Seattle Genetics Highlights Updated Survival Data from ADCETRIS® Pivotal Trial in Patients with Relapsed or Refractory …

BOTHELL, Wash.--(BUSINESS WIRE)--

Seattle Genetics, Inc. (SGEN) today announced updated survival data from a pivotal clinical trial of single-agent ADCETRIS (brentuximab vedotin) in patients with relapsed or refractory Hodgkin lymphoma (HL) after autologous stem cell transplant (ASCT) showing that the median overall survival has not been reached after a 26.5 month median follow-up. The data will be reported during an oral presentation at the 17th European Hematology Association (EHA) Annual Meeting being held June 14-17, 2012 in Amsterdam, Netherlands. ADCETRIS is an antibody-drug conjugate (ADC) directed to CD30.

Heavily pretreated Hodgkin lymphoma patients who relapse following autologous stem cell transplant often have a poor prognosis and there is a high unmet medical need for effective treatment options, said Scott Smith M.D., Ph.D., Loyola University Medical Center. These updated overall survival results from the pivotal trial are encouraging and demonstrate that ADCETRIS may play an important role in the treatment of patients with relapsed or refractory disease.

Long-term Follow-up Results of an Ongoing Pivotal Study of Brentuximab Vedotin in Patients with Relapsed or Refractory Hodgkin Lymphoma

A pivotal trial was conducted in 102 patients with relapsed or refractory HL after ASCT. The primary endpoint was objective response rate (ORR) per independent review. The secondary endpoints were complete remission (CR) rate, duration of response, progression-free survival (PFS), overall survival (OS), and safety and tolerability. At the time of the long-term follow-up analysis, the median observation time from first dose was 26.5months. Data, to be presented by Dr. Smith, include:

Patients received 1.8milligrams per kilogram of ADCETRIS every 3 weeks as a 30-minute outpatient intravenous infusion for up to 16cycles. Patients received a median of nine cycles of ADCETRIS while on trial. The median age of patients in the pivotal trial was 31 years. Enrolled patients had received a median of 3.5 (range 113) prior cancer-related systemic therapies, excluding ASCT. Seventy-one percent of patients had primary refractory disease, defined in the study protocol as patients who relapsed within three months of attaining CR or failed to achieve a CR, and 42 percent had not responded to their most recent prior therapy.

Details of the oral presentation are as follows:

About ADCETRIS

ADCETRIS (brentuximab vedotin) is an ADC comprising an anti-CD30 monoclonal antibody attached by a protease-cleavable linker to a microtubule disrupting agent, monomethyl auristatin E (MMAE), utilizing Seattle Genetics proprietary technology. The ADC employs a linker system that is designed to be stable in the bloodstream but to release MMAE upon internalization into CD30-expressing tumor cells.

ADCETRIS received accelerated approval from the U.S. Food and Drug Administration (FDA) for two indications: (1) the treatment of patients with Hodgkin lymphoma after failure of autologous stem cell transplant (ASCT) or after failure of at least two prior multi-agent chemotherapy regimens in patients who are not ASCT candidates, and (2) the treatment of patients with systemic anaplastic large cell lymphoma (sALCL) after failure of at least one prior multi-agent chemotherapy regimen. The indications for ADCETRIS are based on response rate. There are no data available demonstrating improvement in patient-reported outcomes or survival with ADCETRIS.

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Seattle Genetics Highlights Updated Survival Data from ADCETRIS® Pivotal Trial in Patients with Relapsed or Refractory ...

BrainStorm Receives 1.3 Million NIS Grant from Israel’s Office of the Chief Scientist

NEW YORK & PETACH TIKVAH, Israel--(BUSINESS WIRE)--

BrainStorm Cell Therapeutics Inc. (BCLI), a developer of adult stem cell therapeutics targeting Central Nervous System (CNS) neurodegenerative diseases, announced today that Brainstorm Cell Therapeutics Ltd. received the first installment of the 2012 grant from Israels Office of the Chief Scientist (OCS) in the amount of approximately $350,000. The yearly grant for 2012 is $1,100,000 (~4.2 M NIS). The grant is awarded to BrainStorms Research and Development program towards the development of its leading and innovative NurOwn therapy for ALS using autologous adult stem cells.

