Autism complex treatment with stem cell therapy
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Newswise LOUISVILLE, Ky. William Tse, M.D., associate professor of medicine and eminent scholar in hematologic malignancies research at the Mary Babb Randolph Cancer Center at West Virginia University, has been named the new director of Bone Marrow Transplantation at the University of Louisville James Graham Brown Cancer Center, a part of KentuckyOne Health. Tse will join UofL Nov. 1.

Tse will hold the Marion F. Beard Endowed Chair in Hematology Research at UofL and become a member of the cancer centers Developmental Biology Program.

Dr. Tse is emerging as one of the thought leaders in bone marrow transplantation, said Donald Miller, M.D., Ph.D., director of the JGBCC. He has trained and worked at several of the leading blood cancer programs in the nation. We look forward to his leading our program at UofL.

Tse has been at West Virginia since 2009, where he also is the co-leader the Osborn Hematologic Malignancies Program. Prior to joining West Virginia, Tse was on the faculty at the University of Colorado Denver, where he was the director of translational research program for bone marrow transplantation and hematologic malignancies. He also previously was with Case Western Reserve University and the Fred Hutchinson Cancer Research Center/University of Washington Medical Center.

Tse is active in national organizations, serving in several capacities with the American Society of Hematology, including section chair for the annual meetings Oncogene Section and bone marrow transplantation outcome section, as well as the American Society of Clinical Oncology as an annual meeting abstract reviewer and the section chair on geriatric oncology. Tse also serves leadership roles on several editorial boards including as the senior editor of the American Journal of Blood Research, stem cell biomarkers section editor for Biomarker Research, senior editor of the American Journal of Stem Cells and the academic editor of PLoS One.

A graduate of the Sun Yat-Sen University School of Medicine in Guangzhou, Guangdong, in China, he did a thoracic surgical oncology residency at Sun Yat-Sen University Cancer Center in Guangzhou before completing postdoctoral research fellowships in medical biophysics, immunology and cancer at the Princess Margaret Hospital/Ontario Cancer Institute and the Hospital for Sick Children in Ontario, Canada. He completed clinical pathology and internal medicine residencies at North Shore-Long Island Jewish Hospital before undertaking a senior medical fellowship in clinical research and medical oncology divisions at the Fred Hutchinson Cancer Research Center at the University of Washington Medical Center.

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Tse Named Director of Bone Marrow Transplantation Division at University of Louisville

(PRWEB UK) 22 September 2014

BioKidz is a simple concept which aims to engage children in the importance of stem cell medicine. Aimed at an audience of 4-9 year olds, the company now aims to use it in the 21 countries in which it operates.

BioEden has been invited to speak with parents and teachers later this month, as the BioKidz site aims to be a good source of scientific information for primary school teachers.

The BioEden proposition is very simple one: harvest the stem cells from a naturally shed baby tooth, store the viable cells for future therapeutic use, and guarantee that the cells will be available when needed.

As stem cell medicine is now becoming commonplace, it is important that there is a stem cell match when needed. The easiest way to do this is by harvesting and storing one's own cells, and there is no easier way than from naturally shed teeth.

The company admits that they could be putting the ordinary tooth fairy out of business, but they hasten to add that BioKidz have their own hero in the form of a Super Tooth Fairy who works within their own stem cell laboratories.

Children can meet BioEden the Super Tooth Fairy by visiting http://www.bioeden.com.

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BioKidz: the Children of the Stem Cell Revolution to go Global

9 Global Options Stem Cell Therapy for Parkinson #39;s Disease
Parkinson #39;s disease is a neuromuscular condition that affects millions of people around the world. Uncontrollable movement of the body muscles along with str...

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James Lee a Professional Football player is back in action thanks to stem cell therapy and Dr. Dennis M. Lox MD. Dr. Lox | http://www.drloxstemcells.com | (844) 440...

