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Enriched Skim Milk Good for Gout, Study Suggests

July 1st, 2012 3:54 pm

(HealthDay News) -- If you have gout, drinking enriched skim milk may help reduce the frequency of painful flare-ups, new research suggests.

The new study included 120 patients who had experienced at least two flare-ups in the previous four months. They were divided into three treatment groups that consumed either lactose powder, skim milk powder or skim milk powder enriched with glycomacropeptide (GMP) and G600 milk fat extract (G600).

Gout, a common form of arthritis, is caused by uric acid buildup in blood. Often, the big toe is the first place where gout strikes. Previous research has shown a higher risk for gout among people who consume fewer dairy products, and earlier work suggested that GMP and G600 tone down the inflammatory response to gout crystals.

The powders were mixed in roughly 8 ounces of water as a vanilla-flavored shake and consumed once a day. The patients recorded their flare-ups and went to a rheumatology clinic once a month. Read more…

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Aging: Stem Cells, long Lived Proteins, Cell Programming, Gene Expression – Video

July 1st, 2012 10:17 am

29-06-2012 21:29 Stem Cells, long Lived Proteins, Cell Programming, Gene Expression Aging genetic gerontology Sirtuin genes Sir2 cell repair Resveratrol telomerase

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Researcher hunts for sickle cell anemia cure with gene targeting, stem cells

June 30th, 2012 11:10 pm

Halfway around the world in India, Sivaprakash Ramalingam had heard of Johns Hopkins researchers using a promising new technique for gene therapy that he hoped to integrate with stem cells to cure diseases.

After getting a doctorate in biochemistry in his native country, he came to Baltimore four years ago to study under the technique's pioneer, Srinivasan Chandrasegaran, at Hopkins' Bloomberg School of Public Health. Ramalingam's research has led him down the path of seeking a cure for sickle cell anemia, a painful, life-shortening blood disorder that afflicts many in his home region in southern India. In the United States, the disease affects 70,000-100,000 people, mostly African-Americans, according to the National Heart Lung and Blood Institute.

"I couldn't have done this type of research in India," said Ramalingam. "I wanted to use this technique with stem cells to treat disease."

Ramalingam's research was given a lift last month by the state. He was one of 17 researchers who was funded by the Maryland Stem Cell Research Commission, a state entity that has doled out roughly $10 million to $12 million a year in taxpayer funds since its founding in 2006.

The program helps keep Maryland competitive in stem cell research when other states have instituted similar ones to lure scientists and biotechnology companies. More than 100 researchers applied for funding from the program, many from Johns Hopkins and the University of Maryland.

"There's definitely a great demand for the awards," said Dan Gincel, the commission's director. "We're trying to figure out how to fund so many researchers."

Gincel said Ramalingam's work is interesting because his approach could have applications beyond sickle cell anemia. It could be used to treat other diseases and, for instance, modify plants and crops to make them resistant to pests.

Ramalingam received a $110,000 award two years ago from the commission to help fund his post-doctoral fellowship; the commission invested more money in his work this year because he was continuing to progress with it, Gincel said.

"The approach can be translated to many other diseases, which is what we want to see with stem cells," said Gincel.

Ramalingam is applying a relatively new technique called zinc finger nuclease, or ZFN, to try to cure sickle cell anemia. With ZFN, Ramalingam is able to target and replace specific, problem-causing sequences of the human genome with healthier genetic material.

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New Properties of Stem Cells via Simulated Microgravity

June 30th, 2012 12:17 am

Newswise A recent study led by Andrew Puca, Ph.D. under the supervision and direction of Antonio Giordano, M.D., Ph.D. set out to illustrate novel mechanical transduction properties of Hematopoietic Stem Cells in relation to defining the expression of humoral factors by facilitating paracrine/autocrine signalling via microgravity.

Dr. Puca, lead author of the study, says The goal ultimately was modulating intracellular trafficking of tyrosine kinase receptors, cellular proteins directly involved in vasculogenesis, in the context of cell and tissue morphogenesis, ultimately emphasizing the properties of mechanical loading via simulated microgravity and its effects on hematopoietic stem cell (HSPC) growth. These mechanisms are vital to understanding the cooperative relationship between cells and their surrounding microenvironment. Understanding the expression of these angiogenic triggers will prove to be the cornerstone of bioengineering and the mechanistic machinery that induces tissue regeneration. Our studies indicate that living cells are literally hard-wired so that they can filter the same set of chemical inputs to produce different functional out-puts and this mechanism is largely controlled mechanically, said Dr. Puca, a Postdoctoral Fellow at the Sbarro Institute for Cancer Research and Molecular Medicine located at Temple University in Philadelphia, PA.

