Arthritic hip, knee, and thumbs 9 months after stem cell therapy by Dr Harry Adelson
Raymond and Nina describe their outcomes from stem cell therapy by Dr Harry Adelson for their various arthritic pains http://www.docereclinics.com.

By: Harry Adelson, N.D.

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Arthritic hip, knee, and thumbs 9 months after stem cell therapy by Dr Harry Adelson - Video

New York, NY (PRWEB) June 04, 2014

The Animal Medical Center of New York is offering stem cell therapy provided through Vet-Stem and long-term management in a clinical trial for qualifying cats with chronic kidney disease (CKD). The ultimate goal of this study is to investigate the use of stem cells (obtained from the patients own fat) in aiding the enhancement of renal (kidney) function by their regenerative capabilities, with the goal of improving survival in cats with CKD.

Currently there are no therapeutic options for cats with CKD other than renal transplantation, which is not typically an option for most owners. Most efforts aim at improving uremic signs with food, dietary supplements, and antacids, but there are no current methods for improving function of the kidney directly. CKD is the leading cause of death in older cats, and 35% of cats will develop CKD at some point.

Since renal failure is so common in cats and renal cell death is the ultimate result, improving the health and environment of the cells that remain could improve the overall function of the kidneys and ultimately improve the survival times and quality of life in patients. The aim is to use the cats own adipose (fat) derived stem cells to improve renal function directly, as stem cells are thought to improve, repair, and aid in the growth of damaged tissue.

The potential health benefits of using stem cells to combat CKD include renal regeneration, anti-fibrotic effects, a decrease in proteinuria (also called urine albumin or an abnormal amount of protein in the urine), and an improvement in the Glomerular Filtration Rate (GFR used to help measure kidney function). AMC is offering free fat collection, isolation of the stem cells from the fat, and intra-arterial injection for qualifying cats, as well as free follow-up for three years. Qualifying cats must be diagnosed with IRIS Stage 3 CKD that have had no other experimental therapies. Potential candidates must undergo a full workup and have no history of urinary tract stone disease or the presence of other concurrent, unrelated disease.

Allyson Berent, DVM, DACVIM and Catherine E. Langston, DVM, DACVIM will be leading the three year study, and invite owners with a cat that has been diagnosed with CKD to call 212.329.8763 for more information on qualifying for the clinic trial. To learn more about the study go to http://www.amcny.org/clinicaltrials. To watch a short special interest film about one cats success go to http://www.vet-stem.com/pr_detail.php?id=49.

The Animal Medical Center in New York City is a federally recognized 501(c)(3) non-profit veterinary center that has been a national leader in animal care since 1910. As an academic veterinary hospital, The AMC promotes the health and well-being of companion animals through advanced treatment, research and education. Stem Cell Therapy through Vet-Stem has been offered at AMC since 2008 to treat pain associated with chronic osteoarthritis. To find out more about AMC and their stem cell therapy services for osteoarthritis go to http://www.amcny.org/surgery/neurosurgery/stem-cell-therapy.

Vet-Stem, Inc. was formed in 2002 to bring regenerative medicine to the veterinary profession. The privately held company is working to develop therapies in veterinary medicine that apply regenerative technologies while utilizing the natural healing properties inherent in all animals. As the first company in the United States to provide an adipose-derived stem cell service to veterinarians for their patients, Vet-Stem, Inc. pioneered the use of regenerative stem cells in veterinary medicine. The company holds exclusive licenses to over 50 patents including world-wide veterinary rights for use of adipose derived stem cells. In the last decade over 10,000 animals have been treated using Vet-Stem, Inc.s services, and Vet-Stem is actively investigating stem cell therapy for immune-mediated and inflammatory disease, as well as organ disease and failure. For more on Vet-Stem, Inc. and Veterinary Regenerative Medicine visit http://www.vet-stem.com or call 858-748-2004.

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Newswise June 3, 2014, New Haven, CT Thomas Jessell, PhD, the Claire Tow Professor of Motor Neuron Disorders in the Departments of Neuroscience and of Biochemistry and Molecular Biophysics at Columbia University, is the recipient of the 2014 Neuroscience Prize of The Gruber Foundation. Jessell is being honored with this prestigious international award for his seminal work on the development and wiring of spinal cord neurons involved in the control of movement. He is also co-director of the Mortimer B. Zuckerman Mind Brain Behavior Institute, co-director of the Kavli Institute for Brain Science, and a Howard Hughes Medical Institute investigator, all at Columbia.

