Archive for the ‘Bone Marrow Stem Cells’ Category

A LITTLE boy faces his third bone marrow transplant before his second birthday.

Jack Kleinberg has battled against two life-threatening conditions as he suffers from familial mediterranean fever and WiskottAldrich syndrome, which affects one in 10 million children and means he has to live in virtual isolation.

His parents, Rob and Vicki, live with the knowledge that any part of his body can stop working at any time from a simple fall or infection.

The couple, of St James Gardens, Westcliff, spend much of their time travelling to Great Ormond Street Hospital for Jack to receive treatment to keep him alive.

The family includes Robs children from a previous relationship, Oliver, 14 and Sophia, ten.

Vicki, 28, said: Its a 24/7 job, but we wouldnt change it for the world. Oliver and Sophia didnt see Jack for the first year because he was in hospital. Its become normal for them to come home and wash and change into sterile clothes before they can see Jack, because of the danger of infection for him. Jack has had one full transplant and a top-up transplant and is waiting for a potential donor for a possible third transplant.

Vicki said: People think it is a painful process, but these days it is a stem cell transplant where if a donor is found to be suitable, they are given an injection the week before, which makes the body release bone marrowcells into the blood stream which are then taken like a normal blood donation. It takes just 20 minutes of someones time and saves so many lives. The transplants have given Jack 25 per cent of the cells he needs. Without them, he wouldnt have lived past his first birthday.

We are trying to get through Christmas and then we will decide on whether, if a donor is found, Jack has another full stem cell transplant or whether we let him live his life, with all its restrictions, for a while because he has spent so much time in hospital.

For more information about becoming a donor, visit http://www.anthonynolan.org

Rugby club is pitching in

Originally posted here:
People urged to donate bone marrow as tot faces third transplant

Millie Forbes died after battling Acute Myleoid Leukaemia 10 years ago She was just 21 when she passed away after a bone marrow transplant Her sister Annabella, now 29, embarked on a campaign in honour of Millie #InspiredbyMillie features 24 celebrities urging people to sign up to the Anthony Nolan bone marrow donation register Richard Branson, Sienna Miller, Dominic West, Richard E. Grant, Clare Balding, Emeli Sande, Binky Felstead and more have joined the campaign

By Lizzie Parry for MailOnline

Published: 01:00 EST, 18 December 2014 | Updated: 12:21 EST, 18 December 2014

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Millie Forbes was an inspiration to her family. And she loved Christmas.

That is why 10 years after the 21-year-old lost her life to leukaemia, her younger sister embarked on a campaign to raise awareness in her memory.

Annabella Forbes has made it her mission to save as many lives as possible, in honour of her beloved big sister.

And this Christmas the 29-year-old from London has enlisted the support of celebrities across the world.

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Celebrities urge YOU to donate bone marrow in memory of Millie Forbes

George Osgoodby, a parishioner of St. Luke's Church in Ho-Ho-Kus, is waiting for his perfect match. The 59-year-old Waldwick resident was diagnosed with Acute Myeloid Leukemia (AML), an aggressive form of cancer, back in October, and a bone marrow transplant is his best chance of a cure.

photo courtesy of nancy osgoodby

George Osgoodby, a parishioner of St. Luke's Church in Ho-Ho-Kus, is battling cancer and may need a bone marrow transplant. The church responded by offering the building for a blood and bone marrow drive on Dec. 20.

Though somewhere around 11 million people belong to the Be The Match bone marrow registry, operated by the National Marrow Donor Program, Osgoodby's ideal donor has not yet been found.

The community will come together in support of him at St. Lukes's Church for a blood and bone marrow drive this Saturday, Dec. 20 from 10 a.m. to 4 p.m. and with a few simple swabs of the cheek, could give him, or someone else the gift of life.

Osgoodby's sister, Nancy, said her brother, a successful businessman, husband and father, and an avid scuba diver, who enjoys fishing and boating, began to experience symptoms during the summer. He was becoming lightheaded and dizzy when he would bend over, short of breath when going up stairs, and began to experience joint pain.

Doctors initially thought it was a cardiac problem, but found nothing during a workup. A blood panel later showed that his hemoglobin and blood counts were low and a bone marrow biopsy revealed he was suffering with AML. The diagnosis came as a blow, especially since Osgoodby's father had succumbed to the disease just a few years ago.

Osgoodby has been receiving high dose chemotherapy treatments, during which he is inpatient at Hackensack University Medical Center. He will continue with the treatments monthly until a match is found for him in the registry and Nancy said he has needed frequent blood transfusions throughout the process.

Still, his spirits are good, his sister reports, and the family feels fortunate to have a great medical team caring for Osgoodby and thankful for all those that donate blood, or sign up for the registry.

"It means so much, I can't believe how many transfusions he's needed," Nancy said. "It has really made me aware of how many people need blood, how vital it is and it's not something you can just buy - people have to be willing to take the time to donate it - same with bone marrow. We're very touched that people are willing to do this. We've received an amazing response from people in the community."

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Blood drive, marrow registration to benefit parishioner

Toddlers who undergo total body irradiation in preparation for bone marrow transplantation are at higher risk for a decline in IQ and may be candidates for stepped up interventions to preserve intellectual functioning, St. Jude Children's Research Hospital investigators reported. The findings appear in the current issue of the Journal of Clinical Oncology.

The results clarify the risk of intellectual decline faced by children, teenagers and young adults following bone marrow transplantation. The procedure is used for treatment of cancer and other diseases. It involves replacing the patient's own blood-producing stem cells with those from a healthy donor.

Researchers tracked IQ scores of 170 St. Jude patients before and for five years after transplantation, making this the most comprehensive effort yet to determine how the procedure affects intelligence. The patients ranged in age from 4 months to 23 years when their transplants occurred. The procedure had little lasting impact on the IQ scores of most patients.

"For the great majority of patients, these findings provide reassurance that transplantation will not have a significant negative impact on cognitive development," said corresponding author Sean Phipps, Ph.D., chair of the St. Jude Department of Psychology. "We have also identified a high-risk group of younger patients who may benefit from more intensive interventions, including developmental stimulation and other rehabilitative therapies designed to prevent a decline in intellectual functioning and aid in recovery."

The high-risk group includes patients whose transplants occurred when they were aged 3 years or younger and involved total body irradiation (TBI). TBI is used to prepare patients for transplantation by killing remaining cancer cells and protecting the transplanted cells from their immune systems. TBI is associated with a range of short-term and long-term side effects. At St. Jude, therapeutic advances have significantly reduced the use of TBI in bone marrow transplantations.

