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Regenerative medicine

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Title: Regenerative medicine  
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Regenerative medicine

Human stem cells

Regenerative medicine is a branch of

  • Regenerative Medicine
  • Regenerative Medicine Glossary
  • Regenerative Dental Medicine Journal
  • Tissue Engineering

Scientific Journals

  • Metallo CM, Azarin SM, Ji L, de Pablo JJ, Palecek SP (June 2008). "Engineering tissue from human embryonic stem cells". Journal of Cellular and Molecular Medicine 12 (3): 709–29.  
  • Placzek MR, Chung IM, Macedo HM et al. (March 2009). "Stem cell bioprocessing: fundamentals and principles". Journal of the Royal Society, Interface 6 (32): 209–32.  

More technical further reading

  • Regenerative Medicine, 2006 report, US National Institutes of Health
  • Cogle CR, Guthrie SM, Sanders RC, Allen WL, Scott EW, Petersen BE (August 2003). "An overview of stem cell research and regulatory issues". Mayo Clinic Proceedings 78 (8): 993–1003.  
  • Center for Regenerative Medicine, More on history, healing potential and research activities on autologus stem cells technologies in regenerative medicine.

Less technical further reading

External links

  1. ^ New health facility aims to translate stem cell science into therapies | USC News
  2. ^ Regenerative Medicine, 2008, 3(1), 1–5 [47]
  3. ^ Health News - UM Leads in the Field of Regenerative Medicine: Moving from Treatments to Cures
  4. ^ "Regenerative Medicine. NIH Fact sheet 092106.doc" (PDF). September 2006. Retrieved 2010-08-16. 
  5. ^ Mason C, Dunnill P (January 2008). "A brief definition of regenerative medicine". Regenerative Medicine 3 (1): 1–5.  
  6. ^ "Regenerative medicine glossary". Regenerative Medicine 4 (4 Suppl): S1–88. July 2009.  
  7. ^ http://www.nsf.gov/pubs/2004/nsf0450/ Viola, J., Lal, B., and Grad, O. The Emergence of Tissue Engineering as a Research Field. Arlington, VA: National Science Foundation, 2003.
  8. ^ Kaiser LR (1992). "The future of multihospital systems". Topics in Health Care Financing 18 (4): 32–45.  
  9. ^ Lysaght MJ, Crager J (July 2009). "Origins". Tissue Engineering. Part a 15 (7): 1449–50.  
  10. ^ Riazi AM, Kwon SY, Stanford WL (2009). "Stem cell sources for regenerative medicine". Methods in Molecular Biology. Methods in Molecular Biology 482: 55–90.  
  11. ^ Stoick-Cooper CL, Moon RT, Weidinger G (June 2007). "Advances in signaling in vertebrate regeneration as a prelude to regenerative medicine". Genes & Development 21 (11): 1292–315.  
  12. ^ Muneoka K, Allan CH, Yang X, Lee J, Han M (December 2008). "Mammalian regeneration and regenerative medicine". Birth Defects Research. Part C, Embryo Today 84 (4): 265–80.  
  13. ^ Cord Blood for Neonatal Hypoxic-Ischemic Encephalopathy, Autologous Cord Blood Cells for Hypoxic Ischemic Encephalopathy Study 1. Phase I Study of Feasibility and Safety
  14. ^ Haller MJ, etal.; Viener, HL; Wasserfall, C; Brusko, T; Atkinson, MA; Schatz, DA (2008). "Autologous umbilical cord blood infusion for type 1 diabetes.". Exp. Hematol. 36 (6): 710–715.  
  15. ^ Vendrame M et al. (2006). "Cord blood rescues stroke-induced changes in splenocyte phenotype and function". Exp. Neurol. 199 (1): 191–200.  
  16. ^ Vendrame M et al. (2005). "Anti-inflammatory effects of human cord blood cells in a rat model of stroke". Stem Cells Dev. 14 (5): 595–604.  
  17. ^ Revoltella RP et al. (2008). "Cochlear repair by transplantation of human cord blood CD133+ cells to nod-scid mice made deaf with kanamycin and noise". Cell Transplant. 17 (6): 665–678.  
  18. ^ a b Harris DT et al. (2007). "The potential of cord blood stem cells for use in regenerative medicine". Expert Opin. Biol. Ther. 7 (9): 1311–1322.  
  19. ^ Haller MJ et al. (2008). "Autologous umbilical cord blood infusion for type 1 diabetes. www.york.ac.uk/res/cordblood". Exp. Hematol. 36 (6): 710–715.  
  20. ^ Lu D et al. (2002). "Intravenous administration of human umbilical cord blood reduces neurological deficit in the rat after traumatic brain injury". Cell Transplant. 11 (3): 275–281.  
  21. ^ Meier, C.; Middelanis, Johannes; Wasielewski, Bianca; Neuhoff, Sandra; Roth-Haerer, Astrid; Gantert, Markus; Dinse, Hubert R.; Dermietzel, Rolf; Jensen, Arne (2006). "Spastic paresis after perinatal brain damage in rats is reduced by human cord blood mononuclear cells". Pediatr. Res. 59 (2): 244–249.  
  22. ^ Taguchi A et al. (2004). "Administration of CD34+ cells after stroke enhances neurogenesis via angiogenesis in a mouse model". J. Clin. Invest. 114 (3): 330–338.  
  23. ^ Sun J et al. (2010). "Differences in quality between privately and publicly banked umbilical cord blood units: a pilot study of autologous cord blood infusion in children with acquired neurologic disorders". Transfusion. 50 (9): 1980–1987.  
  24. ^ Papadopoulos KI et al. (2011). "Safety and feasibility of autologous umbilical cord blood transfusion in 2 toddlers with cerebral palsy and the role of low dose granulocyte-colony stimulating factor injections". Restor Neurol Neurosci. 29 (1): 17–22.  
  25. ^ "Steenblock Research Institute, umbilical cord stem cell therapy". 
  26. ^ "World’s First Stem-Cell Drug Approval Achieved in Canada". The National Law Review.  
  27. ^ "Bloomberg Longevity Economy Conference 2013 Panelist Bio". 
  28. ^ Andrews, Wyatt (2008-02-07). "A "Holy Grail" Of Healing". Cbsnews.com. Retrieved 2010-03-19. 
  29. ^ Clout, Laura (2008-04-30). Pixie dust' helps man grow new finger"'". Telegraph.co.uk. Retrieved 2010-03-19. 
  30. ^ "Stephen Francis Badylak, D.V.M., Ph.D., M.D". Pitt.edu. Retrieved 2010-03-19. 
  31. ^ National Geographic Explorer: Season 25, Episode 7. "How to Build a Beating Heart". Feb 2, 2011
  32. ^ "Tissue-Engineered Trachea Transplant Is Adult Stem Cell Breakthrough". Scientificblogging.com. 2008-11-19. Retrieved 2010-03-19. 
  33. ^ "Regenerative Medicine Success Story: A Tissue-Engineered Trachea". Mirm.pitt.edu. Retrieved 2010-03-19. 
  34. ^ "Sens Foundation". sens.org. 2009-01-03. Retrieved 2012-02-23. 
  35. ^ "Surgeons Implant Synthetic Trachea In Baltimore Man". nytimes.com. 2012-01-12. Retrieved 2012-02-23. 
  36. ^ "Next-Generation Stem Cells Transplanted in Human for the First Time". Nature. Retrieved 2014-09-12. 