The award will be presented to Jessell, in Washington, D.C., on Nov. 16 at the 44th annual meeting of the Society for Neuroscience.

Tom Jessell is one of the worlds leaders in the field of developmental neuroscience, says Ben Barres, a member of the Neuroscience Selection Advisory Board. His research has completely changed our understanding of the mechanisms of neural circuit assembly and function, which, in turn, has helped create a blueprint for the development of potential treatments for a variety of neurodegenerative diseases.

When Jessell began his research more than three decades ago, very little was known about the movement-controlling neural circuitry of the spinal cord, one of the most evolutionarily conserved regions of the central nervous system (CNS). Through a groundbreaking series of studies, Jessell revealed how nave neural cells develop into hundreds of distinct subtypes of motor neurons to form that remarkable circuitry. He was the first scientist to show, for example, that a specific signaling protein known as Sonic hedgehog (Shh) determines the fate (subtype identify and role in movement) of many of these cells.

Jessell has also described the precise way in which the distinct subtypes of spinal neurons are connected with each other and how they control the patterned activity of their muscle targets. In addition, he has led the way in demonstrating that Shh and other signaling pathways can be manipulated to influence the process by which stem cells mature into motor neurons. As a result, scientists now have a deeper understanding of how stem cells might be used to treat degenerative spinal cord diseases, including amyotrophic lateral sclerosis (ALS).

Because of Jessells research, the spinal cord is now considered a model system for studying neural development and is widely used by scientists to better understand the neural circuitry of other, more complex areas of the CNS.

His more recent studies have focused on the mechanisms that wire circuits for limb movement, with the premise that genetic manipulation of individual neuronal classes can begin to uncover principles of circuit function as well as organization. Through the application of molecular information about neuronal identity to monitor, manipulate, and model the activity of specific classes of neurons, his work has also provided systems- and circuit-level insights into the neural control of limb movement.

Jessells discoveries have had a profound effect on all areas of neuroscience, which is why its so fitting that he is being acknowledged and honored with this award, says Carol Barnes, chair of the Selection Advisory Board to the Neuroscience Prize.

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Neurobiologist Thomas Jessell to Receive $500,000 Gruber Neuroscience Prize for Groundbreaking Work on the Neural ...

Thomas Jessell, PhD, the Claire Tow Professor of Motor Neuron Disorders in the Departments of Neuroscience and of Biochemistry and Molecular Biophysics at Columbia University, is the recipient of the 2014 Neuroscience Prize of The Gruber Foundation. Jessell is being honored with this prestigious international award for his seminal work on the development and wiring of spinal cord neurons involved in the control of movement. He is also co-director of the Mortimer B. Zuckerman Mind Brain Behavior Institute, co-director of the Kavli Institute for Brain Science, and a Howard Hughes Medical Institute investigator, all at Columbia.

The award will be presented to Jessell, in Washington, D.C., on Nov. 16 at the 44th annual meeting of the Society for Neuroscience. Tom Jessell is one of the worlds leaders in the field of developmental neuroscience, says Ben Barres, a member of the Neuroscience Selection Advisory Board. His research has completely changed our understanding of the mechanisms of neural circuit assembly and function, which, in turn, has helped create a blueprint for the development of potential treatments for a variety of neurodegenerative diseases.

When Jessell began his research more than three decades ago, very little was known about the movement-controlling neural circuitry of the spinal cord, one of the most evolutionarily conserved regions of the central nervous system (CNS). Through a groundbreaking series of studies, Jessell revealed how nave neural cells develop into hundreds of distinct subtypes of motor neurons to form that remarkable circuitry. He was the first scientist to show, for example, that a specific signaling protein known as Sonic hedgehog (Shh) determines the fate (subtype identify and role in movement) of many of these cells.

Jessell has also described the precise way in which the distinct subtypes of spinal neurons are connected with each other and how they control the patterned activity of their muscle targets. In addition, he has led the way in demonstrating that Shh and other signaling pathways can be manipulated to influence the process by which stem cells mature into motor neurons. As a result, scientists now have a deeper understanding of how stem cells might be used to treat degenerative spinal cord diseases, including amyotrophic lateral sclerosis (ALS).

Because of Jessells research, the spinal cord is now considered a model system for studying neural development and is widely used by scientists to better understand the neural circuitry of other, more complex areas of the CNS.