Our data show how cooperation and competition between extrinsic micro environmental chemical signaling (biochemical) and physiological stresses (bio-mechanical) may be the new frontier in delineating processes in stem cell differentiation and improving techniques in tissue engineering as well as provide a new a model for the development of innovative culture techniques for cell transplant based therapies, says Antonio Giordano, M.D., Ph.D., Director of the Sbarro Institute for Cancer Research and Molecular Medicine and Center for Biotechnology at Temple University, and President of the Sbarro Health Research Organization, Inc.

This study was accepted for publication in Oncotarget in May 2012; the article is already available online.

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Skin Cells Create Stem Cells In Huntington Disease Study

June 30th, 2012 12:17 am

June 29, 2012

Connie K. Ho for redOrbit.com Your Universe Online

In 1993, the autosomal dominant gene mutation responsible for Huntingtons Disease (HD) was discovered. However, no treatments are known to slow its progression. New research may pave the way to better understanding of the disease. Researchers at Johns Hopkins recently announced that they were able to produce stem cells from skin cells from a person who had severe, early-onset form of HD; the cells were then changed into neurons that degenerated like the cells affected by HD.

The research was recently published in the journal Cell Stem Cell. The investigators worked with an international consortium in creating HD in a dish. The group was made up of scientists from Johns Hopkins University School of Medicine, Cedars-Sinai Medical Center, the University of California at Irvine, as well as six other groups. The team looked at many other HD cell lines and control cell lines to verify that the results were consistent and reproducible in other labs. The investigators believe that the findings allow them to better understand and eliminate cells in people in with HD. They hope to study the effects of possible drug treatments on cells that would be otherwise found deep in the brain.

Having these cells will allow us to screen for therapeutics in a way we havent been able to before in Huntingtons disease, remarked lead researcher Dr. Christopher A. Ross, a professor of psychiatry and behavioral sciences, neurology, pharmacology and neuroscience at the Johns Hopkins University School of Medicine, in a prepared statement. For the first time, we will be able to study how drugs work on human HD neurons and hopefully take those findings directly to the clinic.

The team of researchers is studying small molecules for the ability to block HD iPSC degeneration to see if they can be developed into new drugs for HD. As well, the ability to produce from stem cells the same neurons found in HD may have effects for similar research in other neurodegenerative diseases like Alzheimers and Parkinsons. In the experiment, Ross took a skin biopsy from a patient with very early onset HD. The patient was seven years old at the time, with a severe form of disease and a mutation that caused it. By using cells from a patient who had quickly progressing HD, Ross team were able to mimic HD in a way that could be used by patients who had different forms of HD.

The skin cells were grown in culture and reprogrammed to induce stem cells that were pluripotent. Then, another cell line was created in the same way from someone who didnt have HD. The other HD and control iPS cells were produced as part of the NINDS funded HD iPS cell consortium. Investigators from Johns Hopkins and the other consortium labs changed the cells into typical neurons and then into medium spiny neurons. The process took a total of three months and the scientists found the medium spiny neurons from the HD cells acted how the medium spiny neurons form an HD patient would. The cells demonstrated quick degeneration when cultured in the lab with a basic culture medium that didnt include extensive supporting nutrients. On the other hand, control cell lines didnt demonstrate neuronal degeneration.

These HD cells acted just as we were hoping, says Ross, director of the Baltimore Huntingtons Disease Center. A lot of people said, Youll never be able to get a model in a dish of a human neurodegenerative disease like this. Now, we have them where we can really study and manipulate them, and try to cure them of this horrible disease. The fact that we are able to do this at all still amazes us.

Source: Connie K. Ho for redOrbit.com Your Universe Online

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Stem Cells From Muscular Dystrophy Patients Transplanted Into Mice

June 30th, 2012 12:17 am

Editor's Choice Main Category: Muscular Dystrophy / ALS Also Included In: Transplants / Organ Donations Article Date: 29 Jun 2012 - 11:00 PDT

Current ratings for: Stem Cells From Muscular Dystrophy Patients Transplanted Into Mice

A new study published in Science Translational Medicine reveals that researchers have, for the first time, managed to turn fibroblast cells, i.e. common cells within connective tissue, from muscular dystrophy patients into stem cells and subsequently changed these cells into muscle precursor cells. After modifying the muscle precursor cells genetically, the researchers transplanted them into mice.

In future, this new technique could be used in order to treat patients with the rare condition of limb-girdle muscular dystrophy, which primarily affects the shoulders and hips, and maybe other types of muscular dystrophies. The method was initially developed in Milan at the San Raffaele Scientific Institute and was completed at UCL.

