Dublin - Research and Markets (http://www.researchandmarkets.com/research/bac5f5c5/strategic_developm) has announced the addition of the "Strategic Development of Neural Stem & Progenitor Cell Products" report to their offering.

Overview: Neurogenesis is the process by which neurons are created. This process is most active during pre-natal development when neurogenesis is responsible for populating the growing brain. Neural stem cells (NSCs) are the self-renewing, multipotent cells that differentiate into the main phenotypes of the nervous system. These cell types include neurons, astrocytes, and oligodendrocytes. Neural progenitor cells (NPCs) are the progeny of stem cell division that normally undergo a limited number of replication cycles in vivo.

The terms neuronal and neural also need to be defined. Technically speaking, neuronal means pertaining to neurons, and neural means pertaining to nerves, which are the cordlike bundles of fibers made up of neurons. Since both terms ultimately are descriptive of neurons, the scientific community uses the terms "neuronal" and "neural" interchangeably. The complexity of this issue is explored from a marketing perspective within this report.

In 1992, Reynolds and Weiss were the first to isolate neural stem cells from the striatal tissue of adult mice brain tissue, including the subventricular zone, which is a neurogenic area. Since then, neural progenitor and stem cells have been isolated from various areas of the adult brain, including non-neurogenic areas like the spinal cord, and from other species, including humans. During the development of the nervous system, neural progenitor cells can either stay in the pool of proliferating undifferentiated cells or exit the cell cycle and differentiate.

This market report focuses on recent advances in NSC research applications, explores research priorities by market segment, highlights individual labs and end-users of neuronal stem cell research products, explores the competitive environment for NSC research products, and provides 5-year growth and trend analysis. It provides detailed guidance for companies that wish to offer strategically positioned NSC research products, including cells, kits, assays, and related media and reagents.

This Market Report Includes:

- Recent advances in NSC research applications

- Research priorities by market segment

- Competitive analysis of NSC research supply companies

- Segmentation of existing NSC products

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Research and Markets: Strategic Development of Neural Stem & Progenitor Cell Products

ROCKVILLE, Md., March 28, 2012 /PRNewswire/ --Neuralstem, Inc. (NYSE Amex: CUR) announced that safety results from the first 12 patients with amyotrophic lateral sclerosis (ALS or Lou Gehrig's disease) to receive its stem cells were reported online in the peer-reviewed publication, STEM CELLS, on March 13th. "Lumbar Intraspinal Injection of Neural Stem Cells in Patients with ALS: Results of a Phase I Trial in 12 Patients" (http://www.ncbi.nlm.nih.gov/pubmed/22415942.1) reports that one patient has shown improvement in his clinical status, even though researchers caution that the study was not designed to show efficacy. Additionally, there was no evidence of accelerated disease progression due to the intervention in any of the 12 patients, who were followed from 6-18 months after they were transplanted with the cells. All of the patients, who received transplants in the lumbar (lower back) region, tolerated the treatment without any long-term complications related to either the surgery or the cells.

(Logo: http://photos.prnewswire.com/prnh/20061221/DCTH007LOGO )

The 12 patients, part of the ongoing Phase I trial to evaluate the safety of Neuralstem's stem cells and transplantation procedure in patients with ALS, were the first in the world to receive intraspinal stem cell injections. Results from these patients were also were reported at the American Academy of Neurology Annual Meeting last September.

Based on a positive safety assessment, the trial has now been approved by the FDA to progress to transplanting ALS patients in the cervical (upper back) region of the spine, where the goal is to protect the motor neurons which affect respiratory function, and possibly prolong life. The fourteenth patient was transplanted earlier this month. All patients were treated at Emory University Hospital in Atlanta, Georgia.

"For these first 12 patients, we have met the objective of the Phase I trial, demonstrating safety for both the procedure of intraspinal injection and the presence of the neural stem cells in the spinal cords of ALS patients," said Jonathan Glass, MD, lead author of the publication. "We are encouraged by these results and have now advanced our trial to injections into the cervical spinal cord, targeting the motor neurons that control respiratory function." Dr. Glass is Professor of Neurology and Pathology at Emory University School of Medicine, as well as the Director of the Emory ALS Center.

"This important peer-reviewed publication reinforces our belief that we have demonstrated a safe, reproducible and robust route of administration into the spine for these spinal cord neural stem cells," said Eva Feldman, MD, PhD, Director of the A. Alfred Taubman Medical Research Institute and Director of Research of the ALS Clinic at the University of Michigan Health System. "The publication covers data up to 18 months out from the original surgery. However, we must be cautious in interpreting this data, as this trial was neither designed nor statistically powered to study efficacy." Dr. Feldman is senior author on the study, principal investigator (PI) of the ALS trial and serves as a consultant to Neuralstem as part of her University of Michigan activities.

"As this article points out, our experience in the lumbar spinal cord has been overwhelmingly positive," commented Karl Johe, PhD, study author and Neuralstem Chairman and Chief Scientific Officer. "We have already transplanted two patients in the cervical spinal cord, where we believe we can affect patients' lives the most by improving their breathing. We are in active discussions with the FDA to increase the number of cells and the number of injections as well."

"We wish to thank the teams at Michigan and Emory for the tireless efforts required to refine this breakthrough method of administration of our neural stem cells. We'd also like to thank the patients and families involved in the trial," said Richard Garr, Neuralstem CEO and President. "The progress we have made to date is both substantial, and a true team effort."

