Vet offers stem cell therapy for dogs

COLUMBIA, SC (WIS) - Cutting-edge arthritis treatment for our four-legged family members is now available in Columbia.

Banks Animal Hospital is the first in the area to offer in-house Stem Cell therapy. It uses your pets own body to heal itself.

Take 13-year-old Maggie, for example. The energetic pup has a limp that usually keeps her from jumping or going up stairs.

"Today when everybody's out there filming her little limp it's not as pronounced because she wants to please," said Maggie's owner, Beth Phibbs. "She's just a great dog."

But a great attitude wasn't enough to repair a bad case of cervical spine arthritis.

So Monday, Beth brought Maggie to Banks Animal Hospital for the Stem Cell therapy. Like many, Beth had never heard of Stem Cell work in animals. "Until Dr. Banks mentioned it to me I was like, beg your pardon?"

"There's no down side, no side effects because you're using your own cells," said Dr Ken Banks.

Banks and his staff first gather some of Maggie's blood and fat. Both are good places to find the repair cells they're after. Adult stem cells, not the controversial embryonic kind, are then separated and spun down.

"The repair system in Maggie's body has failed," said Jason Richardson of MediVet-America. "It's fallen asleep at the wheel, we're taking these repair cells, activating them so a chronic condition like osteo arthritis to Maggie will now be an acute illness."

This kind of treatment used to take days with material being shipped across the country, but now it can be done in hours.

"The ability to do it same day, convenience, the ability to do it in clinic saves a lot of money to the doctor which he can then pass on to the patient," said Richardson.

The treatment will still run you around $2,000, but Richardson says that's half of what the similar treatment use to cost.

When it's over, Maggie should be able to live out her life pain and drug free -- something Phibbs is looking forward to.

"I'm hoping in a couple of weeks she's gonna have a new lease on life," said Phibbs.

Copyright 2012 WIS. All rights reserved.

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Vet offers stem cell therapy for dogs

Radiation treatment transforms breast cancer cells into cancer stem cells

Public release date: 13-Feb-2012
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Contact: Kim Irwin
kirwin@mednet.ucla.edu
310-206-2805
University of California - Los Angeles Health Sciences

Breast cancer stem cells are thought to be the sole source of tumor recurrence and are known to be resistant to radiation therapy and don't respond well to chemotherapy.

Now, researchers with the UCLA Department of Radiation Oncology at UCLA's Jonsson Comprehensive Cancer Center report for the first time that radiation treatment ?despite killing half of all tumor cells during every treatment - transforms other cancer cells into treatment-resistant breast cancer stem cells.

The generation of these breast cancer stem cells counteracts the otherwise highly efficient radiation treatment. If scientists can uncover the mechanisms and prevent this transformation from occurring, radiation treatment for breast cancer could become even more effective, said study senior author Dr. Frank Pajonk, an associate professor of radiation oncology and Jonsson Cancer Center researcher.

"We found that these induced breast cancer stem cells (iBCSC) were generated by radiation-induced activation of the same cellular pathways used to reprogram normal cells into induced pluripotent stem cells (iPS) in regenerative medicine," said Pajonk, who also is a scientist with the Eli and Edythe Broad Center of Regenerative Medicine at UCLA. "It was remarkable that these breast cancers used the same reprogramming pathways to fight back against the radiation treatment."

The study appears DATE in the early online edition of the peer-reviewed journal Stem Cells.

"Controlling the radiation resistance of breast cancer stem cells and the generation of new iBCSC during radiation treatment may ultimately improve curability and may allow for de-escalation of the total radiation doses currently given to breast cancer patients, thereby reducing acute and long-term adverse effects," the study states.

There are very few breast cancer stem cells in a larger pool of breast cancer cells. In this study, Pajonk and his team eliminated the smaller pool of breast cancer stem cells and then irradiated the remaining breast cancer cells and placed them into mice.

Using a unique imaging system Pajonk and his team developed to visualize cancer stem cells, the researchers were able to observe their initial generation into iBCSC in response to the radiation treatment. The newly generated iBCSC were remarkably similar to breast cancer stem cells found in tumors that had not been irradiated, Pajonk said.

The team also found that the iBCSC had a more than 30-fold increased ability to form tumors compared to the non-irradiated breast cancer cells from which they originated.

