Skip to main navigation
Skip to search
Skip to main content
New Jersey Institute of Technology Home
Help & FAQ
Home
Profiles
Research units
Facilities
Federal Grants
Research output
Press/Media
Search by expertise, name or affiliation
Instability of nanometric fluid films on a thermally conductive substrate
N. Dong,
L. Kondic
Mathematical Sciences
Research output
:
Contribution to journal
›
Article
›
peer-review
10
Scopus citations
Overview
Fingerprint
Fingerprint
Dive into the research topics of 'Instability of nanometric fluid films on a thermally conductive substrate'. Together they form a unique fingerprint.
Sort by
Weight
Alphabetically
Keyphrases
Free Surface
100%
Thermally Conductive
100%
Fluid Film
100%
Conductive Substrate
100%
Nanometric
100%
Oscillatory Activity
50%
Substrate Interaction
50%
Liquid Metal Film
50%
Nonlinear Simulation
50%
Complex Interplay
50%
Film Thickness
50%
Variable Temperature
50%
Temperature Field
50%
Linear Stability Analysis
50%
Long Waves
50%
Disjoining Pressure
50%
Instability Mechanism
50%
Thin Fluid Films
50%
Film Temperature
50%
Marangoni Force
50%
Pressure Force
50%
Stability Time
50%
Oscillatory Dynamics
50%
Uniform Heat Source
50%
Engineering
Free Surface
100%
Conductive
100%
Fluid Film
100%
Thin Films
50%
Oscillatory
50%
Liquid Metal
50%
Temperature Field
50%
Linear Stability Analysis
50%
Heat Source
50%
Disjoining Pressure
50%
Instability Mechanism
50%
Oscillatory Behavior
50%
Marangoni Force
50%
Pressure Force
50%
Mathematics
Free Surface
100%
Timescale
50%
Linearized Stability
50%
Stability Analysis
50%
Temperature Field
50%
Film Temperature
50%
Heat Source
50%
Material Science
Film
100%
Thin Films
20%
Liquid Metal
20%
Metal Film
20%
Film Thickness
20%