About the Study

Safety results were reported on the first 12 patients in an ongoing Phase I study to evaluate the safety of Neuralstem's spinal cord stem cells (HSSC's), as well as the transplantation technique, in the treatment of ALS (amyotrophic lateral sclerosis, or Lou Gehrig's disease).

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Neuralstem ALS Stem Cell Trial Interim Results Reported in the Journal, STEM CELLS

From being unable to move the majority of his body in 2008 to taking steps with leg braces today, Mount Shastas Corben Brooks is proving that a spinal cord injury isnt the end of the world.

Three and a half years after a high school football injury left him a quadriplegic, Mount Shastas Corben Brooks is focused on recovery while in New Delhi, India, where hes receiving a third round of stem cell treatments not yet available in the United States.

The ever-optimistic 20 year old can now stand with minimal assistance, take steps with leg braces, wiggle his toes, partially close his hands and feel the majority of his legs.

Corben said hes looking forward to Labor Day Weekend, when his family will host Thunder in the Park in Mount Shasta, an event which will include the raffle drawing for a custom built motorcycle dubbed Corbens Ride, as well as live music, a chili cookoff, pancake breakfast and a poker run. Thunder in the Park will coincide with the Mount Shasta Police Departments Show & Shine car show in attempt to keep visitors in Mount Shasta the entire weekend.

Without the support of our community and countless other people I wouldn't be where I am today, Corben said via email from India last week. I can honestly say that without the help from my family, friends, this wonderful community and all who have so generously gone out of their way to help me, I would not be in the remarkable position that I am today. Thank you is nowhere near an adequate enough word to express my thanks.

Though he knows stem cell treatments are controversial, Corben said after each treatment he sees more function and sensation in his body for up to nine months after returning home.

So far on this trip I have gained new sensation and feeling in the back of my legs and hamstrings and additional feeling on my left foot, Corben said.

The results of a recent MRI also showed encouraging results, said Corben.

What we saw was the stem cells have been reducing the amount of scar tissue in my spinal cord at the injury site, Corben said. With the scar tissue being reduced, my nerves are given the opportunity to reestablish a connection. And we believe that is why I have been seeing continual recovery during and after these treatments.

Since his last visit in 2011, Corben said his walking has improved greatly, thanks to the help of his trainer back at home, Lisa Pigoni.

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Corben Brooks continues on road to recovery

Published on Mar 25, 2012

(KOREA HERALD/ASIA NEWS NETWORK) - A joint research team from South Korea and Germany said on Friday they have created stem cells that have the potential to help treat people suffering from dementia and spinal cord trauma.

Scientists from Konkuk University and the Max Planck Institute said they have successfully used somatic cells from mice to create so-called induced neural stem cells (iNSCs) that can be cultivated for over a year under laboratory conditions.

The iNSCs have also been injected into the brains of mice and differentiated into various nerve cells without growing into malignant tumors.

'The discovery marks the first time ordinary somatic cells have been artificially engineered to become adult stem cells,' said Prof Han Dong Wook, a professor of stem cell biology at Konkuk, who led the research.

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Scientists develop stem cells that may help treat dementia

The Gairdner Foundation announced today that Howard Hughes Medical Institute (HHMI) researchers Thomas M. Jessell and Michael Rosbash are recipients of the prestigious 2012 Canada Gairdner International Awards in recognition of their contributions to medical science.

The awards, which are presented annually, recognize scientists responsible for some of the worlds most significant medical discoveries. Jessell, who became an HHMI investigator at Columbia University in 1985, was honored for discovering basic principles of communication within the nervous system. The Foundation states that Jessells work has been instrumental in revealing important steps in the process that guides the early development of neurons, as they establish the precise connections between the spinal cord and muscles.

Rosbash, who became an HHMI investigator at Brandeis University in 1989, was highlighted for discoveries that have revealed the genetic underpinnings of the circadian clock. Circadian clocks are active throughout the bodys cells, where they use a common genetic mechanism to control the rhythmic activities of various tissues. Rosbash, Jeffrey C. Hall, emeritus professor of biology at Brandeis University, and Michael W. Young of the Laboratory of Genetics at The Rockefeller University, were honored by the Gairdner Foundation for pioneering discoveries concerning the biological clock responsible for circadian rhythms.

The Canada Gairdner Awards will be presented at a dinner in Toronto in October as part of the Gairdner National Program, a month-long lecture series given by Canada Gairdner Award winners at 21 universities from St Johns to Vancouver.

Thomas M. Jessell, Ph.D.

For the past two decades, Thomas Jessell has worked to understand how nerve cells in the developing spinal cord assemble into functional circuits that control sensory perception and motor actions. Ultimately, his research may provide a more thorough understanding of how the central nervous system is constructed and suggest new ways to repair diseased or damaged neurons in the human brain and spinal cord.

There is increasingly persuasive evidence to suggest that many neurodevelopmental and psychiatric disordersfrom motor neuron diseases to autism and schizophreniaresult from defects in the initial assembly of connections in the developing brain, says Jessell. By understanding the cellular and molecular processes that control the normal wiring pattern of these connections, we may eventually be able to design more rational and effective strategies for repairing the defects that underlie brain disorders.

