清洁与可再生能源研究：能源效率

4.5 Conclusions

4.4 Sensitive Analysis of Chemical Looping Systems

4.3 Typical Methane Fired Power Plant

4.2 NiO/Ni-Al2O3 Chemical Looping Power Plant

4.1 CuO/Cu-Al2O3 Chemical Looping Power Plant

4 Energy Balance and Exergy Analysis for CLC Models

3.2 Typical Methane Fired Power Plant

3.1 Chemical Looping Power Plant

3 Simulation Model Construction

2.2 Literature Review

2.1 Concepts of Chemical Looping Combustion

2 General Concepts and Literature Reviewed

1.3 Thesis Organization

1.2 Objectives and Methodology Used in This Work

1.1 Motivation

1 Introduction

Abstract

8 Energy Balance and Exergy Analysis of Chemical Looping Systems with Different Oxygen Carriers

References

5.2 Prospects

5.1 Conclusions

5 Conclusions and Prospects

4.3 Contrast and Analysis

4.2 Experimental and Theoretical Verification

4.1 Object Unfolding and Simulation

4 Simulation and Verification

3.4 Thermal-resistance Analysis

3.3 Cu Baseplate Thickness

3.2 DBC Substrate

3.1 Chip In-Between Space

3 Device Modeling and Analysis

2.2 Cooling Structure Introduction

2.1 Heat Transfer Theory Involved in Power Electronic Module

2 Introduction of Heat Transfer Structure for Power Device Cooling

1.3 Thesis Main Contents

1.2 Overseas and Domestic Research Status

1.1 Background

1 Introduction

Acronyms and Abbreviations

Notation

Abstract

7 Study on Heat Dissipation Characteristics of IGBT Module Encapsulation

References

5.2 Future Work

5.1 Conclusion

5 Conclusion and Future Work

4.3 ANN and ANFIS Models for the Research Office Building

4.2 Measured Data Analysis

4.1 Project Description

4 Model Validation Based on the Measured Data

3.4 Brief Summary

3.3 Comparison of ANN and ANFIS Models

3.2 ANFIS Model for GSHP System

3.1 ANN for GSHP System

3 ANN and ANFIS Models for GSHP System

2.4 Brief Summary

2.3 Model and Simulation of the Hybrid GSHP System

2.2 Hybrid GSHP Design

2.1 The Whole Year Hourly Dynamic Load Simulation Based on Dest-C

2 Model of a Hybrid GSHP Based on TRNSYS

1.4 Thesis Main Contents

1.3 Literature Review

1.2 General Introduction to a GSHP and the Evaluation Indexes Calculation Model

1.1 Thesis Statement and Significance of the Research

1 Introduction

Acronyms and Abbreviations

Notation

Abstract

6 A Low Data Requirement Model for Ground Source Heat Pump Performance Evaluation

References

6.2 Future Work

6.1 Conclusion

6 Conclusion and Future Work

5.3 Optimization of the System

5.2 Insights of Our Design

5.1 Comparison Between the Designing and Simulation Parameters

5 Simulation of the Designing Parameters

4.4 The Three-dimensional Modeling of the Key Parts

4.3 The Design of the Heat Exchangers

4.2 The Computing Process of the Schmidt Method

4.1 The Target Parameter

4 Design of a 500W Alpha Stirling Engine

3.3 The Correction of the Ideal Power of the Stirling Engine

3.2 Thermodynamic Design of the Stirling Engine

3.1 The Assumptions Used in the Improved Schmidt Analysis Method

3 Thermodynamic Analysis and Design of the Stirling Engine Based on the Improved Schmidt Analysis Method

2.6 Node Analysis Method

2.5 Isothermal Analysis Method and Adiabatic Analysis Method

2.4 The Schmidt Analysis Method

2.3 Current Analysis Methods of Stirling Engine

2.2 The Difference between Carnot Cycle and Stirling Cycle

2.1 The Stirling Cycle and Stirling Engine