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Newswise Investigators from the Institute for Research in Immunology and Cancer (IRIC) at the Universit de Montral have just published, in the prestigious magazine Science, the announcement of the discovery of a new molecule, the first of its kind, which allows for the multiplication of stem cells in a unit of cord blood. Umbilical cord stem cells are used for transplants aimed at curing a number of blood-related diseases, including leukemia, myeloma and lymphoma. For many patients this therapy comprises a treatment of last resort.

Directed by Dr. Guy Sauvageau, principal investigator at IRIC and hematologist at the Maisonneuve-Rosemont Hospital, this world breakthrough has the potential to multiply by 10 the number of cord blood units available for a transplant in humans. In addition, it will considerably reduce the complications associated with stem cell transplantation. And it will be particularly useful for non-Caucasian patients for whom compatible donors are difficult to identify.

A clinical study using this molecule, named UM171 in honor of the Universit de Montral, and a new type of bioreactor developed for stem culture in collaboration with the University of Toronto will be initiated in December 2014 at the Maisonneuve-Rosemont Hospital.

According to Dr. Guy Sauvageau, This new molecule, combined with the new bioreactor technology, will allow thousands of patients around the world access to a safer stem cell transplant. Considering that many patients currently cannot benefit from a stem cell transplant for lack of matching donors, this discovery looks to be highly promising for the treatment of various types of cancer.

The Centre of Excellence for Cellular Therapy at the Maisonneuve-Rosemont Hospital will serve as production unit for these stem cells, and grafts will then be distributed to patients in Montreal, Quebec City and Vancouver for this first Canadian clinical study. Tangible results should be available one year later, that is, in December 2015. The significance of this new discovery is such that over time, conclusive clinical results could revolutionize the treatment of leukemia and other blood-related illnesses.

These extraordinary advances result from the efforts of a remarkable team that includes extremely gifted students and postdoctoral investigators working in the IRIC laboratories, adds Dr. Guy Sauvageau. Among them, the first authors of this publication: Iman Fars, doctoral student, and Jalila Chagraoui, research officer, along with the professionals in IRICs medical chemistry core facility under the direction of Anne Marinier, who optimized the therapeutic properties of this new molecule.

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Umbilical cord blood from newborn children is an excellent source of hematopoietic stem cells for stem cell transplants, since their immune system is still immature and the stem cells have a lower probability of inducing an adverse immune reaction in the recipient.

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World Breakthrough: A New Molecule Allows for an Increase in Stem Cell Transplants

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18-Sep-2014

Contact: Luke Harrison l.harrison.1@bham.ac.uk University of Birmingham @unibirmingham

A key step in understanding the nature of the fight for superiority between mutated genes and normal genes could lead to new therapies to combat leukaemia, say researchers from the University of Birmingham and Newcastle University.

The study, published in Cell Reports, investigated Acute Myeloid Leukaemia to understand why leukemic cells are not able to develop normally into mature blood cells.

Stem cells in the bone marrow generate billions of different blood cells each day. The process resembles a production line with genes acting as regulators to control each step of the blood formation.

Leukaemia arises when the DNA encoding regulators in the stem cells is changed by a mutation. When a mutation occurs in the relevant regulator genes, the finely balanced order of the production line is disrupted with drastic consequences.

A chain reaction occurs, with the function of other regulators in the process being altered. The new cells no longer develop into normal blood cells, but leukemic cells that multiply and begin to take over the body.

Professor Constanze Bonifer, of the University of Birmingham, explained, "This particular leukaemia is characterised by a mutation in a gene that produces a rogue regulator. That is, one that is not normally made and behaves in a different way. The knock-on effect of that one mutation is huge."

The team showed that this aberrant regulator switches off hundreds of other genes, many of them regulators themselves, by using state of the art technology that looks at the activity of all genes within a cell. As a consequence of the drastically altered production line, normal blood formation cannot happen, and leukemic cells are formed.

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The war on leukemia: How the battle for cell production could be decisive

By Amy Adams

Sarah Heilshorn

It is a turbulent and sometimes deadly life for cells injected to heal injuries. The act of being squirted through a thin needle into the site of an injury jostles the delicate cells against each other and against the needle walls. Then, once in the site of injury, they face a biological war zone of chemicals. It's no wonder, then, that treating spinal cord injuries and other damage with injected cells has been a challenge.

