Stem cells delivered by patch repair damage after cardiac arrest

Stem cells delivered by patch effective in repairing cardiac damage weeks after heart attack occurs

A new study released in STEM CELLS Translational Medicine shows that in rats, treating a heart attack with stem cells even weeks after the attack occurred can halt deterioration and help the heart regenerate itself. In addition, the doctors delivered the cells using a patch that resulted in a higher survival rate for the stem cells and more of them migrating into the damaged tissue, where they went to work creating new blood vessels.

The team, from the University of Louisvilles Cardiovascular Innovation Institute (Louisville, KY), had previously shown in rat studies that stem cell treatment immediately following an attack aided recovery by improving blood flow in the smallest vessels of the heart. This time the goal was to determine if the treatment was still effective if applied later in time.

We also were seeking a more efficient delivery method for the stem cells by utilizing the heart patch model. Most studies employing an injection of stem cells encounter swift cell death or cell washout from the target tissue, said Amanda LeBlanc, Ph.D., who led the investigation along with Stuart Williams, Ph.D., the institutes executive and scientific director.

They tested their theory by applying a patch seeded with stem cells harvested from the animals own adipose (fat) tissue and then cultured in the lab. They implanted the seeded patches into one group of rats two weeks after the animals had a heart attack, while another group received the patch without stem cells (to gauge whether any effects might be due to the body's response to a foreign material or whether the biomaterial itself was helping the heart pump more efficiently, regardless of cells). Two more groups of rats with induced heart attacks were given no treatment, and were carried out for two and six weeks as controls.

This approach allowed us to study the progressive and sometimes irreversible pathological changes that occur weeks to months following an attack, such as cellular death, the beginning of scar tissue formation and thinning of the outer left ventricle wall, Dr. Williams explained.

When they compared the results, they found that the cell patch treatment indeed stabilized the heart, preventing or halting any worsening of cardiac function and restoring blood flow to the small blood vessels. This is why I refer to our cell patch as a pause button, because once it was applied the heart didn't progress into worse function like the patch group without cells and the untreated six-week group, Dr. LeBlanc said.

That led us to conclude that the clinical potential of an autologous patch that is, a patch seeded with the patients own stem cells using adipose-derived cells is high, as the patch may be used in conjunction with existing heart attack therapies to promote small vessel survival and/or growth of new vessels following the attack, she added.

This study, and the authors previous research, both in rats, lays important groundwork in addressing such issues as the best delivery method of cells and how long after a heart attack treatment might be beneficial, said Anthony Atala, M.D., editor of STEM CELLS Translational Medicine and director of the Wake Forest Institute for Regenerative Medicine.

STEM CELLS Translational Medicine

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Stem cells delivered by patch repair damage after cardiac arrest

Purtier Placenta Live stem Cell Therapy Miracle – Mr Wilson Grandma is healthy now after 8 months – Video


Purtier Placenta Live stem Cell Therapy Miracle - Mr Wilson Grandma is healthy now after 8 months
This video is from YouTube Channel-wilsonho ho. In his YouTube Wilson never mentions much. Just a short message, My grandmother is healthy now after 8months ...

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Global Stem Cells Group, Inc. Announces Launch of Plasma Plus Platelet Rich Plasma Therapy Services in Dominican …

Miami (PRWEB) October 07, 2013

The Global Stem Cells Group, Inc. has announced the launch of Plasma Plus medical services company in the Dominican Republic. Plasma Plus provides certified medical professionals, top of the line equipment, FDA approved protocols for hospitals, clinics and physicians, and protocol-specific equipment and consumables for application of platelet rich plasma therapy (PRP.)

Plasma Plus also assigns a qualified, certified health care professional to perform the PRP extraction and preparation procedures. Clients need only apply the therapy where needed to achieve the rejuvenating, regenerating and revitalizing results of PRP therapy, eliminating excess overhead costs, need for equipment purchases and preoccupation with maintaining protocol standards.

The benefits of PRP treatments extend through a wide and diverse group of medical fields, from cosmetic surgery to dentistry; Plasma Plus is committed to making PRP an available and cost-effective treatment option for medical professionals.

