Substrate Elasticity Governs Differentiation of Renal Tubule Cells in Prolonged Culture

Keyphrases

• Renal Tubular Epithelial Cells 100%
• Prolonged Culture 100%
• Substrate Elasticity 100%
• Mechanical Properties 33%
• Cell Culture 33%
• Tubular Cells 33%
• Renal Tissue Engineering 33%
• United States 16%
• Cell Function 16%
• Cell Differentiation 16%
• Long-term Survival 16%
• Epithelium 16%
• Epithelial Cells 16%
• End-stage Renal Disease 16%
• Obligate 16%
• Primary Cell Culture 16%
• Cultured Cells 16%
• Donor Organs 16%
• Primary Cells 16%
• Hemodialysis 16%
• Tissue Engineering 16%
• Kidney Transplantation 16%
• Dialysis 16%
• Extended Period 16%
• Cells in Culture 16%
• Clinical Tissues 16%
• Bioengineering 16%
• Brush Border 16%
• Survival Cost 16%
• Transporter Proteins 16%
• Fluid Restriction 16%
• Tunable Parameters 16%
• Soft Substrate 16%
• Functional Fidelity 16%
• Apicobasal 16%
• Least Cost 16%
• Polyacrylamide Hydrogel 16%
• Artificial Kidney 16%

Medicine and Dentistry

• Cell Culture 100%
• Renal Tubule 100%
• Tissue Regeneration 100%
• Health Care Cost 33%
• In Vitro 33%
• Cell Differentiation 33%
• Epithelial Cell 33%
• End Stage Renal Disease 33%
• Cell Function 33%
• Organ Donor 33%
• Kidney Transplantation 33%
• Hemodialysis 33%
• Brush Border 33%
• Polyacrylamide 33%
• Artificial Kidney 33%
• Table Salt 33%

Pharmacology, Toxicology and Pharmaceutical Science

• Cell Culture 100%
• End Stage Renal Disease 50%
• Hemodialysis 50%
• Carrier Protein 50%
• Polyacrylamide 50%
• Table Salt 50%