His more recent studies have focused on the mechanisms that wire circuits for limb movement, with the premise that genetic manipulation of individual neuronal classes can begin to uncover principles of circuit function as well as organization. Through the application of molecular information about neuronal identity to monitor, manipulate, and model the activity of specific classes of neurons, his work has also provided systems- and circuit-level insights into the neural control of limb movement.

Jessells discoveries have had a profound effect on all areas of neuroscience, which is why its so fitting that he is being acknowledged and honored with this award, says Carol Barnes, chair of the Selection Advisory Board to the Neuroscience Prize.

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Prof. Thomas Jessell Wins Gruber Prize for Spinal Cord Neuron Research

PUBLIC RELEASE DATE:

3-Jun-2014

Contact: A. Sarah Hreha info@gruber.yale.edu 203-432-6231 Yale University

Thomas Jessell, PhD, the Claire Tow Professor of Motor Neuron Disorders in the Departments of Neuroscience and of Biochemistry and Molecular Biophysics at Columbia University, is the recipient of the 2014 Neuroscience Prize of The Gruber Foundation. Jessell is being honored with this prestigious international award for his seminal work on the development and wiring of spinal cord neurons involved in the control of movement. He is also co-director of the Mortimer B. Zuckerman Mind Brain Behavior Institute, co-director of the Kavli Institute for Brain Science, and a Howard Hughes Medical Institute investigator, all at Columbia.

The award will be presented to Jessell, in Washington, D.C., on Nov. 16 at the 44th annual meeting of the Society for Neuroscience.

"Tom Jessell is one of the world's leaders in the field of developmental neuroscience," says Ben Barres, a member of the Neuroscience Selection Advisory Board. "His research has completely changed our understanding of the mechanisms of neural circuit assembly and function, which, in turn, has helped create a blueprint for the development of potential treatments for a variety of neurodegenerative diseases."

When Jessell began his research more than three decades ago, very little was known about the movement-controlling neural circuitry of the spinal cord, one of the most evolutionarily conserved regions of the central nervous system (CNS). Through a groundbreaking series of studies, Jessell revealed how nave neural cells develop into hundreds of distinct subtypes of motor neurons to form that remarkable circuitry. He was the first scientist to show, for example, that a specific signaling protein known as Sonic hedgehog (Shh) determines the "fate" (subtype identify and role in movement) of many of these cells.

Jessell has also described the precise way in which the distinct subtypes of spinal neurons are connected with each other and how they control the patterned activity of their muscle targets. In addition, he has led the way in demonstrating that Shh and other signaling pathways can be manipulated to influence the process by which stem cells mature into motor neurons. As a result, scientists now have a deeper understanding of how stem cells might be used to treat degenerative spinal cord diseases, including amyotrophic lateral sclerosis (ALS).

Because of Jessell's research, the spinal cord is now considered a model system for studying neural development and is widely used by scientists to better understand the neural circuitry of other, more complex areas of the CNS.

His more recent studies have focused on the mechanisms that wire circuits for limb movement, with the premise that genetic manipulation of individual neuronal classes can begin to uncover principles of circuit function as well as organization. Through the application of molecular information about neuronal identity to monitor, manipulate, and model the activity of specific classes of neurons, his work has also provided systems- and circuit-level insights into the neural control of limb movement.

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Neurobiologist Thomas Jessell to receive $500,000 Gruber Neuroscience Prize

Scientists Grow Human Cartlilage Using Stem Cells

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Scientists Grow Human Cartlilage Using Stem Cells - Video

A Littlestown resident went through a five-day procedure to give bone marrow stem cells to a man living in France

By Adam Michael

amichael@GameTimePA.com

@goodoletwonames on Twitter

John Sibirtzeff will never meet the man who used his stem cells to heal. He'll never know exactly what his affliction was, and he's OK with that.

A month ago, Sibirtzeff spent five days in Washington D.C. donating bone marrow stem cells that would be used to heal a 69-year-old man living in France.

"I'll never know who the recipient was," he said. "I'll never know if he was American or French, military or non."

When Sibirtzeff, of Littlestown, was in Navy boot camp in 2007, he opted into the C.W. Bill Young Department of Defense Marrow Donor Program. Naval doctors drew a vial of his blood and stored it after identifying his type. In 2011, Sibirtzeff finished his tour of duty, but his name remained on the donor list.

This past January, the program contacted Sibirtzeff requesting that he return for testing, as he was a potential match for a 69-year-old man living in France.