We are thankful to the OCS for its continued support of our Research and Development program. The non-dilutive capital that we are receiving from the OCS will help move forward our NurOwn technology as a potential new treatment standard for patients with Amyotrophic Lateral Sclerosis (ALS) and Multiple Sclerosis (MS), said Dr. Adrian Harel BrainStorms newly promoted CEO.

BrainStorm is in Phase I/II human clinical trials in Israel with NurOwn, BrainStorms adult stem cell therapy in patients with ALS (often referred to as Lou Gehrig's Disease). The study is conducted at the Hadassah Medical Center and is headed by principal investigator Dimitrios Karussis, M.D., Ph.D., of the Hadassah Medical Center, together with a scientific team from BrainStorm headed by Prof. Eldad Melamed. The initial phase of the study is designed to assess the safety of NurOwn. As previously announced by Brainstorm (see our press release of March 29, 2012) the interim results for the first 12 patients are expected by July 2012.

The OCS grant will enable BrainStorm to continue its clinical program and accelerate its development of new CNS indications, said Chaim Lebovits, President of Brainstorm. I would also like to take this opportunity to congratulate Dr. Adrian Harel on the occasion of his promotion by the Board of Directors as CEO of Brainstorm. Dr. Harel is successfully leading the company, together with the entire wonderful team at Brainstorm, to the next exciting phase of developing our NurOwn product to treat ALS and other neurodegenerative diseases," said Lebovits.

The OCS has supported BrainStorm Cell Therapeutics Ltd. the Israeli Subsidiary since 2007, providing grants of a total of $1.75 million including this grant. The Company is required to pay royalties to the OCS, amounting to 3% - 5% of revenues derived from sales of the products funded with these grants, but only up to the amount equal to 100% of the grants received.

About the Office of the Chief Scientist

The Office of the Chief Scientist [OCS] in the Ministry of Industry, Trade and Labor is charged with execution of government policy for support of industrial R&D. The goal of the OCS is to assist in the development of technology in Israel as a means of fostering economic growth, encouraging technological innovation and entrepreneurship, leveraging Israel's scientific potential, enhancing the knowledge base of industry in Israel, stimulating high value-added R&D and encouraging R&D collaboration both nationally and internationally.

About BrainStorm Cell Therapeutics, Inc.

BrainStorm Cell Therapeutics Inc. is a biotech company developing adult stem cell therapeutic products, derived from autologous (self) bone marrow cells, for the treatment of neurodegenerative diseases. Brainstorm, through its wholly owned subsidiary, holds rights to develop and commercialize the technology through an exclusive, worldwide licensing agreement with Ramot at Tel Aviv University Ltd., the technology transfer company of Tel-Aviv University. The technology is currently in a Phase I/II clinical trials for ALS.

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BrainStorm Receives 1.3 Million NIS Grant from Israel’s Office of the Chief Scientist

Osiris Receives Second Approval for Life-Saving Stem Cell Drug; Prochymal Granted Marketing Consent by New Zealand

COLUMBIA, Md.--(BUSINESS WIRE)--

Osiris Therapeutics, Inc. (OSIR), announced today it has received consent from New Zealand to market its first-in-class stem cell therapy Prochymal (remestemcel-L), for the treatment of acute graft-vs-host disease (GvHD) in children. With this decision New Zealand joins Canada, which last month became the worlds first internationally recognized regulatory authority to grant approval to a stem cell drug. Prochymal is also the first therapy approved for GvHD - a devastating complication of bone marrow transplantation that kills up to 80 percent of children affected, many within just weeks of diagnosis.

"With each of our approvals it becomes clearer that the time for life-saving stem cell therapies in the practice of medicine has arrived, and we are humbled to have a leading role, said C. Randal Mills, Ph.D., President and Chief Executive Officer of Osiris. I would like to thank the professionals at Medsafe for their thoughtful and expeditious review of this complex application. I would also like to thank the team at Osiris that continues to do an outstanding job of making Prochymal available to children around the world suffering from the devastating effects of GvHD."