The companys product line includes:

The Plasma Plus equipment line includes:

For more information on Plasma Plus medical services, products and equipment, visit the Plasma Plus website, email info(at)www(dot)plasmaplusonline(dot)com(dot)do or call 849.943.2988.

About Plasma Plus:

Plasma Plus is an innovative, turn-key medical service company providing certified professionals, state-of-the-art equipment, and FDA approved protocols and kits for application of platelet rich plasma therapy (PRP). Plasma Plus technicians are trained and certified by a qualified team of medical professionals that includes physicians and nurses. Staffed by physicians, medical consultants and leading scientific researchers in the field to provide patients with the leading platelet rich plasma therapy.

PRP treatments utilize the bodys own resources to stimulate growth and regeneration with an overabundance of growth factors derived from platelets.

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BrainStorm to Present at 2013 Stem Cell Meeting on the Mesa Organized by CIRM, ARM and Sanford Consortium

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

BrainStorm Cell Therapeutics (BCLI), a leading developer of adult stem cell technologies for neurodegenerative diseases, announced today that Dr. Adrian Harel, Director R&D, will present at the 3rd Annual Regen Med Partnering Forum, part of the Stem Cell Meeting on the Mesa to be held October 14-16 in La Jolla, CA.

Organized by the Alliance for Regenerative Medicine (ARM), the California Institute for Regenerative Medicine (CIRM) and the Sanford Consortium for Regenerative Medicine, the 2013 Stem Cell Meeting on the Mesa is a three-day conference aimed at bringing together senior members of the regenerative medicine industry with the scientific research community to advance stem cell science into cures. The Regen Med Partnering Forum, held October 14 & 15 at the Estancia La Jolla Hotel, is the only partnering meeting organized specifically for the regenerative medicine and advanced therapies industry.

The meeting also features a nationally recognized Scientific Symposium, held October 16 at the Salk Institute for Biological Studies, showcasing leading academic research in the field of regenerative medicine. Combined, these meetings attract over 800 attendees from around the globe, fostering key partnerships through one-on-one meetings while also highlighting clinical and commercial progress in the field.

The following are specific details regarding BrainStorms presentation at the conference:

Event: Regen Med Partnering Forum 2013 Stem Cell Meeting on the Mesa Date: Monday, October 14, 2013 Time: 10:45 am Location: Estancia La Jolla Hotel & Spa, 9700 North Torrey Pines Road, La Jolla, CA 92037

A live video webcast of all company presentations will be available at: http://stemcellmeetingonthemesa.com/webcast/ and will also be published on ARMs website shortly after the event.

About BrainStorm Cell Therapeutics, Inc.

BrainStorm Cell Therapeutics Inc. is a biotechnology company engaged in the development of first-of-its-kind adult stem cell therapies derived from autologous bone marrow cells for the treatment of neurodegenerative diseases. The Company holds the rights to develop and commercialize its NurOwn technology through an exclusive, worldwide licensing agreement with Ramot, the technology transfer company of Tel Aviv University. For more information, visit the companys website at http://www.brainstorm-cell.com.

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BrainStorm to Present at 2013 Stem Cell Meeting on the Mesa Organized by CIRM, ARM and Sanford Consortium

Stem Cell Therapy Treatment for Mild Autism by Dr Alok Sharma, Mumbai, India – Video


Stem Cell Therapy Treatment for Mild Autism by Dr Alok Sharma, Mumbai, India
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Stem Cell Therapy Treatment for Spinal Cord Injury c6 c7 by Dr Alok Sharma, Mumbai, India – Video


Stem Cell Therapy Treatment for Spinal Cord Injury c6 c7 by Dr Alok Sharma, Mumbai, India
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Researchers unveil method for creating 're-specified' stem cells for disease modeling

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In a paper in Cell Stem Cell, a team led by researchers in the Boston Children's Hospital's Stem Cell Transplantation Program reports a new approach for turning induced pluripotent stem cells (iPSCs) into hematopoietic stem and progenitor cells for in vivo disease modeling.

With this strategywhich they call re-specificationthe team, including Sergei Doulatov, PhD, and George Daley, MD, PhD, of Boston Children's, may have overcome technical barriers to generating blood disease-specific animal models from the thousands of iPSC cell lines now sitting in laboratory freezers around the world.