According to the program's website, salutetolife.org, 70 percent of patients are unable to find a match within their families. Sibirtzeff's receiver was among them.

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Everyday Hero: Littlestown man donates bone marrow stem cells to stranger

"It's a tiny wee finger prick test," says senior nurse Patsy Scouse to calm the nervous first-time donor having his hemoglobin levels tested at a blood donation centre in Edinburgh.

The Scottish National Blood Transfusion Service receives donations from about four percent of the UK's population. Currently, stocks are stable, although the service is always trying to recruit new donors.

The collection may take place in a clinical environment, the nurse says, but the clinic "wants this experience, especially for first-time donors, to be really positive so they can go out and feel they've done a really good thing."

But the service is also working on potential new technologies to secure blood supplies in the future, including "artificial blood."

Mass-produced and clean

Mark Turner, medical director of the Blood Transfusion Service, is looking into how blood could be synthesized in the future.

"We've known for some time that it's possible to produce red blood cells from so called adult stem cells, but you can't produce large amounts of blood in that way because of the restrictive capacity of those cells to proliferate," he explains. What scientists can do, he adds, is to derive pluripotent stem cells - stem cell lines - either from embryos or from adult tissue.

These cells are processed in the laboratory to produce larger numbers of cells, Turner told DW.

"It may be possible in due course to manufacture blood on a very large scale, but we're a very long way from that at the present time," he says. "At the moment, our focus is on trying to achieve production of red blood cells which are of the right kind of quality and safety, that they would be fit for human trials."

From the lab to clinical trials

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Artificial blood made from human stem cells could plug the donations hole

stem cell therapy - treatment for mr with delayed milestones by dr alok sharma, mumbai, india
after stem cell therapy treatment for mental retardation with delayed milestones by dr alok sharma, mumbai, india. Stem Cell Therapy done date 18/02/2013 Aft...

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stem cell therapy - treatment for mr with delayed milestones by dr alok sharma, mumbai, india - Video

(2009-04a) David Steenblock MS DO - Bone marrow stem cell therapy
David Steenblock MS DO - Bone marrow stem cell therapy 2009-04-16 part 1 April 16, 2009 Visit the Silicon Valley Health Institute (aka Smart Life Forum) at h...

By: Silicon Valley Health Institute

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(2009-04a) David Steenblock MS DO - Bone marrow stem cell therapy - Video

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Embryonic stem cells may have the ability to repair damaged tissue.

A landmark stem-cell trial is sputtering back to life two-and-a-half years after it was abandoned by the California company that started it. But it now faces a fresh set of challenges, including a field that is packed with competitors.

The trial aims to test whether cells derived from human embryonic stem cells can help nerves to regrow in cases of spinal-cord injury. It was stopped abruptly in 2011 by Geron of Menlo Park, California (see Nature 479, 459; 2011); the firm said at the time that it wanted to focus on several promising cancer treatments instead. Now, a new company Asterias Biotherapeutics, also of Menlo Park plans to resurrect the trial with a US$14.3-million grant that it received on 29May from the California Institute for Regenerative Medicine (CIRM), the states stem-cell-funding agency.

But the field has moved on since Geron treated its first patient in 2010, and the therapy that Asterias inherited is no longer the only possibility for spinal-cord injury. StemCells, a biotechnology company in Newark, California, has treated 12 patients in a safety study of a different type of stem cell, and it plans to start a more advanced trial this year to test effectiveness. And another entrant to the field, Neuralstem of Germantown, Maryland, received regulatory approval in January 2013 to begin human tests of its stem-cell product.

Gerons human trial was the first approved to use cells derived from human embryonic stem cells. But regulators halted it twice, once citing concerns about the purity and predictability of the cells being implanted, and again after the company reported seeing microscopic cysts in the spinal cords of rats that had been treated in preclinical studies. The worry was that the cysts could be teratomas uncontrolled growths that can form from embryonic stem cells, a feared side effect of treatment. Geron later said that the growths were not teratomas, and the US Food and Drug Administration allowed the trial to proceed. But after injecting the cells into five of the ten intended patients, the company said that it had run out of money for the trial.

Geron founder Michael West and former chief executive Thomas Okarma then formed Asterias, which bought Gerons stem-cell therapy last year. The company plans first to treat three patients with spinal-cord damage in the neck, using a low dose of the stem cells; it will then treat different people with higher doses to see if the therapy can restore any sensation or function in the trunk or limbs.