Jessell's work has revealed the details of a molecular pathway that converts nave progenitor cells in the early neural tube into the many different classes of motor neurons and interneurons that assemble together to form functional locomotor circuits. This molecular pathway involves critical environmental signaling molecules such as Sonic hedgehog, and a delicate interplay of nuclear transcription factors that interpret Sonic hedgehog signals to generate diverse neuronal classes.

The principles that have emerged from Jessell's studies in the spinal cord have been found to apply to many other regions of the central nervous system, thus establishing a basic ground plan for brain development. His work has also defined many of the key steps that permit newly generated neurons to form selective connections with their target cells.

One potential strategy for brain repair involves the use of stem cells, and Jessell and his colleagues have demonstrated that mouse embryonic stem cells can be converted into functional motor neurons in a simple procedure that recapitulates the normal molecular program of motor neuron differentiation. Remarkably, these stem cell-derived motor neurons can integrate into the spinal cord in vivo and contribute to functional motor circuits. This work may uncover additional aspects of the basic program of motor neuron development, as well as pointing the way to new cell and drug-based therapies for motor neuron disease and spinal cord injury.

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2012 Gairdner Awards Go to Jessell, Rosbash

MCKINNEY (CBSDFW.COM) - If you have ever dealt with back pain, then you know how quickly it can take over your life. But some North Texans are discovering that tiny cells in their own bodies could be key to long-lasting relief.

A simple walk on a beautiful day is not something that Kim Ferracioli takes for granted, as the McKinney resident has been dealing with debilitating back pain for years due to a bad disk in her lower spine. It was so painful, she said. Everytime I would stand up or sit too long, it was just a horrible pinching feeling.

When steroid injections, physical therapy and a minimally-invasive surgery actually made the pain worse, Ferracioli decided to try a new therapy that is revolutionizing the way that doctors treat spinal injuries.

Were using your stem cells, which decreases the rate for complications, explained Dr. Rob Dickerman, a neurosurgeon and one of a few doctors in the country using a patients own stem cells to actually grow new bones from scratch. We can remove a disk and put them between the bones of the spine, and itll stimulate a fusion.

Dickerman removes stem cells from a patients hip and places them in a disk-like carrier. Once implanted into the patients spine, within three months, the stem cells begin to grow into new bone where the damaged disk was removed.

There was an automatic difference, said Ferracioli about the procedure. I could get up out of chairs. I didnt need the cane anymore.

Dickerman said that the success of these procedures are just the first steps for stem cell use in the spine. He hopes that they will soon be able to treat more serious injuries. If we can tweak these cells, Dickerman explained, to make it beneficial to these patients that for the most part have irreparable injuries, that would just be a huge advance in science.

Research is already underway in several labs around the world, transplanting a patients own stem cells to repair spinal cord injuries and even traumatic brain injuries. Dickerman hopes to see these treatments hit the mainstream within the next few years.

In the meantime, Ferracioli said that this new procedure is the only thing that gave her life back. I had to literally pull this back leg up the stairs, Ferracioli recalled. Now, I can just go no pain!

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Stem Cells Could Be Key To Back Pain Relief

Newswise MANHATTAN, KAN. -- Research from a Kansas State University professor may make it easier to recover after spinal cord injury or to study neurological disorders.

Mark Weiss, professor of anatomy and physiology, is researching genetic models for spinal cord injury or diseases such as Parkinson's disease. He is developing technology that can advance cellular therapy and regenerative medicine -- a type of research that can greatly improve animal and human health.

"We're trying to build tools, trying to build models that will have broad applications," Weiss said. "So if you're interested in neural differentiation or if you're interested in response after an injury, we're trying to come up with cell lines that will teach us, help us to solve a medical mystery."

Weiss' research team has perfected a technique to use stem cells to study targeted genetic modifications. They are among a handful of laboratories in the world using these types of models for disease. The research is an important step in the field of functional genomics, which focuses on understanding the functions and roles of these genes in disease.

The researchers are creating several tools to study functional genomics. One such tool involves developing new ways to use fluorescent transporters, which make it easier to study proteins and their functions. These fluorescent transporters can be especially helpful when studying neurological disorders such as Parkinson's disease, stroke and spinal cord injury.

"People who have spinal cord injury do not experience a lot of regeneration," Weiss said. "It is one of the problems of the nervous system -- it is not great at regenerating itself like other tissues."

The researchers want to discover a way to help this regenerative process kick in. By studying signals from fluorescing cells, they can understand how neural stem cells are reactivated.

"We want to try and make these genetic markers, and then we can test different kinds of treatment to see how they assist in the regenerative process," Weiss said.

Weiss' stem cell research has appeared in two recent journals: Stem Cells and Development and the Journal of Assisted Reproduction and Genetics. His research has been funded by the National Institutes of Health and university funds, including the Johnson Cancer Research Center.

Weiss' seven-member research team includes a visiting professor, two full-time researchers, a graduate student and three undergraduates. He has also been collaborating with researchers from the University of Kansas Medical Center.

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Anatomy of Success: Genetic Research Develops Tools for Studying Diseases, Improving Regenerative Treatment

ScienceDaily (Mar. 19, 2012) Research from a Kansas State University professor may make it easier to recover after spinal cord injury or to study neurological disorders.

Mark Weiss, professor of anatomy and physiology, is researching genetic models for spinal cord injury or diseases such as Parkinson's disease. He is developing technology that can advance cellular therapy and regenerative medicine -- a type of research that can greatly improve animal and human health.