Pajonk said that the study unites the competing models of clonal evolution and the hierarchical organization of breast cancers, as it suggests that undisturbed, growing tumors maintain a small number of cancer stem cells. However, if challenged by various stressors that threaten their numbers, including ionizing radiation, the breast cancer cells generate iBCSC that may, together with the surviving cancer stem cells, repopulate the tumor.

"What is really exciting about this study is that it gives us a much more complex understanding of the interaction of radiation with cancer cells that goes far beyond DNA damage and cell killing," Pajonk said. "The study may carry enormous potential to make radiation even better."

Pajonk stressed that breast cancer patients should not be alarmed by the study findings and should continue to undergo radiation if recommended by their oncologists.

"Radiation is an extremely powerful tool in the fight against breast cancer," he said. "If we can uncover the mechanism driving this transformation, we may be able to stop it and make the therapy even more powerful."

###

This study was funded by the National Cancer Institute, the California Breast Cancer Research Program and the Department of Defense. UCLA's Jonsson Comprehensive Cancer Center has more than 240 researchers and clinicians engaged in disease research, prevention, detection, control, treatment and education. One of the nation's largest comprehensive cancer centers, the Jonsson center is dedicated to promoting research and translating basic science into leading-edge clinical studies. In July 2011, the Jonsson Cancer Center was named among the top 10 cancer centers nationwide by U.S. News & World Report, a ranking it has held for 11 of the last 12 years. For more information on the Jonsson Cancer Center, visit our website at http://www.cancer.ucla.edu.

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Radiation treatment transforms breast cancer cells into cancer stem cells

Stem cell injection successfully treats urinary incontinence

It started when Deborah Bishop was still in her 20s.

Always athletic -- she had participated in field hockey, speed skating and baseball -- Ms. Bishop was doing jumping jacks when she noticed to her embarrassment that she had leaked urine.

As the weeks wore on, the Canadian woman began to have more and more of these accidents. It wasn't just strenuous exercise that caused them, but also being tickled or coughing or sneezing.

The condition is known as stress urinary incontinence, and researchers say it may affect hundreds of millions of people around the world, primarily women, who are more susceptible because of their anatomy.

Today, Ms. Bishop, 54, is "90 percent" normal on her urinary leakage, she said -- all because of an injection of her own stem cells that she received three years ago.

The cells, known officially as autologous muscle-derived cells, were taken out of her thigh, multiplied several times over in the lab, and then injected into the muscles around her urethra, the opening at the neck of the bladder.

While many people still associate the phrase "stem cells" with ethical debates over using embryos, these stem cells have nothing to do with that.

All of us have stem cells in various parts of our bodies that can develop into mature cells and are used to repair muscle, nerve and tissue damage.

In this case, researcher Johnny Huard at the University of Pittsburgh developed a technique for finding stem cells in muscle tissue and then purifying and multiplying them. The biomedical firm Cook MyoSite Inc. bought the licensing rights to his technique and is overseeing the current tests on treating stress urinary incontinence.

The idea is that the stem cells will create new cells that will strengthen the muscles that control urination. Even though the initial trials were focused on testing the safety of the procedure, 60 to 70 percent of the women have shown a significant decrease in their urinary leakage, said Ryan Pruchnic, Cook MyoSite's director of operations.

Lesley Carr, Ms. Bishop's physician and a urologist at Sunnybrook Health Sciences Centre in Toronto, said there is no medication that helps with this most prevalent form of incontinence. Up to now, the primary last-resort therapy has been surgical insertion of a mesh sling around the urethra.

The surgery is effective, Dr. Carr said, but "there are rare but recognized complications," including pain and infections, and women face up to six weeks of restricted activity after the operation.

That was a big obstacle for Ms. Bishop, not only because she is so physically active, but because she was in the middle of a house renovation when she sought help for her condition.

"I told Dr. Carr I couldn't afford to be out of commission for six weeks," she recalled, "and that's when she must have mentioned the stem cell trial to me."

In July 2009, she had a piece of her outer thigh muscle removed under local anesthesia, a procedure she admits left her feeling "like I'd been kicked by a horse" for about a week.

Researchers then located and multiplied the stem cells in her muscle tissue, and the following September, she had them injected into the muscles around her urethra. The entire injection took about five minutes, she said, and she felt nothing.

The improvement was gradual after that. "I noticed a difference in a couple months," she said, "and a significant difference in four or five months. I thought what made it really unique was that it was using my own muscle cells."

The procedure means that today, she can do her strenuous morning exercises of standing broad jumps and stride jumps without having to wear heavy pads to absorb leakage.