The five patients previously treated by Geron, whom Asterias continues to track, had cord damage at chest level. On 22May, Asterias reported that none of those five had experienced serious side effects from the treatment or developed immune responses to it.

Researchers say that the continuation of the former Geron trial is important because it uses a type of cell different from the fetus-derived ones used by StemCells and Neuralstem. Geron surgically implanted embryonic stem cells that had been coaxed in vitro to grow into immature myelinated glial cells, which insulate nerve fibres when mature. The other companies are using partially differentiated cells derived from fetal brain tissue, which might produce substances that protect surviving tissue and make new connections in the neural circuitry.

Its very good for the field, because we now have multiple cell lines being tested in very similar populations of patients, and this will help us define what is needed to make this approach work, says Martin Marsala, a neuroscientist at the University of California, San Diego, whose work has shown that Neuralstems cells can develop into working neurons and restore movement to rats with cord injuries in the neck.

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Funding windfall rescues abandoned stem-cell trial

Perched on the end of the scientists green glove, the tiny oblong-shaped object looks like a small jewel. It is in fact artificially-grown human cartilage, developed from human stem cells in the laboratory for the first time.

Cartilage, which protects the bone ends in joints, does not have blood vessels or nerves and does not heal over time if damaged.

Scientists at Columbia University in New York took cells from adult bone marrow and developed them into cartilage as robust as the natural human tissue.

We do have technology. We do understand underlying principles. But we are not ready to go into patients. There is a lot of pre-clinical work that will need to be done to make this happen, said Gordana Vunjak-Novakovic, Professor of Biomedical Engineering at Columbia University, who led the study.

Until now, scientists have made cartilage from young animal cells but the resulting tissue was often weak.

In the new study stem cells were condensed via a process that imitates how the body produces the tissue naturally.

The research team now plans to test the cartilage grown from stem cells to examine its long-term effects.

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Columbia University team grows human cartilage from stem cells

(2006-06) David Steenblock - Umbilical Cord Stem Cell Therapy
David Steenblock Umbilical cord stem cell therapy 2006-06-15 Visit the Silicon Valley Health Institute (aka Smart Life Forum) at http://www.svhi.com Silicon Valley Health Institute Smart...

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(2006-06) David Steenblock - Umbilical Cord Stem Cell Therapy - Video

WASHINGTON Scientists have come up with a bright idea to repair teeth And they say their concept using laser light to entice the bodys own stem cells into action may offer enormous promise beyond just dentistry in the field of regenerative medicine.

The researchers used a low-power laser to coax dental stem cells to form dentin, the hard tissue that makes up most of a tooth, in studies involving rats and mice and using human cells in a laboratory. The study appeared in the journal Science Translational Medicine.

They did not regenerate an entire tooth in part because the enamel part was too tricky. But merely getting dentin to grow could help alleviate the need for root canal treatment, the painful procedure to remove dead or dying nerve tissue and bacteria from inside a tooth, they said.

Im a dentist by training. So I think it has potential for great impact in clinical dentistry, researcher Praveen Arany of the National Institute of Dental and Craniofacial Research, part of the U.S. National Institutes of Health, said Friday. Arany expressed hope that human clinical trials could get approval in the near future.

Our treatment modality does not introduce anything new to the body, and lasers are routinely used in medicine and dentistry, so the barriers to clinical translation are low, added Harvard University bioengineering professor David Mooney. It would be a substantial advance in the field if we can regenerate teeth rather than replace them.

Using existing regeneration methods, scientists must take stem cells from the body, manipulate them in a lab and put them back into the body. This new technique stimulates action in stem cells that are already in place.

Scientists had long noticed that low-level laser therapy can stimulate biological processes like rejuvenating skin and stimulating hair growth but were not sure of the mechanisms. Arany noted the importance of finding the right laser dose, saying: Too low doesnt work and too high causes damage.

The researchers found that laser exposure of the tooth at the right intensity prompted certain oxygen-containing molecules to activate a cell protein that is known to be involved in development, healing and immune functions.

This protein in turn directed stem cells present in tooth pulp to turn into dentin. Stem cells are master cells that are capable of transforming into various types of tissues in the body.

The question is whether using this method could get other stem cells to become useful in laser-induced regenerative medicine. Arany said he is hopeful it can be used in healing wounds, regenerating cardiac tissue, dealing with inflammation issues and fixing bone damage, among other applications.