2 Analysis and Design Methods of Stirling Engine

1.3 The Contents of This Research

1.2 Literature Review

1.1 The Motivation of the Topic

1 Introduction

Abstract

5 Designing of 500W Stirling Engine

参考文献

5.2 建议

5.1 总结

5 总结与建议

4.4 本章小结

4.3 类水滑石对CO2的吸附研究

4.2 SBA-15对CH4的吸附实验研究

4.1 SBA-15对CO2的吸附实验研究

4 SBA-15和类水滑石对CO2、CH4的吸附实验研究

3.6 本章小结

3.5 类水滑石煅烧前后、负载K2CO3后的物相分析

3.4 类水滑石煅煅烧后的结构参数分析

3.3 2#、3#、4#SBA-15改性后的结构参数分析

3.2 2#、3#、4# SBA-15改性前的结构参数分析

3.1 1#SBA-15的表征分析

3 SBA-15和类水滑石样品的物理特性分析

2.5 SBA-15和类水滑石对CO2、CH4吸附的实验方法

2.4 材料表征方法

2.3 类水滑石的制备和改性

2.2 SBA-15吸附材料的制备和改性

2.1 实验试剂和设备

2 SBA-15和类水滑石的制备、改性和气体吸附实验方法

1.3 研究内容和技术路线

1.2 研究概况

1.1 研究背景

1 绪论

摘要

4 SBA-15和类水滑石的制备及其吸附CO2和CH4的实验研究

参考文献

5.2 展望

5.1 总结

5 总结与展望

4.5 本章小结

4.4 热阻分析

4.3 底铜板厚度

4.2 DCB衬板

4.1 芯片间距

4 IGBT模块散热研究

3.5 本章小结

3.4 实验对照结果

3.3 理论计算

3.2 实验验证

3.1 样品剖析与仿真模拟

3 IGBT热学特性仿真模拟与验证

2.4 本章小结

2.3 电力电子器件的失效原因和散热方式

2.2 传热学基本原理

2.1 基本结构

2 IGBT封装模块与散热分析

1.3 研究内容

1.2 IGBT发展和研究现状

1.1 研究背景

1 概论

摘要

3 IGBT封装模块散热特性的研究

参考文献

5.2 展望

5.1 总结

5 总结与展望

4.3 本章小结

4.2 基于浙江绍兴某办公楼实测数据的模型验证

4.1 基于武汉某科研大楼实测数据的模型验证

4 基于实测数据的模型验证

3.4 本章小结

3.3 两种模型的对比分析

3.2 ANFIS模型的建立

3.1 ANN模型的建立

3 ANN及ANFIS模型的建立

2.4 本章小结

2.3 混合式地源热泵模型构建及模拟

2.2 混合式地源热泵系统设计

2.1 基于Dest软件的全年动态负荷模拟

2 利用TRNSYS建立混合式地源热泵系统模型

1.3 研究内容

1.2 研究概况

1.1 研究背景与意义

1 绪论

摘要

2 基于ANN和ANFIS模型的地源热泵系统性能评估

参考文献

5.2 展望

5.1 总结

5 总结与展望

4.2 回热器的性能参数数值模拟

4.1 整机的性能参数数值模拟

4 500W斯特林发动机性能参数数值模拟

3.3 换热系统参数研究

3.2 斯密特分析法的分析过程

3.1 斯特林发动机整机物理模型

3 500W斯特林发动机整机及部件特性研究

2.3 斯特林发动机的分析方法

2.2 斯特林循环与卡诺循环的对比

2.1 斯特林循环

2 斯特林发动机分析方法的研究

1.4 研究内容

1.3 斯特林发动机的研究概况

1.2 研究意义

1.1 研究背景

1 绪论

摘要

1 500W斯特林发动机特性研究与数值模拟

Preface

前言

版权信息

封面

封面

版权信息

前言

Preface

1 500W斯特林发动机特性研究与数值模拟

摘要

1 绪论

1.1 研究背景

1.2 研究意义

1.3 斯特林发动机的研究概况

1.4 研究内容

2 斯特林发动机分析方法的研究

2.1 斯特林循环

2.2 斯特林循环与卡诺循环的对比

2.3 斯特林发动机的分析方法

3 500W斯特林发动机整机及部件特性研究

3.1 斯特林发动机整机物理模型

3.2 斯密特分析法的分析过程

3.3 换热系统参数研究

4 500W斯特林发动机性能参数数值模拟

4.1 整机的性能参数数值模拟

4.2 回热器的性能参数数值模拟

5 总结与展望

5.1 总结

5.2 展望

参考文献

2 基于ANN和ANFIS模型的地源热泵系统性能评估

摘要

1 绪论

1.1 研究背景与意义

1.2 研究概况

1.3 研究内容

2 利用TRNSYS建立混合式地源热泵系统模型

2.1 基于Dest软件的全年动态负荷模拟

2.2 混合式地源热泵系统设计

2.3 混合式地源热泵模型构建及模拟

2.4 本章小结

3 ANN及ANFIS模型的建立

3.1 ANN模型的建立

3.2 ANFIS模型的建立

3.3 两种模型的对比分析

3.4 本章小结

4 基于实测数据的模型验证

4.1 基于武汉某科研大楼实测数据的模型验证

4.2 基于浙江绍兴某办公楼实测数据的模型验证

4.3 本章小结

5 总结与展望

5.1 总结

5.2 展望

参考文献

3 IGBT封装模块散热特性的研究

摘要

1 概论

1.1 研究背景

1.2 IGBT发展和研究现状

1.3 研究内容

2 IGBT封装模块与散热分析

2.1 基本结构

2.2 传热学基本原理

2.3 电力电子器件的失效原因和散热方式

2.4 本章小结

3 IGBT热学特性仿真模拟与验证

3.1 样品剖析与仿真模拟

3.2 实验验证

3.3 理论计算

3.4 实验对照结果

3.5 本章小结

4 IGBT模块散热研究

4.1 芯片间距

4.2 DCB衬板

4.3 底铜板厚度

4.4 热阻分析

4.5 本章小结

5 总结与展望

5.1 总结

5.2 展望

参考文献

4 SBA-15和类水滑石的制备及其吸附CO2和CH4的实验研究

摘要

1 绪论

1.1 研究背景

1.2 研究概况

1.3 研究内容和技术路线

2 SBA-15和类水滑石的制备、改性和气体吸附实验方法

2.1 实验试剂和设备

2.2 SBA-15吸附材料的制备和改性

2.3 类水滑石的制备和改性

2.4 材料表征方法

2.5 SBA-15和类水滑石对CO2、CH4吸附的实验方法

3 SBA-15和类水滑石样品的物理特性分析

3.1 1#SBA-15的表征分析

3.2 2#、3#、4# SBA-15改性前的结构参数分析

3.3 2#、3#、4#SBA-15改性后的结构参数分析

3.4 类水滑石煅煅烧后的结构参数分析

3.5 类水滑石煅烧前后、负载K2CO3后的物相分析

3.6 本章小结

4 SBA-15和类水滑石对CO2、CH4的吸附实验研究

4.1 SBA-15对CO2的吸附实验研究

4.2 SBA-15对CH4的吸附实验研究

4.3 类水滑石对CO2的吸附研究

4.4 本章小结

5 总结与建议

5.1 总结

5.2 建议

参考文献

5 Designing of 500W Stirling Engine

Abstract

1 Introduction

1.1 The Motivation of the Topic

1.2 Literature Review

1.3 The Contents of This Research

2 Analysis and Design Methods of Stirling Engine

