Category Archives: Stem Cell Treatment


Stem Cells Seem Safe in Treating Eye Disease

A treatment based on embryonic stem cells clears a key safety hurdle, and might help restore vision.

When stem cells were first culled from human embryos sixteen years ago, scientists imagined they would soon be treating diabetes, heart disease, stroke, and many other diseases with cells manufactured in the lab.

Its all taken longer than they thought. But today, a Massachusetts biotech firm reported results from the largest, and longest, human test of a treatment based on embryonic stem cells, saying it appears safe and may have partly restored vision to patients going blind from degenerative diseases.

Results of three-year study were described today in the Lancet by Advanced Cell Technology and collaborating eye specialists at the Jules Stein Eye Institute in Los Angeles who transplanted lab-grown cells into the eyes of nine people with macular degeneration and nine with Stargardts macular dystrophy.

The idea behind Advanced Cells treatment is to replace retinal pigment epithelium cells, known as RPE cells, a type of caretaker tissue without which a persons photoreceptors also die, with supplies grown in laboratory. It uses embryonic stem cells as a starting point, coaxing them to generate millions of specialized retina cells. In the study, each patient received a transplant of between 50,000 and 150,000 of those cells into one eye.

The main objective of the study was to prove the cells were safe. Beyond seeing no worrisome side effects, the researchers also noted some improvements in the patients. According to the researchers half of them improved enough to read two to three extra lines on an eye exam chart, results Robert Lanza, chief scientific officer of Advanced Cell, called remarkable.

We have people saying things no one would make up, like Oh I can see the pattern on my furniture, or now I drive to the airport, he says. Clearly there is something going on here.

Lanza stressed the need for a larger study, which he said the company hoped to launch later this year in Stargardts patients. But if the vision results seen so far continue, Lanza says this would be a therapy.

Some eye specialists said its too soon to say whether the vision improvements were real. The patients werent examined by independent specialists, they said, and eyesight in patients with low vision is notoriously difficult to measure. That leaves plenty of room for placebo effects or unconscious bias on the part of doctors.

When someone gets a treatment, they try really hard to read the eye chart, says Stephen Tsang, a doctor at Columbia University who sees patients losing their vision to both diseases. Its common for patients to show quick improvements, he says, although typically not as large as what Advanced Cell is reporting.

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Stem Cells Seem Safe in Treating Eye Disease

Stem Cell Therapy For ALS Gets FDA's Fast Track Designation

By C. Rajan, contributing writer

The U.S. FDA has just granted BrainStorm Cell Therapeutics novel stem cell therapy, NurOwn, Fast Track status for the treatment of amyotrophic lateral sclerosis (ALS), the company announced via press release.

"We are pleased that the FDA has granted Fast Track status for NurOwn as this will allow us greater and more frequent dialogue with the Agency as we continue the development of this ground-breaking cell therapy for the treatment of ALS," said Tony Fiorino, MD, PhD, CEO of BrainStorm. "We expect Fast Track designation, which recognizes the potential of NurOwn as to address an unmet medical need in ALS, to help speed and improve our development program."

Israeli biotech company BrainStorm is developing novel adult stem cell technologies for neurodegenerative diseases, such as ALS. The company licensed the exclusive rights to the NurOwn technology from Ramot, the technology transfer company of Tel Aviv University.

NurOwn is a personalized stem cell product made from autologous mesenchymal stem cells. These adult stem cells are obtained from the patients bone marrow and are induced to secrete neurotrophic factors, which are growth factors that can stimulate the survival and maintenance of neurons that degenerate in neurologic disorders.

NurOwn is currently being studied in randomized, double-blind, placebo-controlled phase 2 clinical trials in ALS patients in both Israel and the U.S. Reuters reports that the last patient visit has been completed in the phase 2a clinical trial in Jerusalem. The company expects to release final results of the study by the end of this year. The U.S. arm of the Phase 2 study is being conducted at three sites in the U.S., and is expected to be wrapped up in early 2015.

The FDA's Fast Track program aims to speed up the development of new drugs and biologics in order to get them to patients suffering from serious, unmet medical needs. The Fast Track designation will allow BrainStorm Cell to submit an NDA on a rolling basis and will grant the company more communication and support from FDA during the development process.

ALS, also known as Lou Gehrig's disease, is a rapidly progressive neurological disease that results in death within 2 to 5 years of diagnosis in most cases, and less than 20 percent of patients live more than 5 years after onset of symptoms. The relatively rare condition affects about 2 persons in every 100,000, with approximately 5,600 new cases diagnosed every year in the U.S, according to the ALS Association.

There is no cure for the disease to date, although the only approved ALS drug, Riluzole, has demonstrated its ability to extend survival by at least a few months.