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101.64 /$ (5 p.m.)

As a new therapeutic approach, Janus kinases are currently in the limelight of cancer research. The focus of interest is the protein JAK2. By inhibiting this protein one tries to cure chronic bone marrow diseases, such as myelofibrosis and chronic myeloid leukemia (CML).

Loss of JAK2 is advantageous for leukemia cells

Scientists working with Veronika Sexl at the Institute of Pharmacology and Toxicology may initiate a transformation of thought in regard of JAK2 inhibition. To simulate the human disease as accurately as possible, the scientists used a mouse leukemia model. In an experiment, mice received blood cancer cells as well as healthy hematopoietic stem cells in which JAK2 had been removed. "In mice, the absence of JAK2 accelerated the course of leukemia drastically," the scientists concluded.

The loss of JAK2 caused healthy hematopoietic stem cells to disappear in mice. "Leukemic cells, on the other hand, remained entirely unaffected; they do not need JAK2. This led to an imbalance in which the number of leukemia cells was very predominant, and eventually caused the acceleration of leukemia," says Eva Grundschober, one of the lead authors.

"The oncogene BCR-ABL, which was present in mice with leukemia, does not appear to require JAK2 for its activity. However, JAK2 is essential for healthy cells," explains Andrea Hlbl-Kovacic, the other lead author.

JAK2 is important for survival of hematopoietic stem cells

A closer investigation of healthy stem cells supports this hypothesis. In the absence of JAK2, healthy stem cells cannot survive and reproduce blood cells. As the next step, the following question will be raised in Sexl's laboratory: how does JAK2 mediate its life-sustaining effect on healthy stem cells? What portions of the JAK2 protein are required for this purpose and are these affected by current therapies?

Story Source:

The above story is based on materials provided by Veterinrmedizinische Universitt Wien. Note: Materials may be edited for content and length.

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One cell's meat is another cell's poison: How the loss of a cell protein favors cancer cells while harming healthy cells

Scientists have a new way to repair teeth, and they say their concept - using laser light to entice the body's own stem cells into action - may offer enormous promise beyond just dentistry in the field of regenerative medicine.

The researchers used a low-power laser to coax dental stem cells to form dentin, the hard tissue similar to bone that makes up most of a tooth, demonstrating the process in studies involving rats and mice and using human cells in a laboratory.

They did not regenerate an entire tooth in part because the enamel part was too tricky. But merely getting dentin to grow could help alleviate the need for root canal treatment, the painful procedure to remove dead or dying nerve tissue and bacteria from inside a tooth, they said.

"I'm a dentist by training. So I think it has potential for great impact in clinical dentistry," researcher Praveen Arany of the National Institute of Dental and Craniofacial Research, part of the U.S. National Institutes of Health, said on Friday.

Arany expressed hope that human clinical trials could get approval in the near future.

"Our treatment modality does not introduce anything new to the body, and lasers are routinely used in medicine and dentistry, so the barriers to clinical translation are low," added Harvard University bioengineering professor David Mooney.

"It would be a substantial advance in the field if we can regenerate teeth rather than replace them." Using existing regeneration methods, scientists must take stem cells from the body, manipulate them in a lab and put them back into the body.

This new technique more simply stimulates action in stem cells that are already in place. Scientists had long noticed that low-level laser therapy can stimulate biological processes like rejuvenating skin and stimulating hair growth but were not sure of the mechanisms.

Arany noted the importance of finding the right laser dose, saying: "Too low doesn't work and too high causes damage."

First published May 30 2014, 2:24 PM

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Bright Idea: Scientists Use Laser Lights to Regrow Teeth

Miami, FL (PRWEB) May 31, 2014

Global Stem Cells Group, its subsidiary Stem Cell Training, Inc. and Bioheart, Inc. have announced plans to conduct a two-day, hands-on intensive stem cell training course at the Servet CordnVida Clinic Sept. 27 and 28 in Santiago, Chile. The Adipose Derived Harvesting, Isolation and Re-integration Training Course, will follow the Global Stem Cells Group First International Symposium on Stem Cells and Regenerative Medicine at the Santiago InterContinental Hotel Sept. 26, 2014.

Global Stem Cells Group and the Servet CordnVida Stem Cell Bank Clinic of Chile are co-organizing the symposium, designed to initiate a dialogue between researchers and practitioners and share the expertise of some of the worlds leading experts on stem cell research and therapies.