Muscular dystrophy is a genetic disorder, which typically affects skeletal muscles. The condition leads to severely impaired mobility and can, in severe cases result in respiratory and cardiac dysfunction. At present, there is no effective treatment for the condition. A number of new potential therapies, including cell therapy, are entering clinical trials.

The scientists of this study concentrated their research on genetically modifying mesoangioblasts, i.e. a self-renewing cell that originates from the dorsal aorta and differentiates into most mesodermal tissues, which demonstrated its potential for treating muscular dystrophy in earlier studies.

Given that the muscles of patients with muscular dystrophy are depleted of mesonangioblasts, the researchers were unable to obtain sufficient numbers of these cells from patients with limb-girdle muscular dystrophy, and therefore "reprogrammed" adult cells from these patients into stem cells, which enabled them to prompt them to differentiate into mesoangioblast-like cells.The team then genetically corrected these 'progenitor' cells by using a viral vector, and injected them into mice with muscular dystrophy so that the cells targeted damaged muscle fibers.

In a mice study, the same process demonstrated that dystrophic mice were able to run on a treadmill for longer a longer time than dystrophic mice that did not receive the cells.

Research leader, Dr Francesco Saverio Tedesco, from UCL Cell & Developmental Biology, who led the study, explained:

Professor Giulio Cossu, also an author at UCL, concluded:

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Research and Markets: Handbook of Stem Cells, Two-Volume Set. Edition No. 2

June 30th, 2012 12:17 am

DUBLIN--(BUSINESS WIRE)--

Research and Markets (http://www.researchandmarkets.com/research/4ghhzd/handbook_of_stem_c) has announced the addition of Elsevier Science and Technology's new report "Handbook of Stem Cells, Two-Volume Set. Edition No. 2" to their offering.

New discoveries in the field of stem cells increasingly dominate the news and scientific literature revealing an avalanche of new knowledge and research tools that are producing therapies for cancer, heart disease, diabetes, and a wide variety of other diseases that afflict humanity. The Handbook of Stem Cells integrates this exciting area of life science, combining in two volumes the requisites for a general understanding of adult and embryonic stem cells. Organized in two volumes entitled Pluripotent Stem Cells & Cell Biology and Adult & Fetal Stem Cells, this work contains contributions from the world's experts in stem cell research to provide a description of the tools, methods, and experimental protocols needed to study and characterize stem cells and progenitor populations as well as a the latest information of what is known about each specific organ system.

- Provides comprehensive coverage on this highly topical subject

- Contains contributions by the foremost authorities and premiere names in the field of stem cell research

- Companion website contains over 250 color figures in presentation format

For more information visit http://www.researchandmarkets.com/research/4ghhzd/handbook_of_stem_c

Source: Elsevier Science and Technology

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Former Auburn coach getting stem cell treatments for Lou Gehrig's disease

June 30th, 2012 12:15 am

MOBILE, Alabama -- The Baldwin County doctor that treated former Alabama football players with adult stem cells also has treated at least two people diagnosed with amyotrophic lateral sclerosis, also known as Lou Gehrigs disease.

One of the ALS patients, former NFL football player and college coach Frank Orgel, recently underwent a new stem cell reprogramming technique performed by Dr. Jason R. Williams at Precision StemCell in Gulf Shores.

Before the injections, Orgels health had declined. He could not move his left arm or leg. He couldnt walk or stand on his own, he said.

Within a few days of having the stem cell treatment, Orgels constant muscle twitching diminished, said Bob Hubbard, director of stem cell therapy at the practice. Within weeks, he was able to walk in a pool of water and stand unassisted.

I think its helped me, said Orgel, who was a defensive coordinator at Auburn under former head coach Pat Dye. Im walking in the pool and I used to drag my feet. Now my left leg is picking up.

ALS is a progressive neuro-degenerative disease that affects nerve cells in the brain and the spinal cord. The progressive degeneration of the motor neurons in ALS eventually leads to death, according to the ALS Association.

Stem cells, sometimes called the bodys master cells, are precursor cells that develop into blood, bones and organs, according to the U.S. Food and Drug Administration, which regulates their use. Their promise in medicine, according to many scientists and doctors, is that the cells have the potential to help and regenerate other cells.

While Williams treatments are considered investigational, he has said, they meet FDA guidelines because the stem cells are collected from a patients fat tissue and administered back to that patient during the same procedure.

Orgel, 74, said Williams told him it would take between eight months to a year for his nerves to regrow. He is traveling to Gulf Shores from his home in Albany, Ga., this weekend for another stem cell treatment, Orgel said: I need to get to where I can walk.

In recent years, Orgel has gone to Mexico at least three times for different types of treatments, not sanctioned in the U.S. At least once, he said, he had placenta cells injected into his body. That didnt work, Orgel said. I didnt feel any better.