"We're trying to build tools, trying to build models that will have broad applications," Weiss said. "So if you're interested in neural differentiation or if you're interested in response after an injury, we're trying to come up with cell lines that will teach us, help us to solve a medical mystery."

Weiss' research team has perfected a technique to use stem cells to study targeted genetic modifications. They are among a handful of laboratories in the world using these types of models for disease. The research is an important step in the field of functional genomics, which focuses on understanding the functions and roles of these genes in disease.

The researchers are creating several tools to study functional genomics. One such tool involves developing new ways to use fluorescent transporters, which make it easier to study proteins and their functions. These fluorescent transporters can be especially helpful when studying neurological disorders such as Parkinson's disease, stroke and spinal cord injury.

"People who have spinal cord injury do not experience a lot of regeneration," Weiss said. "It is one of the problems of the nervous system -- it is not great at regenerating itself like other tissues."

The researchers want to discover a way to help this regenerative process kick in. By studying signals from fluorescing cells, they can understand how neural stem cells are reactivated.

"We want to try and make these genetic markers, and then we can test different kinds of treatment to see how they assist in the regenerative process," Weiss said.

Weiss' stem cell research has appeared in two recent journals: Stem Cells and Development and the Journal of Assisted Reproduction and Genetics. His research has been funded by the National Institutes of Health and university funds, including the Johnson Cancer Research Center.

Weiss' seven-member research team includes a visiting professor, two full-time researchers, a graduate student and three undergraduates. He has also been collaborating with researchers from the University of Kansas Medical Center.

Original post:
Genetic research develops tools for studying diseases, improving regenerative treatment

Doctor Wise Young in Hong Kong on February 22, 2012. Young, a leading researcher in spinal cord injuries, says China could hold the key to a cure that he has been searching for since he met late actor Christopher Reeve in the 1990s. AFP pic

US-based Doctor Wise Young first used the word cure in relation to his work after a conversation with Reeve, the Superman hero who became quadriplegic in an equestrian accident in 1995.

Reeve contacted him looking for help and the two became close friends. The actor died of heart failure in 2004 at the age of 52, having devoted his life to raising awareness about spinal cord injuries and stem-cell research.

But it was a star of a different sort, Chinese gymnast Sang Lan, who set Young on the path he believes has brought a cure closer than ever, thanks to ground-breaking clinical trials of stem-cell therapy he is conducting in China.

Everybody assumed that Im doing this in China because I wanted to escape George W. Bush, but thats not the case at all, Young said in an interview, recalling the former US presidents 2001 decision to effectively stop Federal funding of embryonic stem cell research.

I started the clinical trials in 2005 here in Hong Kong ... mainly because of a promise that I made to a young woman. Her name is Sang Lan.

Sang crushed her spine during a routine warm-up exercise at the Goodwill Games in New York in 1998. She met Young as she underwent treatment and rehabilitation in the United States over the next 12 months.

Her parents came to me and asked whether or not there would ever be a cure for her, and I said were working very hard on it, recalled Young, who was by then one of the leading US experts on spinal cord injuries.

When she went back to China after doing her rehabilitation in New York she cried and asked how would therapies go from the United States to China.

In those days China was still relatively poor and backward so she didnt think that any therapy would be coming from China. So I started in 1999 to talk to all the spinal cord doctors in China.

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Doctor looks to China for spinal injury ‘cure’

Public release date: 13-Mar-2012 [ | E-mail | Share ]

Contact: David Sampson ajpmedia@elsevier.com 215-239-3171 Elsevier Health Sciences

Philadelphia, PA, March 13, 2012 A new study suggests that administering FTY720, an oral drug that has shown promise in trials for human multiple sclerosis, significantly improves locomotor recovery in mice with spinal cord injury (SCI). The research suggests a possible new avenue to counteract the degeneration of the spinal cord in human SCI. The study will be published in the April 2012 issue of The American Journal of Pathology.

Beyond the initial tissue damage, much of the degradation of the spinal cord in SCI is due to a cascade of secondary injuries, including neuronal and glial apoptosis, inflammation, glial scar formation, local edema and ischemia, and oxidative stress. The aim of current SCI treatment is to counteract the mechanisms of secondary injury and prevent their pathological consequences, because central nervous system (CNS) neurons have very limited capacity to self-repair and regenerate.

Researchers from the Jichi Medical University School of Medicine and the Graduate School of Medicine at the University of Tokyo had previously shown that the concentration of the lysophospholipid mediator, sphingosine 1-phosphate (S1P), was significantly increased in the location of a contusion injury, triggering the migration of neural progenitor/stem cells to the site of the injury. They hypothesized that targeting S1P receptors may become a candidate therapy for various refractory central nervous system disorders, including SCI.

FTY720 acts as a broad S1P receptor modulator. Its efficacy in central nervous system disorders is believed to derive from immunomodulation. Researchers found that orally administering FTY720 to mice shortly after contusion SCI significantly improved motor function recovery. Importantly, they found that the therapeutic effects of FTY720 were not solely dependent on immune modulation. The administration of FTY720 induced lymphopenia, clearing lymphocytes from the blood, and reduced T-cell infiltration in the spinal cord. But it did not affect the early infiltration of neutrophils and activation of microglia, and it did not reduce plasma levels and mRNA expression of inflammatory cytokines in the spinal cord. Tests in mice with severe combined immunodeficiency (SCID mice) with SCI found that FTY720 significantly improved recovery of hind limb motor function.