Osiris submitted a New Medicine Application (NMA) to Medsafe(New Zealand's medical regulatory agency) in May of 2011, and was granted Priority Review in June of 2011. Priority review provides expedited review for new drugs which offer a significant clinical advantage over current treatment options. Prochymal was granted provisional consent under Section 23 of the Medicines Act 1981.

"The incidence of GvHD is likely to rise as the demographic profile of our transplant population evolves," said Hans Klingemann, M.D., Ph.D., a Professor of Medicine and the Director of the Bone Marrow & Hematopoietic Stem Cell Transplant Program at Tufts University School of Medicine. "Effective strategies to manage the often lethal consequences of GvHD reduce the overall risk to transplantation and provide the transplant physician with better options when approaching their most difficult cases.

Clinical trials have shown that Prochymal is able to induce an objective, clinically meaningful response in 61-64 percent of children with GvHD that is otherwise refractory to treatment. Furthermore, treatment response with Prochymal resulted in a statistically significant improvement in survival.

As a mother who watched my son Christian suffer and die from the horrifying effects of GvHD, while waiting for the regulatory approvals necessary to allow him access to Prochymal, words cannot express how happy I am that significant progress is finally being made, said Sandy Barker, President and Co-founder of the Gold Rush Cure Foundation. We are proud to stand side-by-side with Osiris in this historic battle for our children around the world. Our motto is 'not one more child, not one more family' and when it comes to GvHD mortality, zero is the only acceptable number.

Prochymal is now approved in Canada and New Zealand, and is currently available in seven other countries including the United States under an Expanded Access Program (EAP). It is expected that Prochymal will be commercially available in New Zealand later this year.

About GvHD

GvHD represents a major unmet medical need with no approved treatment until Prochymal. GvHD is the leading cause of transplant related mortality, in which immune cells contained within the transplanted marrow recognize the recipient as foreign and mount an immunologic attack. Severe GvHD can cause blistering of the skin, intestinal hemorrhage and liver failure. Severe GvHD is extremely painful and fatal in up to 80 percent of cases. Currently, steroids are used as first-line therapy with a success rate of only 30-50 percent. When steroids fail, treatment options are limited to immunosuppressive agents used off-label with little benefit and significant toxicities.

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Osiris Receives Second Approval for Life-Saving Stem Cell Drug; Prochymal Granted Marketing Consent by New Zealand

Stem cell stroke trial promising

14 June 2012 Last updated at 10:45 ET By Pallab Ghosh Science correspondent, BBC News

Doctors in Scotland have said five stroke patients involved in an experimental stem cell treatment have shown signs of slight improvement.

They have stressed that it is too soon to tell whether the improvement is due to the therapy.

The medical team has talked about the first results of the treatment at a conference in Japan.

The procedure is controversial as brain cells from a foetus were originally used to create the stem cells.

A team, from Glasgow's Southern General Hospital, has been injecting the stem cells into the brains of stroke patients.

The trial began in November 2010. The participants are all men over the age of 60 who have been severely disabled by a stroke and have shown no sign of improvement for at least a year.

We hope to tease out over the next 18 months whether the improvement is due to the treatment

The doctors hope that the treatment will repair their damaged brain tissue and restore some of their movement and ability to speak.

The trail is at an early stage, and doctors are primarily looking to see that the treatment is safe. But they have found that five of the six patients treated so far have shown some slight signs of improvement.

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Stem cell stroke trial promising

Stem cells 'help' stroke patients

14 June 2012 Last updated at 07:25 ET By Eleanor Bradford BBC Scotland Health Correspondent

The first patients to take part in a clinical trial of a stem cell treatment for stroke have seen reductions in their disability, according to doctors.

Six patients in the west of Scotland had human stem cells inserted close to the damaged part of their brain.

After receiving the treatment, they saw improvements in the limb weakness they suffered as a result of their stroke.