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Former Auburn coach getting stem cell treatments for Lou Gehrig's disease

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Former Auburn coach getting stem cell treatments for Lou Gehrig’s disease

June 29th, 2012 11:21 pm

MOBILE, Alabama -- The Baldwin County doctor that treated former Alabama football players with adult stem cells also has treated at least two people diagnosed with amyotrophic lateral sclerosis, also known as Lou Gehrigs disease.

One of the ALS patients, former NFL football player and college coach Frank Orgel, recently underwent a new stem cell reprogramming technique performed by Dr. Jason R. Williams at Precision StemCell in Gulf Shores.

Before the injections, Orgels health had declined. He could not move his left arm or leg. He couldnt walk or stand on his own, he said.

Within a few days of having the stem cell treatment, Orgels constant muscle twitching diminished, said Bob Hubbard, director of stem cell therapy at the practice. Within weeks, he was able to walk in a pool of water and stand unassisted.

I think its helped me, said Orgel, who was a defensive coordinator at Auburn under former head coach Pat Dye. Im walking in the pool and I used to drag my feet. Now my left leg is picking up.

ALS is a progressive neuro-degenerative disease that affects nerve cells in the brain and the spinal cord. The progressive degeneration of the motor neurons in ALS eventually leads to death, according to the ALS Association.

Stem cells, sometimes called the bodys master cells, are precursor cells that develop into blood, bones and organs, according to the U.S. Food and Drug Administration, which regulates their use. Their promise in medicine, according to many scientists and doctors, is that the cells have the potential to help and regenerate other cells.

While Williams treatments are considered investigational, he has said, they meet FDA guidelines because the stem cells are collected from a patients fat tissue and administered back to that patient during the same procedure.

Orgel, 74, said Williams told him it would take between eight months to a year for his nerves to regrow. He is traveling to Gulf Shores from his home in Albany, Ga., this weekend for another stem cell treatment, Orgel said: I need to get to where I can walk.

In recent years, Orgel has gone to Mexico at least three times for different types of treatments, not sanctioned in the U.S. At least once, he said, he had placenta cells injected into his body. That didnt work, Orgel said. I didnt feel any better.

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Cell Press journals continue to deliver high impact

June 29th, 2012 11:21 pm

Public release date: 29-Jun-2012 [ | E-mail | Share ]

Contact: Elisabeth (Lisa) Lyons elyons@cell.com 617-386-2121 Cell Press

Latest annual citation reports confirm Cell Press delivers highly valued, highly cited research and reviews to the scientific community it serves

We are delighted to report that the new impact factors align with community perception and confirm that Cell Press continues to publish the highest impact research and reviews in the biomedical sciences, according to the latest Journal Citation Reports published by Thomas Reuters.

Cell Press's flagship journal Cell received an impressive impact factor of 32.403. Showing strong and steady growth, Cell's impact factor has increased by 9% since 2005, maintaining its status as the premier research journal in its field. Cell is currently ranked the number one research journal in the 'Cell Biology' and 'Biochemistry & Molecular Biology' categories.

Over 70% of journals within the Trends review journal series increased in impact factor this year, with significant growth across several life science disciplines. Top performers include Trends in Cognitive Science, which increased by 30% to 12.586, Trends in Immunology, which grew 9% to 10.403, and Trends in Ecology and Evolution, which rose 9% to 15.748. Published by Cell Press since 2007, Trends journals offer the unparalleled level of in-house editorial expertise that exists within all of the Cell Press journals, with the support of committed and enthusiastic editorial boards and an extensive range of fair and knowledgeable reviewers.

The substantial increase for Trends in Cognitive Sciences is also reflected in the other Cell Press neuroscience journals. Neuron, which has been publishing leading neuroscience research and reviews since 1988, increased by 5% to 14.736, and Trends in Neurosciences is up from 13.320 to 14.235.

"We are very pleased to see the scientific community's response to the work published in Cell Press journals. We are grateful to the authors who entrust their best work to us and to the reviewers who provide invaluable advice and guidance," said Emilie Marcus, Editor-in-Chief and CEO of Cell Press. "Cell Press editors work hard to maintain the high editorial standards expected of them by our authors and readers, and understand the importance of engaging with, and being accessible to, the life science research community which we are all proud to be a part of."

Cell Press's more recent journal launches, aimed at expanding our scope into translational biomedical areas, continue to maintain their influence within the scientific community. Launched in 2007, Cell Stem Cell has an impact factor of 25.421 and has been named a "Rising Star" in the field of Clinical Medicine by Thomson Reuters. This means that, in 2011, Cell Stem Cell had the highest percentage growth in citations in its field. Celebrating a decade of high impact publication in 2012, Cancer Cell has a well established impact factor of 26.566.

