Jun-Wei Zha – författare

High Temperature Polymer Dielectrics Overview on how to achieve polymer dielectrics at high temperatures, with emphasis on diverse applications in various electrical insulation fields High Temperature Polymer Dielectrics: Fundamentals and Applications in Power Equipment systematically describes the latest research progress surrounding high-temperature polymer dielectric (HTPD) materials and their applications in electrical insulation fields such as high-temperature energy storage capacitors, motors, packaging, printed circuit board, new energy power equipment, and aerospace electrical equipment. The comprehensive text provides a description of the market demand and theoretical research value of HTPDs in electrical equipment and enables readers to improve the performance and design of existing HTPD materials, and to develop efficient new high temperature polymer dielectric materials in general. Specific sample topics covered in High Temperature Polymer Dielectrics include: Thermal and electrical properties of high-temperature polymers, and the excellent thermal stability, mechanical properties, and long service life of polymer dielectricsWhy fluorinated polymers are more thermally stable than their corresponding hydrogen-substituted polymersStatic Thermomechanical Analysis (TMA), a technique for measuring the functional relationship between the deformation of the materials and the temperature and time under different actionsPolyetheretherketone (PEEK), a semi-crystalline polymer material with ether bonds and ketone carbonyl groups in molecular chainsProviding a complete overview of the state-of-the-art high temperature polymer dielectrics, with a focus on fundamental background and recent advances, High Temperature Polymer Dielectrics is an essential resource for materials scientists, electrical engineers, polymer chemists, physicists, and professionals working in the chemical industry as a whole.

An of-the-moment discussion of the most cutting-edge research in the field of polyimide dielectrics In Functional Polyimide Dielectrics: Structure, Properties, and Applications, distinguished researcher Dr. Jun-Wei Zha delivers an up-to-date and authoritative discussion of the latest advancements in the application of polyimide dielectrics (PIDs) in electrical and electronic equipment. Readers will find coverage of the application of PIDs in aerospace, high-temperature energy storage capacitors, corona-resistant motors, new energy power equipment, packaging, and more. The book serves as a valuable reference for improving the performance and expanding the application of existing PIDs, as well as designing and developing new PIDs. It also provides a current overview of research and frontier applications that will prove useful to students and researchers from multiple disciplines. Functional Polyimide Dielectrics also contains: A thorough introduction to the different types of polyimide dielectrics, including their synthesis, composites & blends, processing-property relationships, processing strategies and technologies, properties and applicationsComprehensive explorations of a wide range of PID applications in a variety of special applications, like energy storage, insulation, thermal conductivity, intelligence, and morePractical discussions of the environmental aspects of the technology, as well as life cycle assessment sustainable alternative possibilitiesComplete treatments of smart polyimide dielectricsPerfect for materials scientists, electronics engineers, polymer chemists, physicists, and mechanical engineers, Functional Polyimide Dielectrics: Structure, Properties, and Applications will also benefit professionals, engineers, and scientists working in the chemical industry.

Highlights milestone developments in degradable, recyclable, and self-healing insulating materials for the power industry The global transition toward low-carbon and sustainable energy systems has placed electrical insulating materials at the forefront of research and application. As essential components in electrical and electronic engineering, insulating materials determine not only the efficiency and reliability of power equipment but also its environmental footprint. Yet, traditional insulating systems face significant challenges—resource depletion, pollution, and limited recyclability—that are increasingly incompatible with global climate and sustainability goals. Next-Generation Electrical Insulating Materials:Low-Carbon, Eco-Friendly, and Sustainable Solutions systematically addresses solid, liquid, and gas insulating materials in the context of sustainability. Covering fundamental insulating, dielectric, thermal, and mechanical properties, contributions from leading experts explore recent breakthroughs in degradable, recyclable, and self-healing materials. The book provides detailed evaluations of material innovations and their practical implications for the safe operation of electrical systems. Dedicated chapters on plastics, resins, rubbers, paper, oils, and gases are accompanied by critical examinations of current challenges and a discussion of future directions of the field. Blending foundational theory and cutting-edge advances to illustrate how insulating materials can support the energy transition and drive innovation in sustainable power systems, Next-Generation Electrical Insulating Materials: Introduces a systematic framework linking material properties with low-carbon performance requirementsHighlights six categories of insulating materials with breakthrough developments in greener alternativesProvides multi-dimensional evaluation methods for optimizing material performance in real-world conditionsExamines synergistic improvements of green insulating materials in power equipmentOffers detailed prospects for innovation, from recyclable designs to advanced degradable materialsBoth an introductory resource and an advanced reference across multiple engineering disciplines, Next-Generation Electrical Insulating Materials:Low-Carbon, Eco-Friendly, and Sustainable Solutions is essential reading for graduate students, researchers, and engineers in electrical engineering, materials science, and polymer chemistry. It is well-suited for courses in Electrical Materials and Insulation Technology at master’s and doctoral levels, and is a valuable reference for professionals in the power, electronics, and chemical industries.

