POWAY, CA--(Marketwire -03/22/12)- Vet-Stem announced today the introduction of StemInsure. The StemInsure service provides banked stem cells that can be grown to supply a lifetime of stem cell therapy for dogs. One fat collection, in conjunction with another anesthetized procedure, gives access to a lifetime of stem cells.

Vet-Stem has trained over 3,500 veterinarians, provided stem cells for over 8,000 animals in the US and Canada and currently banks more than 25,000 doses for future therapeutic use. Many veterinarians and their clients have requested a method to collect and store stem cells when a dog is young, before it needs the regenerative cells for therapy. StemInsure was designed to meet this need.

A Vet-Stem credentialed veterinarian can collect as little as 5 grams of fat (about the size of a grape) from a dog or puppy during an anesthetized procedure. Many veterinarians and owners are electing to do this fat collection in conjunction with a spay or neuter. This small amount of fat is processed and stem cells are cryopreserved in Vet-Stem's state-of-the-art facility. The cells can be cultured in the future to provide enough stem cells to last for the lifetime of the dog. More information can be found at http://www.vet-stem.com/steminsure.php.

"Vet-Stem is pleased to provide StemInsure as a solution to the thousands of veterinarians and dog owners who recognize the value of Vet-Stem cell therapy. The ability to store the cells in conjunction with another procedure is a great way to ensure that the dog will have access to a lifetime of cell therapy while reducing the number of anesthetic events," said Dr. Bob Harman, DVM, MPVM, and CEO of Vet-Stem. Dr. Harman continued, "Currently, Vet-Stem Regenerative Cell Therapy is widely used to treat osteoarthritis, and tendon/ligament injuries. It is our expectation that the therapeutic use of adipose derived stem cells will continue to expand and add to the value of a lifetime supply of stem cells for dogs."

About Vet-Stem:In January of 2004, Vet-Stem introduced the first veterinary stem cell service in the United States. Since that time there has been rapid adoption of this technology for treatment of tendon, ligament, and joint injuries by the veterinary community. Studies have shown that mesenchymal stem cells can dramatically improve the healing of injuries and diseases that have had very few treatment options in the past.

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Vet-Stem Announces StemInsure(R): A Small Fat Sample Now, a Lifetime of Stem Cells Later

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GAITHERSBURG, Md., March 23, 2012 /PRNewswire/ -- GenVec, Inc. (Nasdaq: GNVC - News) announced today that data were presented on GenVec's respiratory syncytial virus (RSV) vaccine program at the "Keystone Symposium on Viral Immunity and Host Gene Influence", which is taking place in Keystone, Colorado from March 21-26, 2012. The poster titled "Respiratory Syncytial Virus Neutralizing Antibodies Induced by Recombinant Adenovirus Vectors" #116 was presented on March 22, 2012 in Poster Session 1. The data were generated by the VRC and GenVec under a Cooperative Research and Development Agreement (CRADA). The presentation was given by Man Chen, PhD, Research Fellow, Viral Pathogenesis Laboratory, at the Vaccine Research Center (VRC) of the National Institutes of Health (NIH).

Data presented at the conference demonstrated encouraging preclinical proof-of-concept findings generated in non-human primates. Specifically, the data show GenVec's vaccine technology induced neutralizing antibody, and significant T-cell responses with a single administration. The immune responses were consistent with protective responses without disease potentiation and multiple administrations increased the neutralizing antibody responses.

"These data clearly demonstrate in a primate model that a vaccine utilizing our technology has significant potential to prevent RSV," stated Jason Gall, PhD, Senior Director of Research at GenVec and the company's lead RSV scientist. "These data support continued development of our pipeline of infectious disease vaccines based on our viral vector technology."

About Respiratory Syncytial Virus

RSV is the single most important viral cause of lower respiratory infections in infants and young children and there is no approved vaccine. According to the World Health Organization, nearly all U.S. children have been infected with RSV by two years of age. Although RSV infection usually produces cold-like symptoms, the infection can result in severe lower respiratory tract infection, which causes up to 130,000 pediatric hospitalizations per year in the U.S. RSV also causes repeated infections throughout life, placing the elderly and individuals with compromised cardiac, pulmonary, or immune systems at risk for severe disease. Among the institutionalized elderly, it is estimated there are about 15,000 deaths annually from RSV.

About GenVec

GenVec is a biopharmaceutical company using differentiated, proprietary technologies to create superior therapeutics and vaccines. A key component of our strategy is to develop and commercialize our product candidates through collaborations. GenVec is working with leading companies and organizations such as Novartis, Merial, and the U.S. Government to support a portfolio of product programs that address the prevention and treatment of a number of significant human and animal health concerns. GenVec's development programs address therapeutic areas such as hearing loss and balance disorders; as well as vaccines against infectious diseases including respiratory syncytial virus (RSV), herpes simplex virus (HSV), dengue fever, malaria, and human immunodeficiency virus (HIV). In the area of animal health we are developing vaccines against foot-and-mouth disease (FMD). Additional information about GenVec is available at http://www.genvec.com and in the Company's various filings with the Securities and Exchange Commission.

Statements herein relating to future financial or business performance, conditions or strategies and other financial and business matters, including expectations regarding funding, grants, collaborations, revenues, cash burn rates, the development of products and the success of the Company's collaborations, including with Novartis and Merial, are forward-looking statements within the meaning of the Private Securities Litigation Reform Act. GenVec cautions that these forward-looking statements are subject to numerous assumptions, risks and uncertainties, which change over time. Factors that may cause actual results to differ materially from the results discussed in the forward-looking statements or historical experience include risks and uncertainties, including the failure by GenVec to secure and maintain relationships with collaborators; risks relating to the early stage of GenVec's product candidates under development; uncertainties relating to research and development activities; risks relating to the commercialization, if any, of GenVec's proposed product candidates; dependence on the efforts of collaborators and third parties; dependence on intellectual property; currently unanticipated expenses, and risks that we may lack the financial resources and access to capital to fund our operations. Further information on the factors and risks that could affect GenVec's business, financial conditions and results of operations, are contained in GenVec's filings with the U.S. Securities and Exchange Commission (SEC), which are available at http://www.sec.gov. These forward-looking statements speak only as of the date of this press release, and GenVec assumes no duty to update forward-looking statements.

Retail Investor and Media Contact:

GenVec, Inc.

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Promising Data Presented On GenVec RSV Program

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21-03-2012 15:41 Spinal cord injury treatment. http://www.projectwalk.org exists to provide an improved quality of life for people with spinal cord injuries through intense exercise-based recovery programs, education, support and encouragement.