Solving this problem takes more than biological know-how; it takes padding chemical padding in the form of complex molecules called polymers that bathe and protect the cells but also flow smoothly through thin needles.

Sarah Heilshorn, an associate professor of materials science and engineering at Stanford, equates these gel-like polymers to ketchup. It's pretty thick, but when you bang on the bottle the sauce flows smoothly through the neck, then firms back up on the plate a process she calls self-healing. "We want our polymers to self-heal better than ketchup," she said. "It flows a bit across the plate."

Her goal is to develop a polymer that supports the cells when they are loaded in a syringe, but then flows freely through the needle, padding and protecting the cells, then firming up quickly when it reaches the site of injury. "We don't want the cells to flow away," she says.

Heilshorn sees this technology as a platform that could be applied to a variety of cell types and injuries. Some polymers need to be firmer to support cells that like a harder environment. Others need to be softer, or contain different biochemical signals.

Neural stem cells, for example, are more likely to mature into nerves if they are in a soft environment. In a stiff environment, they tend to form supportive cells called astrocytes. Picking the right gel is critical to delivering the right kind of cells.

The biochemicals contained within the gel also matter. "We're putting in different biochemical signals that we hope the cells will respond to," Heilshorn said. "We're trying to make a biochemical home for the cells inside that lesion site."

Heilshorn is part of a team made up of Giles Plant, an associate professor of neurosurgery who is a pioneer in cell-based therapies for spinal cord injury, and Andrew Spakowitz, an associate professor of chemical engineering who is an expert in predicting polymer structures. Together, they are among the 22 teams that recently received seed grants from Stanford Bio-X to bring diverse minds to bear on complex biomedical problems.

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Gel-like padding being developed at Stanford could help cells survive injection, heal spinal cord injuries

PUBLIC RELEASE DATE:

12-Sep-2014

Contact: Peggy Murphy pemurphy@luriechildrens.org 773-755-7485 Children's Memorial Hospital

Metastatic melanoma is a highly aggressive skin cancer whose incidence is on the rise at an alarming rate. Research has revealed that metastatic tumor cells share similar signaling pathways with embryonic stem cells to sustain plasticity and growth. However, major regulators of these pathways are often missing in tumor cells, thus allowing uncontrolled tumor growth and spreading to occur.

During early vertebrate development, Nodal, an embryonic growth factor that governs the growth, pattern and position of tissues, is critical for normal maturation. Nodal plays a significant role in maintaining the pluripotency of embryonic stem cells, meaning the ability of stem cells to differentiate into any of the three germ layers that comprise the body. The recent discovery of Nodal's re-expression in several aggressive and metastatic cancers has highlighted its critical role in self-renewal and maintenance of the stem cell-like characteristics of tumor cells such as melanoma. However, the signaling pathway receptors utilized by melanoma cells to propagate Nodal's effect remain(s) mostly anecdotal and unexplored.

The laboratory of Mary J.C. Hendrix, PhD made the novel discovery that embryonic stem cells and metastatic melanoma cells share a similar repertoire of receptors known as Type I serine/threonine kinase(s), but diverge in their Type II receptor expression. Further testing indicated that metastatic melanoma cells and embryonic stem cells use different receptors for Nodal signal transduction. These findings reveal the divergence in Nodal signaling between embryonic stem cells and metastatic melanoma that can impact new therapeutic strategies targeting the re-emergence of embryonic pathways in cancer.

This work is published in the International Journal of Cancer. Mary J.C. Hendrix, PhD points out: "Nodal-expressing tumor cells don't respond favorably to conventional therapies, supporting the premise that a combinatorial approach to targeting Nodal subpopulations within tumors, along with a front-line therapy, would constitute a more rational approach for treating aggressive cancer". Zhila Khalkhali-Ellis, PhD, senior research scientist in the Hendrix laboratory and the lead author says: "Our discoveries are important for advanced stage aggressive melanoma. Given that limited therapeutic options are currently available for this cancer, we have the opportunity to investigate whether the receptors can be modulated so that the signaling molecule can be neutralized to decrease aggressive behavior." The research was supported by the National Institutes of Health.

