清华大学很好博士学位论文丛书实时耦联动力试验的大规模数值模拟研究与应用

目录
第1章绪论
1.1工程背景与研究意义
1.2实时耦联动力试验技术
1.2.1传统动力试验方法
1.2.2实时耦联动力试验
1.3实时耦联动力试验研究进展
1.3.1试验系统的发展
1.3.2数值积分算法
1.3.3时滞及时滞补偿算法
1.3.4时滞稳定性分析
1.3.5非线性数值子结构的求解
1.3.6试验应用
1.4调谐液柱阻尼器
1.4.1数值与试验研究
1.4.2工程应用
1.5本书的主要工作与创新点
1.5.1本书的主要工作
1.5.2本书的创新点

第2章基于双目标机的RTHS系统构建及验证
2.1引论
2.2清华大学RTHS系统
2.3双目标机RTHS系统构建
2.3.1数值子结构计算的任务分解策略及应用
2.3.2位移外插及内插策略
2.4双目标机RTHS系统的数值验证
2.4.1计算精度
2.4.2计算能力
2.5双目标机RTHS系统的试验验证
2.5.1单层钢架灿邢拊地基模型
2.5.2试验结果
2.6基于双显式数值积分算法的时滞补偿法
2.6.1双目标机RTHS系统中的反馈力协调性问题
2.6.2补偿算法的提出及特性分析
2.6.3数值算例验证
2.6.4RTHS试验验证
2.7本章小结

第3章多自由度RTHS系统的时滞稳定性分析
3.1引论
3.2基于离散根轨迹法的时滞稳定性分析模型
3.2.1离散根轨迹法
3.2.2多自由度RTHS系统时滞稳定性分析模型
3.3两自由度结构的RTHS系统时滞稳定性分析
3.3.1失稳机理分析
3.3.2参数影响分析
3.3.3考虑不同时滞补偿算法的稳定性分析
3.4时滞稳定性的RTHS验证
3.4.1考虑有限元数值子结构及单源时滞
3.4.2考虑有限元数值子结构及多源时滞
3.5本章小结

第4章不同数值积分算法的时滞稳定性和精度分析
4.1引论
4.2不同数值积分算法在RTHS系统中的特性变化
4.2.1典型数值积分算法简介
4.2.2理论分析
4.3数值算法的时滞稳定性分析
4.3.1纯时滞条件下的时滞稳定性分析
4.3.2考虑时滞补偿的时滞稳定性分析
4.4数值算法的时滞精度分析
4.4.1基于数值模拟的精度分析
4.4.2基于离散根轨迹的精度分析
4.5数值算法时滞稳定性和精度的RTHS验证
4.6本章小结

第5章调谐液柱阻尼器的减震性能研究
5.1引论
5.2TLCD减震机理
5.2.1单自由度结构睺LCD系统动力方程
5.2.2参数影响分析
5.3TLCD减震控制的RTHS验证
5.3.1试验思路
5.3.2试验模型
5.3.3结构睺LCD系统的稳定性分析
5.3.4基于RTHS的TLCD减震试验
5.4基于RTHS的TLCD参数影响分析
5.4.1质量比
5.4.2结构阻尼比
5.4.3结构刚度变化
5.4.4地震加速度峰值
5.5MTLCD用于单自由度钢架的减震控制
5.6本章小结

第6章调谐液柱阻尼器在高层结构减震中的应用试验
6.1引论
6.2多自由度结构睺LCD系统动力方程
6.2.1多自由度结构睸TLCD系统
6.2.2多自由度结构睲TLCD系统
6.3足尺TLCD步峁躬驳鼗系统的RTHS试验方法
6.4试验模型
6.4.1九层Benchmark钢结构
6.4.2足尺TLCD模型
6.5STLCD控制的RTHS试验
6.5.1STLCD动力特性
6.5.2试验结果及分析
6.6MTLCD控制的RTHS试验
6.6.1MTLCD控制一阶振型响应
6.6.2MTLCD控制多阶振型响应
6.7考虑结构驳鼗相互作用的RTHS睺LCD试验
6.7.1试验框架
6.7.2考虑有限地基SSI效应
6.7.3考虑半无限地基SSI效应
6.8本章小结

第7章调谐液体阻尼器关键问题研究
7.1引论
7.2基于RTHS的TLD非线性刚度沧枘崮Ｐ脱橹
7.2.1非线性刚度沧枘崮Ｐ
7.2.2RTHS试验验证
7.3TLD几何尺寸效应影响研究
7.3.1考虑几何尺寸效应的试验结果
7.3.2考虑质量比尺的试验结果
7.4TLD与TLCD减震效果对比
7.4.1试验模型
7.4.2试验结果
7.5本章小结

第8章结论与展望
8.1主要研究成果和结论
8.2研究展望

参考文献在学期间发表的学术论文与研究成果致谢Contents实时耦联动力试验的大规模数值模拟研究与应用
Contents
Chapter 1Introduction
1.1Background and Research Significance
1.2Real睺ime Hybrid Simulation Technique
1.2.1Traditional Structural Dynamic Experiments
1.2.2Real睺ime Hybrid Similation
1.3Review of Real睺ime Hybrid Simulation
1.3.1Development of Experimental System
1.3.2Numerical Algorithms
1.3.3Time Delay and Compensation Methods
1.3.4Delay睤ependent Stability Analysis
1.3.5Nonlinear Numerical Substructure
1.3.6Application
1.4Tuned Liquid Column Damper
1.4.1Numerical and Experimental Study
1.4.2Practical Application
1.5Research Content and Highlight
1.5.1Research Content
1.5.2Highlight