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Spinal Cord Injury - James A., "Project Walk" Spinal Cord Injury Recovery" - Video

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A nodal public stem-cell bank in India is the need of the hour if blood cancer and thalassaemia patients are to benefit from stem-cell therapy, according to an expert.

We need an indigenous inventory of 30,000 units of umbilical cord-blood stem-cells, which would enable seven out of 10 patients seeking stem-cell transplant to find a ready match off the shelves, said P. Srinivasan, a pioneer in public cord-blood banking in the country, addressing members of the Ladies Study Group of the Indian Chamber of Commerce on Friday.

Cord blood, also called placental blood, is the blood remaining in the umbilical cord and placenta following childbirth after the cord is cut, and is routinely discarded with the placenta and umbilical cord as biological waste.

A rich source of stem cells, cord blood can be used to treat over 80 diseases, including certain cancers like leukaemia, breast cancer, blood disorders like thalassaemia major and autoimmune disorders like lupus, multiple sclerosis, Crohns Disease and rheumatoid arthritis.

Early clinical studies suggest these can even help avert corneal degeneration and restore vision in cases of blindness, help restore proper cardiac function to heart attack sufferers and improve movement in patients with spinal cord injury.

Since stem-cell matching is highly ethnicity dependent, the chances of an Indian finding a perfect match in a foreign country is a lot less compared to a resource pool of locally-donated units, the former resource person for WHO, now the chairman and managing trustee of Jeevan Blood Bank and Research Centre in Chennai, added.

Even if someone finds a match abroad, the cost of shipping the bag of matching cord blood could be as high as $40,000, as against the Rs 30,000 required for processing and storing one unit indigenously.

Srinivasan felt reaching the critical mass of 30,000 cord-blood units wasnt a big deal, given the fact that 20 million babies are born in India every year.

Purnima Dutta, the president of Ladies Study Group, agreed that raising awareness on the need to donate umbilical cord blood was the key.

As women and responsible citizens, the onus is on us to spread the word and encourage young couples to come forward and donate cord blood to ensure we can achieve this desired public-bank inventory which can save valuable lives, she said.

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Expert wants central bank for cord blood

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What used to be medical trash is now treating cancer. The University of Virginia's Medical Center is the first place in Virginia to take advantage of stem cells from umbilical cords and they are pleased with the results.

Dr. Mary Laughlin, the director of stem cell transplantation at UVA,said, "These are cells that are routinely thrown away, these cells save lives."

A lab within the UVA Medical Center contains numerous tubes where non-embryonic stem cells reside. They come from umbilical cord blood and give hope topatients suffering leukemia, multiple myeloma and lymphoma.

Dr. Laughlin added, "They can completely replace a patient's bone marrow in the immune system. Oneof 10 cancer patients are able to find those cells through existing adult registries."

Thefive million babies that are born each year will soon solve that problem. The cells that are normally tossed out attack cancer cells.

Denise Mariconda, a nurse within the stem cell transplant program, stated, "It looks like a blood transfusion." Dr. Laughlin added, "It is in many ways like a cancer vaccine."

The first transplants were made in January and the transplant program at the UVA Medical Center admits it takes getting used to.

Mariconda said, "It is a process that's not like having your heart fixed in a one-day setting and you know that it's better."

These cells are not cause for controversy. Dr. Laughlin said, "Use of cord-blood is approved by all religious groups including the Vatican."

Babies' immune systems are not fully educated at the time of birth, making these cells effective. Dr. Laughlin, added, "That allows us to cross transplant barriers."

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Stem Cell Transplant Program Offered at UVA Medical Center

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ScienceDaily (Mar. 21, 2012) Powerful new cells created by Cardiff scientists from cheek lining tissue could offer the answer to disorders of the immune system. While the body's immune system protects against many diseases, it can also be harmful. Using white blood cells (lymphocytes), the system can attack insulin-producing cells, causing diabetes, or cause the body to reject transplanted organs.

A team from the School of Dentistry led by Professor Phil Stephens, with colleagues from Stockholm's Karolinska Institute, have found a new group of cells with a powerful ability to suppress the immune system's action.

The team took oral lining cells from the insides of patients' cheeks and cloned them. Laboratory tests showed that even small doses of the cells could completely inhibit the lymphocytes.

The breakthrough suggests that the cheek cells have wide-ranging potential for future therapies for immune system-related diseases. Existing immune system research has focused on adult stem cells, particularly those derived from bone marrow. The cheek tissue cells are much stronger in their action.

Dr Lindsay Davies, a member of the Cardiff team, said: "At this stage, these are only laboratory results. We have yet to recreate the effect outside the laboratory and any treatments will be many years away. However, these cells are extremely powerful and offer promise for combating a number of diseases. They are also easy to collect -- bone marrow stem cells require an invasive biopsy, whereas we just harvest a small biopsy from inside the mouth."

The findings have just been published online in Stem Cells and Development. The team has now been funded by the Medical Research Council to investigate the cloned cells further.

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Powerful new cells cloned: Key to immune system disease could lie inside the cheek

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Debbi Margosian Chapmans family hopes you will and is offering $10,000 to the person who is a bone marrow match for her to treat her leukemia. Because Debbi is Armenian, her doctors believe her best chances of finding a match is with the Armenian community.

Please join Dr. Frieda Jordan, president of the Armenian Bone Marrow Donor Registry (ABMDR), on Saturday, March 24, at 7 p.m., at the Armenian Cultural and Educational Center, 47 Nichols Avenue, Watertown, Massachusetts, for a presentation and bone marrow drive and become a hero for Debbi or the many other Armenians with blood cancers. If youre between 18-50 years old, you just need to give a quick swab of your cheeks so you can be entered into the Armenian Bone Marrow Donor Registry. If you are a match, in the majority of cases, your stem cells will be harvested in a manner similar to giving bloodthere is no anesthesia or surgery.

If you cant make it to the drive but want to be tested, please visit http://debbichapman.wordpress.com for more information.

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Armenians can help save a life

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Public release date: 22-Mar-2012 [ | E-mail | Share ]

Contact: Dr. Frank Edenhofer f.edenhofer@uni-bonn.de 49-228-688-5529 University of Bonn

These stem cells can reproduce and be converted into various types of brain cells. To date, only reprogramming in brain cells that were already fully developed or which had only a limited ability to divide was possible. The new reprogramming method presented by the Bonn scientists and submitted for publication in July 2011 now enables derivation of brain stem cells that are still immature and able to undergo practically unlimited division to be extracted from conventional body cells. The results have now been published in the current edition of the prestigious journal Cell Stem Cell.