"These data clearly indicate the importance of immune-independent functions of FTY720 in the amelioration of functional deficits after SCI in mice," explains lead investigator Yoichi Sakata, MD, PhD, Research Division of Cell and Molecular Medicine, Center for Molecular Medicine, Jichi Medical University School of Medicine.

Dr. Sakata notes that S1P receptors exist in many types of cells and play a role in many cellular processes. "We observed that FTY720 decreased vascular permeability and astrocyte accumulation in injured spinal cord. These changes were also noted in SCID mice, suggesting they are not dependent on lymphocyte function. Increased vascular permeability can lead to destruction of the blood-brain barrier in spinal cord, and astrocyte accumulation is the main cellular component of glial scar after CNS injury. FTY720 might counteract these secondary injuries and thereby prevent their pathological consequences."

"Our data suggest that targeting S1P receptors with FTY720 is an attractive therapeutic approach for SCI," Dr. Sakata concludes. "However, further evaluation utilizing larger animals such as non-human primates will be necessary to confirm its efficacy in treating SCI. Further, strategies targeted at modulating the SIP concentration in injured CNS may lead to new therapeutic approaches towards repairing various CNS disorders."

###

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Research suggests new therapeutic approach for spinal cord injury

OKLAHOMA -- An Oklahoma House subcommittee recently approved a bill that would provide state funding for an umbilical cord blood bank. Doctors say the cord blood provides a source of stem cells without causing harm to an unborn child.

Oklahoma State Representative John Enns nearly lost his life after the Tracker he was driving rolled over, breaking his back in 3 places and leaving him paralyzed.

"Before my accident which was in 2004, I was a microbiology professor I taught about these stemcells and I taught the difference between embryonic and adult stem cells, which is huge," Enns said. "My accident happened and then I got even more involved in because this is something that may help a paralyzed person in the future with spinal cord injuries help them to actually get up and walk."

Enns now spends most his time in a wheelchair but continues to research the benefits of umbilical cord blood. He recently authored a bill that would fund a public umbilical cord blood bank for the state.

"What we will do with that is because it is pretty expensive to get it started, we will increase the amount that you pay when you get a birth certificate by $5. This will have a 5 year sunset on it which means in 5 years it will go away," Enns said.

"After the baby is delivered and the placenta is about to be thrown a way the cells can save the life of someone who has luekemia or a genetic problem where replacing their existing bone marrow is important to their cure."

OBI's president, Dr. John Armitage, says the benefits of having an umbilical cord blood bank greatly outweighs its cost..

"There is this future benefit that cant be underestimated," Armitage said. "These cells are going to eventually be used by biotechnology firms to do amazing things in terms of new tissue generation and repairing anything from hearts to any tissue in the body."

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Oklahoma bill proposes umbilical cord blood bank

MissionIR would like to highlight Neuralstem, Inc. (NYSE AMEX: CUR). The company's patented technology enables the ability to produce neural stem cells of the human brain and spinal cord in commercial quantities, and the ability to control the differentiation of these cells constitutively into mature, physiologically relevant human neurons and glia. In addition to ALS, Neuralstem is also targeting major central nervous system conditions with its cell therapy platform, including spinal cord injury, ischemic spastic paraplegia, chronic stroke, and Huntington's disease.

In the company's news yesterday,

Neuralstem reported dosing of the fourteenth patient in its ongoing Phase I clinical trialing of the companys spinal cord neural stem cells in ALS (amyotrophic lateral sclerosis or Lou Gehrigs disease), marking the second patient to receive cells in the cervical (upper back) region of the spine and the trials first female patient. This is the first FDA-approved neural stem cell trial for the treatment of ALS.

This treatment is designed to help remediate breathing function loss associated with progressive ALS, and the transplantation of stem cells observed in the trial will be keenly watched for safety/efficacy of spinal cord neural stem cells, as well as the intraspinal transplantation method. The first twelve patients received lumbar (lower back) transplants and the trial has now been underway since January of 2010.

Having begun with non-ambulatory patients and progressing to patients able to walk, this trial has now entered into the final six patients, all of whom will receive cervical transplants, with trial conclusion projected for six months after the final surgery is complete. The proprietary CUR spinal cord delivery platform with floating cannula has helped tremendously in making this dream a possibility and represents a true breakthrough in the field, making the first ever intraspinal injections feasible.

Chairman and CSO of CUR, Karl Johe, PhD., was proud to be breaking new ground with this latest cohort of patients, as it represents a major milestone for the trial, with direct implantation of cells into the gray matter of the spinal cord in the cervical region. Dr. Johe was especially proud of the potential these successful surgeries represent for the numerous patients who suffer from significant quality of life impairment due to ALS. With the 14th successful transplant notched into their belts, CUR is confident that the demonstration of safety in this novel procedure is going quite well.

This is a huge coup for CUR which is also making significant advancements towards developing a robust cell therapy platform capable of addressing a wide range of major central nervous system conditions, ranging from spinal cord injuries and chronic stroke, to ischemic spastic paraplegia and other crippling conditions. The company has an IND submitted to FDA for Phase I safety trials in chronic spinal cord injury.