Howeve, doctors have cautioned against reading too much into the early results of the clinical trial.

It is the world's first trial of a neural stem cell therapy for stroke.

Stroke is the third largest cause of death and the single largest cause of adult disability in the developed world.

The trial is being conducted at the Institute of Neurological Sciences at the Southern General Hospital in Glasgow, and is being led by Glasgow University neurologist Professor Keith Muir.

He said: "So far we've seen no evidence of any harmful effects. We're dealing with a group of people a long time after a stroke with significant disability and we don't really expect these patients to show any change over time.

"So it's interesting to see that in all the patients so far they have improved slightly over the course of their involvement in the study."

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Stem cells 'help' stroke patients

The UFC's Supposed Testosterone Epidemic: Critics Living in the Past

Last year Peyton Manning flew to Europe on a private jet, not for tea and crumpets or to see the Louvre, but for an experimental stem-cell treatment on his injured neck.

The procedure, one that isn't even legal in the United States, allegedly took his own fat cells and used them to try to regrow damaged neck tissue:

"There are many proposed therapies that are being tested in clinical trials, and there are more to come," Dr. Lawrence Goldstein, director of the stem cell program at the University of California, San Diego, told ABC News. "But in the absence of reliable evidence, it is impossible to know whether the 'treatment' will make Manning better or worse or merely financially poorer."

TheNFL doesn't have any rules specifically banning illegal procedures that an athlete can have done in foreign locales. Kobe Bryant, the NBA's aging lion, had similarly cutting-edge treatment on his arthritic knee in Germany. It's called "Biologic Medicine,"and in addition to Bryant, super-agent Ari Emanueland the late Pope John Paul II were ardent believers.

There are a ton of controversial treatments possible where science collides with loose regulation. Bone marrow injections filled with those miracle-working stem cells can be injected into the body. Blood can be heated up, spun and spun in an incubator, the healing agents isolated and injected. The 34-year-old Bryant felt like a new man after first undergoing the procedure, like Manning's one not approved by the FDA:

He even recommended the treatment to Alex Rodriguez, which led the baseball star to undergo the same treatment on his knee late last year. Bryant hasn't commented publicly on the treatment, but A-Rod has described the feelings of his friend.

Bryant "was really adamant about how great the procedure was for him," Rodriguez told reporters."I know that he was hurting before, almost even thinking about retirement, that's how much pain he was under. And then he said after he went to Germany he felt like a 27-year-old again. I was still a little apprehensive about it, and he kept staying on me about it."

Athletes at the highest levels will do almost anything to maintain that edgeto feel younger, sprier and as explosive as they did in their primes. And with the right money and resources, they are extending their careers further than any of their predecessors would have dared dream. Is it any wonder athletes in mixed martial arts are doing the same?

Frank Mir on TRT

In that sport, some of the UFC's top aging stars have undergone Testosterone Replacement Therapy (TRT), looking to bring their bodies' natural level of testosterone back to the levels they enjoyed in their 20s. Top contenders like Dan Henderson (41), Chael Sonnen (35) and Frank Mir (33)have all undergone the procedure. Former middleweight champion Rich Franklin (37)is considering it.

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The UFC's Supposed Testosterone Epidemic: Critics Living in the Past

New Applications in Drug Discovery Platforms to Fuel Advance of Stem Cells, Says Frost & Sullivan

Ethical, Clinical and Commercial Issues to be Navigated before Full Potential of Stem Cell Therapies can be Unleashed

LONDON, June 13, 2012 /PRNewswire-Asia/ -- Stem cells offer exciting potential in regenerative medicine, and are likely to be widely used by mid-2017. Pharmaceutical, biotech and medical device companies are showing increased interest in stem cell research.

New analysis from Frost & Sullivan (http://www.pharma.frost.com), Analysis of the Stem Cell Markets-Unlocking the New Era in Therapeutics, finds that the market will be driven by stem cell applications in drug discovery platforms and by successful academia commercial company partnership models.