High Temperature Polymer Dielectrics

Overview on how to achieve polymer dielectrics at high temperatures, with emphasis on diverse applications in various electrical insulation fields

High Temperature Polymer Dielectrics: Fundamentals and Applications in Power Equipment systematically describes the latest research progress surrounding high-temperature polymer dielectric (HTPD) materials and their applications in electrical insulation fields such as high-temperature energy storage capacitors, motors, packaging, printed circuit board, new energy power equipment, and aerospace electrical equipment. The comprehensive text provides a description of the market demand and theoretical research value of HTPDs in electrical equipment and enables readers to improve the performance and design of existing HTPD materials, and to develop efficient new high temperature polymer dielectric materials in general.

Specific sample topics covered in High Temperature Polymer Dielectrics include:

Thermal and electrical properties of high-temperature polymers, and the excellent thermal stability, mechanical properties, and long service life of polymer dielectrics Why fluorinated polymers are more thermally stable than their corresponding hydrogen-substituted polymers Static Thermomechanical Analysis (TMA), a technique for measuring the functional relationship between the deformation of the materials and the temperature and time under different actions Polyetheretherketone (PEEK), a semi-crystalline polymer material with ether bonds and ketone carbonyl groups in molecular chains

Providing a complete overview of the state-of-the-art high temperature polymer dielectrics, with a focus on fundamental background and recent advances, High Temperature Polymer Dielectrics is an essential resource for materials scientists, electrical engineers, polymer chemists, physicists, and professionals working in the chemical industry as a whole.

High Temperature Polymer Dielectrics

Overview on how to achieve polymer dielectrics at high temperatures, with emphasis on diverse applications in various electrical insulation fields

High Temperature Polymer Dielectrics: Fundamentals and Applications in Power Equipment systematically describes the latest research progress surrounding high-temperature polymer dielectric (HTPD) materials and their applications in electrical insulation fields such as high-temperature energy storage capacitors, motors, packaging, printed circuit board, new energy power equipment, and aerospace electrical equipment. The comprehensive text provides a description of the market demand and theoretical research value of HTPDs in electrical equipment and enables readers to improve the performance and design of existing HTPD materials, and to develop efficient new high temperature polymer dielectric materials in general.

Specific sample topics covered in High Temperature Polymer Dielectrics include:

Thermal and electrical properties of high-temperature polymers, and the excellent thermal stability, mechanical properties, and long service life of polymer dielectrics Why fluorinated polymers are more thermally stable than their corresponding hydrogen-substituted polymers Static Thermomechanical Analysis (TMA), a technique for measuring the functional relationship between the deformation of the materials and the temperature and time under different actions Polyetheretherketone (PEEK), a semi-crystalline polymer material with ether bonds and ketone carbonyl groups in molecular chains

Providing a complete overview of the state-of-the-art high temperature polymer dielectrics, with a focus on fundamental background and recent advances, High Temperature Polymer Dielectrics is an essential resource for materials scientists, electrical engineers, polymer chemists, physicists, and professionals working in the chemical industry as a whole.

An of-the-moment discussion of the most cutting-edge research in the field of polyimide dielectrics

In Functional Polyimide Dielectrics: Structure, Properties, and Applications, distinguished researcher Dr. Jun-Wei Zha delivers an up-to-date and authoritative discussion of the latest advancements in the application of polyimide dielectrics (PIDs) in electrical and electronic equipment. Readers will find coverage of the application of PIDs in aerospace, high-temperature energy storage capacitors, corona-resistant motors, new energy power equipment, packaging, and more.