Previous studies of bone marrow transplantation survivors reported conflicting results about the long-term impact of age and TBI on cognitive abilities.

Before transplantation, the average IQ scores of all patients in this study were in the normal range. One year after transplantation, average IQ scores of patients aged 5 and younger had declined sharply. But scores of most patients rebounded in subsequent years. Five years after the procedure, IQ scores for most patients, even the youngest survivors, had largely recovered and fell within the range of normal intelligence.

Patients in the high-risk group were the lone exception. IQ scores of patients who were both aged 3 or younger when their transplants occurred and who received TBI failed to recover from the first-year decline. Five years after transplantation, these survivors had average IQ scores in the low-normal range of intelligence. Their scores were more than 16 points lower than the scores of patients who were just as young when their transplants occurred but did not receive TBI.

Of the 72 patients in this study whose transplants included TBI, researchers found there was a long-term impact on intellectual functioning only of patients who were aged 3 or younger at transplantation.

"The significant first-year decline reflects the intensity of transplantation, which our results suggest leads to greater disruption in development in the youngest children than was previously recognized," said the study's first author Victoria Willard, Ph.D., a St. Jude psychology department research associate.

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Youngest bone marrow transplant patients at higher risk of cognitive decline

Professional athletes are getting injections of stem cells to speed up recovery from injury. Critics call it a high-tech placebo.

NFL quarterback Peyton Manning reportedly had a stem cell treatment to his neck in 2011.

Elite athletes do whatever it takes to win. Lately, thats meant getting an injection of their own stem cells.

The treatments, developed over the last eight years, typically involve extracting a small amount of a players fat or bone marrow and then injecting it into an injured joint or a strained tendon to encourage tissue regeneration. Bone marrow contains stem cells capable of generating new blood cells, cartilage, and bone.

Although the treatments have become a multimillion-dollar industry, some doctors say theres only thin medical evidence they actually speed healing. In a report issued last week, public policy researchers at Rice University criticized the National Football Leagues role in promoting unproven treatments to the public. Some players, including Peyton Manning of the Denver Broncos and Sidney Rice, whos now retired but won a Super Bowl with the Seattle Seahawks last year, have reportedly gone overseas for stem cell treatments and others have acted as spokespeople for U.S. clinics offering them.

The Rice researchers, Kirstin Matthews and Maude Cuchiara, say the NFL should create an independent panel and fund research on whether stem cell treatments actually work, similar to what it did after facing questions around concussions and brain injury. I think they should be more proactive. They should get ahead of this one, says Matthews.

Sports Illustrated reports that hundreds of football players have gotten stem cell treatments, with many travelling abroad for types of therapy not offered in the United States.But its not only football players trying them. The tennis player Rafael Nadal is reportedly undergoing stem cell treatments for back pain, and the injections are also being sought out by soccer players and high school athletes.

The NFL didnt respond to questions from MIT Technology Review. Doctors offering the treatments say theyre promising and should be given a chance. Others say theres not enough data. Any of these injections have a placebo effect, says Freddie Fu, an orthopedic surgeon who is chairman of sports medicine at the University of Pittsburgh Medical Center and top doctor for the schools sports teams. We dont know what we are putting in. We dont really know what exactly what it does, biologically.

Orthopedic surgeons hope one day to use stem cells to regenerate cartilage and other lost tissue. But wishful thinking, and profits, have gotten ahead of the facts, says Fu. Theres a lot of marketing in orthopedics right now. I would say 15 to 20 percent of treatments are not effective, he says.

Unlike a drug, which gets tested for years and is then weighed by experts and the U.S. Food and Drug Administration before hitting the market, the bone marrow treatments offered in the U.S. arent regulated.

Originally posted here:
The NFL Has a Problem with Stem Cell Treatments

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Newswise An innovative targeted payload immunotherapy that is being readied for a Phase 3 clinical trial (due to begin in the first half of 2015), received a favorable endorsement from Actinium Pharmaceuticals Scientific Advisory Board (SAB). The nod occurred after the members conducted its year-end meeting to review the progress of Iomab-B, a radiolabeled antibody being developed as a part of bone marrow transplant regimen initially in relapsed and refractory AML patients ages 55 and older.

The group met prior to the 56th American Society of Hematology (ASH) Annual Meeting and Exposition in San Francisco and was Chaired by John Pagel, MD PhD of the Fred Hutchinson Cancer Research Center and Swedish Cancer Institute in Seattle and included senior members from Memorial Sloan Kettering Cancer Center, MD Anderson Cancer Center and other leading institutions. The SABs goal is to further the development of Iomab-B as a myeloablative agent for older relapsed and refractory AML patients. If approved, Iomab-B should increase the number of patients eligible for curative bone marrow transplant (BMT, also known as HSCT) and improve clinical outcomes.

Richard Champlin MD, Chair of Stem Cell Transplantation and Cellular Therapy at MD Anderson Cancer Center, stated, We are impressed with progress in Iomab-B development and are looking forward to starting the trial. Iomab-B treatment would be an important new addition to our unfortunately very limited armamentarium for the most difficult-to-treat AML patients, and could potentially change the way refractory AML in older patients is treated.

As an international leader in the field of hematopoietic stem cell transplantation (HSCT), Dr. Champlin pioneered the use of donor transplants and lower doses of chemotherapy, reducing mortality rates along the way. Under his leadership, the MD Anderson HSCT program grew to become the largest in the world.

The Company updated the SAB on progress made in 2014, including refining and completing the Phase 3 protocol, progress in manufacturing centralization and scale-up, CRO engagement and the completion of other administrative items. Plans for 2015 were also reviewed, including assembly of the IND (Investigational New Drug) Application for submission to FDA early next year, clinical trial sites selection, preparation of ancillary materials and other items related to the upcoming pivotal trial. This study is planned as the final clinical trial prior to potential FDA clearance and approval.

Dr. Dragan Cicic, Chief Medical Officer of Actinium stated: "Actinium is committed to the ongoing development of Iomab-B with a multi-center Phase 3 pivotal trial due to begin in 2015. With the continued support and input from our world renowned scientific advisors, we are moving quickly to advance Iomab-B development. The SAB meeting further supported our belief that, if approved by FDA, Iomab-B could significantly change the treatment paradigm for elderly relapsed and refractory AML patients by providing a potentially curative pathway for majority of patients who today have a life expectancy of 5 or fewer months."