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Stem Cell Therapy For ALS Gets FDA's Fast Track Designation

Scientists close in on diabetes cure with production of insulin-producing cells

Stem cell researchers at Harvard University have devised a method for creating large quantities of human insulin-producing beta cells, which could soon lead to a cure for type 1 diabetes as well as a new treatment for type 2 diabetes. The cells are currently being trialled in animals and non-human primates with hopes human trials could take place in the near future..

The researchers built a three-dimensional cell culture system using 500 ml spinner flasks containing undifferentiated human pluripotent stem cells. The flasks were placed on a magnetic stirrer and the cells were fed special proteins over a 33-day period. After further treatment and imaging, the insulin-secreting stem-cell-derived- cells were transplanted into diabetic mice, which had a higher survival rate and lower blood glucose level than the control group under three different scenarios.

The cells produced were found to mimic the function of human islets (clusters of cells scattered throughout the pancreas), which are crucial in regulating blood sugar. Type 1 diabetics lack the beta cells that monitor blood sugar levels and release insulin to normalize it because their immune system attacks and destroys these cells. Transplanted beta cells grown in a lab may provide a long-term solution, but until now they could not be grown in sufficient quantities to treat the disease.

The other remaining piece in the diabetes cure puzzle involves pinpointing a method for protecting the transplanted cells around 150 million of them in each patient from immune system attack (otherwise patients would require repeated and regular or semi-regular transplantations). Lead researcher Doug Melton is collaborating with Daniel G. Anderson of the Koch Institute at MIT on an implantation device that has thus far protected beta cells implanted in mice for many months.

Anderson described the work of Melton's lab as "an incredibly important advance for diabetes" as it "opens the doors to an essentially limitless supply of tissue for diabetic patients awaiting cell therapy."

Type 1 diabetes affects an estimated three million Americans, who for the most part must currently regulate their blood sugar levels by injecting insulin multiple times a day. But without the kind of fine-tuned metabolic control that glucose-sensing, insulin-secreting beta cells can provide, they face potential complications as severe as blindness and loss of limbs. Transplanted beta cells could also help type 2 diabetics who are dependent on insulin injections.

"We are now just one pre-clinical step away from the finish line," said Melton, who hopes to see transplantation trials in humans begin in the next few years.

A paper describing the research was published in the journal Cell.

Source: Harvard University

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Scientists close in on diabetes cure with production of insulin-producing cells

Regenestem Names Renowned Stem Cell Specialists to Launch New Regenerative Medicine Clinic in Antofagasta, Northern …

MIAMI (PRWEB) October 13, 2014

Regenestem, one of the largest membership networks of regenerative medicine clinics worldwide, has announced the launch of a new stem cells clinic in Antofagasta, Northern Chile. The clinic, to be headed by renowned stem cell specialists DRA Maria G. Soledad Gonzalez and Angel Gallegos Freire, M.D., will provide the latest advancements in stem cell treatments and protocol for a variety of eye conditions and diseases including macular degeneration and retinitis pigmentosa, as well as the latest anti-aging and aesthetic treatments and therapies.

Soledad Gonzalez specializes in opthamology at the Laser Surgery Clinic in Higher Vision of Antofagasta since 2003, where he focuses on refractive surgery to treat conditions like myopia, hyperopia, astigmatism and presbyopia. He incorporated minimally invasive aesthetic medicine protocols to his practice in 2012 and specializes in the harvest, preparation, activation and application of stem cell therapies for a number of chronic degenerative diseases.

Gallegos Freire, Medical Director, Policlinico Bhpbilliton M: BHP Billiton Spencea in Ubicacin, Chile, specializing in aesthetic and anti-aging stem cell medicine. Gallegos Freire in an active member of the Argentina Society of Aesthetic Medicine (SOARME), Institutional Member of the Medical Association of Argentina (AMA), the Pan-American Society of Aesthetic Medicine (PASAM) and the Antiaging & Aesthetic Medicine International Society (AAAMISO).

The Antofagasta Regenestem clinic is the companys third international stem cell treatment center opened since Global Stem Cells Group opened the Regenestem Asia Clinic in Manila, Philippines in June and the Regenestem Mexico Clinic in Villahermosa Tabasco. These new, state-of-the-art regenerative medicine facilities join the company's growing global presence that includes clinics in Miami, New York, Los Angeles and Dubai. Regenestem Asia facility marks the first Regenestem brand clinic in the Philippines.

The Global Stem Cells Group and Regenestem are committed to providing the highest of standards in service and technology, expert and compassionate care, and a philosophy of exceeding the expectations of their international patients.

For more information, visit the Regenestem website, email info(at)regenstem(dot)com, or call 305-224-1858.

About Regenestem:

Regenestem, a division of the Global Stem Cells Group, Inc., provides stem cell treatments for a variety of diseases and conditions including arthritis, autism, chronic obstructive pulmonary disease (COPD), diabetes and multiple sclerosis at various facilities worldwide. Each Regenestem clinic offers an international staff experienced in administering the leading cellular therapies available.

