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Influence of strain-rate on coagulation kinetics
Timothy A. Kramer
*
, Mark M. Clark
*
Corresponding author for this work
Civil and Environmental Engineering
Research output
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Article
›
peer-review
34
Scopus citations
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Dive into the research topics of 'Influence of strain-rate on coagulation kinetics'. Together they form a unique fingerprint.
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Keyphrases
Strain Rate
100%
Velocity Gradient
100%
Coagulation Kinetics
100%
Energy Dissipation
50%
Coagulation
50%
Collision Frequency
50%
Global Averaging
50%
Dissipation Function
50%
Orthokinetic
50%
Gradient-based
25%
Fluid Systems
25%
Scalar
25%
Particle Collision
25%
Power Energy
25%
Average Velocity
25%
Square Root
25%
Maximum Principal Strain
25%
Volume Element
25%
Diagonalization
25%
Normal Strain
25%
Power Input
25%
Linear Velocity
25%
Strain Rate Tensor
25%
Total Collision
25%
Collision Frequency Function
25%
Principal Strain Rate
25%
Mean Square Velocity
25%
Absolute Maximum
25%
Collision between Particles
25%
Engineering
Rates of Strain
100%
Velocity Gradient
100%
Strain Rate
100%
Energy Dissipation
50%
Dissipation Function
50%
Rate Tensor
25%
Square Root
25%
Principal Strain
25%
Fluid System
25%
Normal Strain
25%
Power Input
25%
Linear Velocity
25%
Average Velocity
25%
Collision Frequency
25%
Mean-Square Velocity
25%
Particle Collision
25%
Principal Components
25%
Volume Element
25%
Collision Rate
25%
Mathematics
Velocity Gradient
100%
Energy Dissipation
50%
Volume Element
25%
Mean Square
25%
Square Root
25%
Principal Components
25%
Strain Rate Tensor
25%
Scalar Value
25%