About AML Acute myeloid leukemia (AML) is an aggressive cancer of the blood and bone marrow. It is characterized by an uncontrolled proliferation of immature blast cells in the bone marrow. The American Cancer Society estimates there will be approximately 18,860 new cases of AML and approximately 10,460 deaths from AML in the U.S. in 2014, most of them in adults. Patients over age 60 comprise the majority of those diagnosed with AML, with a median age of a patient diagnosed with AML being 67 years. Treatment approaches in this population are limited because a majority of these individuals are judged too frail and unable to tolerate standard induction chemotherapy or having forms of disease generally unresponsive to currently available drugs. Elderly, high risk patients ordinarily have a life expectancy of 5 or fewer months if treated with standard chemotherapy, and only about a third of them receive this treatment because of toxicity of and limited responses to the available therapy. The other two-thirds receive best supportive care, with 2 months survival, according to Oran and Weisdorf (Haematologica 2012; 1916-24).

About Iomab-B Iomab-B will be used in preparing patients for hematopoietic stem cell transplantation (HSCT), the fastest growing hospital procedure in the U.S. The Company established an agreement with the FDA that the path to a Biologics License Application (BLA) submission could include a single, pivotal Phase 3 clinical study if it is successful. The trial population in this two arm, randomized, controlled, multicenter trial will be refractory and relapsed Acute Myeloid Leukemia (AML) patients over the age of 55. The trial size was set at 150 patients with 75 patients per arm. The primary endpoint in the pivotal Phase 3 trial is durable complete remission, defined as a complete remission lasting at least 6 months and the secondary endpoint will be overall survival at one year. There are currently no effective treatments approved by the FDA for AML in this patient population and there is no defined standard of care. Iomab-B has completed several physician sponsored clinical trials examining its potential as a conditioning regimen prior to HSCT in various blood cancers including the Phase 1/2 study in relapsed and/or refractory AML patients. The results of these studies in over 300 patients have demonstrated the potential of Iomab-B to create a new treatment paradigm for bone marrow transplants by: expanding the pool to ineligible patients who do not have any viable treatment options currently; enabling a shorter and safer preparatory interval for HSCT; reducing post-transplant complications; and showing a clear survival benefit including curative potential.

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Experts in Leukemia and Bone Marrow Transplant Prepare for Upcoming Pivotal Trial of Innovative Targeted Payload ...

High costs keep patients from using stem cells harvested from umbilical cords

Scientists are studying ways to treat HIV, cerebral palsy and other diseases using umbilical cord blood, although little of the collected blood will actually be used. Credit:Banc de Sang via flickr

Youd think doctors and patients would be clamoring for cells so versatile they could help reboot a body suffering from everything from leukemia to diabetes. But a new report shows that an important source of these stem cellsdiscarded umbilical cordsis rarely used because of high costs and the risk of failure.

Stem cells drawn from newborns umbilical cord blood are sometimes used to treat medical conditions, especially bone and blood cancers like multiple myeloma or lymphoma by replacing dysfunctional blood-producing cells in bone marrow. Generally the diseased cells are destroyed with chemotherapy and irradiation. Then new stem cells are transplanted into the patient to restore function. Cord blood stem cells are an alternative to bone marrow transplants and peripheral blood transplants, in which stem cells are gathered from the blood stream. Cord blood tends to integrate better with the body and it is easier to find a suitable donor than the alternatives.

Yet less than 3 percent of cord blood collected in the U.S. is ever used whereas the rest sits uselessly in blood banks, according to a recent report in Genetic Engineering & Biotechnology News. Immunologist Enal Razvi is author of the report and managing director of Select Biosciences, a biotechnology consulting agency. Razvi found that public cord blood banks, which store donated frozen units for transplants as needed, have only a 1 to 3 percent turnover annually. Most of their inventory sits unused year after year. For example, at Community Blood Services in New Jersey, patients have only used 278 of its 13,000 cords since it opened in 1996, according to business development director Misty Marchioni. Usage is even lower at private cord blood banks, which charge clients thousands of dollars to store a cord in the event a family member one day needs it.

Unlike bone marrow, the main alternative stem cell source, cells transplanted from cord blood carry little risk of graft-versus-host disease, a deadly condition in which the body rejects a transplant. Scientists believe this is because a babys immune system is closer to a blank slate, so their stem cells can integrate with the patients body more easily. But cord blood transplants also take longer to start working, requiring longer hospital stays and upping the bill. Due to storage and testing costs, the cords themselves also get pricy. The cost of the cord is prohibitively high, Razvi explains. Each unit of cord blood costs between $35,000 and $40,000 and most adults require two units for a successful transplant. Insurance companies will generally pay a set amount for a stem cell transplant regardless of where the cells come from. The price tag on a cord blood transplant can run up to $300,000, which may not be fully covered.

Cord blood stem cell transplants also have a higher failure rate than other transplant methods. If the transplant fails, it leaves patients with a compromised immune system in addition to their original disease and medical bills. Because the preparation for transplant includes wiping out the patients original bone marrow, the entire body has to be repopulated with stem cells able to replace it. There are not many stem cells in each cord. Compared with bone marrow or peripheral blood there is a greater chance that there will not be enough stem cells that actually implant and begin producing blood and bone marrow. Its like spreading a small amount of seeds in a big garden, says Mitchell Horwitz, who teaches cell therapy at Duke University Medical Center. Sometimes it just doesnt take.

Martin Smithmyer, chief executive of the private bank Americord, claims that more clients will eventually use their cords, especially as more applications are found for cord blood stem cells. But some scientists disagree. Steven Joffe, a professor of medical ethics at the University of Pennsylvania Perelman School of Medicine, says that many treatments cannot be done with a patients own stem cells because genetic diseases would already be present in the cord blood and that bone marrow might be a better option for relatives. The likelihood they are ever going to use that product is vanishingly small, he says.

Despite the low usage, advocates say cord blood programs have been crucial in improving transplant options for racial minorities, because it can be hard to find a bone marrow match for some groups. Cord blood does not need to match the patient as perfectly as bone marrow. This has transformed the treatment of minority patients, says Andromachi Scaradavou, medical director of the National Cord Blood Program, a public bank based in New York City. In the past we didnt have good donors to offer them. Community Blood Servicess Marchioni also maintains that cord blood is a good emergency option, because finding a compatible bone marrow or peripheral blood donor can take months or years. If you need a transplant quickly, she says, its easy to get cord blood off of a shelf.