The Japanese stem cell researcher Professor Shinya Yamanaka and his team produced stem cells from the connective tissue cells of mice for the first time in 2006; these cells can differentiate into all types of body cells. These induced pluripotent stem cells (iPS cells) develop via reprogramming into a type of embryonic stage. This result made the scientific community sit up and take notice. If as many stem cells as desired can be produced from conventional body cells, this holds great potential for medical developments and drug research. "Now a team of scientists from the University of Bonn has proven a variant for this method in a mouse model," report Dr. Frank Edenhofer and his team at the Institute of Reconstructive Neurobiology (Director: Dr. Oliver Brstle) of the University of Bonn. Also involved were the epileptologists and the Institute of Human Genetics of the University of Bonn, led by Dr. Markus Nthen, who is also a member of the German Center for Neurodegenerative Diseases.

Edenhofer and his co-workers Marc Thier, Philipp Wrsdrfer and Yenal B. Lakes used connective tissue cells from mice as a starting material. Just as Yamanaka did, they initiated the conversion with a combination of four genes. "We however deliberately targeted the production of neural stem cells or brain stem cells, not pluripotent iPS multipurpose cells," says Edenhofer. These cells are known as somatic or adult stem cells, which can develop into the cells typical of the nervous system, neurons, oligodendrocytes and astrocytes.

The gene "Oct4" is the central control factor

The gene "Oct4" is a crucial control factor. "First, it prepares the connective tissue cell for reprogramming, later, however, Oct4 appears to prevent destabilized cells from becoming brain stem cells" reports the Bonn stem cell researcher. While this factor is switched on during reprogramming of iPS cells over a longer period of time, the Bonn researchers activate the factor with special techniques for only a few days. "If this molecular switch is toggled over a limited period of time, the brain stem cells, which we refer to as induced neural stem cells (iNS cells), can be reached directly," said Edenhofer. "Oct4 activates the process, destabilizes the cells and clears them for the direct reprogramming. However, we still need to analyze the exact mechanism of the cellular conversion."

The scientists at the University of Bonn have thus found a new way to reprogram cells, which is considerably faster and also safer in comparison to the iPS cells and embryonic stem cells. "Since we cut down on the reprogramming of the cells via the embryonic stage, our method is about two to three times faster than the method used to produce iPS cells," stresses Edenhofer. Thus the work involved and the costs are also much lower. In addition, the novel Bonn method is associated with a dramatically lower risk of tumors. As compared to other approaches, the Bonn scientists' method stands out due to the production of neural cells that can be multiplied to a nearly unlimited degree.

Low risk of tumor and unlimited self renewal

A low risk of tumor formation is important because in the distant future, neural cells will replace defective cells of the nervous system. A vision of the various international scientific teams is to eventually create adult stem cells for example from skin or hair root cells, differentiate these further for therapeutic purposes, and then implant them in damaged areas. "But that is still a long way off," says Edenhofer. However, the scientists have a rather urgent need today for a simple way to obtain brain stem cells from the patient to use them to study various neurodegenerative diseases and test drugs in a Petri dish. "Our work could form the basis for providing practically unlimited quantities of the patient's own cells." The current study was initially conducted on mice. "We are now extremely eager to see whether these results can also be applied to humans," says the Bonn scientist.

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ScienceDaily (Mar. 22, 2012) Breaking new ground, scientists at the Max Planck Institute for Molecular Biomedicine in Mnster, Germany, have succeeded in obtaining somatic stem cells from fully differentiated somatic cells. Stem cell researcher Hans Schler and his team took skin cells from mice and, using a unique combination of growth factors while ensuring appropriate culturing conditions, have managed to induce the cells' differentiation into neuronal somatic stem cells.

"Our research shows that reprogramming somatic cells does not require passing through a pluripotent stage," explains Schler. "Thanks to this new approach, tissue regeneration is becoming a more streamlined -- and safer -- process."

Up until now, pluripotent stem cells were considered the 'be-all and end-all' of stem cell science. Historically, researchers have obtained these 'jack-of-all-trades' cells from fully differentiated somatic cells. Given the proper environmental cues, pluripotent stem cells are capable of differentiating into every type of cell in the body, but their pluripotency also holds certain disadvantages, which preclude their widespread application in medicine. According to Schler, "pluripotent stem cells exhibit such a high degree of plasticity that under the wrong circumstances they may form tumours instead of regenerating a tissue or an organ." Schler's somatic stem cells offer a way out of this dilemma: they are 'only' multipotent, which means that they cannot give rise to all cell types but merely to a select subset of them -- in this case, a type of cell found in neural tissue -- a property, which affords them an edge in terms of their therapeutic potential.

To allow them to interconvert somatic cells into somatic stem cells, the Max Planck researchers cleverly combined a number of different growth factors, proteins that guide cellular growth. "One factor in particular, called Brn4, which had never been used before in this type of research, turned out to be a genuine 'captain' who very quickly and efficiently took command of his ship -- the skin cell -- guiding it in the right direction so that it could be converted into a neuronal somatic stem cell," explains Schler. This interconversion turns out to be even more effective if the cells, stimulated by growth factors and exposed to just the right environmental conditions, divide more frequently. "Gradually, the cells lose their molecular memory that they were once skin cells," explains Schler. It seems that even after only a few cycles of cell division the newly produced neuronal somatic stem cells are practically indistinguishable from stem cells normally found in the tissue.

Schler's findings suggest that these cells hold great long-term medical potential: "The fact that these cells are multipotent dramatically reduces the risk of neoplasm formation, which means that in the not-too-distant future they could be used to regenerate tissues damaged or destroyed by disease or old age; until we get to that point, substantial research efforts will have to be made." So far, insights are based on experiments using murine skin cells; the next steps now are to perform the same experiments using actual human cells. In addition, it is imperative that the stem cells' long-term behaviour is thoroughly characterized to determine whether they retain their stability over long periods of time.

"Our discoveries are a testament to the unparalleled degree of rigor of research conducted here at the Mnster Institute," says Schler. "We should realize that this is our chance to be instrumental in helping shape the future of medicine." At this point, the project is still in its initial, basic science stage although "through systematic, continued development in close collaboration with the pharmaceutical industry, the transition from the basic to the applied sciences could be hugely successful, for this as well as for other, related, future projects," emphasizes Schler. This, then, is the reason why a suitable infrastructure framework must be created now rather than later. "The blueprints for this framework are all prepped and ready to go -- all we need now are for the right political measures to be ratified to pave the way towards medical applicability."

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Somatic stem cells obtained from skin cells; pluripotency 'detour' skipped

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"Our research shows that reprogramming somatic cells does not require passing through a pluripotent stage," explains Schler. "Thanks to this new approach, tissue regeneration is becoming a more streamlined - and safer - process."