Regenestem is certified for the medical tourism market, and staff physicians are board-certified or board-eligible. Regenestem clinics provide services in more than 10 specialties, attracting patients from the United States and around the world.

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Stem-Cell Researchers Make Breakthrough in Type 1 Diabetes Treatment

TIME Health Research Stem-Cell Researchers Make Breakthrough in Type 1 Diabetes Treatment "We are now just one pre-clinical step away from the finish line"

Updated Oct. 13

Researchers have made a major breakthrough in finding a treatment for type 1 diabetes, Harvard University announced Thursday.

For the first time, scientists were able to create insulin-producing beta cells using human embryonic stem cells, at a volume required for cell transplantation and pharmaceutical use. Type 1 is the variety of the metabolic disease that can be inherited and which is likely due to an underlying autoimmune condition in which the body destroys the beta cells that produce insulin, a hormone that regulates glucose and helps the body process sugar. (Unlike type-2 diabetes, there is no way to prevent type-1.)

We are now just one pre-clinical step away from the finish line, said Doug Melton, who led the research and who has worked toward finding a cure for diabetes since his son was diagnosed as an infant 23 years ago.

That final step is finding a way to protect the 150 million beta cells needed to for transplant in the treatment of each patient from their immune systems, which automatically attack those cells. Melton is working with other researchers to develop a device for such protection. Tests of a device in mice have so far protected insulin-producing beta cells for several months.

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Stem-Cell Researchers Make Breakthrough in Type 1 Diabetes Treatment

Top Beverly Hills Orthopedic Doctor, Dr. Raj, Now Offering Platelet Rich Plasma Therapy for All Sports Injuries and …

Beverly Hills, California (PRWEB) October 13, 2014

Top Beverly Hills and LA orthopedic doctor, Dr. Raj, is now offering platelet rich plasma therapy for sports injuries and all types of degenerative arthritis. The treatment option has recently been added to Dr. Raj's regenerative medicine therapies such as bone marrow derived stem cell procedures and amniotic derived stem cell therapies. Call (310) 247-0466 for more information and scheduling.

Platelet Rich Plasma Therapy, known as PRP for short, has been increasing in popularity due to the success shown in several research studies. There was a recent study out of HSS showing amazing outcomes for degenerative knee arthritis, with preservation of cartilage and significant pain relief. Results with rotator cuff tendonitis, tennis elbow, plantar fasciitis and knee/achilles tendonitis have also been excellent as well.

Athletes in all types of sports have benefited from PRP therapy including golf, tennis, basketball, football, baseball and more. Whether or not an athlete is professional or amateur, the PRP treatment can be instrumental in helping patients avoid surgery and get back on the field quickly.

PRP therapy at Beverly Hills Orthopedic Institute involves an outpatient procedure that begins with a simple blood draw from the patient's arm of approximately 30 to 60 millileters. The blood is placed into a centrifuge and spun rapidly for 15-20 minutes. The platelets become concentrated in the middle layer, and this is what is utilized for the platelet rich plasma therapy in Beverly Hills.

The PRP therapy is injected under sterile conditions into the painful area. Results are typically seen over the ensuing weeks. Along with the PRP treatment, Dr. Raj also offers bone marrow and amniotic stem cell therapy. Typically, the best regenerative medicine therapy option is decided upon in conjunction with the patient.

Dr. Raj is a Double Board Certified Beverly Hills and Los Angeles orthopedic surgeon, who is also an ABC News Medical Correspondent along with a WebMD expert. For those interested in PRP and stem cell therapy Beverly Hills trusts, call (310) 247-0466.

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Top Beverly Hills Orthopedic Doctor, Dr. Raj, Now Offering Platelet Rich Plasma Therapy for All Sports Injuries and ...

Stem Cell Success Raises Hopes of Type 1 Diabetes Cure

By Alan Mozes HealthDay Reporter

THURSDAY, Oct. 9, 2014 (HealthDay News) -- In what may be a step toward a cure for type 1 diabetes, researchers say they've developed a large-scale method for turning human embryonic stem cells into fully functioning beta cells capable of producing insulin.

Type 1 diabetes, an autoimmune disorder affecting upwards of 3 million Americans, is characterized by the body's destruction of its own insulin-producing pancreatic beta cells. Without insulin, which is needed to convert food into energy, blood sugar regulation is dangerously out of whack.

Currently, people with type 1 diabetes need daily insulin injections to maintain blood sugar control. But "insulin injections don't cure the disease," said study co-author Douglas Melton, of Harvard University. Patients are vulnerable to metabolic swings that can bring about serious complications, including blindness and limb loss, he said at a teleconference this week.