References

See also

On Sep 12, 2014, surgeons at the Institute of Biomedical Research and Innovation Hospital in Kobe, Japan, transplanted a 1.3 by 3.0 millimeter sheet of retinal pigment epithelium cells, which were differentiated from iPS cells through Directed differentiation, into an eye of an elderly woman, who suffers from age-related macular degeneration.[36]

In 2012, Professor Paolo Macchiarini and his team improved upon the 2008 implant by transplanting a laboratory-made trachea seeded with the patient's own cells.[35]

In 2009 the SENS Foundation was launched, with its stated aim as "the application of regenerative medicine – defined to include the repair of living cells and extracellular material in situ – to the diseases and disabilities of ageing." [34]

In June 2008, at the Hospital Clínic de Barcelona, Professor Paolo Macchiarini and his team, of the University of Barcelona, performed the first tissue engineered trachea (wind pipe) transplantation. Adult stem cells were extracted from the patient's bone marrow, grown into a large population, and matured into cartilage cells, or chondrocytes, using an adaptive method originally devised for treating osteoarthritis. The team then seeded the newly grown chondrocytes, as well as epithileal cells, into a decellularised (free of donor cells) tracheal segment that was donated from a 51 year old transplant donor who had died of cerebral hemorrhage. After four days of seeding, the graft was used to replace the patient's left main bronchus. After one month, a biopsy elicited local bleeding, indicating that the blood vessels had already grown back successfully.[32][33]