Chapter 2Construction and Verification of RTHS System Based on Dual
Target Computers
2.1Introduction
2.2RTHS System in Tsinghua University
2.3Construction of RTHS System Based on Dual Target
Computers
2.3.1Task Splitting Strategy in Numerical Substructure
Analysis
2.3.2Displacement Extrapolation and Interpolation
2.4Numerical Verification
2.4.1Computational Accuracy
2.4.2Computational Capability
2.5Experimentional Verification
2.5.1Single Frame睩inite Element Foundation Model
2.5.2Experimental Results
2.6Time Delay Compensation Method Based on Guiλ
Algorithn
2.6.1Incoordination between the Real and Desired
Feedback Forces
2.6.2The Proposed Time Delay Compensation Method
and Its Characteristics
2.6.3Numerical Verification
2.6.4RTHS Verification
2.7Summary

Chapter 3Delay睤ependent Stability Analysis of MDOF睷THS System
3.1Introduction
3.2Theoretical Model for Stability Analysis Based on
Discrete睺ime Root Locus Technique
3.2.1Discrete睺ime Root Locus Technique
3.2.2The Construction of Stability Analysis Model for
MDOF睷THS System
3.3Delay睤ependent Stability Analysis of 2 DOFs RTHS
System
3.3.1Instability Mechanism Analysis
3.3.2Parameter Impact Analysis
3.3.3Stability Analysis Considering Different Time睤elay
Compensation Methods
3.4RTHS Verification
3.4.1Finite Element Numerical Substructure with Single
Delay Source
3.4.2Finite Element Numerical Substructure with Multiple
Delay Source
3.5SummaryChapter 4Stability and Accuracy Investigation of Different Integration
Algorithms
4.1Introduction
4.2Characteristics of Different Integration Algorithms in RTHS
System
4.2.1Brief Introduction of Commonly睻sed Integration
Algorithms
4.2.2Theoretical Analysis
4.3Delay睤ependent Stability Analysis of Integration
Algorithms
4.3.1Consideration of Pure Time Delay
4.3.2Consideration of Time Delay Compensation
4.4Delay睤ependent Accuarcy Analysis of Integration
Algorithms
4.4.1Accuarcy Analysis Based on Numerical Simulation
4.4.2Accuarcy Analysis Based on Discrete睺ime Root
Locus Technique
4.5RTHS Verification
4.6Summary

Chapter 5Seismic Performance Analysis of Tuned Liquid Column
Damper
5.1Introduction
5.2Absorption Principle of TLCD
5.2.1Dynamic Equation of SDOF Structure睺LCD
System
5.2.2Parametic Analysis
5.3RTHS Verfication of Control Effect of TLCD
5.3.1Experimental Method
5.3.2Experimental Model
5.3.3Stability Analysis of Structure睺LCD System
5.3.4RTHS of Structure睺LCD System
5.4Parametic Analysis of TLCD Based on RTHS
5.4.1Mass Ratio
5.4.2Structural Damping Ratio
5.4.3Structural Stiffness
5.4.4Peak Ground Acceleration
5.5Application of Applying MTLCD to Control SDOF Frame
5.6Summary

Chapter 6Experimental Study of Dynamic Response of High睷ise
Structure under TLCD Control
6.1Introduction
6.2Dynamic Equation of MDOF Structure睺LCD System
6.2.1MDOF Structure睸TLCD System
6.2.2MDOF Structure睲TLCD System
6.3RTHS Method of Full睸cale TLCD睸tructure睩oundation
System
6.4Experimental Model
6.4.1Nine睸tory Benchmark Steel Structure
6.4.2Full睸cale TLCD Model
6.5RTHS of STLCD
6.5.1Dynamic Characteristic of STLCD
6.5.2Expeimental Results
6.6RTHS of MTLCD
6.6.1Using MTLCD Control the First睴rder Modal
Response
6.6.2Using MTLCD Control the Multi睴rder Modal
Response
6.7RTHS睺LCD Considering Soil睸tructure Interaction
6.7.1Experimental Framework
6.7.2Considering SSI in Finite Foundation
6.7.3Considering SSI in Semi睮nfinite Foundation
6.8Summary

Chapter 7Key Issue Study of Tuned Liquid Damper
7.1Introduction
7.2RTHS Verfication of Nonlinear Stiffness睤amping Model
for TLD
7.2.1Nonlinear Stiffness睤amping Model
7.2.2RTHS Verification
7.3Investigation of Size Effect of TLD
7.3.1Experiment Considering Size Effect
7.3.2Experiment Considering Mass Ratio Effect
7.4Comparison of Control Effect Between TLD and TLCD
7.4.1Experimental Model
7.4.2Experimental Results
7.5Summary

Chapter 8Conclusion and Prospect
8.1The Main Research Result and Conclusion
8.2Prospect