2.1 The Stirling Cycle and Stirling Engine

2.2 The Difference between Carnot Cycle and Stirling Cycle

2.3 Current Analysis Methods of Stirling Engine

2.4 The Schmidt Analysis Method

2.5 Isothermal Analysis Method and Adiabatic Analysis Method

2.6 Node Analysis Method

3 Thermodynamic Analysis and Design of the Stirling Engine Based on the Improved Schmidt Analysis Method

3.1 The Assumptions Used in the Improved Schmidt Analysis Method

3.2 Thermodynamic Design of the Stirling Engine

3.3 The Correction of the Ideal Power of the Stirling Engine

4 Design of a 500W Alpha Stirling Engine

4.1 The Target Parameter

4.2 The Computing Process of the Schmidt Method

4.3 The Design of the Heat Exchangers

4.4 The Three-dimensional Modeling of the Key Parts

5 Simulation of the Designing Parameters

5.1 Comparison Between the Designing and Simulation Parameters

5.2 Insights of Our Design

5.3 Optimization of the System

6 Conclusion and Future Work

6.1 Conclusion

6.2 Future Work

References

6 A Low Data Requirement Model for Ground Source Heat Pump Performance Evaluation

Abstract

Notation

Acronyms and Abbreviations

1 Introduction

1.1 Thesis Statement and Significance of the Research

1.2 General Introduction to a GSHP and the Evaluation Indexes Calculation Model

1.3 Literature Review

1.4 Thesis Main Contents

2 Model of a Hybrid GSHP Based on TRNSYS

2.1 The Whole Year Hourly Dynamic Load Simulation Based on Dest-C

2.2 Hybrid GSHP Design

2.3 Model and Simulation of the Hybrid GSHP System

2.4 Brief Summary

3 ANN and ANFIS Models for GSHP System

3.1 ANN for GSHP System

3.2 ANFIS Model for GSHP System

3.3 Comparison of ANN and ANFIS Models

3.4 Brief Summary

4 Model Validation Based on the Measured Data

4.1 Project Description

4.2 Measured Data Analysis

4.3 ANN and ANFIS Models for the Research Office Building

5 Conclusion and Future Work

5.1 Conclusion

5.2 Future Work

References

7 Study on Heat Dissipation Characteristics of IGBT Module Encapsulation

Abstract

Notation

Acronyms and Abbreviations

1 Introduction

1.1 Background

1.2 Overseas and Domestic Research Status

1.3 Thesis Main Contents

2 Introduction of Heat Transfer Structure for Power Device Cooling

2.1 Heat Transfer Theory Involved in Power Electronic Module

2.2 Cooling Structure Introduction

3 Device Modeling and Analysis

3.1 Chip In-Between Space

3.2 DBC Substrate

3.3 Cu Baseplate Thickness

3.4 Thermal-resistance Analysis

4 Simulation and Verification

4.1 Object Unfolding and Simulation

4.2 Experimental and Theoretical Verification

4.3 Contrast and Analysis

5 Conclusions and Prospects

5.1 Conclusions

5.2 Prospects

References

8 Energy Balance and Exergy Analysis of Chemical Looping Systems with Different Oxygen Carriers

Abstract

1 Introduction

1.1 Motivation

1.2 Objectives and Methodology Used in This Work

1.3 Thesis Organization

2 General Concepts and Literature Reviewed

2.1 Concepts of Chemical Looping Combustion

2.2 Literature Review

3 Simulation Model Construction

3.1 Chemical Looping Power Plant

3.2 Typical Methane Fired Power Plant

4 Energy Balance and Exergy Analysis for CLC Models

4.1 CuO/Cu-Al2O3 Chemical Looping Power Plant

4.2 NiO/Ni-Al2O3 Chemical Looping Power Plant

4.3 Typical Methane Fired Power Plant

4.4 Sensitive Analysis of Chemical Looping Systems

4.5 Conclusions