Up until now, pluripotent stem cells were considered the 'be-all and end-all' of stem cell science. Historically, researchers have obtained these 'jack-of-all-trades' cells from fully differentiated somatic cells. Given the proper environmental cues, pluripotent stem cells are capable of differentiating into every type of cell in the body, but their pluripotency also holds certain disadvantages, which preclude their widespread application in medicine. According to Schler, "pluripotent stem cells exhibit such a high degree of plasticity that under the wrong circumstances they may form tumours instead of regenerating a tissue or an organ." Schler's somatic stem cells offer a way out of this dilemma: they are 'only' multipotent, which means that they cannot give rise to all cell types but merely to a select subset of them - in this case, a type of cell found in neural tissue - a property, which affords them an edge in terms of their therapeutic potential.

To allow them to interconvert somatic cells into somatic stem cells, the Max Planck researchers cleverly combined a number of different growth factors, proteins that guide cellular growth. "One factor in particular, called Brn4, which had never been used before in this type of research, turned out to be a genuine 'captain' who very quickly and efficiently took command of his ship - the skin cell - guiding it in the right direction so that it could be converted into a neuronal somatic stem cell," explains Schler. This interconversion turns out to be even more effective if the cells, stimulated by growth factors and exposed to just the right environmental conditions, divide more frequently. "Gradually, the cells lose their molecular memory that they were once skin cells," explains Schler. It seems that even after only a few cycles of cell division the newly produced neuronal somatic stem cells are practically indistinguishable from stem cells normally found in the tissue.

Schler's findings suggest that these cells hold great long-term medical potential: "The fact that these cells are multipotent dramatically reduces the risk of neoplasm formation, which means that in the not-too-distant future they could be used to regenerate tissues damaged or destroyed by disease or old age; until we get to that point, substantial research efforts will have to be made." So far, insights are based on experiments using murine skin cells; the next steps now are to perform the same experiments using actual human cells. In addition, it is imperative that the stem cells' long-term behaviour is thoroughly characterized to determine whether they retain their stability over long periods of time.

"Our discoveries are a testament to the unparalleled degree of rigor of research conducted here at the Mnster Institute," says Schler. "We should realize that this is our chance to be instrumental in helping shape the future of medicine." At this point, the project is still in its initial, basic science stage although "through systematic, continued development in close collaboration with the pharmaceutical industry, the transition from the basic to the applied sciences could be hugely successful, for this as well as for other, related, future projects," emphasizes Schler. This, then, is the reason why a suitable infrastructure framework must be created now rather than later. "The blueprints for this framework are all prepped and ready to go - all we need now are for the right political measures to be ratified to pave the way towards medical applicability."

More information: Han D.W., Tapia N., Hermann A., Hemmer K., Hing S., Arazo-Bravo M.J., Zaehres H., Frank S., Moritz S., Greber B., Yang J.H., Lee H.T., Schwamborn J.C., Storch A., Schler H.R. (2012) Direct Reprogramming of Fibroblasts into Neural Stem Cells by Defined Factors, Cell Stem Cell, CELL-STEM-CELL-D-11-00679R3

Provided by Max-Planck-Gesellschaft (news : web)

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Somatic stem cells obtained from skin cells for first time ever

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ANNAPOLIS, Md. (WJZ)One of the last search and rescue dogs from 9/11 lives here in Maryland. She was suffering from a painful condition until her owner took action with breakthrough technology.

Mary Bubala has the story.

Red is a search and rescue dog from Annapolis, but has traveled across the country. Her missions include Hurricane Katrina, the La Plata tornadoes and the Pentagon after 9/11.

They credit them with finding 70 percent of the human remains so that helped a whole lot of those families actually get closure, said Heather Roche, Reds owner.

Sept. 11 was Reds first search. Today shes one of the last 9/11 search and rescue dogs still alive.

She retired last summer due to severe arthritis.

It would be nice if her arthritis, if she felt better, that she could do those kinds of things that she misses, Reds owner said while fighting back tears. Alright I am going to cry.

Roche did some research and found an animal hospital in northern Virginia that uses breakthrough stem cell therapy to treat arthritis in dogs.

The Burke Animal Clinic is one of just a few across the country that use stem cell therapy.

The vet harvests 1 to 2 ounces of the dogs fatty tissue, activates the stem cells and then injects them back into the troubled areas.

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Stem Cell Therapy Used To Treat 9/11 Search And Rescue Dog

Recommendation and review posted by Bethany Smith

POWAY, CA--(Marketwire -03/22/12)- Vet-Stem announced today the introduction of StemInsure. The StemInsure service provides banked stem cells that can be grown to supply a lifetime of stem cell therapy for dogs. One fat collection, in conjunction with another anesthetized procedure, gives access to a lifetime of stem cells.

Vet-Stem has trained over 3,500 veterinarians, provided stem cells for over 8,000 animals in the US and Canada and currently banks more than 25,000 doses for future therapeutic use. Many veterinarians and their clients have requested a method to collect and store stem cells when a dog is young, before it needs the regenerative cells for therapy. StemInsure was designed to meet this need.

A Vet-Stem credentialed veterinarian can collect as little as 5 grams of fat (about the size of a grape) from a dog or puppy during an anesthetized procedure. Many veterinarians and owners are electing to do this fat collection in conjunction with a spay or neuter. This small amount of fat is processed and stem cells are cryopreserved in Vet-Stem's state-of-the-art facility. The cells can be cultured in the future to provide enough stem cells to last for the lifetime of the dog. More information can be found at http://www.vet-stem.com/steminsure.php.

"Vet-Stem is pleased to provide StemInsure as a solution to the thousands of veterinarians and dog owners who recognize the value of Vet-Stem cell therapy. The ability to store the cells in conjunction with another procedure is a great way to ensure that the dog will have access to a lifetime of cell therapy while reducing the number of anesthetic events," said Dr. Bob Harman, DVM, MPVM, and CEO of Vet-Stem. Dr. Harman continued, "Currently, Vet-Stem Regenerative Cell Therapy is widely used to treat osteoarthritis, and tendon/ligament injuries. It is our expectation that the therapeutic use of adipose derived stem cells will continue to expand and add to the value of a lifetime supply of stem cells for dogs."

About Vet-Stem:In January of 2004, Vet-Stem introduced the first veterinary stem cell service in the United States. Since that time there has been rapid adoption of this technology for treatment of tendon, ligament, and joint injuries by the veterinary community. Studies have shown that mesenchymal stem cells can dramatically improve the healing of injuries and diseases that have had very few treatment options in the past.

