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Slide #1. The Future of Tissue Engineering Slide #2. Tissue Engineering Slide #3. cartilage Slide #4. Field of Isolated Chondrocytes from Cartilage Slide #5. Scaffold as a Mesh of poly(L-lactic acid) microfibers Slide #6. Rotating Bioreactor for Chondrocyte Culture Slide #7. Self-Assembly Slide #8. JACS 2001 1D Self-Assembly <BR> <BR> Slide #9. 11nm Slide #10. Artificial Matrix for Regeneration <BR> <BR>Manage Early Cell Behavior <BR> <BR> proliferation, migration, preventing apoptosis, <BR> feeding, recruitment, differentiation, <BR> extracellular matrix synthesis <BR> <BR> <BR> <BR>one of the great challenges: angiogenesis and <BR>nutrient consumption levels by cells building <BR> a macroscopic tissue Slide #11. Mineral Nucleation Region Slide #12. PNAS, 99, 5133 (2002) Slide #13. SEM of Nanofiber Network Slide #14. peptide-amphiphile <BR>solution <BR>(10 mg/ml, pH 7.5) Slide #15. Spinal Cord Injury Slide #16. Spinal cord injury Slide #17. Sequellae of Spinal Cord Injury Slide #18. Structure of Laminin Slide #19. Non-bioactive <BR>Nanofiber Slide #20. nanofiber matrix loaded with neural progenitor cells Slide #21. 50 mm Slide #22. Decreased Astrocyte Differentiation in Self Assembled Supramolecular Nanofibers Slide #23. achieve universal <BR>repair of the skeleton <BR> <BR> <BR> <BR> <BR> <BR> <BR> <BR> Slide #24. Rat Femoral Defect Model <BR>defect filled with gel which is 1% by weight nanofiber and 99% by weight water Slide #25. Electrostatic Co-Assembly of Peptide Amphiphiles <BR>with Anti-Parallel Peptides Slide #26. growth factors mediate signaling pathways <BR> <BR> nanofibers of the scaffold molecularly designed to capture them non-covalently Slide #27. The Future in Regenerative Medicine