The book serves as a valuable reference for improving the performance and expanding the application of existing PIDs, as well as designing and developing new PIDs. It also provides a current overview of research and frontier applications that will prove useful to students and researchers from multiple disciplines.

Functional Polyimide Dielectrics also contains:

A thorough introduction to the different types of polyimide dielectrics, including their synthesis, composites & blends, processing-property relationships, processing strategies and technologies, properties and applicationsComprehensive explorations of a wide range of PID applications in a variety of special applications, like energy storage, insulation, thermal conductivity, intelligence, and morePractical discussions of the environmental aspects of the technology, as well as life cycle assessment sustainable alternative possibilitiesComplete treatments of smart polyimide dielectrics

Perfect for materials scientists, electronics engineers, polymer chemists, physicists, and mechanical engineers, Functional Polyimide Dielectrics: Structure, Properties, and Applications will also benefit professionals, engineers, and scientists working in the chemical industry.

An of-the-moment discussion of the most cutting-edge research in the field of polyimide dielectrics

In Functional Polyimide Dielectrics: Structure, Properties, and Applications, distinguished researcher Dr. Jun-Wei Zha delivers an up-to-date and authoritative discussion of the latest advancements in the application of polyimide dielectrics (PIDs) in electrical and electronic equipment. Readers will find coverage of the application of PIDs in aerospace, high-temperature energy storage capacitors, corona-resistant motors, new energy power equipment, packaging, and more.

The book serves as a valuable reference for improving the performance and expanding the application of existing PIDs, as well as designing and developing new PIDs. It also provides a current overview of research and frontier applications that will prove useful to students and researchers from multiple disciplines.

Functional Polyimide Dielectrics also contains:

A thorough introduction to the different types of polyimide dielectrics, including their synthesis, composites & blends, processing-property relationships, processing strategies and technologies, properties and applicationsComprehensive explorations of a wide range of PID applications in a variety of special applications, like energy storage, insulation, thermal conductivity, intelligence, and morePractical discussions of the environmental aspects of the technology, as well as life cycle assessment sustainable alternative possibilitiesComplete treatments of smart polyimide dielectrics

Perfect for materials scientists, electronics engineers, polymer chemists, physicists, and mechanical engineers, Functional Polyimide Dielectrics: Structure, Properties, and Applications will also benefit professionals, engineers, and scientists working in the chemical industry.

Highlights milestone developments in degradable, recyclable, and self-healing insulating materials for the power industry The global transition toward low-carbon and sustainable energy systems has placed electrical insulating materials at the forefront of research and application. As essential components in electrical and electronic engineering, insulating materials determine not only the efficiency and reliability of power equipment but also its environmental footprint. Yet, traditional insulating systems face significant challenges resource depletion, pollution, and limited recyclability that are increasingly incompatible with global climate and sustainability goals. Next-Generation Electrical Insulating Materials:Low-Carbon, Eco-Friendly, and Sustainable Solutions systematically addresses solid, liquid, and gas insulating materials in the context of sustainability. Covering fundamental insulating, dielectric, thermal, and mechanical properties, contributions from leading experts explore recent breakthroughs in degradable, recyclable, and self-healing materials. The book provides detailed evaluations of material innovations and their practical implications for the safe operation of electrical systems. Dedicated chapters on plastics, resins, rubbers, paper, oils, and gases are accompanied by critical examinations of current challenges and a discussion of future directions of the field. Blending foundational theory and cutting-edge advances to illustrate how insulating materials can support the energy transition and drive innovation in sustainable power systems, Next-Generation Electrical Insulating Materials: Introduces a systematic framework linking material properties with low-carbon performance requirementsHighlights six categories of insulating materials with breakthrough developments in greener alternatives Provides multi-dimensional evaluation methods for optimizing material performance in real-world conditionsExamines synergistic improvements of green insulating materials in power equipmentOffers detailed prospects for innovation, from recyclable designs to advanced degradable materials Both an introductory resource and an advanced reference across multiple engineering disciplines, Next-Generation Electrical Insulating Materials:Low-Carbon, Eco-Friendly, and Sustainable Solutions is essential reading for graduate students, researchers, and engineers in electrical engineering, materials science, and polymer chemistry. It is well-suited for courses in Electrical Materials and Insulation Technology at master s and doctoral levels, and is a valuable reference for professionals in the power, electronics, and chemical industries.