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中国高速铁路深软土地基和伊拉克公路超固结软土地基中的桥梁桩基沉降特性研究

摘要第8-10页
ABSTRACT第10-11页
Table of Contents第12-16页
LIST OF ABBREVIATIONS第16-17页
LIST OF TABLES第17-19页
LIST OF FIGURES第19-23页
CHAPTER 1: Introduction第23-37页
    1. Research Significance, Status of Domestic and Foreign第23-37页
        1.1 Research Significance第23-26页
        1.2 Research Status第26-29页
            1.2.1 The basis of research of the deep bridge foundation settlement第26-27页
            1.2.2 Compressed layer thickness第27-28页
            1.2.3 Settlement prediction of high-speed railway第28-29页
            1.2.4 Automatic monitoring of the settlement of pile bridge technology第29页
        1.3 Research topics at domestic and foreign第29-31页
        1.4 The importance of research第31页
        1.5 Settlements of Pile Groups第31-32页
        1.6 Beijing-Shanghai high speed railway bridges project第32-33页
        1.7 The theory and general concepts of the dissertation第33-34页
        1.8 The main finding of the dissertation第34页
        1.9 The innovative findings第34-35页
        1.10 Organization of the Dissertation第35-37页
CHAPTER 2: The Theory and Testing Program第37-83页
    2.1 Main Contents and Methods of Research第37-38页
        2.1.1 Main content第37页
        2.1.2 Main methods research第37-38页
    2.2 Geological conditions of Beijing-Shanghai project第38-48页
    2.3 Site location in the map第48页
    2.4 Hydrogeology condition第48-49页
    2.5 Principle and Key Technology Research第49-62页
        2.5.1 Research principles第49-57页
        2.5.2 Joint monitoring principle of single-point settlement gauge and hydrostatic level第57-61页
        2.5.3 Key technology research第61-62页
            2.5.3.1 Settlement monitoring第61-62页
            2.5.3.2 Compressed measured layer thickness第62页
    2.6 Research case carried out第62页
    2.7 Thickness of the Compression Layer第62-64页
        2.7.1 Overview and points selection第62-63页
        2.7.2 Loading conditions第63页
        2.7.3 Data of Beijing-Shanghai project第63页
        2.7.4 Methods for determining the thickness of compression第63-64页
            2.7.4.1 Stress control method第63页
            2.7.4.2 Strain control method第63-64页
    2.8 Field Study of Compressed Layer Thickness第64-67页
        2.8.1 DK124 worksite equipment layout第64页
        2.8.2 DK152 worksite equipment layout第64-67页
    2.9 Methods of the Settlement Calculation第67-73页
        2.9.1 Settlement calculation by Chinese code (GB 50007-2011)第67-68页
        2.9.2 Settlement calculation by AASHTO code第68-70页
        2.9.3 Settlement calculation by TB 10002.5-2005 code第70-72页
        2.9.4 Settlement calculation by JGJ 94-2008 code第72-73页
    2.10 Methods of Calculation of Vertical Ultimate Bearing Capacity of Single Pile第73-76页
        2.10.1 AASHTO code第73-75页
        2.10.2 Chinese code (CNS,2011)第75页
        2.10.3 Chinese code (TB 10002.5-2005) code第75-76页
    2.11 Theory of Deep Foundation Settlement by Neurofuzzy networks第76-83页
        2.11.1 Introduction第76-77页
        2.11.2 Neurofuzzy systems (NFS)第77-80页
        2.11.3 Neurofuzzy network structure第80-81页
        2.11.4 Neurofuzzy system and supervised learning第81-83页
CHAPTER 3: Experimental and Theoretical Static Analysis of High-Speed Railway Bridge for Deep Soft Soils第83-93页
    3.1 Introduction第83页
    3.2 Field Test Data Analysis第83-89页
        3.2.1 DK124 worksite第83-85页
        3.2.2 DK152 worksite第85-87页
        3.2.3 Settlement Analysis第87-89页
    3.3 Calculation of Settlement by the Codes第89-90页
        3.3.1 Calculation of settlement by the Chinese code (CNS,2011)第89页
        3.3.2 Calculation of settlement by the AASHTO code第89-90页
        3.3.3 Calculation of settlement by TB 10002.5-2005 code第90页
        3.3.4 Calculation of settlement by JGJ 94-2008 code第90页