Still, experts are working on more efficient ways of ensuring widespread availability of cord blood without having so much of it sit forever unused. Researchers are also continuing to look for ways to improve transplant success and to increase the number of stem cells obtained from each cord, potentially bringing down costs and making cord blood transplants feasible for more patients. If the cost could be lowered, Scaradavou says, it would help a lot of patients get the treatment they need.

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Vast Majority of Life-Saving Cord Blood Sits Unused

PUBLIC RELEASE DATE:

4-Dec-2014

Contact: John Wallace wallacej@vcu.edu 804-628-1550 Virginia Commonwealth University @vcunews

Is the human immune system similar to the weather, a seemingly random yet dynamical system that can be modeled based on past conditions to predict future states? Scientists at VCU Massey Cancer Center's award-winning Bone Marrow Transplant (BMT) Program believe it is, and they recently published several studies that support the possibility of using next-generation DNA sequencing and mathematical modeling to not only understand the variability observed in clinical outcomes of stem cell transplantation, but also to provide a theoretical framework to make transplantation a possibility for more patients who do not have a related donor.

Despite efforts to match patients with genetically similar donors, it is still nearly impossible to predict whether a stem cell transplant recipient will develop potentially fatal graft-versus-host disease (GVHD), a condition where the donor's immune system attacks the recipient's body. Two studies recently published by the online journal Frontiers in Immunology explored data obtained from the whole exome sequencing of nine donor-recipient pairs (DRPs) and found that it could be possible to predict which patients are at greatest risk for developing GVHD and, therefore, in the future tailor immune suppression therapies to possibly improve clinical outcomes. The data provides evidence that the way a patient's immune system rebuilds itself following stem cell transplantation is representative of a dynamical system, a system in which the current state determines what future state will follow.

"The immune system seems chaotic, but that is because there are so many variables involved," says Amir Toor, M.D., member of the Developmental Therapeutics research program at Massey and associate professor in the Division of Hematology, Oncology and Palliative Care at the VCU School of Medicine. "We have found evidence of an underlying order. Using next-generation DNA sequencing technology, it may be possible to account for many of the molecular variables that eventually determine how well a donor's immune system will graft to a patient."

Toor's first study revealed a large and previously unmeasured potential for developing GVHD for which the conventional approach used for matching DRPs does not account. The conventional approach for donor-recipient compatibility determination uses human leucocyte antigen (HLA) testing. HLA refers to the genes that encode for proteins on the surface of cells that are responsible for regulating the immune system. HLA testing seeks to match DRPs who have similar HLA makeup.

Specifically, Toor and his colleagues used whole exome sequencing to examine variation in minor histocompatibility antigens (mHA) of transplant DRPs. These mHA are protein fragments presented on the HLA molecules, which are the receptors on cells' surface to which these fragments of degraded proteins from within a cell bind in order to promote an immune response. Using advanced computer-based analysis, the researchers examined potential interactions between the mHA and HLA and discovered a high level of mHA variation in HLA-matched DRPs that could potentially contribute to GVHD. These findings may help explain why many HLA-matched recipients experience GVHD, but why some HLA-mismatched recipients experience none remains a mystery. This seeming paradox is explained in a companion paper, also published in the journal Frontiers in Immunology. In this manuscript, the team suggests that by inhibiting peptide generation through immunosuppressive therapies in the earliest weeks following stem cell transplantation, antigen presentation to donor T cells could be diminished, which reduces the risk of GVHD as the recipients reconstitute their T-cell repertoire.

Following stem cell transplantation, a patient begins the process of rebuilding their T-cell repertoire. T cells are a family of immune system cells that keep the body healthy by identifying and launching attacks against pathogens such as bacteria, viruses or cancer. T cells have small receptors that recognize antigens. As they encounter foreign antigens, they create thousands of clones that can later be called upon to guard against the specific pathogen that presented the antigen. Over the course of a person's life, they will develop millions of these clonal families, which make up their T-cell repertoire and protect them against the many threats that exist in the environment.

This critical period where the patient rebuilds their immune system was the focus of the researchers' efforts. In previous research, Toor and his colleagues discovered a fractal pattern in the DNA of recipients' T-cell repertoires. Fractals are self-similar patterns that repeat themselves at every scale. Based on their data, the researchers believe that the presentation of minor histocompatability antigens following transplantation helps shape the development of T-cell clonal families. Thus, inhibiting this antigen presentation through immunosuppressive therapies in patients who have high mHA variation can potentially reduce the risk of GVHD by influencing the development of their T-cell repertoire. This is backed by data from clinical studies that show immune suppression soon after transplantation improves outcomes in unrelated DRPs.

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Predicting the storm: Can computer models improve stem cell transplantation?

Boston, MA (PRWEB) December 04, 2014

In a new report published in the online journal Cell Death and Disease, the Adult Stem Cell Technology Center, LLC (ASCTC) continues to demonstrate its special expertise in uncovering unknown properties that are unique to adult tissue stem cells. In particular, the new study continues to build the companys portfolio of technologies that make previously invisible adult stem cells not only identifiable, but also countable.

The studies were performed with mouse hair follicle stem cells. Because of the universal nature of adult tissue stem cell properties, the new findings are predicted to apply to stem cells in a wide range of human tissues as well.

For the past half century since the experimental demonstration of their existence, it has not been possible to identify adult tissue stem cells exclusive of other related cell types. Consequently, counting them has been impossible, too. Established stem cell therapies like bone marrow transplantation are suboptimal because of this limitation; and the current worldwide flood of thousands of clinical trials of tissue stem cell transplantation therapies has the same problem. Without being able to count potentially curative adult tissue stem cells, there is no way to optimize and standardize successful treatments.

The new report presents a discovery made during studies employing one of the ASCTCs recently defined biomarkers for detecting tissue stem cells. The new biomarker is a member of a family of cell factors called histones that package the cellular DNA into chromosomes. One of the less abundant members of this family is called H2A.Z. In 2011, the ASCTC discovered that H2A.Z is only accessible on the set of chromosomes that segregates to the stem cell sister when a stem divides to produce a non-stem sister cell. The non-stem sister differentiates to replenish lost mature tissue cells. Before a stem cell divides in this manner, the stem cell chromosomes and the non-stem cell chromosomes are distinct because of this difference in their H2A.Z access. This unique feature, called H2A.Z asymmetry, is a highly specific biomarker for identifying adult tissue stem cells.

Because detection of H2A.Z asymmetry does not disrupt other features of stem and non-stem chromosomes, it can be used as a specific landmark to discover other molecular differences between chromosomes destined for the stem cell sister and chromosomes destined for the non-stem sister. The new report describes how two well-known gene regulation modifications of an abundant histone family member, H3, also display asymmetry between stem cell chromosomes and differentiating cell chromosomes.