###

Zhila Khalkhali-Ellis, PhD is Research Associate Professor of Pediatrics at Northwestern University Feinberg School of Medicine; and a member of the Cancer Biology and Epigenomics Program of Stanley Manne Children's Research Institute, affiliated with Ann & Robert H. Lurie Children's Hospital of Chicago.

Mary J.C. Hendrix, PhD is President & Scientific Director of Manne Research Institute; Children's Research Fund Professor; William G. Swartchild, Jr. Distinguished Research Professor at the Robert H. Lurie Comprehensive Cancer Center of Northwestern University.

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Re-expression of an embryonic signaling pathway in Melanoma utilizes different receptors

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Scientists are celebrating a breakthrough in stem cell research.

A type of human stem cell has been replicated in a lab for the first time in history.

The cells, previously impossible to duplicate, have been recreated to the equivalent of those between seven and nine days old the same as found in an embryo before it implants in the womb.

The creation of the human pluripotent cells opens a door for specialised cells to be created in the future for use in regenerative medicine.

The Wellcome Trust - Medical Research Council Cambridge Stem Cell Institute led the research, which was carried out by both British and Japanese academics.

Professor Austin Smith, director, said: "Our findings suggest that it is possible to rewind the clock to achieve true ground state pluripotency in human cells.

"These cells may represent the real starting point for formation of tissues in the human embryo. We hope that in time they will allow us to unlock the fundamental biology of early development, which is impossible to study directly in people."

The "reset" cells could be used as "raw material" for therapies, as well as diagnostic tools and drug screenings.

Scientists also hope that after further studying, the cells will help them learn more about how an embryo develops correctly, and how miscarriages and developmental disorders are caused.

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Significant milestone in stem cell research at The Wellcome Trust - Medical Research Council institute

Spinal cord injury - Case Study- Stem cell therapy- Giostar
a brief introduction to Giostar and its Stem cell therapy Dr.Divyang Patel (MD) a spine surgeon at Giostar- INDIA, briefs about a case of cervical spine injury, which is also examined by a...

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Spinal cord injury - Case Study- Stem cell therapy- Giostar - Video

Back in 2006, when controversy over embryonic stem cell funding was still raging, a piece of research came along that would make the debate essentially obsolete: normal adult cells can actually be reprogrammed into stem cells. No embryos necessary. The technique went on to win its inventor the Nobel Prize. And now, after many years in the lab, a Japanese patient will the first person to receive the next-gen treatment, called induced pluripotent stem cells.

This first clinical trial for iPSCs has long been in the making. Part of its complexity is that cells are taken from each patient and then, through a series of lab procedures, transformed into stem cells. Each patient gets his or her own genetically matched iPSCs.

This individualization is a key advantage over embryonic stem cells, which have been tested in humans before. Special drugs are required to prevent patients' bodies from rejecting embryonic stem cells.

After some final safety checks and genetic tests, the first clinical trial is officially underway in Japan. Nature reports that the first patient will likely receive iPSCs within days. In total, the clinical trial has enrolled six patients, all of whom with an eye condition called macular degeneration that leads to blindness. The iPSCs will replace a deteriorated layer of cells in their retinas.

So far, the procedure has worked without serious adverse effects (usually tumors) in mice and monkeys. If it works in humans, iPSCs could be a promising new avenue for human stem cell therapy, which, if you remember, could hold the key to all sorts of incurable conditions from diabetes to Parkinson's to spinal cord injuries. This is a small first step in that direction. [Nature]

Top image: an eye with signs of macular degeneration. National Eye Institute

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Induced Stem Cells Will Be Tested on Humans for the First Time

PUBLIC RELEASE DATE:

9-Sep-2014

Contact: Lauren Anderson lauren.anderson@europeanlung.org 1-142-672-876 European Lung Foundation http://www.twitter.com/EuropeanLung

Munich, Germany: A new study has revealed how stem cells work to improve lung function in acute respiratory distress syndrome (ARDS).