The latest trials with the stem cells are the first to enroll women who will either get real stem cells or placebo injections. Cook MyoSite hopes to have solid results and be able to bring the procedure to market by 2015, Mr. Pruchnic said.

The company has also begun initial tests of the muscle stem cells in people who have had heart attacks or are experiencing chronic heart failure, in hopes they will restore the strength and flexibility of cardiac muscle.

By using a person's own cells, Dr. Carr noted, there is no need for patients to take immunosuppressive medications. She believes such regenerative medicine "will be the wave of the future in most fields" of health care.

Ms. Bishop is certainly sold.

"I've got a girlfriend who's had three children and is very physically active, and she's struggling with stress incontinence now, and so I'm an advocate for this.

"It was an excellent experience for me, and I would highly recommend it to anyone."

Mark Roth: mroth@post-gazette.com or 412-263-1130.

First published on February 13, 2012 at 12:00 am

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Stem cell injection successfully treats urinary incontinence

UQ researchers make breakthrough in stem cell research

University of Queensland scientists have developed a world-first method for producing adult stem cells that will substantially impact patients who have a range of serious diseases.

The research is a collaborative effort involving UQ's Australian Institute for Bioengineering and Nanotechnology (AIBN) and is led by UQ Clinical Research Centre's (UQCCR) Professor Nicholas Fisk.

It revealed a new method to create mesenchymal stem cells (MSCs), which can be used to repair bone and potentially other organs.

?We used a small molecule to induce embryonic stem cells over a 10 day period, which is much faster than other studies reported in the literature,? Professor Fisk said.

?The technique also worked on their less contentious counterparts, induced pluripotent stem cells.

?To make the pluripotent mature stem cells useful in the clinic, they have to be told what type of cell they need to become (pre-differentiated), before being administered to an injured organ, or otherwise they could form tumours.

?Because only small numbers of MSCs exist in the bone marrow and harvesting bone marrow from a healthy donor is an invasive procedure, the ability to make our own MSCs in large number in the laboratory is an exciting step in the future widespread clinical use of MSCs.

?We were able to show these new forms of stem cells exhibited all the characteristics of bone marrow stem cells and we are currently examining their bone repair capability."

AIBN Associate Professor and Co-Investigator on the project, Ernst Wolvetang said the new protocol had overcome a significant barrier in the translation of stem cell-based therapy.

?We are very excited by this research, which has brought together stem cell researchers from two of the major UQ research hubs UQCCR and AIBN,? Associate Professor Wolvetang said.

The research is published in the February edition of the STEM CELLS Translational Medicine journal.

UniQuest, The University of Queensland's main commercialisation company, invites parties interested in licensing the intellectual property relating to this discovery to contact UniQuest on 3365 4037 or lifesciences@uniquest.com.au.

Media Contact: Kirsten Rogan, Communications and Media, University of Queensland Faculty of Health Sciences, 07 3346 5308, 0412307594 or k.rogan@uq.edu.au

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UQ researchers make breakthrough in stem cell research

Researchers make breakthrough in stem cell research

The research is a collaborative effort involving UQ's Australian Institute for Bioengineering and Nanotechnology (AIBN) and is led by UQ Clinical Research Centre's (UQCCR) Professor Nicholas Fisk.

It revealed a new method to create mesenchymal stem cells (MSCs), which can be used to repair bone and potentially other organs.

“We used a small molecule to induce embryonic stem cells over a 10 day period, which is much faster than other studies reported in the literature,” Professor Fisk said.

“The technique also worked on their less contentious counterparts, induced pluripotent stem cells.

“To make the pluripotent mature stem cells useful in the clinic, they have to be told what type of cell they need to become (pre-differentiated), before being administered to an injured organ, or otherwise they could form tumours.

“Because only small numbers of MSCs exist in the bone marrow and harvesting bone marrow from a healthy donor is an invasive procedure, the ability to make our own MSCs in large number in the laboratory is an exciting step in the future widespread clinical use of MSCs.

“We were able to show these new forms of stem cells exhibited all the characteristics of bone marrow stem cells and we are currently examining their bone repair capability."

AIBN Associate Professor and Co-Investigator on the project, Ernst Wolvetang said the new protocol had overcome a significant barrier in the translation of stem cell-based therapy.

“We are very excited by this research, which has brought together stem cell researchers from two of the major UQ research hubs UQCCR and AIBN,” Associate Professor Wolvetang said.