The company is also well-positioned to service systematic screening needs in the large chemical library space. With proprietary screening technology and the ability to generate appropriate human neural stem cell lines, CUR is ready to leverage discovered/patented compounds that help to stimulate brain activity and neuron regeneration. The potential exists to even reverse debilitating CNS conditions.

The company has also received FDA clearance to conduct a Phase Ib safety trial for their first small molecule compound, NSI-189, for treatment of MDD (major depressive disorder); technology that could easily pan out into schizophrenia, bipolar disorder, and Alzheimers offerings.

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Neuralstem Shows Solid Progress in Spinal Cord Neural Stem Cell Trial for ALS

ROCKVILLE, Md., March 7, 2012 /PRNewswire/ -- Neuralstem, Inc. (NYSE Amex: CUR) announced that the second patient to receive stem cells in the cervical (upper back) region of the spine was dosed on February 29th in the ongoing Phase I trial of its spinal cord neural stem cells in amyotrophic lateral sclerosis (ALS or Lou Gehrig's disease). Patient 14 is also the first woman to be treated in the trial. Stem cell transplantation into the cervical region of the spinal cord couldsupport breathing, a key function that is lost as ALS progresses. The first twelve patients in the trial received stem cell transplants in the lumbar (lower back) region of the spinal cord only.

(Logo: http://photos.prnewswire.com/prnh/20061221/DCTH007LOGO )

"This cohort of patients represents another first for our trial, as we transplant cells directly into the gray matter of the spinal cord in the cervical region," said Karl Johe, PhD, Neuralstem's Chairman and Chief Scientific Officer. "We are delighted that the surgeries are progressing in a region that could have a significant impact on the quality of life for ALS patients. With the safe transplantation of our 14th patient, we are well are on our way to demonstrating the safety of our novel procedure."

About the Trial The Phase I trial to assess the safety of Neuralstem's spinal cord neural stem cells and intraspinal transplantation method in ALS patients has been underway since January 2010. The trial is designed to enroll up to 18 patients. The first 12 patients were each transplanted in the lumbar (lower back) region of the spine, beginning with non-ambulatory and advancing to ambulatory cohorts. The trial has now progressed to the final six patients. Each is in the cervical (upper back) region of the spine. The entire 18-patient trial concludes six months after the final surgery.

About Neuralstem Neuralstem's patented technology enables the ability to produce neural stem cells of the human brain and spinal cord in commercial quantities, and the ability to control the differentiation of these cells constitutively into mature, physiologically relevant human neurons and glia. Neuralstem is in an FDA-approved Phase I safety clinical trial for amyotrophic lateral sclerosis (ALS), often referred to as Lou Gehrig's disease, and has been awarded orphan status designation by the FDA.

In addition to ALS, the company is also targeting major central nervous system conditions with its cell therapy platform, including spinal cord injury, ischemic spastic paraplegia and chronic stroke. The company has submitted an IND (Investigational New Drug) application to the FDA for a Phase I safety trial in chronic spinal cord injury.

Neuralstem also has the ability to generate stable human neural stem cell lines suitable for the systematic screening of large chemical libraries. Through this proprietary screening technology, Neuralstem has discovered and patented compounds that may stimulate the brain's capacity to generate new neurons, possibly reversing the pathologies of some central nervous system conditions. The company has received approval from the FDA to conduct a Phase Ib safety trial evaluating NSI-189, its first small molecule compound, for the treatment of major depressive disorder (MDD). Additional indications could include schizophrenia, Alzheimer's disease and bipolar disorder.

For more information, please visit http://www.neuralstem.com and connect with us on Twitter and Facebook.

Cautionary Statement Regarding Forward Looking Information This news release may contain forward-looking statements made pursuant to the "safe harbor" provisions of the Private Securities Litigation Reform Act of 1995. Investors are cautioned that such forward-looking statements in this press release regarding potential applications of Neuralstem's technologies constitute forward-looking statements that involve risks and uncertainties, including, without limitation, risks inherent in the development and commercialization of potential products, uncertainty of clinical trial results or regulatory approvals or clearances, need for future capital, dependence upon collaborators and maintenance of our intellectual property rights. Actual results may differ materially from the results anticipated in these forward-looking statements. Additional information on potential factors that could affect our results and other risks and uncertainties are detailed from time to time in Neuralstem's periodic reports, including the annual report on Form 10-K for the year ended December 31, 2010 and the quarterly report on Form 10-Q for the period ended September 30, 2011.

Read more from the original source:
Fourteenth Patient Dosed in Neuralstem ALS Stem Cell Trial

by Stephen Coates

HONG KONG, March 7, 2012 (AFP) - One of the world's leading researchers into spinal cord injuries says China could hold the key to a cure that he has been searching for since he met late actor Christopher Reeve in the 1990s.

US-based Doctor Wise Young first used the word "cure" in relation to his work after a conversation with Reeve, the "Superman" hero who became quadriplegic in an equestrian accident in 1995.

Reeve contacted him looking for help and the two became close friends. The actor died of heart failure in 2004 at the age of 52, having devoted his life to raising awareness about spinal cord injuries and stem-cell research.

But it was a star of a different sort, Chinese gymnast Sang Lan, who set Young on the path he believes has brought a cure closer than ever, thanks to ground-breaking clinical trials of stem-cell therapy he is conducting in China.

