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Electric-field-enhanced jumping-droplet condensation
Nenad Miljkovic
, Daniel J. Preston
, Ryan Enright
, Evelyn N. Wang
Research output
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peer-review
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Keyphrases
Anti-icing Surfaces
33%
Applied Electric Field
33%
Charge Separation
33%
Condensation
33%
Condensation Heat Transfer
66%
Condensation Heat Transfer Enhancement
33%
Condensed Droplet
33%
Condensing Surface
66%
Copper(II) Oxide
33%
Droplet Motion
33%
Droplet Trajectory
33%
Electric Double Layer
33%
Electric Field (E-field)
100%
Enhanced Condensation
33%
Entrainment
33%
Excess Surface Energy
33%
Heat Flux
33%
Heat Transfer
33%
Heat Transfer Enhancement
33%
Hydrophobic Coating
33%
Individual Droplets
33%
Jumping Droplet Condensation
100%
Jumping Droplets
66%
Kinetic Energy
33%
Large Droplets
33%
Moderate Heat
33%
Nanostructured Copper Oxide
33%
Nanostructured Surfaces
33%
Net Positive Charge
33%
Oxide Surfaces
33%
Self-cleaning
33%
Superhydrophobic
100%
Supersaturation
33%
Thermal Diode
33%
Vapor Flow
66%
Engineering
Applied Electric Field
50%
Applied Field
50%
Condensation Heat Transfer
100%
Condensation Heat Transfer Coefficient
50%
Electric Double Layer
50%
Electric Field
100%
Heat Flux
50%
Heat Transfer Enhancement
100%
Hydrophobic
50%
Interfacial Energy
50%
Nanostructured Surface
50%
Supersaturation
50%
Surface Increase
50%
Surface Oxide
50%