The newly discovered asymmetric chromosomal patterning of gene regulation modifications in adult tissue stem cells may reveal a long sought mechanism to explain how stem cell fate is maintained in mammalian tissues. This new insight into the function of tissue stem cells addresses a fundamental question in the field of stem cell biology research. ASCTC Director James L. Sherley anticipates that the new report will give stem cell scientists and bioengineers a new lead idea and new research tools for extending knowledge on the molecular workings of adult tissue stem cells. Such advances in knowledge are greatly needed currently to improve the scientific foundation for the increasing number of regenerative medicine clinical trials.

******************************************************************************************** The Adult Stem Cell Technology Center, LLC is a Massachusetts life sciences company. ASCTC Director and founder, James L. Sherley, M.D., Ph.D. is the foremost authority on the unique properties of adult tissue stem cells. The companys patent portfolio contains biotechnologies that solve the three main technical problems production, quantification, and monitoring that have stood in the way of successful commercialization of human adult tissue stem cells for regenerative medicine and drug development. In addition, the portfolio includes novel technologies for isolating cancer stem cells and producing induced pluripotent stem cells. Currently, ASCTC is employing its technological advantages to pursue commercialization of facile methods for monitoring adult tissue stem cell number and function.

Excerpt from:
The Adult Stem Cell Technology Center, LLCs New Report on Asymmetric Character of Stem Cell Chromosomes Advances ...

MIAMI (PRWEB) December 04, 2014

After a successful first run in Spain last month, Global Stem Cells Group, has announced the decision to take the biotech companys hands-on stem cell training course to additional European cities in 2015. GSCG subsidiary Stem Cell Training, Inc. and Dr. J. Victor Garcia conducted the Adipose Derived Harvesting, Isolation and Re-integration Training Course for medical professionals in Barcelona Nov. 22-23, 2014.

The two-day, hands-on intensive training course was developed for physicians and high-level practitioners to learn techniques in harvesting and reintegrating stem cells derived from adipose tissue and bone marrow. The objective of the training is to bridge the gap between bench science in the laboratory and the doctors office by teaching effective, in-office regenerative medicine techniques.

Global Stem Cells Group will release a schedule of cities and dates for future training classes in upcoming weeks.

For more information, visit the Stem Cell Training, Inc. website, email info(at)stemcelltraining(dot)net, or call 305-224-1858.

About Global Stem Cells Group: Global Stem Cells Group, Inc. is the parent company of six wholly owned operating companies dedicated entirely to stem cell research, training, products and solutions. Founded in 2012, the company combines dedicated researchers, physician and patient educators and solution providers with the shared goal of meeting the growing worldwide need for leading edge stem cell treatments and solutions.

With a singular focus on this exciting new area of medical research, Global Stem Cells Group and its subsidiaries are uniquely positioned to become global leaders in cellular medicine.

Global Stem Cells Groups corporate mission is to make the promise of stem cell medicine a reality for patients around the world. With each of GSCGs six operating companies focused on a separate research-based mission, the result is a global network of state-of-the-art stem cell treatments.

About Stem Cell Training, Inc.:

Stem Cell Training, Inc. is a multi-disciplinary company offering coursework and training in 35 cities worldwide. Coursework offered focuses on minimally invasive techniques for harvesting stem cells from adipose tissue, bone marrow and platelet-rich plasma. By equipping physicians with these techniques, the goal is to enable them to return to their practices, better able to apply these techniques in patient treatments.

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Global Stem Cells Group Hands-on Training Course in Barcelona Heading to Additional Euro Cities in 2015

PUBLIC RELEASE DATE:

3-Dec-2014

Contact: Glenna Picton picton@bcm.edu 713-798-4710 Baylor College of Medicine @bcmhouston

HOUSTON - (Dec. 3, 2014) - A novel mechanism - similar to how normal tissue stem cells respond to wounding - might explain why bladder cancer stem cells actively contribute to chemo-resistance after multiple cycles of chemotherapy drug treatment. Targeting this "wound response" of cancer stem cells can potentially provide a novel approach for therapeutic invention, said researchers from the National Cancer Institute-designated Dan L. Duncan Cancer Center at Baylor College of Medicine.

The results of their study appear online in the journal Nature today.

"Treatment for advanced bladder cancer is limited to surgery and chemotherapy. There are no targeted treatments available," said Dr. Keith Syson Chan, an assistant professor of molecular and cellular biology and of urology and the corresponding author on the report. "The chemotherapy response is far from ideal so the clinical goal is to advance research into this area and uncover a much more targeted approach."

Together with co-lead authors Antonina Kurtova, a graduate student in the Translational Biology and Molecular Medicine Program at Baylor, and Dr. Jing Xiao, research assistant in urology at Baylor, Chan and his team sought out to identify mechanisms underlying the development of resistance in bladder cancer that has invaded the muscles. They found that regrowth of cancer stem cells actively contributes to therapy resistance between drug treatment cycles.

"This is a paradoxical mechanism leading to resistance, one we didn't expect," said Chan. "The cancer stem cells actively regrow and respond to the induced damage or apoptosis (cell death) caused by chemotherapy in between the different cycles, similar to how normal tissue stem cells respond to wound-induced damages."

The proliferation is stimulated by the release of a metabolite (or factor) called prostaglandin E2 or PGE2 from the dying cells, which causes the cancer stem cells to repopulate tumors that were reduced in size by chemotherapy, they found.

In normal cells, this is a part of the wound repair process when PGE2 induces tissues stem cells to regrow; in cancer PGE2 ironically induces regrowth of more cancer stem cells in between chemotherapy cycles, Kurtova and Xiao said.

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'Wound response' of cancer stem cells may explain chemo-resistance in bladder cancer

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MIAMI (PRWEB) December 01, 2014

MIAMI, Dec. 1, 2014Stem Cell Training, Inc., a division of Global Stem Cells Group, Inc., has announced plans to launch a post graduate studies program in stem cell therapies and regenerative medicine in 2015.

The program will include five days of intensive, interactive training coursework with classroom instruction and laboratory practice through didactic lectures, hands-on practical experience in laboratory protocols and relevant lessons in regulatory practices. Global Stem Cells Group Advisory Board member Dr. David B. Harrell, PhD will teach the coursework and perform laboratory instruction, accompanied by a series of guest lecturers from the Global Stem Cells Group faculty of scientists.