    3.4 Discussion of Results第90-91页
    3.5 Summary第91-93页
Chapter 4 Bridge Pile Foundation Settlement Prediction and Behaviour in Deep Soft Soils第93-115页
    4.1 Introduction第93-94页
    4.2 Problem Statement第94页
    4.3 Settlement Analysis with Neurofuzzy Model第94-102页
        4.3.1 Comparison of Neurofuzzy Model with Hyperbolic Model第97-99页
        4.3.2 Comparison of Neurofuzzy Model with Statistical Mode第99-102页
    4.4 New empirical equation for Compression Modulus Calculation第102-107页
    4.5 Application of the empirical equation in calculation of settlement by codes第107-112页
        4.5.1 Calculation of settlement using the Chinese code (CNS,2011)第107-109页
        4.5.2 Calculation of settlement using TB 10002.5-2005 code第109-111页
        4.5.3 Calculation of settlement using JGJ 94-2008 code第111-112页
    4.6 Discussion of Results第112-113页
    4.7 Summary第113-115页
CHAPTER 5: Design and Analysis of Bridge Foundation with Different Codes第115-124页
    5.1 Introduction第115页
    5.2 Field Data第115-117页
    5.3 Results and Discussion第117-122页
        5.3.1 Designs results with three codes第117-120页
        5.3.2 Settlement calculation by Chinese code第120页
        5.3.3 Vertical ultimate bearing capacity of single pile第120-122页
    5.4 Advantages and Disadvantages第122-123页
        5.4.1 Advantage and disadvantage of AASHTO code第122-123页
            5.4.1.1 Advantage第122-123页
            5.4.1.2 Disadvantage第123页
        5.4.2 Advantage and disadvantage of (CNS,2011) code第123页
            5.4.2.1 Advantage第123页
            5.4.2.2 Disadvantage第123页
        5.4.3 Advantage and disadvantage of (TB 10002.5-2005) code第123页
            5.4.3.1 Advantage第123页
            5.4.3.2 Disadvantage第123页
    5.5 Summary第123-124页
CHAPTER 6: Study the Settlement Behavior in the Over-Consolidated Soft Soil for Highway Bridge in Iraq第124-133页
    6.1 Introduction第124-126页
    6.2 Soil Profile of the Project Site第126-128页
    6.3 Underground Water Level第128页
    6.4 Settlement Calculation of the Bridge第128-130页
    6.5 Vertical Ultimate Bearing Capacity of Pile Group第130-131页
    6.6 Modified correction formula of compression modulus第131-132页
    6.7 Summary第132页
    6.8 Acknowledgements第132-133页
CHAPTER 7: Finite Element Method Using 3D Plaxis Foundation Program第133-155页
    7.1 Introduction第133-135页
    7.2 New empirical Equation for Compression Modulus Estimation第135页
    7.3 Construction Sequence and Calculation Items for the Beijing-Shanghai Project第135-147页
    7.4 Analysis with Plaxis 3D Program for Bridge at DK87+675.78 worksite第147-150页
    7.5 Analysis with Plaxis 2D and 3D Finite Elements Programs for Bridge with Over Consolidated Soil第150-151页
        7.5.1 Discussion of the 2D analysis results第150-151页
        7.5.2 Comparison of the calculated settlement with that in the Plaxis program第151页
        7.5.3 Analysis the model with Plaxis 3D program for finite elements第151页
        7.5.4 The results obtained from the 3D analysis and comparison with 2D numerical analysis第151页
    7.6 Summary第151-155页
CHAPTER 8: Conclusion and Recommendation第155-159页
    8.1 Main Conclusion第155-157页
    8.2 Recommendations, Future Studies and Directions第157-159页
REFERENCES第159-168页
ACKNOWLEDGEMENTS第168-169页
LIST OF PUBLICATIONS第169-171页
ACADEMIC RESEARCH FUNDING第171-172页
Appendix A: The Neurofuzzy Model for Learning the Data (Chapter Four)第172-180页
Appendix B: Program Code of the Statistical Regression (Chapter Four)第180-182页
Appendix C: The Detail Section of Reinforcement According to AASHTO Code (Chapter Five)第182-183页
Appendix D: The Design Procedure of the Bridge at DK87+675.78 Worksite (Chapter Five)第183-218页
Appendix E: The Calculation by Excel Program (CNS,2011) (Chapter Five)第218页

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