowable skin friction of the sandy soil layer and the weathered rock layer and the allowable end bearing capacity of the weathered rock layer. The design efficiency of the PHC pile is about 85% at the reasonable design stage in the verification of the newly proposed method. Thus, long-term allowable compressive load () level of PHC piles can be utilized in the optimal design stage.

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