The 2011 Journal Citation Reports ranks the Cell Press journals' impact factors as follows:

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Ipo 8 weeks after stem cell therapy at Surf Paws Animal Hospital – Video

June 29th, 2012 11:21 pm

28-06-2012 13:54 About 5 months ago, she came home from the beach with my husband limping on her right back leg. Now 8 weeks later after stem cell therapy... we were happy (well, maybe not so much...) to see her back to her old, wild, hyper self again.

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Stem Cell Therapy | Producers Direct | Kansas City, Missouri – Video

June 29th, 2012 11:21 pm

28-06-2012 14:46

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Gazette.Net: Rockville biotech tests stem cells for depression

June 29th, 2012 1:16 pm

Neuralstem, the Rockville company thats developing a stem cell treatment for patients with amyotrophic lateral sclerosis, has begun testing the safety of its treatment for major depressive disorder.

The compound, NSI-189, stimulates new neuron growth in the brain's hippocampus region, which scientists think is involved in depression and other conditions, including Alzheimer's disease, anxiety and post-traumatic stress disorder, according to a company statement. The phase 1b study involves 24 depressed patients and is expected to run six months.

"We believe it could help patients who suffer from depression via a new mechanism that does not seek to modulate brain chemistry, but rather stimulates new neuron growth in the hippocampus and increases hippocampal volume, thereby potentially addressing the problem at the source," Karl Johe, Neuralstem's chief scientific officer, said in the statement.

The company has researched hippocampal stem cell lines since 2000 and in 2009 won U.S. patents for four chemical entities that generate new neurons. In studies, NSI-189 stimulated such growth in mice.

In other Maryland bioscience industry news:

Supernus Pharmaceuticals has received tentative marketing approval from the Food and Drug Administration for its once-daily, extended release version of an epilepsy treatment.

The FDA said it has completed its review of Trokendi XR and no more clinical trials are required. Final approval hinges on resolving a marketing exclusivity issue that involves a specific pediatric population, according to the FDA's letter to Supernus.

Trokendi XR is an extended-release version of topimarate, which is marketed as Topamax by Janssen Pharmaceuticals of Titusville, N.J., to treat seizures and migraine headaches.

"We will continue to work closely with the FDA to further understand the outstanding issue and move forward towards final approval," CEO Jack Khattar said in the statement.

Supernus, which went public this year, also said the FDA denied a petition filed in 2011 by Upsher Smith Laboratories related to its Trokendi XR application.

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Medistem Receives Notice of Patent Allowance Covering Fat Stem Cell Therapy of Autoimmune Diseases

June 29th, 2012 1:13 pm

SAN DIEGO CA--(Marketwire -06/29/12)- Medistem Inc. (MEDS) announced today notice of allowance from the United States Patent and Trademark Office (USPTO) for a patent covering the use of fat stem cells, and cells associated with fat stem cells for treatment of diseases related to a dysfunctional immune system. Such diseases include multiple sclerosis, Type 1 diabetes, rheumatoid arthritis and lupus. The allowed patent, entitled "Stem Cell Mediated Treg Activation/Expansion for Therapeutic Immune Modulation" has the earliest priority date of December 2006.

"We have previously published that giving multiple sclerosis patients cells extracted from their own fat tissue, which contains stem cells, appears to confer clinical benefit in a pilot study," said Thomas Ichim, CEO of Medistem. "The current patent that has been allowed, in the broadest interpretation of the claims, gives us exclusive rights to the use of specific types of fat stem cell therapy for autoimmune diseases such as multiple sclerosis."

Subsequent to the filing of the patent application, Medistem together with collaborators at the Lawson Health Sciences Research Institute, Canada, reported data that fat tissue contains high numbers of T regulatory cells, a type of immune cell that is capable of controlling autoimmunity.

This finding was independently confirmed by Dr. Diane Mathis' laboratory at Harvard University, who published a paper in the prestigious journal, Nature Medicine, in which detailed experimental evidence was provided supporting the initial finding that adipose tissue contains high numbers of T regulatory cells. A video describing the paper can be accessed at http://www.youtube.com/watch?v=rEJfGu29Rg8.

The current patent discloses the use of T regulatory cells from fat, combinations with stem cells, and use of fat-derived mononuclear cells. Given that there are currently several groups utilizing this technology in the USA in treating patients, Medistem believes revenue can be generated through enforcement of patent rights.