Attendees will receive hands-on training in techniques for a variety of laboratory processes, and gain insight into the inner workings of a cGMP laboratory and FDA registered tissue bank. Regenerative medicine experts with more 15 years of experience in the field will train attendees and provide the necessary tools to implement regulatory and clinical guidelines in a cGMP laboratory setting

The graduate course is to be held four times in Miami in 2015.

Course details, objectives and instruction include:

Didactic Lectures will include:

For additional information, visit the Stem Cell Training, Inc. website, email info(at)stemcelltraining(dot)net, or call 305-224-1858.

About Global Stem Cells Group:

Global Stem Cells Group, Inc. is the parent company of six wholly owned operating companies dedicated entirely to stem cell research, training, products and solutions. Founded in 2012, the company combines dedicated researchers, physician and patient educators and solution providers with the shared goal of meeting the growing worldwide need for leading edge stem cell treatments and solutions. With a singular focus on this exciting new area of medical research, Global Stem Cells Group and its subsidiaries are uniquely positioned to become global leaders in cellular medicine.

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Global Stem Cell Groups Stem Cell Training to Launch Post-graduate Studies Program in Stem Cell Therapies and ...

Author: Ian Murnaghan BSc (hons), MSc - Updated: 11 September 2014 | Comment

A bone marrow stem cell transplant uses stem cells derived from bone marrow to provide a fresh and healthy source of new blood cells which in turn, allows for a patient to receive higher doses of chemotherapy to treat certain types of cancer such as leukaemia. This ultimately means that a person has a better chance of surviving cancer. The bone marrow stem cells may be allogeneic and therefore donated by a family member of stranger, or they may be autologous, which utilizes a patient's own stem cells.

Bone marrow stem cells are found in bone marrow and in a person's blood. After stem cells multiply, they form immature blood cells, which are then subject to a collection of changes that allow them to develop into mature blood cells. Once mature, the blood cells migrate from the marrow and are introduced into the bloodstream, where they provide important functions in keeping the body alive and healthy.

A patient will usually receive some chemotherapy to reduce cancer cells before stem cells are collected. The harvested stem cells are also treated to ensure that no cancer cells remain. Higher doses of chemotherapy are then given, sometimes alongside complete body radiation, to confirm that no cancer remains. Stem cells are then transplanted back into the body via a rapid injection. Stem cells will eventually migrate to the bone marrow, where they latch onto other cells there and develop into the different blood cells.

Stem cells are then infused into the patient via an intravenous line over several hours. Stem cells travel to the patient's bone marrow where they develop and produce the blood cells necessary for blood functioning. Patients may also still be given drug therapy for some time to reduce the chances of immune rejection.

Bone marrow stem cell harvests are clearly a life saving technique for those suffering from certain cancers such as leukaemia. They are one of the 'older' stem cell therapies and have been proven effective for decades now. There are, however, still issues of rejection that warrant further development and refinement of stem cell harvesting techniques. It is hoped that scientists will continue to focus on research to improve the odds of success for this important treatment.

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Bone Marrow Stem Cell Harvest

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NEW YORK (CBSNewYork) A New York woman battling leukemia was especially grateful this Thanksgiving, as she credited the kindness of a total stranger with helping save her life.

They found the donor, and it was just basically like a weight lifted off my shoulders, said Jeanine Walsh, 38.

As CBS2s Dr. Max Gomez reported Thursday, Walsh the mother of two young children has been battling leukemia for the second time in two years.

I was in total and complete shock, she said.

No members of Walshs family were a match for her, but a willing donor was found through the national registry. Peripheral stem cells were collected from the donor, located in the Western U.S., earlier this week.

The process took just a few hours.

We attach the patient, that is the donor, to a machine. The machine takes blood form the donor, filters out the stem cells if you will, and returns the rest of the blood to the donor, said Dr. Michael Schuster, director of stem cell transplantation at Stony Brook University Hospital.

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Stranger Donates Stem Cells In Hopes Of Curing New York Woman With Leukemia

ENFIELD When 7-year-old Emma Duffin came down with strep throat last spring, her family never imagined the journey that illness would begin.

When Emma spiked a 104-degree fever, her mother took her to the emergency room at Johnson Memorial Hospital in Stafford Springs.

A doctor noticed Emma had dangerously low red and white blood cell counts, so she was sent to Connecticut Children's Medical Center for more tests. Her hemogobin level, normally a 12, was at 3. She received three pints of blood.

A few days later, a diagnosis: leukemia. A biopsy indicated the disease was located in her bone marrow.

"That was Mother's Day weekend," Allyson Duffin, Emma's mother, said recently. "We cried and then said, 'Now what?' "

Samples of Emma's bone marrow were sent to the Mayo Clinic Cancer Center in Rochester, Minn., Sloan Kettering Cancer Center in New York, and the Dana Farber Cancer Institute in Boston to determine what type of leukemia she had.

It turned out Emma has a rare form of leukemia called acute undifferentiated leukemia that is especially rare in children, according to Dr. Natalie Bezler, Emma's doctor at CCMC. Effects on the cellular level can differ from patient to patient.

"At first I thought cancer was a disease by itself, you just had 'cancer,' " Emma said. "But no, there's different types of cancer."

'Perfect Match'

The summer brought a new set of challenges for the Duffin family.

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Emma's Journey: Brother's Bone Marrow, Positive Attitude Help Enfield Girl Battle Leukemia

CINCINNATI -- The daughter of a Cincinnati Bengal who has already been through so much has another big day ahead of her.

Leah Still -- Devon Stills daughter -- will undergo a stem cell transplant procedure on Tuesday. The stem cell treatment is an effort to regenerate her bone marrow and stem cells.

Still flew to Philadelphia Monday to be with Leah. They went shopping at a mall.

The smile you have after shutting down the mall, literally. This girl had security and the... http://t.co/HHWtLhf4pf pic.twitter.com/QFRMJsdlCX

Still tweeted another photo Tuesday while they waited for her treatment to begin.

Selfies in the hospital to pass time by as we wait for the stem cells http://t.co/q6JZOIyi9q pic.twitter.com/ogB0J0Gitg

Leah was diagnosed with stage 4 neuroblastoma in June. She had surgery to remove a tumor from her abdomen in September, followed by chemotherapy to try to remove the cancer from her bone marrow.

She has already been treated with a round of chemotherapy and radiation.

Devon Still said the family hopes that will be her only round of chemo and radiation but that it depends on how her results come back. He said it will take four to six weeks to determine if more treatments are necessary.

