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Ultrahigh-temperature film capacitors via homo/heterogeneous interfaces
Rui Lu
, Zhonghui Shen
, Chunrui Ma
, Tingzhi Duan
, Lu Lu
, Guangliang Hu
, Tian Yi Hu
, Caiyin You
, Shaobo Mi
, Chun Lin Jia
,
Long Qing Chen
, Ming Liu
Materials Science and Engineering
Research output
:
Contribution to journal
›
Article
›
peer-review
12
Scopus citations
Overview
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Keyphrases
Film Capacitor
100%
Capacitors
100%
Ultra-high Temperature
100%
Heterogeneous Interface
100%
High Performance
66%
Homogeneous-heterogeneous
66%
Electric Power Systems
66%
High Thermal Stability
33%
Energy Storage Density
33%
High Temperature
33%
Energy Efficiency
33%
Phase-field Model
33%
Temperature Limitation
33%
High Demand
33%
Thermal Stability Factor
33%
Breakdown Strength
33%
Thermal Fatigue
33%
Relaxation Behavior
33%
High Temperature Operation
33%
Joule
33%
Low Operating Temperature
33%
Behavior Strength
33%
Advanced Electronics
33%
Dielectric Capacitors
33%
Power-electronics-based Power System
33%
Power System Technology
33%
Superior Thermal Stability
33%
Electrostatic Capacitors
33%
Engineering
Electric Power Systems
100%
Engineering
50%
Dielectrics
50%
Energy Conservation
50%
Phase Field
50%
Power Electronics
50%
Operating Temperature
50%
Temperature Stability
50%
Energy Efficiency
50%
Fatigue Property
50%
Centimeter
50%
Potential Application
50%
Temperature Limit
50%
High Operating Temperature
50%
Energy Storage Density
50%
Physics
Operating Temperature
100%
Electric Power
100%
Electrostatics
50%
Dielectric Material
50%
Energy Storage
50%
Material Science
Film
100%
Capacitor
100%
Thermal Stability
16%
Density
16%
Dielectric Material
16%