"Our corporate philosophy has been to remain highly focused on our ongoing clinical stage programs using Medistem's universal donor stem cell, the Endometrial Regenerative Cell (ERC), in the treatment of critical limb ischemia and congestive heart failure," said Dr. Vladimir Bogin, Chairman and President of Medistem. "However, due to the ease of implementation of our fat stem cell technology, combined with the major burden that autoimmune diseases have on our health care system, we are highly incentivized to explore partnering, co-development and licensing opportunities."

Autoimmune conditions occur as a result of the body's immune system "turning on itself" and attacking its own organs or cells. Current treatments for autoimmune conditions are based on "globally" suppressing the immune system by administration of immunosuppressive drugs. This is associated with an increased predisposition to infections and significant side effects. The utilization of stem cells and T regulatory cells offers the potential to selectively suppress pathological immunity while preserving the ability of the body to fight bacteria and viruses. According to the NIH there are approximately 23 million victims of autoimmune conditions.

Links to Documents:

Link to peer-reviewed publication: http://www.translational-medicine.com/content/pdf/1479-5876-7-29.pdf

Link: http://www.marketwire.com/press-release/medistem-files-patent-application-on-therapeutic-cell-population-found-in-fat-tissue-frankfurt-s2u-812298.htm

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Medistem Receives Notice of Patent Allowance Covering Fat Stem Cell Therapy of Autoimmune Diseases

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Stem Cell Therapy – Healthier Looking Skin ,Promote Younger, Reduce Wrinkles – Video

June 29th, 2012 12:12 pm

28-06-2012 09:19 Stem Cell Therapy More Info: Stem Cell Therapy -- Reduce Wrinkles,Promote Younger, Healthier Looking Skin * Increase production of new skin cells by 57% * Re-activate stem cells to stimulate fresh, new skin cell production * Increase natural collagen production by 80% * Decrease wrinkle appearance 56% in 30 days * Increase elastin synthesis by 61% Stem Cell Therapy, Stem Cell Skin Cream, Stem Cell Therapy BioLogic Solutions, Wrinkle Reducer, Decrease Wrinkles,Vanish Wrinkles Feel Younger, Aging Cream, Younger Looking Skin, No More Botox,antiaging,antiaging cream,botox alternative,

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Medistem Receives Notice of Patent Allowance Covering Fat Stem Cell Therapy of Autoimmune Diseases

June 29th, 2012 12:12 pm

SAN DIEGO CA--(Marketwire -06/29/12)- Medistem Inc. (MEDS) announced today notice of allowance from the United States Patent and Trademark Office (USPTO) for a patent covering the use of fat stem cells, and cells associated with fat stem cells for treatment of diseases related to a dysfunctional immune system. Such diseases include multiple sclerosis, Type 1 diabetes, rheumatoid arthritis and lupus. The allowed patent, entitled "Stem Cell Mediated Treg Activation/Expansion for Therapeutic Immune Modulation" has the earliest priority date of December 2006.

"We have previously published that giving multiple sclerosis patients cells extracted from their own fat tissue, which contains stem cells, appears to confer clinical benefit in a pilot study," said Thomas Ichim, CEO of Medistem. "The current patent that has been allowed, in the broadest interpretation of the claims, gives us exclusive rights to the use of specific types of fat stem cell therapy for autoimmune diseases such as multiple sclerosis."

Subsequent to the filing of the patent application, Medistem together with collaborators at the Lawson Health Sciences Research Institute, Canada, reported data that fat tissue contains high numbers of T regulatory cells, a type of immune cell that is capable of controlling autoimmunity.

This finding was independently confirmed by Dr. Diane Mathis' laboratory at Harvard University, who published a paper in the prestigious journal, Nature Medicine, in which detailed experimental evidence was provided supporting the initial finding that adipose tissue contains high numbers of T regulatory cells. A video describing the paper can be accessed at http://www.youtube.com/watch?v=rEJfGu29Rg8.

The current patent discloses the use of T regulatory cells from fat, combinations with stem cells, and use of fat-derived mononuclear cells. Given that there are currently several groups utilizing this technology in the USA in treating patients, Medistem believes revenue can be generated through enforcement of patent rights.

"Our corporate philosophy has been to remain highly focused on our ongoing clinical stage programs using Medistem's universal donor stem cell, the Endometrial Regenerative Cell (ERC), in the treatment of critical limb ischemia and congestive heart failure," said Dr. Vladimir Bogin, Chairman and President of Medistem. "However, due to the ease of implementation of our fat stem cell technology, combined with the major burden that autoimmune diseases have on our health care system, we are highly incentivized to explore partnering, co-development and licensing opportunities."