Previous studies have shown that stem cells can reduce lung inflammation and restore some function in ARDS, but experts are not sure how this occurs. The new study, which was presented at the European Respiratory Society's International Congress today (09 September 2014), brings us a step closer to understanding the mechanisms that occur within an injured lung.

ARDS is a life-threatening condition in which the efficiency of the lungs is severely reduced. It is caused by damage to the capillary wall either from illness or a physical injury, such as major trauma. ARDS is characterised by excessive and dysregulated inflammation in the lung and patients require mechanical ventilation in order to breathe.

Although inflammation is usually a method by which the body heals and copes with an infection, when the inflammation is dysregulated it can lead to severe damage. Immune cells known as macrophages can coordinate the inflammatory response by driving or suppressing inflammation, depending on the stimulation.

The researchers investigated whether stem cells can affect the stimulation of the macrophages and promote the state in which they will suppress the inflammation.

They tested this in an animal model using human bone marrow-derived stem cells. Mice were infected with live bacteria to induce acute pneumonia and model the condition of ARDS. The results showed that treatment with stem cells led to significant reductions in lung injury, inflammation and improved bacterial clearance. Importantly, when stem cells were given to animals that had their macrophages artificially removed, the protective effect was gone. This suggests that the macrophages are an important part of the beneficial effects of stem cells seen in this model of ARDS.

These results were further supported by experiments where stem cells were applied to human macrophages in samples of fluid taken from lungs of patients with ARDS. Again, the stem cells were able to promote the anti-inflammatory state in the human macrophage cells. The authors have identified several proteins, secreted by the stem cells, that would be responsible for this effect.

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Study sheds light on how stem cells can be used to treat lung disease

Credit: Samantha Morris, PhD, Boston Children's Hospital

As in this map on the cover of Cell, a cell has many possible destinations or fates, and can arrive at them through three main stem cell engineering methods:

reprogramming (dialing a specialized cell, such as a skin cell, back to a stem-like state with full tissue-making potential) differentiation (pushing a stem cell to become a particular cell type, such as a blood cell) direct conversion (changing one kind of specialized cell to another kind)

Freely available on the Internet, CellNet provides clues to which methods of cellular engineering are most effectiveand acts as a much-needed quality control tool.

To date, there has been no systematic means to determine how closely cells made in a petri dish approximate natural tissues in the body, says George Q. Daley, MD, PhD, director of the Stem Cell Transplantation Program at Boston Childrens Hospital, senior investigator on two studies published by Cell last week.

CellNet adds that analytical rigor and even suggests ways to make the cells better. As shown below, the algorithms inputs are engineered cells made through the different methods. The outputs are comparisons of these cells gene regulatory networks (which genes are turned on or off) to those of the real-life cells or tissues theyre meant to emulate. At far right, the algorithm flags potential genetic on/off switches that a scientist could target to improve upon his or her cells, then ranks them in order of priority.

Courtesy Patrick Cahan, PhD

CellNet will also be a powerful tool to advance synthetic biologyto engineer cells for specific medical applications, says James Collins, PhD, of the Wyss Institute for Biologically Inspired Engineering and Boston University, and co-senior author on the first study, which used CellNet to assess cells created in 56 published studies.

The second study delved into a recurring question in stem cell biology: Is it feasible to directly convert one specialized cell type to another, skipping the laborious process of making a stem cell?

Previously, most attempts to directly convert one specialized cell type to another have depended on a trial-and-error approach, notes Patrick Cahan, PhD, a Daley lab member and principal architect of CellNet.

