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NeoStem Receives Notification of $1.2 Million NIH Grant Award for First Clinical Study of VSEL(TM) Technology in Humans

NEW YORK, Nov. 20, 2012 (GLOBE NEWSWIRE) -- NeoStem, Inc. (NBS) ("NeoStem" or the "Company"), an emerging leader in the fast growing cell therapy industry, today announced that it has been awarded a two year grant totaling $1,221,854 for "Repair of Bone Defects with Human Autologous Pluripotent Very Small Embryonic-Like Stem Cells (VSEL)", grant number 2R44DE022493-02A1, from the National Institute of Dental and Craniofacial Research (NIDCR), a division of the National Institutes of Health (NIH). This peer reviewed grant is to support a Phase 2 investigation and first approved NIH clinical study of VSELsTM in humans. The study will be headed by Denis O. Rodgerson, Ph.D., Director of Grants and Academic Liaison for NeoStem, in collaboration with co-investigators Drs. Russell Taichman and Laurie McCauley of the University of Michigan. Enrollment for this study is expected to begin in 2013.

This award will fund the evaluation of VSELTM stem cells as a potential treatment for periodontitis. The product candidate, an autologous therapy derived from a patient's own stem cells, is to be developed for use in the regeneration of bone tissue damaged by this disease. The award includes $706,682 for the first year and $515,172 for the second year of the project, and will cover the cost of the Investigational New Drug (IND) submission to the FDA for the product candidate.

Dr. Denis O. Rodgerson, Director of Grants and Academic Liaison for NeoStem, said, "We are pleased and honored that NIH has agreed to support further studies on bone regeneration by using VSELTM stem cells. This is an extension of our successful NIH funded collaboration with Dr. Taichman showing the production of human bone from human VSELsTM in a mouse model."

Periodontal disease is prevalent in the U.S. and affects up to 90% of the world population. The most severe cases of periodontal disease affect between 5% and 15% of the U.S. population, or between 15 and 47 million Americans. The incidence of periodontal disease is estimated to be between 1 and 3 million Americans annually, and growing at a 7% rate each year. Studies have shown that periodontal inflammation could have a role in the initiation or progression of coronary heart disease and stroke. Market research experts have estimated that severe periodontal disease represents a market between $1.25 and $1.5 billion annually.

Dr. Russell Taichman, Major Ash Collegiate Professor and Co-Director of the Scholars Program in Dental Leadership, Department of Periodontics & Oral Medicine, University of Michigan stated, "I am thrilled for the possibilities that this award opens. The chance to continue to partner with NeoStem to further develop regenerative therapies is significant. The validation that this award brings and the opportunity to establish a proof of concept, which may impact human health, is truly rewarding." Dr. Laurie McCauley, The William K. and Mary Anne Najjar Professor, Division of Periodontics Department of Periodontics and Oral Medicine, University of Michigan added, "This novel cell based therapeutic approach looks to validate scientifically sound pre-clinical studies and provide a vital translation to improved human patient care."

NeoStem has a worldwide exclusive license to VSEL(TM) technology which uses very small embryonic-like stem cells, a heterogeneous population of stem cells found in adult bone marrow that have properties similar to those of embryonic stem cells. NeoStem has shown that very small embryonic-like stem cells can be mobilized into the peripheral blood, enabling a minimally invasive means for collecting what it believes to be an important population of stem cells that may have the potential to achieve the positive benefits associated with embryonic stem cells without the ethical or moral dilemmas or the potential negative biological effects associated with embryonic stem cells.

Dr. Robin L. Smith, Chairman and CEO of NeoStem, added, "We are very excited about this important step of funding for what will be the first human clinical study for our VSELTM technology. Not only will this study expand our knowledge of how autologous cell therapy can treat periodontitis and other bone defects, but it represents a milestone for NeoStem as we move our development of VSELTM technology beyond animal models and into the clinic, paving the way for other potential VSELTM trials."

About NeoStem, Inc.