Autoimmune conditions occur as a result of the body's immune system "turning on itself" and attacking its own organs or cells. Current treatments for autoimmune conditions are based on "globally" suppressing the immune system by administration of immunosuppressive drugs. This is associated with an increased predisposition to infections and significant side effects. The utilization of stem cells and T regulatory cells offers the potential to selectively suppress pathological immunity while preserving the ability of the body to fight bacteria and viruses. According to the NIH there are approximately 23 million victims of autoimmune conditions.

Links to Documents:

Link to peer-reviewed publication: http://www.translational-medicine.com/content/pdf/1479-5876-7-29.pdf

Link: http://www.marketwire.com/press-release/medistem-files-patent-application-on-therapeutic-cell-population-found-in-fat-tissue-frankfurt-s2u-812298.htm

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Disease fight: turning skin cells to neurons

June 29th, 2012 12:14 am

Disease fight: turning skin cells to neurons June 28th, 2012, 4:04 pm posted by Pat Brennan, science, environment editor

UC Irvine professor Leslie Thompson, with human brain image behind her. Photo by Daniel A. Anderson, UC Irvine.

Using stem cells derived from skin cells, scientists including a UC Irvine team say they have created human neurons that exhibit the effects of Huntingtons disease promising the possibility of testing treatments for the deadly disorder in a petri dish.

Their discovery not only sidesteps ethical issues surrounding the use of human embryonic stem cells, but offers the chance to produce far more diseased neurons, at various stages of disease progression, than ever have been available to researchers before.

This is a relatively new technique where you can reprogram an adult cell, in this case a skin cell, back to this early stem-cell stage, and then guide those into making neurons, said Leslie Thompson, a UC Irvine professor and a senior author of a study announcing the discovery that was published online Thursday.

Huntingtons disease is an inherited, neurodegenerative disorder that is always fatal. It typically strikes in middle age, gradually robbing its victims of the ability to walk and interfering with other basic brain functions.

Huntington's disease cells on their way to becoming neurons. Image courtesy Leslie Thompson, UC Irvine.

Its like Parkinsons in that its a movement disorder in this case, involuntary movements, and rigidity, Thompson said. You know what is going on, but parts of memory are being impaired; you have an impaired ability to walk, think, talk.

Victims typically die of the diseases effects falling, or choking during pneumonia and some especially severe mutations can strike young children. The disease affects about 30,000 people in the United States, and no treatments exist even to slow the onset of symptoms.

The scientists, including UCIs Leslie Lock and Peter Donovan, director of the Sue and Bill Gross Stem Cell Research Center, as well as others from universities around the country and in Italy and Great Britain, used a variety of cell lines to reveal the genetic underpinnings of Huntingtons.

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Turning skin cells into brain cells: Huntington's disease in a dish

June 29th, 2012 12:14 am

ScienceDaily (June 28, 2012) Johns Hopkins researchers, working with an international consortium, say they have generated stem cells from skin cells from a person with a severe, early-onset form of Huntington's disease (HD), and turned them into neurons that degenerate just like those affected by the fatal inherited disorder.

By creating "HD in a dish," the researchers say they have taken a major step forward in efforts to better understand what disables and kills the cells in people with HD, and to test the effects of potential drug therapies on cells that are otherwise locked deep in the brain.

Although the autosomal dominant gene mutation responsible for HD was identified in 1993, there is no cure. No treatments are available even to slow its progression.

The research, published in the journal Cell Stem Cell, is the work of a Huntington's Disease iPSC Consortium, including scientists from the Johns Hopkins University School of Medicine in Baltimore, Cedars-Sinai Medical Center in Los Angeles and the University of California, Irvine, as well as six other groups. The consortium studied several other HD cell lines and control cell lines in order to make sure results were consistent and reproducible in different labs.

The general midlife onset and progressive brain damage of HD are especially cruel, slowly causing jerky, twitch-like movements, lack of muscle control, psychiatric disorders and dementia, and -- eventually -- death. In some cases (as in the patient who donated the material for the cells made at Johns Hopkins), the disease can strike earlier, even in childhood.

"Having these cells will allow us to screen for therapeutics in a way we haven't been able to before in Huntington's disease," saysChristopher A. Ross, M.D., Ph.D., a professor of psychiatry and behavioral sciences, neurology, pharmacology and neuroscience at the Johns Hopkins University School of Medicine and one of the study's lead researchers. "For the first time, we will be able to study how drugs work on human HD neurons and hopefully take those findings directly to the clinic."

Ross and his team, as well as other collaborators at Johns Hopkins and Emory University, are already testing small molecules for the ability to block HD iPSC degeneration.These small molecules have the potential to be developed into novel drugs for HD.

The ability to generate from stem cells the same neurons found in Huntington's disease may also have implications for similar research in other neurodegenerative diseases such as Alzheimer's and Parkinson's.