"The high attrition rates of potential drug candidates has piqued the interest of pharmaceutical and biotech industries in stem cell use during the drug discovery phase," notes Frost & Sullivan Consulting Analyst Vinod Jyothikumar. "Previously, animal cell lines, tumours, or genetic transformation have been the traditional platform for testing drug candidates; however, these 'abnormal' cells have significantly contributed to a lack of translation into clinical studies."

Many academic institutes and research centres are collaborating with biotechnology and pharmaceutical companies in stem cell research. This will provide impetus to the emergence of novel cell-based therapies.

Key challenges to market development relate to reimbursement, ethics and the complexity of clinical trials.

Securing reimbursement for stem cell therapeutic products is expected to be critical for commercial success. However, stem cell therapies are likely to be expensive. Insurers, therefore, may be unwilling to pay for the treatment. At the same time, patients are unlikely to be able to afford these treatments.

"The use of embryonic stem cells raises a host of thorny ethical, legal, and social issues," adds Jyothikumar. "As a result, market prices for various products may be affected."

Moreover, many research institutes are adopting policies promoting the ethical use of human embryonic tissues. Such policies are hindering the overall research process for several companies working in collaboration with these institutes.

"In addition to apprehensions about how many products will actually make it through human-based clinical trials, companies are also worried about which financial model can be applied to stem cell therapies," cautions Jyothikumar. "Possibly low return on investment (ROI) is also resulting in pharmaceutical companies adopting a cautious approach to stem cell therapeutics."

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New Applications in Drug Discovery Platforms to Fuel Advance of Stem Cells, Says Frost & Sullivan

Heart disease and stem-cell treatments: caught in a clinical stampede

A few years ago, concerns over these heart trials were voiced by a Norwegian professor, Harald Arnesen. He concluded in 2007 that they are not convincing and that one German team had achieved striking results only because the control group in its trial had done particularly badly. Prof Arnesen called for a moratorium on this kind of stem-cell therapy.

That still did not deter the clinicians. This January, another trial funded by the EU was announced the largest of all, with 3,000 heart-attack patients recruited from across Europe.

The idea behind the trials is straightforward. During a heart attack, a clogged blood vessel starves heart muscle of oxygen. Up to a billion heart muscle cells, called cardiomyocytes, can be damaged, and the body responds by replacing them with relatively inflexible scar tissue, which can lead to fatal heart failure. So why not implant stem cells that can grow into cardiomyocytes?

Stem cells, of course, come in many kinds: the embryonic variety have the potential to turn into all 200 cell types in the body. Adult stem cells, harvested from the patient, have a more limited repertoire: bone marrow stem cells generate blood cells, for example. So to claim, as was done in 2001, these bone marrow stem cells could turn into heart muscle was both surprising and exciting.

Analysis shows that, at best, the amount of blood pumped during a contraction of one heart chamber rose by 5 per cent after treatment. In a patient where heart efficiency has fallen to 30 per cent of normal, that could be significant but it is relatively meagre, none the less. And it turns out that this level of improvement results whatever the cells injected into the damaged muscle even if they have no prospect of forming cardiomyoctes.

Even the believers in the technique now agree that implanted cells exert a paracrine action, triggering a helpful inflammatory response or secreting chemicals that boost blood vessel formation. But were still waiting for convincing evidence that a patients lost heart muscle cells can be replaced.

Embryonic stem cells offer one route to that goal, though it is difficult to turn them into the right cell type reliably, and there are other risks, such as uncontrolled growths. Another option has come from work by Prof Richard Lee at the Harvard Stem Cell Institute, who has found that some adult stem cells can recruit other stem cells already in the heart to become cardiomyocytes.

Meanwhile, other fields of medicine that have seen more systematic research on stem cells are making real progress in using them for example, to treat Parkinsons, diabetes and macular degeneration. The lesson here is that, ultimately, it takes careful experiments, not belief, to make that huge leap from the laboratory to the hospital.