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Vet-Stem Announces StemInsure(R): A Small Fat Sample Now, a Lifetime of Stem Cells Later

Recommendation and review posted by Bethany Smith

Public release date: 22-Mar-2012 [ | E-mail | Share ]

Contact: Jeremy Moore jeremy.moore@aacr.org 215-446-7109 American Association for Cancer Research

PHILADELPHIA Cancer cell metabolism may present a new target for therapy as scientists have uncovered a possible gene that leads to greater growth of prostate cancer cells.

Study results are published in Cancer Discovery, a journal of the American Association for Cancer Research.

Almut Schulze, Ph.D., a group leader in the Gene Expression Analysis Laboratory at Cancer Research U.K., and colleagues analyzed three metastatic prostate cancer cell lines and compared those findings with those of a nonmalignant prostate epithelial cell line.

"Cancer metabolism is a new and emerging target that can be exploited as a potential therapeutic, and our study identified one of the components for the growth of these cancer cells," she said.

The researchers analyzed the effects of gene silencing of 222 metabolic enzymes, transporters and regulators on the survival of the cell lines.

"This approach revealed a significant complexity in the metabolic requirements of prostate cancer cells and identified genes selectively required for their survival," said Schulze.

Researchers determined that the gene PFKFB4 was vital in many of these processes. Specifically, it was required to balance glycolytic activity and antioxidant production to maintain cellular redox balance in the cancer cells. When levels of this gene were depleted in laboratory models, tumor growth was inhibited. Higher levels of this gene were found in the metastatic prostate cancer cell lines.

Schulze concluded that this gene is required for tumor growth and thus could be manipulated with targeted therapies. Although this study was confined to prostate cancer, she believes the findings could be applicable in other cancers as well.

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Scientists identify new mechanism of prostate cancer cell metabolism

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Genetic studies find dysregulation in pathways that govern development of the prefrontal cortex in young patients with autism

Newswise A study led by Eric Courchesne, PhD, director of the Autism Center of Excellence at the University of California, San Diego School of Medicine has, for the first time, identified in young autism patients genetic mechanisms involved in abnormal early brain development and overgrowth that occurs in the disorder. The findings suggest novel genetic and molecular targets that could lead to discoveries of new prevention strategies and treatment for the disorder.

The study to be published on March 22 in PLoS Genetics uncovered differences in gene expression between brain tissue from young (2 to14 years old) and adult individuals with autism syndrome disorder, providing important clues why brain growth and development is abnormal in this disorder.

Courchesne first identified the link between early brain overgrowth and autism in a landmark study published by the Journal of the American Medical Association (JAMA) in 2003. Next, he tested the possibility that brain overgrowth might result from an abnormal excess of brain cells. In November 2011, his study, also published in JAMA, discovered a 67 percent excess of brain cells in a major region of the brain, the prefrontal cortex a part of the brain associated with social, communication and cognitive development.

Our next step was to see whether there might be abnormalities of genetic functioning in that same region that might give us insight into why there are too many cells and why that specific region does not develop normally in autism, said Courchesne.

In the new study, the researchers looked towards genes for answers, and showed that genetic mechanisms that normally regulate the number of cortical neurons are abnormal. The genes that control the number of brain cells did not have the normal functional expression, and the level of gene expression that governs the pattern of neural organization across the prefrontal cortex is turned down. There are abnormal numbers and patterns of brain cells, and subsequently the pattern is disturbed, Courchesne said. This probably leads to too many brain cells in some locations, such as prefrontal cortex, but perhaps too few in other regions of cortex as well.

In addition, the scientists discovered a turning down of the genetic mechanisms responsible for detecting DNA defects and correcting or removing affected cells during periods of rapid prenatal development.

Autism is a highly heritable neurodevelopmental disorder, yet the genetic underpinnings in the brain at young ages have remained largely unknown. Until now, few studies have been able to investigate whole-genome gene expression and genotype variation in the brains of young patients with autism, especially in regions such as the prefrontal cortex that display the greatest growth abnormality.

Scientists including co-first authors Maggie Chow, PhD, and Tiziano Pramparo, PhD, at UC San Diego identified abnormal brain gene expression patterns using whole-genome analysis of mRNA levels and copy number variations from 33 autistic and control postmortem brain samples. They found evidence of dysregulation in the pathways that govern cell number, cortical patterning and cell differentiation in the young autistic prefrontal cortex. In contrast, in adult patients with autism, the study found that this area of the brain shows dysregulation of signaling and repair pathways.

Our results indicate that gene expression abnormalities change across the lifespan in autism, and that dysregulated processes in the developing brain of autistic patients differ from those detected at adult ages, said Courchesne. The dysregulated genetic pathways we found at young ages in autism may underlie the excess of neurons and early brain overgrowth associated with this disorder.

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Gene Expression Abnormalities in Autism Identified

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What: Honors Forum on Faith and Intellect; topic is bioethics

When: Noon to 1 p.m. today

Where: Hardin-Simmons University, in the multipurpose room of the Johnson Building.

Keynote speaker: Dr. Peter Dysert II, chief of pathology, Baylor University Medical Center

Topic: "Precision Medicine: A Technology-driven Revolution"

Registration fees: $20 for conference and all meals ($10 for HSU employees and students); $5 each for keynote address and meal; no charge for presentations only.

Photo by Joy Lewis

Joy Lewis/Reporter-News Dr. James Denison, director of the Denison Forum on Truth and Culture, talks with guests before his keynote address, "Precision Medicine: Ethical Imperatives and Challenges" at Hardin-Simmons University on Thursday.

The day may come when some diseases are greatly diminished or even eliminated through genetic testing before people are even conceived that's the good news.

But what if that same testing can predict a child's future capabilities when conception occurs? Will that knowledge affect a couple's decision to have a child or even to marry?

Visit link:
Ethics questions posed by 'precision medicine' are weighty, speaker tells HSU forum

Recommendation and review posted by Bethany Smith

WALTHAM, Mass.--(BUSINESS WIRE)--

Interleukin Genetics, Inc. (OTCQB: ILIU.PK - News) announced today that it will host a conference call and Webcast on Thursday, March 29 at 4:30 p.m. (EDT) to discuss the Companys fourth quarter and 2011 year-end results.

To access the live call, dial 877-324-1976 (domestic) or 631-291-4550 (international). The live Webcast and replay access of the teleconference will be available on the Investors section of Interleukin Genetics, Inc.s Website at http://www.ilgenetics.com.

About Interleukin Genetics, Inc.