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What if repairing large segments of damaged muscle tissue was as simple as mobilizing the body's stem cells to the site of the injury? New research in mice and rats, conducted at Wake Forest Baptist Medical Center's Institute for Regenerative Medicine, suggests that "in body" regeneration of muscle tissue might be possible by harnessing the body's natural healing powers.

Reporting online ahead of print in the journal Acta Biomaterialia, the research team demonstrated the ability to recruit stem cells that can form muscle tissue to a small piece of biomaterial, or scaffold that had been implanted in the animals' leg muscle. The secret to success was using proteins involved in cell communication and muscle formation to mobilize the cells.

"Working to leverage the body's own regenerative properties, we designed a muscle-specific scaffolding system that can actively participate in functional tissue regeneration," said Sang Jin Lee, Ph.D., assistant professor of regenerative medicine and senior author. "This is a proof-of-concept study that we hope can one day be applied to human patients."

The current treatment for restoring function when large segments of muscle are injured or removed during tumor surgery is to surgically move a segment of muscle from one part of the body to another. Of course, this reduces function at the donor site.

Several scientific teams are currently working to engineer replacement muscle in the lab by taking small biopsies of muscle tissue, expanding the cells in the lab, and placing them on scaffolds for later implantation. This approach requires a biopsy and the challenge of standardizing the cells.

"Our aim was to bypass the challenges of both of these techniques and to demonstrate the mobilization of muscle cells to a target-specific site for muscle regeneration," said Lee.

Most tissues in the body contain tissue-specific stem cells that are believed to be the "regenerative machinery" responsible for tissue maintenance. It was these cells, known as satellite or progenitor cells, that the scientists wanted to mobilize.

First, the Wake Forest Baptist scientists investigated whether muscle progenitor cells could be mobilized into an implanted scaffold, which basically serves as a "home" for the cells to grow and develop. Scaffolds were implanted in the lower leg muscle of rats and retrieved for examination after several weeks.

Lab testing revealed that the scaffolds contained muscle satellite cells as well as stem cells that could be differentiated into muscle cells in the lab. In addition, the scaffold had developed a network of blood vessels, with mature vessels forming four weeks after implantation.

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Research in rodents suggests potential for 'in body' muscle regeneration

Cell Therapy for Osteoarthritis
This video is about my PhD investigating the role of microRNAs during chondrogensis of human embryonic stem cells. This research is sponsored by the BBSRC DTP.

By: Rosie Griffiths

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Cell Therapy for Osteoarthritis - Video

Scientific publications from PubMed.gov

PubMed comprises more than 23 million citations for biomedical literature from MEDLINE, life science journals, and online books. Citations may include links to full-text content from PubMed Central and publisher web sites.

Regen Med. 2013 May;8(3):271-81 Authors: Ning G, Tang L, Wu Q, Li Y, Li Y, Zhang C, Feng S

Abstract AIM: We aim to explore the repair mechanism after the transplantation of CD34(+) human umbilical cord blood cells (HUCBCs) in traumatic spinal cord injury (SCI) in rats.

MATERIALS & METHODS: Wistar rats with SCI were randomly divided into three groups: DMEM injection (group A); CD34(+) HUCBC transplantation on the first day after injury (group B); and CD34(+) HUCBC transplantation on the sixth day after injury (group C). The Basso, Beattie and Bresnahan scores were used to evaluate motor behavior. At the injured site, the infarct size, blood vessel density, and survival and neural differentiation of transplanted cells were analyzed.

RESULTS: It was found that the Basso, Beattie and Bresnahan score in group B was significantly higher than other groups (p < 0.05), and the infarct size and blood vessel density at the injured site were significantly different (p < 0.01). However, the transplanted cells survived at least 3 weeks at the injured site, but did not differentiate into neural cells.

CONCLUSION: These results suggested transplantation of CD34(+) HUCBCs during the acute phase could promote the functional recovery better than during the subacute phase after SCI by raising blood vessel density, suggesting the possible clinical application for the treatment of spinal injury.