Roger Highfield is director of external affairs at the Science Museum Group

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Heart disease and stem-cell treatments: caught in a clinical stampede

Unusual 'altruistic' stem cell behavior with possible link to cancer identified

ScienceDaily (June 11, 2012) When most groups of mammalian cells are faced with a shortage of nutrients or oxygen, the phrase "every man for himself" is more apt than "all for one, one for all." Unlike colonies of bacteria, which often cooperate to thrive as a group, mammalian cells have never been observed to help one another out. But a new study led by a researcher at the Stanford University School of Medicine has shown that certain human embryonic stem cells, in times of stress, produce molecules that not only benefit themselves, but also help nearby cells survive.

"Altruism has been reported among bacterial populations and among humans and other animals, like monkeys and elephants," said Stanford postdoctoral scholar Bikul Das, MBBS, PhD. "But in mammalian cells -- at the cellular level -- the idea of altruism has never been described before." Das is the lead author of a paper, published online June 11 in Stem Cells, documenting altruistic behavior by human embryonic stem cells, or hESCs.

While altruism is generally thought of as a virtue, it can have a downside for hESCs: The altruistic cells appear to be more prone to accumulating mutations, a sign that they could lead to cancers. A better understanding of hESC altruism could provide new insights into cancer therapies, as well as improving scientists' ability to develop safe and effective stem cell treatments for other diseases.

The finding arose from Das' research into how hESCs react to low-oxygen environments, important because many cancerous tumors are low in oxygen. Embryonic stem cells have the capability to develop into many different cell types through a process called differentiation. Das found that when hESCs were placed for 24 hours in an environment with only one-tenth of a percent of oxygen (the air we breathe, by comparison, is almost 21 percent oxygen), free-radical molecules were generated that began causing internal damage in some cells. Ninety percent of the hESCs differentiated into other cell types or died, with only 10 percent maintaining their so-called "stemness," meaning they retained their ability to develop into any type of cell.

Das wanted to know what set these more hearty cells apart and so began sorting them based on what molecules they contained.

Das and his colleagues discovered that of the embryonic stem cells that had survived the oxygen deprivation, half had high levels of HIF2-alpha (a protein that turns up the production of antioxidant molecules) and low levels of p53 (a protein that normally encourages cells to die when they have too much DNA damage). These levels of HIF2-alpha and p53 are enough, Das showed, to keep the cells from differentiating by turning off cellular pathways typically involved in the process.

But the other half of the stem cells that had kept their "stemness" had relatively normal levels of HIF2-alpha and p53, he and his colleagues report in their paper. There was no clear explanation as to how they would remain undifferentiated without the help of high HIF2-alpha and low p53 -- unless the other cells were helping them out.

"When I saw this data, I began to suspect that maybe there was altruism going on," said Das.

To test the theory, Das and his colleagues at the University of Toronto, where he began the work as a graduate student, let the cells with high levels of HIF2-alpha and low levels of p53 soak in a cell culture medium for 24 hours. Then, he removed the cells and added the other half -- those that didn't have high HIF2-alpha and low p53. Sure enough, when the mixture was deprived of oxygen, the cells retained their stemness. Molecules in the liquid had some property that kept them from differentiating. The team discovered that the important molecule in the liquid is an antioxidant called glutathione.

Scientists had previously shown that when embryonic stem cells are under stress, levels of HIF2-alpha and p53 increase and most cells differentiate or die. What makes this study unusual is that Das and colleagues were able to isolate the altruistic cells that exhibit low levels of p53, which helps them to escape death or differentiation.

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Unusual 'altruistic' stem cell behavior with possible link to cancer identified

Fate Therapeutics And BD Biosciences Launch BD™ SMC4 To Improve Cellular Reprogramming And IPS Cell Culture Applications

SAN DIEGO, June 11, 2012 /PRNewswire/ --Fate Therapeutics, Inc. in collaboration with BD Biosciences, a segment of BD (Becton, Dickinson and Company), today announced the introduction of the first induced pluripotent stem cell (iPSC)-related product resulting from the collaboration between the two companies. BD SMC4 is a patent protected, pre-formulated cocktail of small molecules for improving cellular reprogramming efficiencies and for enabling single-cell passaging and flow cytometry sorting of iPSCs in feeder cell-free and other pluripotent cell culture systems.