Interleukin Genetics, Inc. (OTCQB: ILIU.PK - News) develops and markets a line of genetic tests under the Inherent Health brand.The products empower individuals to prevent certain chronic conditions and manage their existing health and wellness through genetic-based insights with actionable guidance. Interleukin Genetics leverages its research, intellectual property and genetic panel development expertise in metabolism and inflammation to facilitate the emerging personalized healthcare market. The Company markets its tests through partnerships with health and wellness companies, healthcare professionals and other distribution channels. Interleukin Genetics flagship products include its proprietary PST genetic risk panel for periodontal disease and tooth loss susceptibility sold through dentists, and the Inherent Health Weight Management Genetic Test that identifies the most effective diet and exercise program for an individual based on genetics. Interleukin Genetics is headquartered in Waltham, Mass. and operates an on-site, state-of-the-art DNA testing laboratory certified under the Clinical Laboratory Improvement Amendments (CLIA). For more information, please visit http://www.ilgenetics.com.

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Interleukin Genetics, Inc. Announces Conference Call to Discuss Fourth Quarter 2011 Results

Recommendation and review posted by Bethany Smith

ScienceDaily (Mar. 21, 2012) Powerful new cells created by Cardiff scientists from cheek lining tissue could offer the answer to disorders of the immune system. While the body's immune system protects against many diseases, it can also be harmful. Using white blood cells (lymphocytes), the system can attack insulin-producing cells, causing diabetes, or cause the body to reject transplanted organs.

A team from the School of Dentistry led by Professor Phil Stephens, with colleagues from Stockholm's Karolinska Institute, have found a new group of cells with a powerful ability to suppress the immune system's action.

The team took oral lining cells from the insides of patients' cheeks and cloned them. Laboratory tests showed that even small doses of the cells could completely inhibit the lymphocytes.

The breakthrough suggests that the cheek cells have wide-ranging potential for future therapies for immune system-related diseases. Existing immune system research has focused on adult stem cells, particularly those derived from bone marrow. The cheek tissue cells are much stronger in their action.

Dr Lindsay Davies, a member of the Cardiff team, said: "At this stage, these are only laboratory results. We have yet to recreate the effect outside the laboratory and any treatments will be many years away. However, these cells are extremely powerful and offer promise for combating a number of diseases. They are also easy to collect -- bone marrow stem cells require an invasive biopsy, whereas we just harvest a small biopsy from inside the mouth."

The findings have just been published online in Stem Cells and Development. The team has now been funded by the Medical Research Council to investigate the cloned cells further.

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The above story is reprinted from materials provided by Cardiff University.

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Powerful new cells cloned: Key to immune system disease could lie inside the cheek

Recommendation and review posted by sam

Debbi Margosian Chapmans family hopes you will and is offering $10,000 to the person who is a bone marrow match for her to treat her leukemia. Because Debbi is Armenian, her doctors believe her best chances of finding a match is with the Armenian community.

Please join Dr. Frieda Jordan, president of the Armenian Bone Marrow Donor Registry (ABMDR), on Saturday, March 24, at 7 p.m., at the Armenian Cultural and Educational Center, 47 Nichols Avenue, Watertown, Massachusetts, for a presentation and bone marrow drive and become a hero for Debbi or the many other Armenians with blood cancers. If youre between 18-50 years old, you just need to give a quick swab of your cheeks so you can be entered into the Armenian Bone Marrow Donor Registry. If you are a match, in the majority of cases, your stem cells will be harvested in a manner similar to giving bloodthere is no anesthesia or surgery.

If you cant make it to the drive but want to be tested, please visit http://debbichapman.wordpress.com for more information.

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Armenians can help save a life

Recommendation and review posted by sam

SUNRISE, Fla., March 22, 2012 (GLOBE NEWSWIRE) -- Bioheart, Inc. (OTCBB:BHRT.OB - News), a company focused on developing stem cell therapies for heart disease, previously announced that they entered into an agreement with Stemlogix, LLC, a veterinary regenerative medicine company, to provide additional cellular products and services to the veterinary market. Under this agreement, the companies are offering stem cell banking for veterinary patients (pets). WPLG, channel 10 featured this exciting technology in a news segment which aired in the South Florida area. A small sample of tissue can be obtained from the animals during a routine procedure such as a spay or neuter. The stem cells are isolated and cryopreserved for future use as needed.

"We are excited to bring our expertise in stem cell therapy to the veterinary community," said Mike Tomas, Bioheart's President and CEO. "Stem cell therapies represent new opportunities for various types of patients and the ability to bank a pet's cells when they are young and healthy could be very valuable for future use."

WPLG, Channel 10 in Miami/South Florida featured this new technology in a news segment which aired March 15, 2012. Please see the link below:

http://www.local10.com/thats-life/health/Pet-stem-cells-frozen-banked-for-future-use/-/1717022/9285894/-/apcx9rz/-/index.html

About Bioheart, Inc.

Bioheart is committed to maintaining its leading position within the cardiovascular sector of the cell technology industry delivering cell therapies and biologics that help address congestive heart failure, lower limb ischemia, chronic heart ischemia, acute myocardial infarctions and other issues. Bioheart's goals are to cause damaged tissue to be regenerated, when possible, and to improve a patient's quality of life and reduce health care costs and hospitalizations.

Specific to biotechnology, Bioheart is focused on the discovery, development and, subject to regulatory approval, commercialization of autologous cell therapies for the treatment of chronic and acute heart damage and peripheral vascular disease. Its leading product, MyoCell, is a clinical muscle-derived cell therapy designed to populate regions of scar tissue within a patient's heart with new living cells for the purpose of improving cardiac function in chronic heart failure patients. For more information on Bioheart, visit http://www.bioheartinc.com.

About Stemlogix, LLC

Stemlogix is an innovative veterinary regenerative medicine company committed to providing veterinarians with the ability to deliver the best possible stem cell therapy to dogs, cats and horses at the point-of-care. Stemlogix provides veterinarians with the ability to isolate regenerative stem cells from a patient's own adipose (fat) tissue directly on-site within their own clinic or where a patient is located. Regenerative stem cells isolated from adipose tissue have been shown in studies to be effective in treating animal's suffering from osteoarthritis, joint diseases, tendon injuries, heart disorders, among other conditions. Stemlogix has a highly experienced management team with experience in setting up full scale cGMP stem cell manufacturing facilities, stem cell product development & enhancement, developing point-of-care cell production systems, developing culture expanded stem cell production systems, FDA compliance, directing clinical & preclinical studies with multiple cell types for multiple indications, and more. For more information about veterinary regenerative medicine please visit http://www.stemlogix.com.

Forward-Looking Statements: Except for historical matters contained herein, statements made in this press release are forward-looking statements. Without limiting the generality of the foregoing, words such as "may," "will," "to," "plan," "expect," "believe," "anticipate," "intend," "could," "would," "estimate," or "continue" or the negative other variations thereof or comparable terminology are intended to identify forward-looking statements.