Follow Devon Still's updates on Twitter at @Dev_Still71

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Leah Still to undergo stem cell therapy

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Newswise In a study led by Eli and Edythe Broad Center of Regenerative Medicine and Stem Cell Research member, Dr. John Chute, UCLA scientists have for the first time identified a unique protein that plays a key role in regulating blood stem cell replication in humans.

This discovery lays the groundwork for a better understanding of how this protein controls blood stem cell growth and regeneration, and could lead to the development of more effective therapies for a wide range of blood diseases and cancers.

The study was published online November 21, 2014 ahead of print in the Journal of Clinical Investigation.

Hematopoietic stem cells (HSCs) are the blood-forming cells that have the remarkable capacity to both self-renew and give rise to all of the differentiated cells (fully developed cells) of the blood system. HSC transplantation provides curative therapy for thousands of patients annually. However, little is known about the process through which transplanted HSCs replicate following their arrival in human bone marrow. In this study, the authors showed that a cell surface protein called protein tyrosine phosphatase-sigma (PTP-sigma) regulates the critical process called engraftment, meaning how HSCs start to grow and make health blood cells after transplantation.

Mamle Quarmyne, a graduate student the lab of Dr. Chute and first author of the study, demonstrated that PTP-sigma is produced (expressed) on a high percentage of mouse and human HSCs. She showed further that genetic deletion of PTP-sigma in mice markedly increased the ability of HSCs to engraft in transplanted mice.

In a complementary study, she demonstrated that selection of human blood HSCs which did not express PTP-sigma led to a 15-fold increase in HSC engraftment in transplanted immune-deficient mice. Taken together, these studies showed that PTP-sigma suppresses normal HSC engraftment capacity and targeted blockade of PTP-sigma can substantially improve mouse and human HSC engraftment after transplantation.

Chute and colleagues showed further that PTP-sigma regulates HSC function by suppressing a protein, RAC1, which is known to promote HSC engraftment after transplantation.

These findings have tremendous therapeutic potential since we have identified a new receptor on HSCs, PTP-sigma, which can be specifically targeted as a means to potently increase the engraftment of transplanted HSCs in patients, said Chute, senior author of the study and UCLA Professor of Hematology/Oncology and Radiation Oncology. This approach can also potentially accelerate hematologic recovery in cancer patients receiving chemotherapy and/or radiation, which also suppress the blood and immune systems.

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UCLA Researchers Unlock Protein Key to Harnessing Regenerative Power of Blood Stem Cells

preservation laboratory, where stem cells were kept for use in transplants in children whose bone marrow has been damaged during chemotherapy.

Concerns were first raised when Sophie Ryan-Palmer, 12, who had acute lymphoblastic leukaemia, failed to make progress after her transplant in June 2013, which involved using a donors stem cells rather than her own.

She had been diagnosed with leukaemia at the age of two and had undergone three previous transplants. She began fundraising for cancer charities when she was six.

By October last year the hospital had identified that a higher than usual proportion of eight children who had undergone stem cell transplantation between March and August had suffered what doctors call delayed engraftment. But by the time it stopped freezing stem cells on site at its base in Bloomsbury, central London, and launched an investigation, three of the eight had died.

Ryan Loughran, aged 13 months, from Bournemouth, died on July 10. Sophie, from Sunbury in Middlesex, followed on July 17. Katie Joyce, from Hertfordshire, died on October 6. A fourth patient, Muhanna al-Hayany, aged five, died in August this year. He had come from Kuwait to have the treatment. Following the deaths it was discovered that the method used to freeze the stem cells had inexplicably stopped working and that, although still alive, the cells were unable to mature properly.

At the inquest, Katie Beattie, the barrister representing Katie Joyces family, questioned whether the girls transplant in August should have been suspended, knowing Sophie and Ryan had died the previous month. Great Ormond Street went ahead even though there was plenty of time to stop it, she said.

Doctors from the hospital told St Pancras coroners court that they regretted not halting transplants sooner and Katies life might have been saved if they had. But they said they believed they were doing the right thing by continuing with the transplants because cancer doesnt wait.

Great Ormond Street said it has since overhauled its procedures to prevent further incidents, but is still investigating why the freezing process stopped working.

A spokesman said: Before giving our patients any frozen cells we carried out tests, which are standard across most laboratories in the UK, to ensure they were alive and viable. All of the samples passed these tests, so there was nothing to suggest there was a problem at this stage.

The coroner, Mary Hassell, is expected to deliver verdicts on all four deaths on Tuesday.

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Stem cell failure 'led to children's deaths' at Great Ormond Street

Patients, aged one to 12, among eight children whose transplants failed Concerns arose in 2013 after operation on fundraiser Sophie Palmer, 12 Hospital says Katie Joyce, 4, could have been saved if quicker action taken Lawyers have also accused hospital of taking too long to stop transplants Doctors 'regret' not stopping sooner but decision seemed right at time Ryan Loughran, 13 months, and Muhanna al-Hayany, 4, also died last year Seventeen months on, investigations are still ongoing into exact cause

By Steph Cockroft for MailOnline

Published: 06:45 EST, 22 November 2014 | Updated: 12:57 EST, 22 November 2014

Four cancer-stricken children died at Great Ormond Street Hospital after a series of failures in stem cell transplants at the world-renowned hospital, an inquest has heard.

The young patients, aged between one and 12, were among eight children whose transplants failed when the stem cell freezing system - used in life-saving operations - inexplicably stopped working.

Four children went on to recover. But well-known charity fundraiser Sophie Ryan Palmer, 12, one-year-old Ryan Loughran, four-year-old Katie Joyce and Muhanna al-Hayany, also four, died between July and October last year.

Katie Joyce (left) and Sophie Ryan (right) were among two of the four young patients who died after a series of failures in stem cell transplants at Great Ormond Street Hospital

The children's hospital has now admitted that Katie might have survived if it had acted more quickly to resolve the problems.

Lawyers for two of the families have also accused Great Ormond Street of taking too long to stop the transplants once concerns arose.

At an inquest into the deaths this week, the court heard that doctors were initially dumbfounded as to why the procedures suddenly started failing after a decade of success, the Guardian reports.

Excerpt from:
Four children dead at Great Ormond Street after stem cell transplant failure

Katie Joyce, left, aged four, and Sophie Ryan Palmer, aged 12, were among the four children who died as a result of complications with transplants. Photograph: Steve Parsons/PA

Four children have died after failings in how stem cells used in life-saving operations were frozen at Great Ormond Street hospital, it emerged this week.

The four, who were between one and 12 years old, were among eight children with cancer whose bone marrow transplants did not work as a result of problems with the freezing process.