NeoStem, Inc. continues to develop and build on its core capabilities in cell therapy, capitalizing on the paradigm shift that we see occurring in medicine. In particular, we anticipate that cell therapy will have a significant role in the fight against chronic disease and in lessening the economic burden that these diseases pose to modern society. We are emerging as a technology and market leading company in this fast developing cell therapy market. Our multi-faceted business strategy combines a state-of-the-art contract development and manufacturing subsidiary, Progenitor Cell Therapy, LLC ("PCT"), with a medically important cell therapy product development program, enabling near and long-term revenue growth opportunities. We believe this expertise and existing research capabilities and collaborations will enable us to achieve our mission of becoming a premier cell therapy company.

Our contract development and manufacturing service business supports the development of proprietary cell therapy products. NeoStem's most clinically advanced therapeutic, AMR-001, is being developed at Amorcyte, LLC ("Amorcyte"), which we acquired in October 2011. Amorcyte is developing a cell therapy for the treatment of cardiovascular disease and is enrolling patients in a Phase 2 trial to investigate AMR-001's efficacy in preserving heart function after a heart attack. Athelos Corporation ("Athelos"), which is approximately 80%-owned by our subsidiary, PCT, is collaborating with Becton-Dickinson in the early clinical exploration of a T-cell therapy for autoimmune conditions. In addition, pre-clinical assets include our VSELTM Technology platform as well as our mesenchymal stem cell product candidate for regenerative medicine. Our service business and pipeline of proprietary cell therapy products work in concert, giving us a competitive advantage that we believe is unique to the biotechnology and pharmaceutical industries. Supported by an experienced scientific and business management team and a substantial intellectual property estate, we believe we are well positioned to succeed.

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NeoStem Receives Notification of $1.2 Million NIH Grant Award for First Clinical Study of VSEL(TM) Technology in Humans

Stem Cells allow paralysed dogs to walk again. – Video


Stem Cells allow paralysed dogs to walk again.
Pet dogs left paralysed by spine damage have been able to walk again after pioneering stem cell treatment. Injecting cells taken from the dogs #39; nose into the injured part of their back helped regenerate the damaged done to their spine. Following the treatment, the animals were able to move previously paralysed hind legs and coordinate movement with their front limbs.From:TheeDudeabidezViews:0 0ratingsTime:00:21More inPets Animals

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Stem Cells allow paralysed dogs to walk again. - Video

'Different kind of stem cell' possesses attributes favoring regenerative medicine

ScienceDaily (Nov. 19, 2012) A research team at Georgetown Lombardi Comprehensive Cancer Center say the new and powerful cells they first created in the laboratory a year ago constitute a new stem-like state of adult epithelial cells. They say these cells have attributes that may make regenerative medicine truly possible.

In the November 19 online early edition of the Proceedings of the National Academy of Sciences (PNAS), they report that these new stem-like cells do not express the same genes as embryonic stem cells and induced pluripotent stem cells (iPSCs) do. That explains why they don't produce tumors when they grow in the laboratory, as the other stem cells do, and why they are stable, producing the kind of cells researchers want them to.

"These seem to be exactly the kind of cells that we need to make regenerative medicine a reality," says the study's senior investigator, chairman of the department of pathology at Georgetown Lombardi, a part of Georgetown University Medical Center.

This study is a continuation of work that led to a breakthrough in December 2011 when Schlegel and his colleagues demonstrated that he and his team had designed a laboratory technique that keep both normal as well as cancer cells alive indefinitely -- which previously had not been possible.

They had discovered that adding two different substances to these cells (a Rho kinase inhibitor and fibroblast feeder cells) pushes them to morph into stem-like cells that stay alive indefinitely. When the two substances are withdrawn from the cells, they revert back to the type of cell that they once were. They dubbed these cells conditionally reprogrammed cells (CRCs).

The advance was seen as an exciting demonstration of personalized cancer medicine. In fact, a case study authored by Schlegel and his team, reported in the September 27 issue of the New England Journal of Medicine (NEJM), demonstrated how CRCs derived from normal and tumor cells of a 24-year-old man with a rare type of lung tumor allowed physicians to identify an effective cancer therapy. These cells were used to screen potential treatments and in this way, the scientists were able to see which therapies were active against the tumor cells and less harmful to the normal cells.

