Identifying Internal Stresses during Mechanophore Activation

Engineering

• Polydimethylsiloxane 100%
• Internal Stress 100%
• Finite Element Analysis 100%
• Sensing Application 50%
• Automotives 50%
• Material System 50%
• Situ Observation 50%
• Hydrostatic Stress 50%
• Confocal Microscope 50%
• Stress Field 50%
• Fluorescence Intensity 50%
• Linear Relationship 50%
• Local Stress 50%
• Power Generation 50%
• Applied Stress 50%
• Cohesive Zone 50%
• Elastomeric Matrix 50%
• Silicon Dioxide 50%
• Axial Strain 50%

Keyphrases

• Internal Stress 100%
• Mechanophore 100%
• Finite Element Analysis 25%
• Polydimethylsiloxane 25%
• Spiropyran 25%
• Confocal Microscope 12%
• Fluorescence Intensity 12%
• Material System 12%
• Sensing Applications 12%
• In Situ Observation 12%
• Linear Relationship 12%
• Hydrostatic Stress 12%
• Biaxial Strain 12%
• Stress Field 12%
• Chemical Reaction 12%
• Uniaxial Tension 12%
• Polymeric Materials 12%
• Self-reporting 12%
• I to 12%
• Automotive Industry 12%
• Local Stress 12%
• Mechanical Stimulation 12%
• Energy Generation 12%
• Elastomeric Matrix 12%
• Cohesive Zone Elements 12%
• Quantitative Calibration 12%
• Silica-embedded 12%
• Damage Sensing 12%
• Rigid Sphere 12%
• Quasi-static Deformation 12%