Britains best-known childrens hospital has admitted that one of them, four-year-old Katie Joyce, might have survived if it had acted more quickly when problems arose.

An inquest into the deaths this week heard that doctors were initially baffled as to why a decade of success using the procedures suddenly came to a halt in summer 2013. Despite extensive investigations, the hospital failed to pinpoint the source of the setbacks in its cryopreservation laboratory, used for freezing stem cells which were kept there for using in bone marrow transplants in children.

The transplanted stem cells were intended to help the childs bone marrow, damaged during chemotherapy, grow again to maximise the chance of recovery.

At the inquest, lawyers for two of the families whose children died accused Great Ormond Street of taking too long to halt the transplants once staff began having concerns.

The hospital has since overhauled its procedures to prevent further incidents and there are calls for the deaths to lead to tighter procedures around how stem cells are stored at hospitals and research centres across the UK.

Concerns were first raised in June 2013 when 12-year-old Sophie Ryan Palmer, who had acute lymphoblastic leukaemia, failed to make progress after her transplant at Great Ormond Street, which involved using a donors stem cells rather than her own.

By October 2013 the hospital had identified that a higher than usual proportion of eight patients who had undergone stem cell transplantation between March and August had suffered setbacks after encountering what doctors call delayed engraftment. It immediately stopped freezing stem cells on site at its base in Bloomsbury, central London, and launched an investigation.

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Great Ormond Street deaths caused by stem cell lab failures, inquest told

Researchers of CEU Cardenal Herrera University (CEU-UCH) for the first time transplanted bone marrow stem cells into damaged brain tissue while applying lipoic acid (a potent antioxidant), with the aim of improving neuroregeneration in the tissue. This new way of repairing brain damage, which combines cellular treatment with drug therapy, has shown positive results, especially in forming blood vessels (a process called angiogenesis) in damaged areas of the brains of adult laboratory mice. Angiogenesis is a process that is essential to the recovery of damaged neural tissues. The investigation was led by Jos Miguel Soria Lpez, deputy director of the Institute of Biomedical Sciences at CEU-UCH, and its results were published in the international medical journal Brain Injury.

Professor Soria, who is affiliated to the Department of Biomedical Sciences at CEU-UCH, heads the investigative group 'Strategies in Neuroprotection and Neuroreparation', which carried out the investigation in cooperation with the Andalusian Molecular Biology and Regenerative Medicine Centre (CABIMER), located in Sevilla, and the Mediterranean Ophthalmological Foundation, located in Valencia. The research team used the experience they obtained from their previous investigations on the neuroregenerative efficiency of lipoic acid to develop a new remediation strategy for patients of brain damage. This new therapy combines the transplantation of bone marrow stem cells into the brain -- in this case, the brains of adult rats -- with the administration of the potent antioxidant lipoic acid.

Lipoic acid is already used in the treatment of degenerative diseases such as multiple sclerosis or diabetic neuropathy. Professor Soria concluded from previous researches he conducted at CEU-UCH that it has the ability to increase the creation of blood vessels, which speeds up cerebral immune response after an injury and stimulates the restoration of damaged tissues. Several other researches, for their part, proved that after brain damage stem cell therapies using a patient's own bone marrow induce functional improvements. The two therapies -- one cellular; the other one pharmacological -- were both applied in this research so as to evaluate their combined effect.

New blood vessels

Angiogenesis -- the process that forms new blood vessels -- in the treated neuronal tissue began only eight days after the application of this new, combined therapy. CEU-UCH professor Soria says that "although bone marrow stem cells disappear from the brain tissue where they were transplanted after only 16 days, new cells keep forming. To put it another way, brain tissue is regenerated by new cells that appear in the brain as a result of stem cell transplantation. This proves the regenerative efficiency of the new combined therapy."

The research also shows how the blood vessels that formed after the treatment grow into the damaged area of the brain. "They act as a kind of scaffolding to that area that allows microglia cells to migrate," professor Soria says. "In the damaged area, they contribute to regeneration." He adds that "the application of both treatments results into high angiogenic activity, which is crucial for an efficient recovery of the damaged brain area." According to Soria, "the laboratory mice that recovered fastest from brain injuries were those that had a higher density of regenerated blood vessels."

Taking into consideration brain damage is, especially among children and adolescents, one of the leading causes of disability and death in the developed world, the good results that were obtained from the combination of the two therapies make the research team very hopeful. "Combining an antioxidant such as lipoic acid with bone marrow stem cells has proven to be an effective remedy," Soria observes. The team plans to conduct future research into similar combined therapies.

The image above shows the transplant of bone marrow stem cells from transgenic mice under the effects of cerebral cortex after suffering local brain damage. Also visible is a neuroprotective drug therapy.

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

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Brain injuries in mice treated using bone marrow stem cells, antioxidants

The Saint Mary's student club, SMC Stands up to Cancer, held a bone marrow registration drive Friday. Registrants' genetic information will be added to the Be the Match marrow database which searches for possible matches with blood cancer patients. Suitable donors can provide bone marrow or peripheral blood stem cells to patients, saving lives.

Allison Lukomski, a communicative sciences and disorders major, was a match for a female cancer patient from last years drive. She said it is very rewarding, knowing she was able to help someone else.

"You could save a life," Lukomski said, "and I just think it is so incredible and it is such an incredible experience I had, my family had, everyone in my family decided to join because they thought it was a really cool process." She said everyone asks about the pain, but once they realize how much information there is every step of the way, many people sign up.

This is the second year for the bone marrow drive. For more information on joining the bone marrow donation registry, visit Be The Match.

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Saint Mary's holds bone marrow drive

LAGUNA BEACH, Calif. (KABC) --

"I could not bend my arms, could not bend my legs, couldn't even open my mouth and it was just getting worse and worse," said Joselyn.

Her son, Rex Miller, knew his mother might die.

"The doctor said there was a 30 percent chance that she wasn't going to make it. I was just so distraught," he said.

Finally, a neurologist diagnosed her with Shulman's syndrome, an extremely rare disease with no cure. It can lead to leukemia so she began chemotherapy and taking hundreds of pills.

But nothing worked.

"My bone marrow stopped producing white blood cells, red blood cells, and platelets," Joselyn recalled.

She endured more than 100 blood transfusions just to survive.

Doctors told her only a bone marrow transplant would save her. Her brother, a perfect match, agreed to be her donor.

After the procedure, she grew stronger and committed herself to finding donors for others.

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Woman saved by bone marrow transplant sets out to pay it forward