"Our first clinical application utilizing this technique represents a powerful example of individualized medicine," Schlegel said in September. But he cautioned, "It will take an army of researchers and solid science to figure out if this technique will be the advance we need to usher in a new era of personalized medicine."

This study was designed to see how the CRCs compared to known properties of embryonic stem cells and iPSCs, which are adult cells that have been manipulated by addition of genes to make them capable of differentiating (morphing into new adult cell types). Both embryonic stem cells and iPSCs have been investigated for use in regenerative medicine, but each can form tumors when injected into mice and "it is difficult to control what kind of cells these cells differentiate into," Schlegel says. "You may want them to be a lung cell, but they could form a skin cell instead."

In contrast, cells derived from the lung will develop stem-like properties when the conditions are added, allowing expansion of the lung cell population. However, when the conditions are withdrawn, they will revert to differentiated lung cells, he says. Schlegel added that they do this rapidly -- within three days of adding the inhibitor and feeder cells, they efficiently generated large numbers of stem-like cells. It is also completely reversible: when the conditions are taken away, the cells lose their stem-like properties and potentially can be safely implanted into tissue.

The researchers compared gene expression between the three cell types and found that while some of the same genes are expressed in all the cells, CRCs don't over express the same critical genes that embryonic stem cells and iPSCs do. "Because they don't express those genes, they don't form tumors and they are lineage committed, unlike the other cells," Schlegel says. "That shows us that CRCs are a different kind of stem-like cell."

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'Different kind of stem cell' possesses attributes favoring regenerative medicine

Time for walkies! Pet dogs paralysed by spine damage are able to walk again following pioneering stem cell treatment

One owner described her previously paralysed pet 'whizzing around the house' following the treatment Earlier tests proved the treatment on rats, but the new study is the first to prove it can be effective more than 12 months after an injury

By Nick Mcdermott

PUBLISHED: 20:35 EST, 18 November 2012 | UPDATED: 19:46 EST, 19 November 2012

As he strolls across the lawn, it is hard to believe Jasper the dachshund was unable to use his hind legs just two years ago.

Paralysed in an accident, he needed years of physiotherapy and a special trolley to get around.

But scientists conducting a study at Cambridge University have helped him walk again with a pioneering treatment that offers hope for human patients with spinal injuries.

Back on his feet: Jasper, the ten-year-old dachshund as he is now. Just two years ago, he could not use his hind legs

Breakthrough: Pet dogs left paralysed by spine damage have been able to walk again after pioneering cell treatment. This image shows Jasper the dog at the start of a trial with his rear legs limp and unusable

Better: After six months of treatment, Jasper's legs are seen walking almost normally. The treatment involves injecting cells from the dogs' nose into the injured part of their back

Injecting cells from the dogs nose into the injured part of his spine helped repair the damage. After the treatment, Jasper was able to move his previously paralysed hind legs and co-ordinate movement with his front limbs. The ten-year-old dog is now whizzing around unassisted and can also swim.

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Time for walkies! Pet dogs paralysed by spine damage are able to walk again following pioneering stem cell treatment

Dogs paralysed by spine damage are able to walk again following pioneering stem cell treatment

One owner described her previously paralysed pet 'whizzing around the house' following the treatment Earlier tests proved the treatment on rats, but the new study is the first to prove it can be effective more than 12 months after an injury

By Nick Mcdermott

PUBLISHED: 20:35 EST, 18 November 2012 | UPDATED: 19:46 EST, 19 November 2012

As he strolls across the lawn, it is hard to believe Jasper the dachshund was unable to use his hind legs just two years ago.

Paralysed in an accident, he needed years of physiotherapy and a special trolley to get around.

But scientists conducting a study at Cambridge University have helped him walk again with a pioneering treatment that offers hope for human patients with spinal injuries.

Back on his feet: Jasper, the ten-year-old dachshund as he is now. Just two years ago, he could not use his hind legs

Breakthrough: Pet dogs left paralysed by spine damage have been able to walk again after pioneering cell treatment. This image shows Jasper the dog at the start of a trial with his rear legs limp and unusable

Better: After six months of treatment, Jasper's legs are seen walking almost normally. The treatment involves injecting cells from the dogs' nose into the injured part of their back

Injecting cells from the dogs nose into the injured part of his spine helped repair the damage. After the treatment, Jasper was able to move his previously paralysed hind legs and co-ordinate movement with his front limbs. The ten-year-old dog is now whizzing around unassisted and can also swim.