Dr. Stephen Badylak, a Research Professor in the Department of Surgery and director of Tissue Engineering at the McGowan Institute for Regenerative Medicine at the University of Pittsburgh, developed a process for scraping cells from the lining of a pig's bladder, decellularizing (removing cells to leave a clean extracellular structure) the tissue and then drying it to become a sheet or a powder. This extracellular matrix powder was used to regrow the finger of Lee Spievak, who had severed half an inch of his finger after getting it caught in a propeller of a model plane.[28][29][30] As of 2011, this new technology is being employed by the military on U.S. war veterans in Texas, as well as for some civilian patients. Nicknamed "pixie-dust," the powdered extracellular matrix is being used to successfully regenerate tissue lost and damaged due to traumatic injuries.[31]

From 1995 to 1998 Geron Corporation and its academic collaborators James Thomson at the University of Wisconsin-Madison and John Gearhart of Johns Hopkins University that led to the first isolation of human embryonic stem and human embryonic germ cells.[27]

History

On May 17, 2012, Osiris Therapeutics announced that Canadian health regulators approved Prochymal, a drug for acute graft-versus-host disease in children who have failed to respond to steroid treatment. Prochymal is the first stem cell drug to be approved anywhere in the world for a systemic disease. Graft-versus-host disease, a potentially fatal complication from bone marrow transplant, involves the newly implanted cells attacking the patient’s body.[26]

As these clinical and pre-clinical studies demonstrate, cord blood stem cells will likely be an important resource as medicine advances toward harnessing the body’s own cells for treatment. The field of regenerative medicine can be expected to benefit greatly as additional cord blood stem cell applications are researched and more people have access to their own preserved cord blood. [25]

Another report published encouraging results in 2 toddlers with cerebral palsy where autologous cord blood infusion was combined with G-CSF.[24]

This research also lends support for the pioneering clinical work at Duke University, focused on evaluating the impact of autologous cord blood infusions in children diagnosed with cerebral palsy and other forms of brain injury. This study is examining if an infusion of the child’s own cord blood stem cells facilitates repair of damaged brain tissue, including many with cerebral palsy. To date, more than 100 children have participated in the experimental treatment – many whose parents are reporting good progress.[23]

Research has demonstrated convincing evidence in animal models that cord blood stem cells injected intravenously have the ability to migrate to the area of brain injury, alleviating mobility related symptoms.[20][21] Also, administration of human cord blood stem cells into animals with stroke was shown to significantly improve behavior by stimulating the creation of new blood vessels and neurons in the brain.[22]

Central nervous system

The stem cells found in a newborn’s umbilical cord blood are holding great promise in cardiovascular repair. Researchers are noting several positive observations in pre-clinical animal studies. Thus far, in animal models of myocardial infarction, cord blood stem cells have shown the ability to selectively migrate to injured cardiac tissue, improve vascular function and blood flow at the site of injury, and improve overall heart function.[18]

Cardiovascular

A clinical trial under way at the University of Florida is examining how an infusion of autologous cord blood stem cells into children with Type 1 diabetes will impact metabolic control over time, as compared to standard insulin treatments. Preliminary results demonstrate that an infusion of cord blood stem cell is safe and may provide some slowing of the loss of insulin production in children with type 1 diabetes.[19]

Type 1 diabetes

Researchers are exploring the use of cord blood stem cells in the following regenerative medicine applications:

Current estimates indicate that approximately 1 in 3 Americans could benefit from regenerative medicine.[18] With autologous (the person’s own) cells, there is no risk of the immune system rejecting the cells, so physicians and researchers are only performing these potential cord blood therapies on children who have their own stem cells available.

The use of cord blood stem cells in treating conditions such as brain injury [13] and Type 1 Diabetes [14] is already being studied in humans, and earlier stage research is being conducted for treatments of stroke,[15][16] and hearing loss.[17]

Because a person’s own (autologous) cord blood stem cells can be safely infused back into that individual without being rejected by the body’s immune system — and because they have unique characteristics compared to other sources of stem cells — they are an increasing focus of regenerative medicine research.

Cord blood and regenerative medicine

Contents

  • Cord blood and regenerative medicine 1
    • Type 1 diabetes 1.1
    • Cardiovascular 1.2
    • Central nervous system 1.3
  • History 2
  • See also 3
  • References 4
  • External links 5

Regenerative medicine refers to a group of biomedical approaches to clinical therapies that may involve the use of tissue engineering).[11][12]

[9][8] Attributed to having first been coined by William Haseltine (founder of

[6][5][4] Regenerative medicine also includes the possibility of growing tissues and organs in the laboratory and safely implant them when the body cannot heal itself. If a regenerated organ's cells would be derived from the patient's own tissue or cells, this would potentially solve the problem of the shortage of organs available for donation, and the problem of

[3]

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