"iPSCs have the potential to redefine the way medical research is conducted," said Dr. Charles Crespi, Vice President at BD Biosciences. "However, most current reprogramming technologies are inefficient, which slows research efforts. BD SMC4 is an exciting complement to the BD portfolio of stem cell technologies that can accelerate the pace of research, and, ultimately, drug development."

The collaboration between BD Biosciences and Fate Therapeutics seeks to provide life science researchers and the pharmaceutical community reliable access to advanced iPSC tools and technologies. These technologies are for use in human disease research, drug discovery and the manufacture of cell-based therapies. The identification of the small molecule additives, and their use in an industrial platform for iPSC generation and characterization was recently published in the journal, Scientific Reports (Valamehr et al Scientific Reports 2, Article number: 213, 2012).

"Our research focus has uncovered novel technologies to enable the commercial and industrial application of iPS cells," said Dr. Peter Flynn, Vice President of Biologic Therapeutics at Fate Therapeutics. "The BD SMC4 media additive was developed at Fate to enable our scientists to internally perform high-throughput generation, clonal selection, characterization and expansion of pluripotent cells, and we are excited to empower the stem cell research community with these important iPSC technologies through our collaboration with BD."

iPSC technology holds great promise for disease modeling, drug screening and toxicology testing as well as for autologous and allogeneic cell therapy. Building on the foundational work of its scientific founders, Drs. Rudolf Jaenisch and Sheng Ding, Fate Therapeutics is developing a suite of proprietary products and technologies to overcome the remaining technical hurdles for iPS cell integration into the therapeutic development process. Under the three-year collaboration, Fate and BD will co-develop certain stem cell products using Fate's award-winning iPSC technology platform, and BD will commercialize these stem cell products on a worldwide basis. The iPSC product platform of Fate Therapeutics is supported by foundational intellectual property including U.S. Patent No. 8,071,369, entitled "Compositions for Reprogramming Somatic Cells," which claims a composition comprising a somatic cell having an exogenous nucleic acid that encodes an Oct4 protein introduced into the cell.

About Fate Therapeutics, Inc. Fate Therapeutics is an innovative biotechnology company developing novel stem cell modulators (SCMs), biologic or small molecule compounds that guide cell fate, to treat patients with very few therapeutic options. Fate Therapeutics' lead clinical program, ProHema, consists of pharmacologically-enhanced hematopoietic stem cells (HSCs), designed to improve HSC support during the normal course of a stem cell transplant for the treatment of patients with hematologic malignancies. The Company is also advancing a robust pipeline of human recombinant proteins, each with novel mechanisms of action, for skeletal muscle, beta-islet cell, and post-ischemic tissue regeneration.Fate Therapeutics also applies its award-winning, proprietary induced pluripotent stem cell (iPSC) technology to offer a highly efficient platform to recapitulate human physiology for commercial scale drug discovery and therapeutic use. Fate Therapeutics is headquartered in San Diego, CA, with a subsidiary in Ottawa, Canada. For more information, please visit http://www.fatetherapeutics.com.

About BDBD is a leading global medical technology company that develops, manufactures and sells medical devices, instrument systems and reagents. The Company is dedicated to improving people's health throughout the world. BD is focused on improving drug delivery, enhancing the quality and speed of diagnosing infectious diseases and cancers, and advancing research, discovery and production of new drugs and vaccines. BD's capabilities are instrumental in combating many of the world's most pressing diseases. Founded in 1897 and headquartered in Franklin Lakes, New Jersey, BD employs approximately 29,000 associates in more than 50 countries throughout the world. The Company serves healthcare institutions, life science researchers, clinical laboratories, the pharmaceutical industry and the general public. For more information, please visit http://www.bd.com.

SOURCE Fate Therapeutics, Inc.

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Fate Therapeutics And BD Biosciences Launch BD™ SMC4 To Improve Cellular Reprogramming And IPS Cell Culture Applications