Substrate rigidity and force define form through tyrosine phosphatase and kinase pathways

Keyphrases

• Actomyosin Contractility 50%
• Biochemical Signals 50%
• Causal Linkages 50%
• Cell Forces 50%
• Cell Morphology 50%
• Cytoskeletal Changes 50%
• Cytoskeleton 100%
• Downstream Signaling 50%
• Early Events 50%
• Feedback Mechanism 50%
• Flat Surface 50%
• Force Application 50%
• Force Detection 50%
• Force Generation 100%
• Force Sensing 100%
• Force-dependent 50%
• Integrin 50%
• Kinase Cascade 100%
• Matrix Rigidity 50%
• Mechanically Induced 50%
• Mechanoresponsive 50%
• Morphological Changes 50%
• Phosphatase 50%
• Phosphotyrosine Signaling 50%
• Protein Tyrosine Phosphatase 1B (PTP1B) 100%
• Signal Process 50%
• Src Kinase 50%
• Substrate Rigidity 100%
• Tyrosine Kinase 100%

Biochemistry, Genetics and Molecular Biology

• Cytoskeleton 100%
• Gene Linkage 50%
• Integrin 50%
• Kinase 100%
• Muscle Contractility 50%
• Phosphatase 100%
• Phosphotransferase 100%
• Protein Tyrosine Phosphatase 100%
• Receptor Tyrosine Kinase 100%
• Rigidity 100%
• Surface Property 50%
• Tyrosine Kinase 50%

Neuroscience

• Cytoskeleton 100%
• Integrin 50%
• Kinase 100%
• Phosphatase 100%
• Phosphotyrosine 50%
• Protein Tyrosine Phosphatase 100%
• Receptor Tyrosine Kinase 100%
• Tyrosine Kinase 50%