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Bioheart Labs and Stemlogix Veterinary Products Featured in Media

Recommendation and review posted by Bethany Smith

DUBLIN--(BUSINESS WIRE)--Dublin - Research and Markets (http://www.researchandmarkets.com/research/2fee68d4/progenitor_and_ste) has announced the addition of Woodhead Publishing Ltd's new book "Progenitor and Stem Cell Technologies and Therapies" to their offering.

Progenitor and stem cell technologies and therapies

Progenitor and stem cells have the ability to renew themselves and change into a variety of specialised types, making them ideal materials for therapy and regenerative medicine. "Progenitor and stem cell technologies and therapies" reviews the range of progenitor and stem cells available and their therapeutic application.

Part one reviews basic principles for the culture of stem cells before discussing technologies for particular cell types. These include human embryonic, induced pluripotent, amniotic and placental, cord and multipotent stem cells. Part two discusses wider issues such as intellectual property, regulation and commercialisation of stem cell technologies and therapies. The final part of the book considers the therapeutic use of stem and progenitor cells. Chapters review the use of adipose tissue-derived stem cells, umbilical cord blood (UCB) stem cells, bone marrow, auditory and oral cavity stem cells. Other chapters cover the use of stem cells in therapies in various clinical areas, including lung, cartilage, urologic, nerve and cardiac repair.

With its distinguished editor and international team of contributors, "Progenitor and stem cell technologies and therapies" is a standard reference for both those researching in cell and tissue biology and engineering as well as medical practitioners investigating the therapeutic use of this important technology.

Key Features:

- Reviews the range of progenitor and stem cells available and outlines their therapeutic application

- Examines the basic principles for the culture of stem cells before discussing technologies for particular cell types, including human embryonic, induced pluripotent, amniotic and placental, cord and multipotent stem cells

- Includes a discussion of wider issues such as intellectual property, regulation and commercialisation of stem cell technologies and therapies

For more information visit http://www.researchandmarkets.com/research/2fee68d4/progenitor_and_ste

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Research and Markets: Progenitor and Stem Cell Technologies and Therapies Reviews the Range Of Progenitor and Stem ...

Recommendation and review posted by Bethany Smith

Public release date: 21-Mar-2012 [ | E-mail | Share ]

Contact: Stephen Rouse RouseS@cardiff.ac.uk 44-292-087-5596 Cardiff University

Powerful new cells created by Cardiff University scientists from cheek lining tissue could offer the answer to disorders of the immune system.

While the body's immune system protects against many diseases, it can also be harmful. Using white blood cells (lymphocytes), the system can attack insulin-producing cells, causing diabetes, or cause the body to reject transplanted organs.

A team from Cardiff's School of Dentistry led by Professor Phil Stephens, with colleagues from Stockholm's Karolinska Institute, have found a new group of cells with a powerful ability to suppress the immune system's action.

The team took oral lining cells from the insides of patients' cheeks and cloned them. Laboratory tests showed that even small doses of the cells could completely inhibit the lymphocytes.

The breakthrough suggests that the cheek cells have wide-ranging potential for future therapies for immune system-related diseases. Existing immune system research has focussed on adult stem cells, particularly those derived from bone marrow. The cheek tissue cells are much stronger in their action.

Dr Lindsay Davies, a member of the Cardiff team, said: "At this stage, these are only laboratory results. We have yet to recreate the effect outside the laboratory and any treatments will be many years away. However, these cells are extremely powerful and offer promise for combating a number of diseases. They are also easy to collect bone marrow stem cells require an invasive biopsy, whereas we just harvest a small biopsy from inside the mouth."

The findings have just been published online in Stem Cells and Development. The team has now been funded by the Medical Research Council to investigate the cloned cells further.

###

Excerpt from:
Key to immune system disease could lie inside the cheek

Recommendation and review posted by Bethany Smith

The Stem Cell Transplant Program at the University of Virginia Health System recently performed the first two stem cell transplants in Virginia, using non-embryonic stem cells from umbilical cord blood.

The program offers both bone marrow and stem cell transplants, with a focus on cord blood, to treat leukemia, lymphoma, Hodgkins disease and other blood diseases.

While it will take several months to know how effective the cord blood transplants were, the initial results are promising, says Mary Laughlin, MD, an internationally known stem cell expert recruited to UVA to head the program. In both patients, the stem cells began engrafting producing new cells 14 days after the transplant instead of the 24 to 28 days it normally takes.

Why cord blood stem cells? As an obstetrician once told Laughlin: Something thrown away in my OB suite saves a life in your cancer suite.

The cord blood used for these stem cell transplants comes from placentas that otherwise would be discarded following childbirth, Laughlin says. The cord blood is used with the permission of the new parents, she says. By using cord blood stem cells instead of embryonic stem cells, UVAs program sidesteps the ethical, religious and political concerns commonly associated with stem cells, she says.

Other benefits: Cord blood stem cells are also faster and easier to collect than stem cells from other sources; they are also immune tolerant.

Speed is important because there is a narrow window of opportunity to perform a transplant when a patients disease is in remission. And because the cord blood stem cells are immune tolerant meaning they will not attack other cells in the body the chances of a successful transplant are higher and the donor match doesnt have to be as exact, giving more patients the opportunity to receive a transplant.

Stem cell transplants: Part of a fast-growing program Laughlin heads up a team of 29 staff members, including four additional transplant physicians, who began seeing patients in September. The demand for transplants has already been greater than Laughlin and her team expected. The program had initially planned to do 15 transplants in its first year. Instead, it expects to do 100.

Its reflective of this unmet need, Laughlin says. Patients who otherwise would have to travel many states away to have these same procedures, now they can do a fairly short drive from Roanoke, or down from Winchester. Because of our central location, its ideal for them.

What are stem cells? Learn more about how they work.

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First Stem Cell Transplants in Virginia Performed at UVA

Recommendation and review posted by Bethany Smith

By Ron Winslow

Doctors at Yale University have successfully implanted a biodegradablescaffold seeded with a four-year-old girls own bone-marrowcells to help treat a serious heart defect, as WSJs Heartbeat column describes.

The tube about three inches long is made of polyester material similar to that used in the manufacture of dissolvable sutures. Six months after Angela Irizarrys surgery, it had disappeared, replaced by a bioengineered conduit that acts like a normal blood vessel.

The vanishing act for the scaffold was expected, but what happens to the cells, including stem cells, that spawned the new vessel?

Much to the researchers surprise, says Chris Breuer, the Yale pediatric surgeon leading the experimental tissue-engineering project, the cells go away too.

