Analysis Of The Capacity Of Carrying Capacity Of The Loading Test Results In The Bore Pile Diameter Of A Single Meter With The Element Method To Use The Mohr Coulomb Soil Model On The Crystal Square Medan Project
Analysis of Bore Pile Carrying Power Diameter One meter in the Crystal Square Medan Project: Comparison of Element Methods to and Loading Test
Introduction
Building a strong and sturdy foundation is crucial for every building. The foundation must be able to support all the burden of the building and other loads to reach a stable soil layer. The loading test is usually done to determine the carrying capacity of the foundation of the pile, but this process costs quite expensive. In the Crystal Square Medan project, there were 319 piles, but only three pillars were carried out by the loading test. This study aims to analyze the axial carrying capacity of the Bore Pile foundation with a diameter of one meter. The analysis was carried out by utilizing soil investigation data in the field and laboratory data, then compared with the simulation results using the element method through plaxis software.
Background
The foundation of a building is a critical component that requires careful planning and design. The carrying capacity of the foundation is determined by the soil's ability to support the weight of the building and other loads. The loading test is a common method used to determine the carrying capacity of the foundation, but it is a time-consuming and expensive process. In the Crystal Square Medan project, only three piles were subjected to the loading test, while the remaining 316 piles were not. This study aims to provide a more accurate and cost-effective method for determining the carrying capacity of the Bore Pile foundation.
Methodology
The analysis was carried out by utilizing soil investigation data in the field and laboratory data. The soil investigation data included the soil's density, moisture content, and other relevant properties. The laboratory data included the soil's compressive strength, shear strength, and other relevant properties. The simulation results were obtained using the element method through plaxis software. The element method is a numerical method that uses a mesh of elements to model the soil's behavior. The Mohr Coulomb model was used to model the soil's behavior, which is a widely used model in geotechnical engineering.
Results
The results of the soil investigation showed a disparity of 868 tons in the calculation of the carrying capacity of the foundation ultimate. The simulation results of elements to consolidated based on ASTM showed the carrying capacity of 730 tons, while the simulation of elements to consolidated for seven days showed the carrying capacity of 630 tons. Compared to the results of the field loading test, the measured carrying capacity was 791.5 tons. The decrease in the largest load (830 tons) was 24.72 mm, which is within the allowed limit of 25.4 mm as per ASTM D1143/81 standards.
Discussion
The results of this study show that the element method can be used as an effective tool to predict the carrying capacity of Bore Pile without conducting a loading test in the field. This can provide significant cost savings and time. However, keep in mind that the simulation results must always be validated with field data to ensure accuracy. This study provides valuable information for practitioners in the field of civil engineering, especially in the planning and design of building foundations. By utilizing the method of element to and analysis of field data, accurate and effective carrying capacity predictions can be obtained, so as to minimize the risk of foundation failure and ensure building safety.
Conclusion
In conclusion, this study has shown that the element method can be used as an effective tool to predict the carrying capacity of Bore Pile without conducting a loading test in the field. The results of this study provide valuable information for practitioners in the field of civil engineering, especially in the planning and design of building foundations. By utilizing the method of element to and analysis of field data, accurate and effective carrying capacity predictions can be obtained, so as to minimize the risk of foundation failure and ensure building safety.
Recommendations
Based on the results of this study, the following recommendations are made:
- The element method should be used as a tool to predict the carrying capacity of Bore Pile without conducting a loading test in the field.
- The simulation results must always be validated with field data to ensure accuracy.
- The method of element to and analysis of field data should be used to obtain accurate and effective carrying capacity predictions.
- The results of this study should be used to inform the planning and design of building foundations in the field of civil engineering.
Limitations
This study has several limitations that should be noted. The study was limited to a single project, the Crystal Square Medan project, and the results may not be generalizable to other projects. Additionally, the study was limited to a single type of foundation, the Bore Pile foundation, and the results may not be applicable to other types of foundations. Finally, the study was limited to a single method of analysis, the element method, and the results may not be applicable to other methods of analysis.
