Prediction of water loss and viscoelastic deformation of apple tissue using a multiscale model

Keyphrases

• Apple 33%
• Apple Tissue 100%
• Cell Cytoplasm 33%
• Cell Membrane 33%
• Cell Wall 66%
• Continuum Approach 33%
• Cortex 33%
• Coupled Water 33%
• Deformation Behavior 33%
• Deformation Mechanics 33%
• Dehydration 66%
• Dehydration Process 33%
• Experimental Compression Test 33%
• Fick's Second Diffusion Law 33%
• High Humidity 33%
• Intercellular Space 66%
• Jonagold 33%
• Macroscopic Level 33%
• Malus Domestica Borkh 33%
• Maxwell Rheological Model 33%
• Mechanical Deformation 66%
• Mechanical Model 66%
• Mechanical Properties 33%
• Micro-deformation 33%
• Micro-macro 33%
• Microscale Model 66%
• Microscopic Structure 33%
• Microstructural 33%
• Nonlinearity 33%
• Phenomenological Approach 33%
• Structural Mechanics Model 33%
• Thin-walled Structures 33%
• Tissue Deformation 33%
• Tissue Dehydration 33%
• Transport Law 33%
• Two Dimensional 33%
• Viscoelastic Deformation 100%
• Viscoelasticity 33%
• Water Exchange 66%
• Water Loss 100%
• Water Potential 33%
• Water Transport 66%
• Water Transport Behavior 33%
• Water Transport Model 66%
• Water Transport Properties 33%
• Yeoh Strain Energy Function 33%

Engineering

• Compression Tests 33%
• Continuum Approach 33%
• Deformation Behavior 33%
• Driving Force 33%
• Energy Function 33%
• Humidity Range 33%
• Macroscale 33%
• Measured Value 33%
• Mechanic Model 33%
• Mechanical Deformation 66%
• Mechanical Model 66%
• Mechanical Property 33%
• Microscale 100%
• Multiscale 33%
• Multiscale Model 100%
• Nonlinearity 33%
• Relative Humidity 33%
• Strain Energy 33%
• Structural Mechanics 33%
• Thin Walled Structures 33%
• Two Dimensional 33%
• Viscoelasticity 33%