"We wanted to replace insulin injections using nature's own solution, being the pancreatic beta cell," Melton said. Now, "we are reporting the ability to make hundreds of millions of these cells," he added.

Melton ultimately envisions a credit card-sized package of beta cells that can be safely transplanted into a diabetes patient and left in place for a year or more, before needing to be replaced.

But between then and now, human trials must be launched, a venture Melton thinks could begin in about three years.

If that research pans out, the Harvard team's results may prove to be a benchmark in the multi-decade effort to deliver on the promise of stem cell research as a way to access new treatments for all sorts of diseases.

Melton, co-director of the Stem Cell Institute at Harvard, described his work as a "personal quest," given that he has two children with type 1 diabetes.

He and his colleagues outlined the recent results in the Oct. 9 issue of Cell.

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Stem Cell Success Raises Hopes of Type 1 Diabetes Cure

Successful stem cell treatment in mice could one day help cure type 1 diabetes

On Thursday important research on stem cells and type 1 diabetes, done by professor Doug Melton, was published in the journal Cell. The results of this study have both wide and very personal implications.

Two decades ago, National Geographic reported, the current Harvard professor and stem cell researcher vowed to cure type 1 diabetes. His infant son had just been diagnosed with the disease. Professor Meltons efforts redoubled when, at age 14, his daughter was also diagnosed with the autoimmune disorder.

With the publication of this research he may have taken a step towards helping cure this disease. According to National Geographic, Melton has created a virtually unlimited supply of the cells that are missing in people with type 1 diabetes.

Type 1 diabetes, which is often diagnosed in children or young adults, affects around three million Americans. Type 1 diabetes is a chronic condition in which the pancreas produces little or no insulin, a hormone needed to allow sugar (glucose) to enter cells to produce energy, according to Mayo Clinic. This is due to the fact that the bodys immune system attacks beta cells in the pancreas, which control insulin production.

Professor Melton, along with a whole host of graduate students over 15 years, used stem cells to create replacement beta cells for mice, and human testing will begin in the next two years with government approval.

National Geographic explains:

The researchers started with cells taken from a days-old human embryo. At that point, the cells are capable of turning into any cell in the body. Others have tried to make beta cells from these human embryonic stem cells, but never fully succeeded. Meltons team spent a decade testing hundreds of combinations before finally coaxing the stem cells into becoming beta cells.

The procedure can also be done with non-embryonic stem cells, to avoid the sometimes controversial destruction of an embryo. Adult cells are turned back into stem cells and then into beta cells.

The next step is to create a protective coating for these cells so that the bodys immune system does not attack the beta cells.

MIT professor Daniel Anderson is helping Melton with a method of protection, which would work like an inkjet printer coating the cells with algae that prevents them from being attacked. This device would be implanted into patients. Two other companies are also working on strategies to coat the beta cells.

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Successful stem cell treatment in mice could one day help cure type 1 diabetes

Successful stem cell treatment in mice could one day help cure type one diabetes

On Thursday important research on stem cells and type 1 diabetes, done by professor Doug Melton, was published in the journal Cell. The results of this study have both wide and very personal implications.

Two decades ago, National Geographic reported, the current Harvard professor and stem cell researcher vowed to cure type 1 diabetes. His infant son had just been diagnosed with the disease. Professor Meltons efforts redoubled when, at age 14, his daughter was also diagnosed with the autoimmune disorder.

With the publication of this research he may have taken a step towards helping cure this disease. According to National Geographic, Melton has created a virtually unlimited supply of the cells that are missing in people with type 1 diabetes.

Type 1 diabetes, which is often diagnosed in children or young adults, affects around three million Americans. Type 1 diabetes is a chronic condition in which the pancreas produces little or no insulin, a hormone needed to allow sugar (glucose) to enter cells to produce energy, according to Mayo Clinic. This is due to the fact that the bodys immune system attacks beta cells in the pancreas, which control insulin production.

Professor Melton, along with a whole host of graduate students over 15 years, used stem cells to create replacement beta cells for mice, and human testing will begin in the next two years with government approval.

National Geographic explains:

The researchers started with cells taken from a days-old human embryo. At that point, the cells are capable of turning into any cell in the body. Others have tried to make beta cells from these human embryonic stem cells, but never fully succeeded. Meltons team spent a decade testing hundreds of combinations before finally coaxing the stem cells into becoming beta cells.

The procedure can also be done with non-embryonic stem cells, to avoid the sometimes controversial destruction of an embryo. Adult cells are turned back into stem cells and then into beta cells.

The next step is to create a protective coating for these cells so that the bodys immune system does not attack the beta cells.

MIT professor Daniel Anderson is helping Melton with a method of protection, which would work like an inkjet printer coating the cells with algae that prevents them from being attacked. This device would be implanted into patients. Two other companies are also working on strategies to coat the beta cells.

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Successful stem cell treatment in mice could one day help cure type one diabetes