"Everybody assumed that I'm doing this in China because I wanted to escape George W. Bush, but that's not the case at all," Young told AFP in an interview, recalling the former US president's 2001 decision to effectively stop Federal funding of embryonic stem cell research.

"I started the clinical trials in 2005 here in Hong Kong ... mainly because of a promise that I made to a young woman. Her name is Sang Lan."

Sang crushed her spine during a routine warm-up exercise at the Goodwill Games in New York in 1998. She met Young as she underwent treatment and rehabilitation in the United States over the next 12 months.

"Her parents came to me and asked whether or not there would ever be a cure for her, and I said we're working very hard on it," recalled Young, who was by then one of the leading US experts on spinal cord injuries.

"When she went back to China after doing her rehabilitation in New York she cried and asked how would therapies go from the United States to China.

Read the original here:
Doctor looks to China for spinal injury 'cure'

One of the world's leading researchers into spinal cord injuries says China could hold the key to a cure that he has been searching for since he met late actor Christopher Reeve in the 1990s.

US-based Doctor Wise Young first used the word "cure" in relation to his work after a conversation with Reeve, the Superman hero who became a quadriplegic in an equestrian accident in 1995.

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Reeve contacted him looking for help and the two became close friends. The actor died of heart failure in 2004 at the age of 52, having devoted his life to raising awareness about spinal cord injuries and stem-cell research.

But it was a star of a different sort, Chinese gymnast Sang Lan, who set Young on the path he believes has brought a cure closer than ever, thanks to ground-breaking clinical trials of stem-cell therapy he is conducting in China.

"Everybody assumed that I'm doing this in China because I wanted to escape George W. Bush, but that's not the case at all," Young told AFP, recalling the former US president's 2001 decision to effectively stop federal funding of embryonic stem cell research.

"I started the clinical trials in 2005 here in Hong Kong . . . mainly because of a promise that I made to a young woman. Her name is Sang Lan."

Sang crushed her spine during a routine warm-up exercise at the Goodwill Games in New York in 1998. She met Young as she underwent treatment and rehabilitation in the US over the next 12 months.

"Her parents came to me and asked whether or not there would ever be a cure for her, and I said we're working very hard on it," said Young, who was by then one of the leading US experts on spinal cord injuries.

"When she went back to China after doing her rehabilitation in New York she cried and asked how would therapies go from the United States to China.

The rest is here:
Young aims for spinal injury 'cure'

3/7/2012 5:12 AM ET (RTTNews) - Stem cells have set the scientific world agog because it has been proposed as candidates to treat a myriad of diseases ranging from alzheimer's to arthritis, blindness, burns, cancer, diabetes, heart disease, liver disorders, multiple sclerosis, parkinson's, spinal cord injury and stroke.

Engaged in the development of novel stem cell therapeutics targeting diseases of the central nervous system and liver is clinical-stage company StemCells Inc. (STEM: News ).

For readers who are new to this Palo Alto, California-based company, here's what to expect in the coming months...

StemCells' lead product candidate is HuCNS-SC cells, a highly purified composition of human neural stem cells, currently in clinical development for spinal cord injury and for Pelizaeus-Merzbacher Disease, or PMD, a fatal myelination disorder in children.

A phase I/II clinical trial of HuCNS-SC cells in chronic spinal cord injury was initiated by the company last March. The trial, which is the world's first neural stem cell trial in spinal cord injury, is designed to enroll patients with thoracic (chest-level) neurological injuries with progressively decreasing severity of injury in three sequential cohorts.

The first patient in the trial was successfully transplanted with the company's proprietary HuCNS-SC adult neural stem cells last September, and enrollment in the first cohort of the spinal cord injury trial was completed last December. Following transplantation, the patients are being evaluated regularly over a 12-month period in order to monitor and evaluate the safety and tolerability of the HuCNS-SC cells.

The trial, which is currently open for enrollment for the remaining cohorts, is being conducted in Switzerland at the Balgrist University Hospital, University of Zurich.

In November 2011, Geron Corp. (GERN), the first company to get FDA approval for a clinical trial of an embryonic stem cell-based therapy, abandoned its phase I stem cell trial in patients paralyzed by spinal cord injuries - largely because of financial reasons.

The difference between the spinal cord injury trials of StemCells and Geron lies in the type of stem cells being evaluated. While Geron used human embryonic stem cells to treat spinal cord injuries in its trial, StemCells is using tissue-derived "adult" (non-embryonic) stem cells in its trials.

Yet another trial of StemCells that is underway is a phase I trial evaluating the safety and preliminary efficacy of HuCNS-SC cells as a treatment for Pelizaeus-Merzbacher Disease that primarily affects infants and young children.

Original post:
Will StemCells Walk The Talk?

Repeated injections of human umbilical cord blood cells improved motor neuron survival, delayed disease progression and increased lifespan

Oldsmar, FL (PRWEB) March 06, 2012

Dr. Julie G. Allickson, PhD. Vice President of Laboratory Operations and R&D, stated This groundbreaking study demonstrates the amazing capacity of cord blood stem cells to potentially treat a devastating neurodegenerative disease through the secretion of trophic factors that resulted in neuroprotection in the ALS mouse model. The data certainly justifies additional pre-clinical investigations using umbilical cord blood stem cells. This source of cells has mainly been used in hematopoietic and immune diseases in more than 25,000 transplants to date.