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Dogs paralysed by spine damage are able to walk again following pioneering stem cell treatment

Scientists reverse paralysis in dogs following pioneering stem cell treatment

One owner described her previously paralysed pet 'whizzing around the house' following the treatment Earlier tests proved the treatment on rats, but the new study is the first to prove it can be effective more than 12 months after an injury

By Nick Mcdermott

PUBLISHED: 20:35 EST, 18 November 2012 | UPDATED: 19:46 EST, 19 November 2012

As he strolls across the lawn, it is hard to believe Jasper the dachshund was unable to use his hind legs just two years ago.

Paralysed in an accident, he needed years of physiotherapy and a special trolley to get around.

But scientists conducting a study at Cambridge University have helped him walk again with a pioneering treatment that offers hope for human patients with spinal injuries.

Back on his feet: Jasper, the ten-year-old dachshund as he is now. Just two years ago, he could not use his hind legs

Breakthrough: Pet dogs left paralysed by spine damage have been able to walk again after pioneering cell treatment. This image shows Jasper the dog at the start of a trial with his rear legs limp and unusable

Better: After six months of treatment, Jasper's legs are seen walking almost normally. The treatment involves injecting cells from the dogs' nose into the injured part of their back

Injecting cells from the dogs nose into the injured part of his spine helped repair the damage. After the treatment, Jasper was able to move his previously paralysed hind legs and co-ordinate movement with his front limbs. The ten-year-old dog is now whizzing around unassisted and can also swim.

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Scientists reverse paralysis in dogs following pioneering stem cell treatment

Cure for Paralysis? Stem Cell Treatment Allows Crippled Dogs to Walk Again

Jasper could move his hind legs after 12 months treatment (Cambridge University)

Scientists have helped a group of paralysed dogs walk again after giving then stem cell injections - and the researchers hope the same treatment could work for humans.

The researchers applied the treatment to 23 dogs left unable to walk after suffering spinal injuries from accidents. Cells taken from the lining of the animals' noses were injected into their spines.

The injections enabled the dogs to move their previously paralysed hind legs on a treadmill, with the support of a harness.

May Hay, whose dachshund Jasper was part of the trial, said: "Before the trial, Jasper was unable to walk at all. When we took him out we used a sling for his back legs so that he could exercise the front ones.

"It was heartbreaking. But now we can't stop him whizzing round the house and he can even keep up with the two other dogs we own. It's utterly magic."

It is now hoped a similar treatment could be used for humans with spinal injuries. Professor Robin Franklin, one of the co-authors of the study at Cambridge University, said:

"Our findings are extremely exciting because they show for the first time that transplanting these types of cell into a severely damaged spinal cord can bring about significant improvement.

"We're confident that the technique might be able to restore at least a small amount of movement in human patients with spinal cord injuries but that's a long way from saying they might be able to regain all lost function.

"It's more likely that this procedure might one day be used as part of a combination of treatments, alongside drug and physical therapies, for example."

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Cure for Paralysis? Stem Cell Treatment Allows Crippled Dogs to Walk Again

Hair Loss PRP-Stem Cell Therapy-2 month comparison- Large.m4v – Video


Hair Loss PRP-Stem Cell Therapy-2 month comparison- Large.m4v
http://www.newininstitute.com.au PRP Therapy was chosen instead of a Hair Transplant to treat an area of hair loss in a female. 2 month comparison Before and After photos show a highly successful outcome. Note that continued hair growth will occur over the coming months. Another procedure will need to be performed at around the peak period: 12-18 months when growth begins to slow. Newin Institute has uniquely developed processes and protocols for PRP and Adipose Stem Cell Therapy.From:Rhett BosnichViews:0 0ratingsTime:00:55More inScience Technology

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Hair Loss PRP-Stem Cell Therapy-2 month comparison- Large.m4v - Video