Servet CordnVida is a private umbilical cord blood bank that harvests and stores the hematopoietic-rich blood stem cells found in all newborns umbilical cords after birth. The hematopoietic tissue is responsible for the renewal of all components of the blood (hematopoiesis) and has the ability to regenerate bone marrow and restore depressed immune systems.

Umbilical (UCB) stem cells offer a wealth of therapeutic potential because they are up to 10 times more concentrated than bone marrow stem cells. In addition, UCB cells have a generous proliferative capacity with therapeutic potential that is very similar to embryonic stem cells, without the ethical debate associated with embryonic stem cell research and use.

UCB cells are the purest adult stem cells available, coming from newborns who have not been exposed to disease or external damage. Many parents today are utilizing cord banks like Servet CordnVida to store their newborns UCB cells safely for future medicinal use if the need arises.

Global Stem Cells Group and Servet CordnVida represent a growing global community of committed stem cell researchers, practitioners and investors whose enthusiasm is a direct result of the hundreds of diseases and injuries that stem cell therapies are curing every day. Global Stem Cell Groups First International Symposium on Stem Cell Research and Regenerative Medicine will host experts from the U.S., Mexico, Greece, Hong Kong and other regions around the globe who will speak on the future of regenerative medicine and share experiences in their field of specialty. The Global Stem Cells Group is hoping the symposium will open lines of communication and cooperation, explore new and exciting techniques in stem cell therapies, and create an environment of education and learning.

For more information on the symposium and the lineup of guests and speakers already confirmed, visit the First International Stem Cells and Regenerative Medicine website, email bnovas(at)regenestem(dot)com, or call 305-224-1858.

To learn more Global Stem Cells Group, visit http://www.stemcellsgroup.com, email bnovas(at)regenestem(dot)com, or call 305-224-1858.

About Global Stem Cells Group:

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Global Stem Cells Group to Hold Intensive, Two-day Training Course on Stem Cell Harvesting, Isolation and Re ...

Miami (PRWEB) May 31, 2014

Global Stem Cells Group and the Servet CordnVida Stem Cell Bank Clinic of Chile will be teaming up to organize the First International Symposium on Stem Cells and Regenerative Medicine in Santiago, Chile Sept. 26, 27 and 28. The three-day symposium will be followed by an intensive hands-on training course at the Servet Clinic for medical practitioners interested in learning techniques for harvesting stem cells for in-office medical therapies.

Symposium organizers plan to initiate a dialogue between researchers and practitioners to bridge the gap between bench scienceresearch science that is exclusively conducted in a lab settingand stem cell therapies delivered in the physicians office.

The first-of-its-kind conference will host some of the worlds leading experts on stem cell research and therapies. Servet CordnVida General Manager Mauricio Cortes, Ph.D. says that Santiago is the perfect launching pad for the event, as awareness and increasing demand for stem cell services has swept the South American countrys healthcare market over the past decade.

The use of human stem cells in medical therapies has attracted major scientific and public attention because stem cells are pluripotent, meaning they have the ability to differentiate into all body tissues, Cortes says. Knowing this, the possibilities for regenerating damaged or diseased tissue where no effective treatments existed before opens a new world of possibilities to patients and healthcare providers.

Were very excited to participate in this important conference.

Servet CordnVida is a private umbilical cord blood bank that harvests and stores the hematopoietic-rich blood stem cells found in all newborns umbilical cords after birth. The hematopoietic tissue is responsible for the renewal of all components of the blood (hematopoiesis) and has the ability to regenerate bone marrow and restore depressed immune systems.

Umbilical (UCB) stem cells offer a wealth of therapeutic potential because they are up to 10 times more concentrated than bone marrow stem cells. In addition, UCB cells have a generous proliferative capacity with therapeutic potential that is very similar to embryonic stem cells, without the ethical debate associated with embryonic stem cell research and use.

Perhaps most significant is the fact that UCB cells are the purest adult stem cells available, coming from newborns who have not been exposed to disease or external damage. Many parents today are utilizing cord banks like Servet CordnVida to store their newborns UCB cells safely for future medicinal use if the need arises.

Thanks to advances in stem cell science, we can preserve an infants stem cells at birth and store them safely for his or her future, says CordnVida Director Javier Sez. Hopefully, this symposium will be the first of many like it in the future of regenerative medicine, because the more we discuss what we know about the power of stem cells to heal, the closer we get to sparing our patients from needless suffering when the cure is right before us.

