Electrical Insulation Breakdown and Its Theory, Process, and Prevention: Emerging Research and Opportunities

Length: 258 pages
Edition: 1
Language: English
Publisher: IGI Global
Publication Date: 2019-10-14
ISBN-10: 152258885X
ISBN-13: 9781522588856
Sales Rank: #0 (See Top 100 Books)

In electrical engineering manufacturing, one of the most important processes stems from making sure the material used to distribute the electrical current is safe and operating correctly. The precarious nature of electricity makes developing innovative material for advanced safety a high-ranking priority for researchers.

Electrical Insulation Breakdown and Its Theory, Process, and Prevention: Emerging Research and Opportunities provides innovative insights into the latest developments and achievements in high voltage insulation breakdown. Featuring topics such as nanodielectrics, thermal stability, and transmission technology, it is designed for engineers, including those that work with high voltage power systems, researchers, practitioners, professionals, and students interested in the upkeep and practice of electric material safety.

Cover
Title Page
Copyright Page
Book Series
    Mission
    Coverage
Preface
    CONTEXT AND PURPOSE
    CHALLENGE
    SEARCHING FOR A SOLUTION
    OVERVIEW OF CHAPTERS
    CONCLUSION
Chapter 1: Collection of Breakdown and Discharge Research on Advanced Materials
    ABSTRACT
    INTRODUCTION
    TEMPERATURE DEPENDENT SURFACE CHARGE AND DISCHARGE BEHAVIOR OF EPOXY/ALN NANOCOMPOSITES
    IMPROVED CARRIER MOBILITY DEPENDENT SURFACE CHARGE AND FLASHOVER VOLTAGE OF POLYPROPYLENE FILM UNDER DC AND PULSE VOLTAGES
    EFFECTS OF GRAPHENE NANOPLATELETS ON SPACE CHARGE AND BREAKDOWN STRENGTH OF PP/ULDPE BLENDS FOR HVDC CABLE INSULATION
    CONCLUSION
    REFERENCES
Chapter 2: Flashover and Surface Charge in GIL Insulator
    ABSTRACT
    INTRODUCTION
    SURROUNDING INSULATING GAS
    EXPERIMENTAL SETUP AND PROCEDURE
    FLASHOVER AND SURFACE CHARGE OF EP/GR COATED INSULATOR
    INTERFACIAL E-FIELD SELF-REGULATING (IER) INSULATOR
    CONCLUSION
    REFERENCES
Chapter 3: Treeing Characteristics in HTV Silicone Rubber
    ABSTRACT
    INTRODUCTION
    TREEING PROPERTY IN SIR UNDER VARIOUS TEMPERATURE AND MECHANICAL STRESS
    EFFECTS OF MECHANICAL STRESS ON TREEING GROWTH CHARACTERISTICS IN HTV SILICONE RUBBER
    CONCLUSION
    REFERENCES
Chapter 4: Discharge and Flashover Behavior in Oil-Paper
    ABSTRACT
    INTRODUCTION
    EFFECT OF SUPERIMPOSED VOLTAGE ON SURFACE CHARGE AND FLASHOVER
    EFFECT OF TEMPERATURE ON SURFACE CHARGE ACCUMULATION
    EFFECT OF TEMPERATURE ON TRAP DISTRIBUTION
    EFFECT OF TEMPERATURE ON TRAP DISTRIBUTION
    CONCLUSION
    REFERENCES
Chapter 5: Trap Property and Charge Transmission in PE
    ABSTRACT
    INTRODUCTION
    CHARGE CARRIER TRANSPORT MODULATED BY TRAP
    Trap
    GRAPHENE INHIBIT THE SPACE CHARGE INJECTION AND ACCUMULATION
    TEMPERATURE DEPENDENT TRAP LEVEL DISTRIBUTION
    CONCLUSION
    REFERENCES
Chapter 6: Characteristics and Suppression of Space Charge in Polyethylene
    ABSTRACT
    INTRODUCTION
    EFFECT OF GRAPHENE OXIDE PARTICLES ON SPACE CHARGE ACCUMULATION
    EFFECT OF VOLTAGE STABILIZERS ON THE SPACE CHARGE BEHAVIOR
    CONCLUSION
    REFERENCES
Chapter 7: Treeing Property In Polypropylene Under Various Temperature and Electrical Field
    ABSTRACT
    INTRODUCTION
    EFFECT OF LOW TEMPERATURE ON ELECTRICAL TREEING OF POLYPROPYLENE WITH REPETITIVE PULSE VOLTAGE
    EFFECT OF AMBIENT TEMPERATURE ON ELECTRICAL TREEING AND BREAKDOWN PHENOMENON OF POLYPROPYLENE WITH REPETITIVE PULSE VOLTAGE
    ELECTRICAL TREEING INITIATION AND BREAKDOWN PHENOMENON IN POLYPROPYLENE UNDER DC AND PULSE COMBINED VOLTAGES
    CONCLUSION
    REFERENCES
Chapter 8: Surface Charge Property of SiR/SiC Composites with Field-Dependent Conductivity
    ABSTRACT
    INTRODUCTION
    NONLINEAR CONDUCTIVITY AND CARRIER MOBILITY OF SIR/SIC COMPOSITES
    SURFACE CHARGE PROPERTY OF SIR/SIC COMPOSITES UNDER IMPULSE SUPERIMPOSED DC VOLTAGE
    SURFACE CHARGE PROPERTY OF SIR/SIC COMPOSITES UNDER LIGHTNING IMPULSE SUPERIMPOSED DC VOLTAGE AT DIFFERENT TEMPERATURES
    CONCLUSIONS
    REFERENCES
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