The research is published in the February edition of the STEM CELLS Translational Medicine journal.

Provided by University of Queensland (news : web)

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Researchers make breakthrough in stem cell research

ACT Announces Third Patient with Stargardt’s Disease Treated in U.S. Clinical Trial with RPE Cells Derived from …

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

Advanced Cell Technology, Inc. (“ACT”; OTCBB: ACTC), a leader in the field of regenerative medicine, announced today the dosing of third patient in its Phase 1/2 trial for Stargardt’s macular dystrophy (SMD) using retinal pigment epithelial (RPE) cells derived from human embryonic stem cells (hESCs). The patient was treated on Monday (Feb. 6) by Steven Schwartz, M.D., Ahmanson Professor of Ophthalmology at the David Geffen School of Medicine at the University of California, Los Angeles (UCLA) and retina division chief at UCLA’s Jules Stein Eye Institute. The outpatient transplantation surgery was performed successfully and the patient is recovering uneventfully.

“With the treatment of this third Stargardt’s patient at Jules Stein Eye Institute, we have now completed the treatment of the first cohort of patients under our clinical protocol for phase I/II of our U.S. SMD trial,” said Gary Rabin, chairman and chief executive officer of ACT. “We will continue to regularly monitor the three SMD patients in this trial, and by early spring anticipate review of their progress and safety-related data by the Data and Safety Monitoring Board (DSMB). With approval of the DSMB, we would then advance to the next cohort of patients and administer a higher dosage of RPE cells. In the context of all three trials we have running, this patient is the fifth person worldwide to be treated with our hESC-derived RPE cells. To date, there have been no complications or side effects due to the RPE cells, and we remain cautiously optimistic that our ongoing clinical programs will demonstrate the safety and tolerability of ACT’s stem cell-derived RPE cells.”

Each of the three clinical trials being undertaken by the company in the U.S. and Europe will enroll 12 patients, with cohorts of three patients each in an ascending dosage format. These trials are prospective, open-label studies, designed to determine the safety and tolerability of hESC-derived RPE cells following sub-retinal transplantation into patients with SMD or dry age-related macular degeneration (dry AMD) at 12 months, the study’s primary endpoint. Preliminary results relating to both early safety and biological function for the first two patients in the United States, one SMD patient and one dry AMD patient, were recently reported in The Lancet. On January 20, 2012, the first SMD patient to be enrolled in the Company’s U.K. clinical trial was treated at Moorfields Eye Hospital in London.

Further information about patient eligibility for the SMD study and the concurrent study on dry AMD is also available on www.clinicaltrials.gov; ClinicalTrials.gov Identifiers: NCT01345006 and NCT01344993.

About Stargardt's Disease

Stargardt’s disease or Stargardt’s Macular Dystrophy is a genetic disease that causes progressive vision loss, usually starting in children between 10 to 20 years of age. Eventually, blindness results from photoreceptor loss associated with degeneration in the pigmented layer of the retina, called the retinal pigment epithelium, which is the site of damage that the company believes the hESC-derived RPE may be able to target for repair after administration.

About Advanced Cell Technology, Inc.

Advanced Cell Technology, Inc., is a biotechnology company applying cellular technology in the field of regenerative medicine. For more information, visit http://www.advancedcell.com.

Forward-Looking Statements

Statements in this news release regarding future financial and operating results, future growth in research and development programs, potential applications of our technology, opportunities for the company and any other statements about the future expectations, beliefs, goals, plans, or prospects expressed by management constitute forward-looking statements within the meaning of the Private Securities Litigation Reform Act of 1995. Any statements that are not statements of historical fact (including statements containing the words “will,” “believes,” “plans,” “anticipates,” “expects,” “estimates,” and similar expressions) should also be considered to be forward-looking statements. There are a number of important factors that could cause actual results or events to differ materially from those indicated by such forward-looking statements, including: limited operating history, need for future capital, risks inherent in the development and commercialization of potential products, protection of our intellectual property, and economic conditions generally. Additional information on potential factors that could affect our results and other risks and uncertainties are detailed from time to time in the company’s periodic reports, including the report on Form 10-K for the year ended December 31, 2010. Forward-looking statements are based on the beliefs, opinions, and expectations of the company’s management at the time they are made, and the company does not assume any obligation to update its forward-looking statements if those beliefs, opinions, expectations, or other circumstances should change. Forward-looking statements are based on the beliefs, opinions, and expectations of the company’s management at the time they are made, and the company does not assume any obligation to update its forward-looking statements if those beliefs, opinions, expectations, or other circumstances should change. There can be no assurance that the Company’s clinical trials will be successful.

