Combined Cooling, Heating, and Power Systems :Modelling, Optimization, and Operation

Publication subTitle :Modelling, Optimization, and Operation

Author: Yang Shi   Mingxi Liu   Fang Fang  

Publisher: John Wiley & Sons Inc‎

Publication year: 2017

E-ISBN: 9781119283379

P-ISBN(Paperback): 9781119283355

Subject: TM61 various power generation

Keyword: combined cooling heating and power (CCHP) CCHP design and configuration CCHP optimization CCHP modeling CCHP operation CCHP and demand response in smart grid CCHP case studies

Language: ENG

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Chapter

Series Preface

Preface

Acknowledgment

Acronyms

Symbols

Introduction

Chapter 1 State-of-the-Art of Combined Cooling, Heating, and Power (CCHP) Systems

1.1 Introduction

1.2 Prime Movers

1.2.1 Reciprocating IC Engines

1.2.2 Combustion Turbines

1.2.3 Steam Turbines

1.2.4 Micro-turbines

1.2.5 Stirling Engines

1.2.6 Fuel Cells

1.3 Thermally Activated Technologies

1.3.1 Absorption Chillers

1.3.2 Adsorption Chillers

1.3.3 Desiccant Dehumidifier

1.4 System Configuration

1.4.1 Micro-Scale CCHP Systems

1.4.2 Small-Scale CCHP Systems

1.4.3 Medium-Scale CCHP Systems

1.4.4 Large-Scale CCHP Systems

1.5 System Management, Optimization, and Sizing

1.5.1 Conventional Operation Strategies

1.5.2 Novel Operation Strategies

1.5.3 System Optimization

1.5.4 Sizing

1.6 Development and Barriers of CHP/CCHP Systems in Representative Countries

1.6.1 The United States

1.6.2 The United Kingdom

1.6.3 The People's Republic of China

1.7 Summary

References

Chapter 2 An Optimal Switching Strategy for Operating CCHP Systems

2.1 Introduction and Related Work

2.2 Conventional Operation Strategies of CCHP Systems

2.2.1 FEL Mode of the CCHP System

2.2.2 FTL Mode of the CCHP System

2.3 EC Function and the Optimal Switching Operation Strategy

2.3.1 PEC

2.3.2 CDE

2.3.3 COST

2.3.4 EC Function

2.3.5 Optimal Switching Operation Strategy

2.4 Analysis and Discussion

2.4.1 Case 1: Euser ≥ KQuser

2.4.2 Case 2: Euser < KQuser

2.4.3 Border Surfaces and Partition of Operating Modes

2.5 Case Study

2.5.1 Hypothetical Building Configuration

2.5.2 Test Results

2.6 Summary

References

Chapter 3 A Balance-Space-Based Operation Strategy for CCHP Systems

3.1 Introduction and Related Work

3.2 Optimal Operation Strategy

3.2.1 CCHP Systems with Unlimited PGU Capacity

3.2.2 CCHP Systems with Limited PGU Capacity

3.3 EC Function Construction

3.3.1 PES

3.3.2 HTCS

3.3.3 CDER

3.3.4 EC Function

3.3.5 Optimal PGU Capacity

3.4 Case Study

3.4.1 Hypothetical Building Configuration

3.4.2 Simulation Parameters

3.4.3 Test Results

3.5 Summary

References

Chapter 4 Energy Hub Modeling and Optimization-Based Operation Strategy for CCHP Systems

4.1 Introduction and Related Work

4.2 System Matrix Modeling

4.2.1 Efficiency Matrices of System Components

4.2.2 Dispatch Matrices

4.2.3 Conversion Matrix of the CCHP System

4.3 Optimal Control Design

4.3.1 Decision Variables

4.3.2 Objective Function

4.3.3 Non-linear Equality Constraint

4.3.4 Non-linear Inequality Constraints

4.3.5 Optimization Algorithm

4.4 Case Study

4.4.1 Hypothetical Building Configuration

4.4.2 Simulation Parameters

4.4.3 Test Results

4.5 Summary

Appendix 4.A Non-convex Optimization Algorithm

4.A.1 EC Function Construction

4.A.2 Optimization Problem Formulation

4.A.3 Optimization Algorithm

References

Chapter 5 Short-Term Load Forecasting and Post-Strategy Design for CCHP Systems

5.1 Introduction and Related Work

5.2 Estimation Model and Load Forecasting

5.2.1 First Stage Identification - IV Estimation

5.2.2 Second Stage Identification - TSRLS

5.2.3 Load Forecasting

5.3 Operation Strategy Design

5.3.1 Optimal Operation Strategy for Forecasted Load

5.3.2 Post-strategy Design

5.4 Case Study

5.4.1 Hypothetical Building Configuration

5.4.2 Weather and Load Data

5.4.3 Test Results

5.5 Summary

Appendix 5.A Closed-Form Identification Solution of Quadratic ARMAX Model

5.A.1 Quadratic ARMA Model

5.A.2 Quadratic ARMAX Model

References

Chapter 6 Complementary Configuration and Operation of a CCHP-ORC System

6.1 Introduction and Related Work

6.2 System Configuration and Formulation

6.2.1 Energy Flows and Balances

6.2.2 Equipment Efficiency and Energy Conversion

6.2.3 Two Key Adjustable Parameters

6.2.4 Electricity to Thermal Energy Output Ratio

6.3 Optimal Operation Strategy for Normal Load Cases

6.3.1 Normal Load Case 1: Euser = KQeq

6.3.2 Normal Load Case 2: Euser < KQeq

6.3.3 Normal Load Case 3: Euser > KQeq

6.3.4 Decision-making Process

6.4 Operation Strategy for Overload Cases

6.4.1 Overload Case 1: Euser > Ēpgu o and Qeq > Q̄ r

6.4.2 Overload Case 2: Euser > Ē pgu o and Qeq ≤ Q̄ r

6.4.3 Overload Case 3: Euser ≤ Ē pgu o and Qeq > Q̄ r

6.5 EC Function of the CCHP-ORC System

6.6 Case Study

6.6.1 Hypothetical Building Configuration

6.6.2 Test Results

6.7 Summary

References

Index

EULA

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