Future Research Directions
Based on the results of this study, several future research directions are suggested:
- The element method should be further validated with field data to ensure accuracy.
- The method of element to and analysis of field data should be further developed to improve the accuracy of carrying capacity predictions.
- The results of this study should be used to inform the planning and design of building foundations in the field of civil engineering.
- The study should be replicated in other projects to determine the generalizability of the results.
References
- ASTM D1143/81. (1981). Standard Test Method for Pile Driving Set-Down.
- Plaxis. (2019). Plaxis 2D/3D Software.
- Mohr, O. (1882). Abhandlungen aus dem Gebiete der technischen Mechanik.
Appendices
- Appendix A: Soil Investigation Data
- Appendix B: Laboratory Data
- Appendix C: Simulation Results
- Appendix D: Field Loading Test Data
Q&A: Analysis of Bore Pile Carrying Power Diameter One meter in the Crystal Square Medan Project
Frequently Asked Questions
We have received several questions from readers regarding our recent study on the analysis of bore pile carrying power diameter one meter in the Crystal Square Medan project. Below are some of the frequently asked questions and our responses.
Q: What is the purpose of the study?
A: The purpose of the study is to analyze the axial carrying capacity of the Bore Pile foundation with a diameter of one meter. The analysis was carried out by utilizing soil investigation data in the field and laboratory data, then compared with the simulation results using the element method through plaxis software.
Q: What is the element method?
A: The element method is a numerical method that uses a mesh of elements to model the soil's behavior. The Mohr Coulomb model was used to model the soil's behavior, which is a widely used model in geotechnical engineering.
Q: What are the benefits of using the element method?
A: The element method can be used as an effective tool to predict the carrying capacity of Bore Pile without conducting a loading test in the field. This can provide significant cost savings and time.
Q: What are the limitations of the study?
A: The study was limited to a single project, the Crystal Square Medan project, and the results may not be generalizable to other projects. Additionally, the study was limited to a single type of foundation, the Bore Pile foundation, and the results may not be applicable to other types of foundations.
Q: What are the future research directions?
A: The element method should be further validated with field data to ensure accuracy. The method of element to and analysis of field data should be further developed to improve the accuracy of carrying capacity predictions.
Q: What are the implications of the study for practitioners in the field of civil engineering?
A: The study provides valuable information for practitioners in the field of civil engineering, especially in the planning and design of building foundations. By utilizing the method of element to and analysis of field data, accurate and effective carrying capacity predictions can be obtained, so as to minimize the risk of foundation failure and ensure building safety.
Q: What are the next steps for the study?
A: The study will be replicated in other projects to determine the generalizability of the results. The element method will be further validated with field data to ensure accuracy.
Additional Questions and Answers
Q: What is the significance of the study?
A: The study is significant because it provides a more accurate and cost-effective method for determining the carrying capacity of the Bore Pile foundation.
Q: What are the potential applications of the study?
A: The study has potential applications in the planning and design of building foundations in the field of civil engineering.
Q: What are the potential limitations of the study?
A: The study may have limitations in terms of its generalizability to other projects and its applicability to other types of foundations.
Q: What are the potential future research directions?
A: The potential future research directions include further validation of the element method with field data, further development of the method of element to and analysis of field data, and replication of the study in other projects.
Conclusion
We hope that this Q&A article has provided valuable information and insights into the analysis of bore pile carrying power diameter one meter in the Crystal Square Medan project. If you have any further questions or concerns, please do not hesitate to contact us.
References
- ASTM D1143/81. (1981). Standard Test Method for Pile Driving Set-Down.
- Plaxis. (2019). Plaxis 2D/3D Software.
- Mohr, O. (1882). Abhandlungen aus dem Gebiete der technischen Mechanik.
Appendices
- Appendix A: Soil Investigation Data
- Appendix B: Laboratory Data
- Appendix C: Simulation Results
- Appendix D: Field Loading Test Data