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Global Stem Cells Group Teams With CordnVida Servet Stem Cell Bank and Clinic to Organize the First International ...

The gap between stem cell research and regenerative medicine just became a lot narrower, thanks to a new technique that coaxes stem cells, with potential to become any tissue type, to take the first step to specialization. It is the first time this critical step has been demonstrated in a laboratory.

University of Illinois researchers, in collaboration with scientists at Notre Dame University and the Huazhong University of Science and Technology in China, published their results in the journal Nature Communications.

"Everybody knows that for an embryo to form, somehow a single cell has a way to self-organize into multiple cells, but the in vivo microenvironment is not well understood," said study leader Ning Wang, a professor of mechanical science and engineering at the U. of I. "We want to know how they develop into organized structures and organs. It doesn't happen by random chance. There are biological rules that we don't yet understand."

During fetal development, all the specialized tissues and organs of the body form out of a small ball of stem cells. First, the ball of generalized cells separates into three different cell lines, called germ layers, which will become different systems of the body. This crucial first step has eluded researchers in the lab. No one has yet been able to induce the cells to form the three distinct germ layers, in the correct order -- endoderm on the inside, mesoderm in the middle and ectoderm on the outside. This represents a major hurdle in the application of stem cells to regenerative medicine, since researchers need to understand how tissues develop before they can reliably recreate the process.

"It's very hard to generate tissues or organs, and the reason is that we don't know how they form in vivo," Wang said. "The problem, fundamentally, is that the biological process is not clear. What is the biological environment that controls this, so they can become more organized and specialized?"

Wang's team demonstrated that not only is it possible for mouse embryonic stem cells to form three distinct germ layers in the lab, but also that achieving the separation requires a careful combination of correct timing, chemical factors and mechanical environment. The team uses cell lines that fluoresce in different colors when they become part of a germ layer, which allows the researchers to monitor the process dynamically.

The researchers deposited the stem cells in a very soft gel matrix, attempting to recreate the properties of the womb. They found that several mechanical forces played a role in how the cells organized and differentiated -- the stiffness of the gel, the forces each cell exerts on its neighbors, and the matrix of proteins that the cells themselves deposit as a scaffolding to give the developing embryo structure.

By adjusting the mechanical environment, the researchers were able to observe how the forces affected the developing cells, and found the particular combination that yielded the three germ layers. They also found that they could direct layer development by changing the mechanics, even creating an environment that caused the layers to form in reverse order.

Now, Wang's group is working to improve their technique for greater efficiency. He hopes that other researchers will be able to use the technique to bridge the gap between stem cells and tissue engineering.

"It's the first time we've had the correct three-germ-layer organization in mammalian cells," Wang said. "The potential is huge. Now we can push it even further and generate specific organs and tissues. It opens the door for regenerative medicine."

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Researchers see stem cells take key step toward development: A first

By: Stephanie Guadian EL PASO, Texas - Inaki Arruti is an El Paso boy battling leukemia and a shortage of blood and bone marrow donations from the Hispanic community. I recently shared his story with KFOX 14 viewers.

The story hit home for Janet Chavarria. She is an employee at Western Technical College and Inaki's cousin.

After being inspired by our story to take action, she and the school organized a two-day Be the Match blood and bone marrow drive. Those who agreed to register simply swabbed their cheeks. The DNA will be compared to patients for a possible match.

It's not just Inaki. There are more children out there you know that have this. There are more people that have this. So, if we are not helping out Inaki, there might be someone else. But hopefully, there will be a match, said Janet Chavarria.

According to Be the Match, a national marrow donor program, Hispanics have only a 72 percent chance of finding a donor, compared with 93 percent for white patients. Anita Gonzales is a Be the Match employee working in El Paso.

We are blessed with another country right next to us. But everything they blow into the air. Unfortunately, it comes into El Paso and we breathe it. It's in the particles in the air, the ground that we walk on, the food that we eat. So, anyone can get leukemia. It's not inherited, said Gonzales.

Today -- the most common way of collecting stem cells is done by filtering them from a person's blood. The procedure is considered painless and similar to donating blood. The donation could one day save of the life of someone like Inaki.

Nearly 300 people signed up to be potential matches at the two day blood and bone marrow drive at Western Technical College. If you would like to find out how you can sign up to be a donor, check outbethematch.org

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Drive held to save El Paso boy and other children in need of donations