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ACT Announces Third Patient with Stargardt’s Disease Treated in U.S. Clinical Trial with RPE Cells Derived from ...

The Gamida Cell-Teva Joint Venture Concludes Enrollment for the Phase III Study of StemEx®, a Cord Blood Stem Cell …

JERUSALEM--(BUSINESS WIRE)--

Gamida Cell announced today that the Gamida Cell-Teva Joint Venture (JV), equally held by Gamida Cell and Teva Pharmaceutical Industries, has enrolled the last of 100 patients in the international, multi-center, pivotal registration, Phase III clinical trial of StemEx, a cell therapy product in development as an alternative therapeutic treatment for adolescents and adults, with blood cancers such as leukemia and lymphoma, who cannot find a family related, matched bone marrow donor.

StemEx is a graft of an expanded population of stem/progenitor cells, derived from part of a single unit of umbilical cord blood and transplanted by IV administration along with the remaining, non-manipulated cells from the same unit.

Dr. Yael Margolin, president and chief executive officer of Gamida Cell, said, "The JV is planning to announce the safety and efficacy results of the Phase III StemEx trial in 2012 and to launch the product into the market in 2013. It is our hope that StemEx will provide the answer for the thousands of leukemia and lymphoma patients unable to find a matched, related bone marrow donor.”

Dr. Margolin continued, “StemEx may be the first allogeneic cell therapy to be brought to market. This is a source of pride for Gamida Cell, as it further confirms the company’s leadership as a pioneer in cell therapy. In addition to StemEx, Gamida Cell is developing a diverse pipeline of products for the treatment of cancer, hematological diseases such as sickle cell disease and thalassemia, as well as autoimmune and metabolic diseases and conditions helped by regenerative medicine.”

About Gamida Cell

Gamida Cell is a world leader in stem cell population expansion technologies and stem cell therapy products for transplantation and regenerative medicine. The company’s pipeline of stem cell therapy products are in development to treat a wide range of conditions including blood cancers such as leukemia and lymphoma, solid tumors, non-malignant hematological diseases such as hemoglobinopathies, acute radiation syndrome, autoimmune diseases and metabolic diseases as well as conditions that can be helped by regenerative medicine. Gamida Cell’s therapeutic candidates contain populations of adult stem cells, selected from non-controversial sources such as umbilical cord blood, which are expanded in culture. Gamida Cell was successful in translating these proprietary expansion technologies into robust and validated manufacturing processes under GMP. Gamida Cell’s current shareholders include: Elbit Imaging, Clal Biotechnology Industries, Israel Healthcare Venture, Teva Pharmaceutical Industries, Amgen, Denali Ventures and Auriga Ventures. For more information, please visit: http://www.gamida-cell.com.

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The Gamida Cell-Teva Joint Venture Concludes Enrollment for the Phase III Study of StemEx®, a Cord Blood Stem Cell ...

Therapy targets leukemia stem cells

Public release date: 13-Feb-2012
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Contact: Lisa Lyons
elyons@cell.com
617-386-2121
Cell Press

New research takes aim at stubborn cancer stem cells that are thought to be responsible for treatment resistance and relapse. The study, published by Cell Press in the February 14 issue of the journal Cancer Cell, provides insight into mechanisms associated with the survival of leukemia stem cells and identifies a potential therapeutic target that is specific for these dangerously persistent cells.

Chronic myelogenous leukemia (CML) is a cancer of the white blood cells for which tyrosine kinase inhibitors are currently the first line of therapy. These drugs prolong survival, but disease recurrence is often seen after drug treatment is stopped. "Tyrosine kinase inhibitors do not eliminate leukemia stem cells, which remain a potential source of cancer recurrence," explains senior coauthor Dr. Ravi Bhatia from the City of Hope National Medical Center in Duarte, California. "CML patients need to take tyrosine kinase inhibitor treatment indefinitely, which carries a significant risk of toxicity, lack of compliance, drug resistance, relapse, and associated expense."

