Chapter 2 Micromanipulation in Mechanical Characterisation of Single Particles

Keyphrases

• Mechanical Properties 100%
• Micromanipulation 100%
• Biological Materials 100%
• Mechanical Characterization 100%
• Diametrical Compression 100%
• Processing Equipment 100%
• Non-biological 100%
• Cell Behavior 50%
• Mathematical Modeling 50%
• Mechanical Damage 50%
• Elastic Modulus 50%
• Food Processing 50%
• High Strain Rate Deformation 50%
• Submerged Fermentation 50%
• Manufacturing Process 50%
• Plant Cells 50%
• Suspension Culture 50%
• Animal Cells 50%
• Atomic Force Microscopy 50%
• Environmental Yeast 50%
• Tissue Engineering 50%
• Single Microparticle 50%
• Micropipette Aspiration 50%
• Materials Application 50%
• Optical Trapping 50%
• Biological Potential 50%
• Intrinsic Mechanical Properties 50%
• Flocculation Process 50%
• Mechanics Engineering 50%
• Industrial Products 50%
• Cell Mechanics 50%
• Biological Particles 50%
• Downstream Processing 50%
• Biomaterial Engineering 50%
• Plastic Parameter 50%
• Poking 50%
• Physical Damage 50%
• Particle Breakage 50%
• Viscoelastic Parameters 50%
• Filamentous Microorganisms 50%
• Microscopic Particles 50%

Engineering

• Processing Equipment 100%
• Micromanipulation 100%
• Mathematical Modeling 50%
• Mechanical Damage 50%
• Modulus of Elasticity 50%
• Potential Application 50%
• Experimental Technique 50%
• Breakage 50%
• Submerged Fermentation 50%
• Tissue Regeneration 50%
• Manufacturing Process 50%
• Atomic Force Microscopy 50%
• Disruptions 50%
• Flocculation 50%
• Suspension Culture 50%
• Microparticles 50%
• Industrial Product 50%
• Micropipette 50%
• Cellular Biomechanics 50%
• Physical Damage 50%
• Downstream Processing 50%

Material Science

• Mechanical Testing 100%
• Biomaterial 100%
• Elastic Moduli 33%
• Microparticle 33%
• Materials Application 33%
• Particle Breakage 33%
• Atomic Force Microscopy 33%