Stem cells and certain other bone-marrow cells have building-block properties that make them the foundation for more specialized cells that grow into the bodys various tissues and structures. Researchers have long believed that stem cells transplanted into heart tissue, for instance, would be a primary component of whatever new tissue that grew as a result.

A lot of people think that when you put cells in, they turn into whatever cells you want them to turn into, Breuer tells the Health Blog. Weve clearly shown that doesnt happen in our graft.

Indeed, in experiments performed to learn how the tubes morphed into blood vessels, Breuer and his colleagues transplanted their scaffold seeded with human cells into mice bred with deficient immune systems to prevent rejection of the cells. Within a few days, the human cellswere gone, replaced within the scaffold by mouse cells, including cells characteristic of those that line the inner wall of blood vessels.

Initially, I refused to believe it, Breuer says. I redid the experiment three different ways and saw the same thing every time.

The upshot: Transplanted cells that have a quality of stem cells dont buildnew parts themselves, he says.They cause the body to induce regeneration.

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In Treatment of Child’s Heart Defect, Doctors Find a Stem-Cell Surprise

Recommendation and review posted by Bethany Smith

Scientists in SA have generated non-embryonic stem cells for the first time, the Council for Scientific and Industrial Research (CSIR) announced on Tuesday.

These "induced adult pluripotent stem cells" were developed from adult skin cells and can be prompted to grow into any type of adult cell, such as those in the heart or brain.

The technology is important for research into regenerative medicine, but is not yet widely used.

While the technology is not novel, the development of the capacity to grow these stem cells in SA is important for researchers investigating diseases affecting Africans, said CSIR post-doctoral fellow Janine Scholefield. The CSIR had replicated techniques devised by Japanese researchers in 2007.

"Cutting-edge medical research is not useful to Africans if knowledge is being created and applied only in the developed world," said CSIR head of gene expression and biophysics Musa Mhlanga. "Given the high disease burden in Africa, our aim is to become creators of knowledge, as well as innovators and expert practitioners of the newest and best technologies," The CSIR said that adult-generated stem cells were more acceptable to people who objected to using stem cells from embryos.

"The other critical thing is the cells (that will be grown) are an exact genetic match to the person who donated the skin cells, so we can circumvent the problem of tissue rejection," Dr Scholefield said.

"We can also develop models of disease in a petri dish in the laboratory," she said, explaining that this would enable researchers to investigate rare diseases without the need for human subjects.

"We are getting closer to using stem cells as part of routine medical practice, but are still a long way off from using these cells for degenerative diseases of the central nervous system," said Michael Pepper, professor of i mmunology at the University of Pretoria.

Prof Pepper said there were several hundred clinical trials using stem cells under way around the world, but most were still at an early stage.

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SA cracks stem cell conundrum

Recommendation and review posted by Bethany Smith

SAN DIEGO, CA--(Marketwire -03/21/12)- Entest BioMedical Inc. (OTCQB: ENTB.PK - News) (Pinksheets: ENTB.PK - News)

Entest BioMedical Inc. (OTCQB: ENTB.PK - News) (Pinksheets: ENTB.PK - News) and RenovoCyte LLC announced they have treated 8 canine patients of a 10 dog pilot study utilizing Canine Endometrial Regenerative Cells (CERC) licensed from Medistem Inc. (Pinksheets: MEDS.PK - News) in the treatment of canine osteoarthritis.

Previously, Entest announced the treatment of the first canine patient on November 18, 2011. Since that time Entest's McDonald Animal Hospital has treated 8 dogs in its 10 Dog Pilot Study with RenovoCyte. To date, all of the dogs participating in this study have shown dramatic improvement in their mobility and apparent reduction of pain.

Dr. Greg McDonald, Chief Veterinarian at McDonald Animal Hospital, said, "50 million CERC stem cells have been injected intravenously into eight dogs. Each dog selected for this study showed signs of arthritis. Follow-up blood tests, urinalysis and physical exams are now being scheduled for the patients that have already been treated. So far, all these canine patients have shown improvement."

Entest BioMedical Chairman David Koos stated, "Osteoarthritis is considered one of the most common causes of lameness in dogs, occurring in up to 30% of all dogs. It is caused by a deterioration of joint cartilage, followed by pain and loss of range of motion of the joint. We expect this treatment to relieve these animals from the pain associated with arthritis. This has extraordinary possibilities for dogs and may lead the way for human treatment of arthritic pain."

The CERC is a "universal donor" stem cell product that does not require matching with the recipient allowing for the generation of standardized products that can be delivered to the office of the veterinarian ready for injection. This is in stark contrast to current stem cell therapies utilized in veterinary applications which require the extraction, manipulation, and subsequent implantation of tissue from the animal being treated. CERC is the canine equivalent of Medistem's Endometrial Regenerative Cell (ERC). Medistem was recently granted approval from the FDA to initiate a clinical trial in human patients using its ERCs.

"We are extremely pleased with our research relationship with Entest BioMedical. This study of canine pets suffering from naturally occurring osteoarthritis is a better test model than laboratory induced disease because it will give us the opportunity for long term follow up of these patients. RenovoCyte sees this study as part of the supporting documentation that will be needed to obtain FDA approval for widespread usage of this therapy," said Shelly Zacharias, DVM, Director of Veterinary Operations, RenovoCyte, LLC.

A spokesperson for Entest noted the Company is also currently conducting a 10 dog safety study on its immune-therapeutic cancer vaccine for dogs, having treated 3 dogs so far.

About Entest BioMedical Inc.:Entest BioMedical Inc. (http://www.entestbio.com) is a veterinary biotechnology company focused on developing therapies that harness the animal's own reparative / immunological mechanisms. The Company's products include an immuno-therapeutic cancer vaccine for canines (ImenVax). ImenVax is less invasive and less traumatic in treating cancer. Additionally, the Company serves as the contract research organization conducting a pilot study on a stem cell based canine osteoarthritis treatment (developed by RenovoCyte LLC) utilizing a 'universal donor' stem cell. Entest is also building a network of veterinary hospitals (with its initial location in Santa Barbara, CA and anticipates acquiring other veterinary hospitals in California) -- which serve as distribution channels for its products.

DisclaimerThis news release may contain forward-looking statements. Forward-looking statements are inherently subject to risks and uncertainties, some of which cannot be predicted or quantified. Future events and actual results could differ materially from those set forth in, contemplated by, or underlying the forward-looking statements. The risks and uncertainties to which forward-looking statements are subject include, but are not limited to, the effect of government regulation, competition and other material risks.

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Entest BioMedical Excited With Progress on 10 Dog Pilot Study of "Universal Donor" Stem Cell Treatment for Canine ...

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