PMID: 23627822 [PubMed - indexed for MEDLINE]

Cytotherapy. 2013 Feb;15(2):185-91 Authors: Liu J, Han D, Wang Z, Xue M, Zhu L, Yan H, Zheng X, Guo Z, Wang H

Abstract BACKGROUND AIMS: The purpose of this study was to observe the clinical effect and safety of umbilical cord mesenchymal stem cells (UC-MSCs) in treating spinal cord injury (SCI) by intrathecal injection.

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Spinal cord injury and stem cell publications

Kansas RMC Stem Cell Therapy in the US
In the past, stem cell treatment was only available in Europe. Now, in the US, we are able to provide this potentially life changing treatment to people like you at a very reasonable price....

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Boston, MA (PRWEB) August 29, 2014

A major challenge before new biotechnology start-up companies, especially ones in the biotech start-up dense realm of Boston-Cambridge, is gaining visibility that can lead to important strategic alliances and able investors. James Sherley, the Director of Bostons Adult Stem Cell Technology Center, LLC (ASCTC), has made increasing the local and national visibility of his company an important priority since he started the company in September 2013.

In addition to a social media marketing campaign launched earlier in July of this year, Director Sherley has targeted research and development conferences both nationally and internationally to increase industry awareness of ASCTCs unique portfolio of intellectual property available for licensing and its current commercial development targets. The company is focused on producing two products to address two important needs in drug development and regenerative medicine, respectively, that it is uniquely positioned to address.

ASCTCs most advanced product is an assay that can detect, very early in the drug development pipeline, drug candidates that will ultimately fail because of their toxicity to tissue stem cells. ASCTC developed the new technology in partnership with AlphaSTAR, Corporation, located in Long Beach, California. Currently, such lurking drugs are not detected until after expensive animal testing, more expensive clinical trials, or worse, after marketing. Director Sherley refers to the second product as, A future of pounds and pounds of normal adult tissue stem cells. The company holds a patented technology for mass production of human tissue stem cells. The initial production target is human liver stem cells that can be used to make mature human liver cells for use in drug development and to support liver transplant patients. The company also holds patents for production of pancreatic stem cells and hair follicle stem cells.

The sponsor the 2014 Stem Cells & Regenerative Medicine Conference, in Boston, September 15-16, Terrapinn, Inc., invited ASCTC to attend as a VIP guest. Although ASCTC will not make a formal presentation at this conference, Director Sherley will participate in a roundtable discussion on the topic, Articulating value for up-and-coming regenerative medicine, stem cell and cell-based therapies.

Later in September (22-24), Director Sherley will present one of the selected Next Generation Presentations for new companies at BioPharm America 2014, also taking place in Boston. In addition to the public presentation, ASCTC will also participate in confidential partnering meetings with potential investors and strategic alliance partners arranged by conference organizers.

In October, Director Sherley will present to a primarily academic research audience a more detailed accounting of ASCTCs computer simulation technology for quantifying tissue stem cells in culture. This technology is the basis for the companys new assay for tissue stem cell toxicity. Director Sherley is particularly interested in the response from several experts in tissue stem cell growth dynamics who are invited speakers. The symposium, which will take place at Rhode Island Hospital, a medical affiliate of Brown University in Providence, has the goal of presenting emerging disruptive research in the area of Novel Stem Cells and Vesicles. Director Sherley is a member of the symposium organizing committee. ************************************************************************************************************* The Adult Stem Cell Technology Center, LLC (ASCTC) is a Massachusetts life sciences company established in September 2013. ASCTC Director and founder, James L. Sherley, M.D., Ph.D. is the foremost authority on the unique properties of adult stem cells. The companys patent portfolio contains biotechnologies that solve the two main technical problems production and quantification 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 iPSCs. Currently, ASCTC is employing its technological advantages to pursue commercialization of mass-produced therapeutic human liver cells and facile assays that are early warning systems for drug candidates with catastrophic toxicity due to adverse effects against adult tissue stem cells.

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The Adult Stem Cell Technology Center, LLC Participates in Multiple Stem Cell and Regenerative Medicine Conferences ...