The main advantage of the technique lies in the raw material. The research team started with iPSCs that had already been directed to grow into myeloid progenitors, which are more closely related to the desired blood progenitors than skin or other fully differentiated cell types commonly used in stem cell experiments.

The researchers then used a select set of transcription factors to turn back the molecular clock just a little on these committed myeloid cells, turning them into blood progenitors that readily engrafted and differentiated when transplanted into mice.

The re-specification technique could help generate the large number of engraftable cells needed to create animal models from iPSCs generated from human patients suffering a range of blood disorders, such as anemias, thalassemia or sickle cell disease.

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Researchers unveil method for creating 're-specified' stem cells for disease modeling

Leading experts offer advice on generating human induced pluripotent stem cell banks

Public release date: 3-Oct-2013 [ | E-mail | Share ]

Contact: Mary Beth O'Leary moleary@cell.com 617-397-2802 Cell Press

The ability to make induced pluripotent stem cells (iPSCs) from mature cells in the body holds great potential for improved drug screening, disease modeling, and medical treatments for numerous conditions. Establishing well-characterized panels of iPSC lines that reflect the diversity of the human population and include samples from patients with a wide range of diseases will be key to tapping into the potential of iPSCs. In the October 3 issue of the Cell Press journal Cell Stem Cell, leading experts in the field publish several opinion pieces on emerging issues related to generating such iPSC banks, and they provide practical recommendations and creative solutions to address challenges associated with such large-scale efforts.

Dr. Glyn Stacey of the National Institute for Biological Standards and Control, located in the United Kingdom, and his colleagues recommend approaches for utilizing the knowledge of existing, well-established human embryonic stem cell banks and their experience in standardization to promote quality control in iPSC resource centers. "Not all laboratories will have the same level of expertise in cell culture or familiarity with vital quality control procedures. These will be essential to avoid the circulation of iPSC lines that have become contaminated or switched with other cell lines," says Dr. Stacey. "Such events can lead to fundamental flaws in the published literature and a waste of precious research resources."

In another Forum, Dr. Mahendra Rao, who is the director of the intramural Center for Regenerative Medicine at the National Institutes of Health, reiterates that making iPSC lines and developing the requisite controls and tests is time consuming, expensive, and generally beyond the expertise of any single laboratory. "Fulfilling the expectations for iPSCs and their use will only be possible if we develop a new cost-effective way to share and distribute cell lines. Crowd sourcing is one solution," he says. For the model to be successful, it must be self-sustaining. "Technology holders must buy in to the idea that it will ultimately benefit them as well as the users. It would also be important to ensure that expertise existed in the various repositories to store, characterize, test, and track the cells and their derivatives and that the repositories could do so at costs that were reasonable for the end user," writes Dr. Rao.

Finally, Dr. Ian Wilmut and his colleagues present a piece that addresses important considerations for immune matching between iPSC donors and recipients. They note that while it is possible that iPSC lines could be derived on an individual basis -- so that an individual patient would receive his or her own cells as a treatment -- it seems unlikely that this method would be used as a source for large numbers of patients in the near future due to time and cost restraints. A more practical solution is to build a bank of stem cell lines from a small pool of individuals that match a majority of the patient population and could be safely transplanted without immune rejection. "Calculations suggest that cells from approximately 150 selected people would provide a useful immunological match for the majority of people," explains Dr. Wilmut. "We propose that an international network of stem cell banks working with common procedures and standards should be established now in order to provide the broadest range of immunological types. This would be a critical step in ensuring widespread availability of high quality cell therapies in the future."

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Cell Stem Cell, Turner et al.: "Towards The Development of a Global Induced Pluripotent Stem Cell Library."

Cell Stem Cell, Rao et al.: "iPSC Crowdsourcing: A Model for Obtaining Large Panels of Stem Cell Lines for Screening."

Cell Stem Cell, Stacey et al.: "Banking Human Induced Pluripotent Stem Cells: Lessons Learned from Embryonic Stem Cells?"

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Leading experts offer advice on generating human induced pluripotent stem cell banks