To conduct their experiment, Ross took a skin biopsy from a patient with very early onset HD.When seen by Ross at the HD Center at Hopkins, the patient was just seven years old. She had a very severe form of the disease, which rarely appears in childhood, and of the mutation that causes it. Using cells from a patient with a more rapidly progressing form of the disease gave Ross' team the best tools with which to replicate HD in a way that is applicable to patients with all forms of HD.

Her skin cells were grown in culture and then reprogrammed by the lab of Hongjun Song, Ph.D., a professor at Johns Hopkins' Institute for Cell Engineering, into induced pluripotent stem cells. A second cell line was generated in an identical fashion in Dr. Ross's lab from someone without HD. Simultaneously, other HD and control iPS cell lines were generated as part of the NINDS funded HD iPS cell consortium.

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Turning skin cells into brain cells: Huntington's disease in a dish

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Stem cells help some ailing Houston Zoo creatures

June 29th, 2012 12:12 am

HOUSTON -

Pandu, the 286-pound Malayan tiger stretched out on the gurney in the Houston Zoo's hospital, had bone chips big ones in his right elbow.

Ivy the leopard, being prepped in another room, also needed medical treatment for her limp. The zoo's 68-pound black cat, which had arthroscopic surgery in 2009, was showing signs of pain again in her elbows.

The zoo staff was worried.

"I imagine we are going to end up euthanizing her at some point if it can't be fixed," said Beth Schaefer, the zoo's curator of carnivores and primates.

With two big cats needing attention, surgeon Brian Beale of Gulf Coast Veterinary Specialists and stem-cell specialists at InGeneron Inc. donated their services to treat the animals. While Beale removed bone chips and cleaned the joints during arthroscopic surgery, InGeneron staffers produced stem cells from each animal's body fat.

When the surgeries were complete, Beale injected the stem cells, which had taken about two hours to process for each big cat, into the animals' joints to promote faster healing.

Pandu, always a big baby looking for attention, was moving a bit slowly the day after surgery.

Feisty Ivy pretended nothing was wrong.

A week after the surgery, Houston Zoo veterinarian Lauren Howard says neither animal has suffered complications. Pandu, with mild swelling, was released into his exhibit half-days on Monday.

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Stem cells help some ailing Houston Zoo creatures

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Diabetes Reversal In Mice Via Stem Cells

June 29th, 2012 12:11 am

June 28, 2012

Connie K. Ho for redOrbit.com Your Universe Online

Diabetes is a detrimental disease. In order to combat the illness, University of British Columbia (UBC) researchers conducted a study with an industry partner and discovered that stem cells can reverse Type 1 diabetes in mice.

The discovery leads the way for the development of innovative treatments of diabetes, which is caused by deficient production of insulin by the pancreas. Insulin allows glucose to be held by the bodys muscle, fat, and liver; in turn, its used as fuel for the body. Blindness, heart attack, kidney failure, nerve damage, and stroke are possible consequences of low insulin production. The research by the UBC investigators addressed these various issues. The study was led by Timothy Kieffer, a professor in the Department of Cellular and Physiological Sciences, as well as scientists from BetaLogics, the New Jersey-based division of Janssen Research & Development, LLC.

We are very excited by these findings, but additional research is needed before this approach can be tested clinically in humans, remarked Kieffer, a member of UBCs Life Sciences Institute, in a prepared statement.

The team of investigators is the first to demonstrate that human stem cell transplants can bring back insulin production and reverse diabetes in mice. They were able to re-create the feedback loop that allows insulin levels to automatically increase or decrease based on blood glucose levels. The results from their projects was recently published online on the website of the journal Diabetes.

Following the stem cell transplant, the diabetes mice were slowly taken off insulin, a procedure which was to mirror human clinical condition. Even if they were given copious amounts of sugar, the mice were able to continue healthy blood sugar levels three to four months later. The transplanted cells that were removed from the mice many months after the experiments also showed signs of normal insulin-producing pancreatic cells.

Essentially, the mice were cured of their diabetes by placing the body back in charge of regulated insulin production as it is in healthy, non-diabetics, Kieffer told the Vancouver Sun. It took about four to five months for the [stem] cells to become functional in our experiments and the mice were able to maintain good blood glucose levels even when fed a high-glucose diet, said Kieffer, a UBC professor in the department of cellular and physiological sciences.

Research still needs to be done to finalize details of the approach for diabetes treatment.

The studies were performed in diabetic mice that lacked a properly functioning immune system that would otherwise have rejected the cells. We now need to identify a suitable way of protecting the cells from immune attack so that the transplant can ultimately be performed in the absence of any immunosuppression, explained Kieffer in the statement.

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Diabetes Reversal In Mice Via Stem Cells

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