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The role of cellular traction forces in deciphering nuclear mechanics
Rakesh Joshi
, Seong Beom Han
, Won Ki Cho
,
Dong Hwee Kim
*
*
Corresponding author for this work
Research output
:
Contribution to journal
›
Review article
›
peer-review
19
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Keyphrases
Nuclear Deformation
100%
Traction Force Microscopy
100%
Cell Traction Force
100%
Nuclear Mechanics
100%
Extracellular Matrix
66%
Cellular Force
66%
Pathological Conditions
33%
Cell Morphology
33%
Gene Expression
33%
Processing Route
33%
Adhesion
33%
Traction Force
33%
Tumor Microenvironment
33%
Microbeads
33%
Cell Migration
33%
Cell Adhesion
33%
Nuclear Envelope
33%
Intracellular Organelles
33%
Force Measurement
33%
Physiological Condition
33%
Micromanipulation
33%
Tracking Algorithm
33%
DNA Damage Response
33%
Data Transformation
33%
Nuclear Forces
33%
Manufacturing Routes
33%
Engineered Biomaterials
33%
Force Transfer
33%
Biomaterial Properties
33%
Chromatin Architecture
33%
Synthetic Extracellular Matrix
33%
Displacement Tracking
33%
Biochemistry, Genetics and Molecular Biology
Gene Expression
100%
Cell Migration
100%
Cell Adhesion
100%
Nuclear Membrane
100%
Micromanipulation
100%
DNA Damage Response
100%
Nuclear Pore
100%
Engineering
Multiscale
100%
Cell Morphology
100%
Microenvironments
100%
Tracking Algorithm
100%
Initial Phase
100%
Micromanipulation
100%
Nuclear Force
100%
Medicine and Dentistry
Extracellular Matrix
100%
Biocompatible Material
66%
Gene Expression
33%
Cell Migration
33%
Nuclear Membrane
33%
Cell Adhesion
33%
Tumor Microenvironment
33%
Measurement Technique
33%
DNA Damage Response
33%
Nuclear Pore
33%
Material Science
Tumor
100%
Biomaterial
100%
Gene Expression
100%
Neuroscience
Extracellular Matrix
100%
Gene Expression
33%
Cell Migration
33%
Cell Adhesion
33%
DNA Damage Response
33%
Nuclear Pore
33%