Strategies targeting leukemia stem cells are necessary to achieve a cure. Previous work has implicated the enzyme sirtuin 1 (SIRT1) in protecting stem cells from stress and in playing a role in leukemia, as well as other types of cancer. In the current study, Dr. Bhatia, coauthor Dr. WenYong Chen, first author Ling Li, and their colleagues investigated whether SIRT1 was involved in the survival and growth of CML stem cells. The researchers discovered that SIRT1 was overexpressed in CML stem cells and that inhibition of SIRT1selectively reduced the survival and growth of CML stem cells. Importantly, SIRT1 inhibition was associated with activation of the p53 tumor suppressor.

Taken together, the results reveal a specific mechanism that supports the survival of leukemia stem cells. "Our findings are important because they show that SIRT1-mediated inactivation of p53 contributes to CML leukemia stem cell survival and resistance to treatment with tyrosine kinase inhibitors," concludes Dr. Chen. "We suggest that SIRT1 inhibition is an attractive approach to selectively target leukemia stem cells that resist elimination by current treatments."

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Therapy targets leukemia stem cells

Stem cell treatments change girl's life

PIEDMONT, Okla. -- Stem cell research is one of the newest and most exciting areas of study. Experts believe these tiny unwritten cells hold the keys to curing a number of diseases and debilitating injuries. But here in the U.S., stem cell research isn't moving fast enough for a growing number of families.

This is the story of an Oklahoma family that traveled to China for cutting-edge stem cell treatment not offered in the US.

Cora Beth Taylor walks a different road than most will ever travel.

Her journey is filled with obstacles, heartbreak and triumph.

Cora, William and Tate Taylor are triplets born premature.

The brothers have never shown any signs of prematurity.

But Cora, at about a year old, started falling behind developmentally.

By 18 months she had been diagnosed with Cerebral Palsy.

Cora has never had any cognitive delays.

She's a super-smart little gal but her muscles haven't developed properly.

It's devastating; they just won't cooperate.

Cora's parents, Kevin and Beth Taylor, have tried everything for their little girl; that is, everything available in the U.S.

Last year, Piedmont Schools raised the money to help the Taylors take Cora to China for treatment, close to $50,000.

Research hospitals in China are using stem cells from donor umbilical cord blood to treat children with Cerebral Palsy.

Beth Taylor says, "That was a difficult decision to make to take your child to a foreign country for medical treatments. Living in the US you feel like this is the best there is."

The Taylors spent 37 days in China.

Cora Beth had eight stem cell transfusions.

Through a spinal tap, doctors put the cells into her spinal column where they penetrate the blood-brain barrier and get to work.

Critics are quick to point out this area of regenerative medicine has largely unverified effectiveness. Results are often anecdotal and the FDA is a long way from approving this type of experimental treatment for America.

Though the Taylors are convinced and here's why.

Beth Taylor said, "Within the first couple of weeks we could see changes. We could see definite improvements in strength and balance."

Cora had never been able to do a sit-up in her life ever; she did her first in China.

Nine-year-old Cora remembers, "The thing that I was most happy about accomplishing was a sit up. Because I'd tried to do a sit up before going to China but I just couldn't do it."

Now, Cora Beth can do 20.

The most notable change has been Cora's walk.

This third-grader had never gone to school without her walker.

Today she walks the halls without it; she hasn't used it in months.

She recently competed in a beauty pageant in her hometown of Piedmont, without the help of her walker as well.

Cora says, "So, I'm really excited. I don't think there's anything that I couldn't accomplish."

Doctors say Cora’s stem cells will continue to mature over the next few years.

For her, there are many milestones ahead.

In the US, Duke University is studying stem cell treatments for children with Cerebral Palsy.

Right now they don't have FDA clearance to use donor stem-cells.

Experts say treatment similar to Cora Beth's Chinese therapy is years away in the U.S.

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Stem cell treatments change girl's life

Young stem cells make rapidly aging mice live longer and healthier – Video

17-01-2012 13:20 Researchers from the University of Pittsburgh School of Medicine found that a shot of young stem cells made rapidly aging mice live longer and healthier. Johnny Huard, Ph.D., professor in the Departments of Orthopaedic Surgery and of Microbiology and Molecular Genetics, Pitt School of Medicine, and director of the Stem Cell Research Center at Pitt and Children's Hospital of Pittsburgh of UPMC, and Laura Niedernhofer, MD, Ph.D., associate professor in the University of Pittsburgh's Department of Microbiology and Molecular Genetics and the University of Pittsburgh Cancer Institute (UPCI), discuss their research findings, which were published in the Jan. 3 edition of Nature Communications.

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Young stem cells make rapidly aging mice live longer and healthier - Video