Epoxy-based Spacers for Gas Insulated Power Apparatus

Insulator for Electric Field Grading in AC Gas Insulated Power Apparatus 10.1 Introduction 10.2 Concept of SFGM 10.3 Fabrication of SFGM Insulator 10.4 Electric Field Simulation 10.5 Flashover Test Results 10.6 Conclusions 11 Epoxy-based Insulator with Permittivity-graded Surface Layer by Magnetron Sputtering for Gas-insulated Lines 11.1 Introduction 11.2 BaTiO3 Layer Deposition 11.3 Simulation and Optimization 11.4 SFGM Insulator Fabrication 11.5 Results and Discussion 11.6 Conclusions 12 Electric Field Relaxation by Surface Functionally Graded Spacer for Compact HVDC Gas Insulated Apparatus 12.1 Introduction 12.2 s-SFGM for Electrical Field Relaxation 12.3 Fabrication of s-SFGM Spacer 12.4 Flashover Voltage of s-SFGM Spacer 12.5 Conclusions 13 Novel Insulator with Surface s-FGM for DC compact Gas Insulated Pipeline 13.1 Introduction 13.2 Novel Insulator with Interfacial s-FGM 13.3 Novel insulator with Interfacial s-FGM 13.4 Electric Field Simulation 13.5 Improved Flashover Voltage 
13.6 Conclusions 14 Epoxy-based Insulator with Surface Conductivity Gradient Material for HVDC Gas Insulated Pipeline by Sputtering 14.1 Introduction 14.2 SFGM Fabrication by Fluorination 14.3 Optimization of Insulator with SFGM 14.4 Electric Field Calculation 14.5 Flashover Test 14.6 Conclusions 15 Electric Field Optimization of Epoxy-based Spacer with Surface Conductivity Gradient Material (s-SFGM) by Electrospinning 15.1 Introduction 15.2 Simulation Study 15.3 Experimental Study 15.4 Conclusions 16 Parameter Design of Multi-dimensional Functionally Graded Materials ( /s-MFGM) for Epoxy-based Spacers in HVDC GIL/GIS 16.1 Introduction 16.2 Surface Functionally Graded Material 16.3 Multi-dimensional Functionally Graded Material 16.4 Conclusions Electric Field Adaptive Materials for GIL/GIS 17 Nonlinear Conductive Characteristics and Mechanisms of Epoxy/SiC Composites 17.1 Introduction 17.2 Experimental Arrangement 17.3 Preparation and Characterization of Epoxy/SiC Composites 17.4 Conductive and Breakdown Characteristics of Epoxy/SiC Composites 17.5 Simulation and Analysis of Nonlinear Conductive Characteristics 17.6 Conclusions 18 Electrical Field Simulation of Epoxy Spacer with Nonlinear Conductivity for DC GIL 18.1 Introduction 18.2 Geometric Model and Governing Equations 18.3 Simulation Results and Analysis 18.4 Conclusions 19 Field-adaptive Materials for Epoxy-based Insulator in HVDC GIL 19.1 Introduction 19.2 Simulation of IER Insulator Application 19.3 Experimental Setup and Procedure 19.4 Electrical Simulation Results 19.5 Experimental Results and Discussion 19.6 Conclusions 20 Fabrication and Evaluation of Field-adaptive Insulator for DC-GIL Application 20.1 Introduction 20.2 Insulator Preparation and Basic Tests 20.3 Simulation and Experimental Setup 20.4 Results and Discussion 20.5 Conclusions 21 Epoxy-based Spacer with Functionally Graded Zno Film for HVDC Gas Insulated Line 21.1 Introduction 21.2 ZnO Film Deposition and Test 21.3 Spacer Optimization and Fabrication 21.4 Electrical Insulation Performance 21.5 Conclusions 22 Regulating Electric Field around Post-type Insulator in DC-GIL for ITER Neutral Beam Injector 22.1 Introduction 22.2 Simulation model 22.3 Results and Discussion 22.4 Conclusions 23 Electric Field Optimization and Parameter Design of Surface Nonlinear Conductivity Spacer for ±500 kV DC-GIL 23.1 Introduction 23.2 Simulation Model 23.3 Surface Charge and Electric Field distributions under Different Conditions 23.4 Parameter Optimization of SNC Spacer 23.5 Conclusion 24 Surface Charge and Electric Field Regulation of Surface Nonlinear Conductivity Spacers 24.1 Introduction 24.2 Design and Fabrication of SNC Spacers 24.3 Electric Field Measurement on Electrode Surfaces 24.4 Surface Charging and Discharging Characteristics of SNC Spacers 24.5 Regulating Effects of SNC Spacers under Different Testing Conditions 24.6 Conclusion 25 Electric Field Control by Multi-dimensional Functional Materials for DC-GIS Spacer 25.1 Introduction 25.2 Design Concept and Simulation 25.3 Results and Discussion 25.4 Conclusion