Cryo- Cell is excited about the results of the research Saneron CCEL Therapeutics has completed and proud of the progress Saneron has made in the treatment for ALS. The investment community does not appreciate the value of Cryo-Cells holdings in Saneron and its world-class research initiatives, commented David Portnoy, Cryo-Cells Chairman and CEO.

Given the delay between the onset of symptoms and the actual diagnosis of ALS, the data obtained from this study was critically important to show that multiple low-doses of cord blood cells started after the symptomatic disease stage in the ALS mouse model could benefit disease outcomes, said co-author Nicole Kuzmin-Nichols, President and COO of Saneron CCEL Therapeutics, Inc. Our continuing studies are aimed at translating the preclinical data into future clinical studies.

About Cryo-Cell International, Inc.

Cryo-Cell International, Inc. was founded in 1989 and was the worlds first private cord blood bank to separate and store stem cells in 1992. Today, Cryo-Cell has over 240,000 clients worldwide from 87 countries. Cryo-Cells mission is to provide our clients with the premier stem cell cryopreservation service and to support the advancement of regenerative medicine.

Cryo-Cell operates in a state-of-the-art Good Manufacturing Practice and Good Tissue Practice (cGMP/cGTP)-compliant facility, is ISO 9001:2008 certified and accredited by the AABB. Cryo-Cell is a publicly traded company. OTC:QB Markets Group Symbol: CCEL. Expectant parents or healthcare professionals may call 1-800-STOR-CELL (1-800-786-7235) or visit http://www.cryo-cell.com.

About Saneron CCEL Therapeutics, Inc.

Saneron CCEL Therapeutics, Inc. is a biotechnology R&D company, focused on neurological and cardiac cell therapy for the early intervention and treatment of several devastating or deadly diseases, which lack adequate treatment options. Saneron, a University of South Florida spin-out company is located at the Tampa Bay Technology Incubator. An affiliate of Cryo-Cell International, Inc., Saneron is committed to providing readily available, noncontroversial stem cells for cellular therapies and has patented and patent-pending technology relating to our platform technology of umbilical cord blood and Sertoli cells.

Read the rest here:
Cryo-Cell's Affiliate, Saneron CCEL Therapeutics, Releases Pre-clinical Data Indicating That Cord Blood Stem Cells ...

Stem cell therapy is poised to become the next big thing in the treatment of major diseases. Even those extracted from dental pulp can be preserved for future use

Watching his five-year-old pull at his loose tooth, dad Shekar remembered something he had read in a dental clinic. Stem cells from teeth, called dental pulp stem cells (DPSCs) could be preserved and retrieved to treat his son if he had a major ailment in future. Stemade, a private company, would arrange to collect DPSCs through its Smile Clinics and store them in state-of-the-art labs in several cities across the country. His thought: Stem cell technology is the next big step in medical treatment. Banking SCs is medical bio-insurance for his kid.

Stem cell therapy didn't jump out of a box yesterday. We've heard of it being used in treating leukaemia. Patients with spinal cord injury have spent huge sums on it hoping to get up and walk. Some ask: If a house lizard can grow back its tail, why can't we get our systems to re-start with a million multiplying stem cells?

Kinds of cells

The best cells for banking are embryonic cells which are programmed to develop and grow. But harvesting these is banned. Ethical issues, you know. Adult SCs beyond the embryonic stage are classified as haematopoietic (from umbilical cord blood and bone marrow) and mesenchymal (tissues and organs). While haematopoietic cells are used in the treatment of blood-related diseases such as haemophilia, blood cancer and skin troubles, tissue cells are tried on all problems other than these. HSCs are collected only from the umbilical cord and bone marrow. Tissue cells are taken from many body sources such as bone marrow, placenta, menstrual blood, cornea, outer layer of the heart, liposuction waste and teeth pulp.

Among these DPSCs are perhaps the best option, says Shailesh Gadre, MD, Stemade Biotech. We all lose our milk teeth and cell extraction here is almost painless. As for the permanent teeth, we can harvest the pulp when people have to lose them for orthodontic (cosmetic) reasons, as when braces are fixed or teeth are extracted because of poor positioning. Of course, they need to be free of caries and other dental infections.

But as we age, our cells age too, so DPSCs are best extracted and preserved when we're very young, when the cells are virile and robust. DPSCs have extraordinary doubling properties that give them a huge advantage over other stem cells, says Dr. Julian Deepak, Medical Advisor, Stemade. They are derived from the same source as nerve cells, with the same capacity as neuron cells, making them a better option for treating Parkinson's, Alzheimer's and muscular dystrophy. Work is on to see their effectiveness in curing diabetes.

Back to the kid's tooth. After the dad's call, a dentist from Stemade will check if Milan's tooth is free of disease. At a Smile Clinic he will extract it and take a blood sample. The dentist will then place the tooth in a specially-designed vial of antibiotic solution. The vial will be packed in ice-gel to keep the temperature low during transport. At their lab (which I visited) in suburban Chennai, a visual inspection is done, the tooth is flooded with anti-bacterial solution and broken open. The pulp is extracted, divided into parts for quality control and sterility (aerobic/anaerobic) tests. The processing is done in zero-contamination conditions and the cells are put in 5 different vials and placed in the vapour phase of liquid nitrogen for cryo-preservation. It is complete, patented technology. The cells are stored in raw format and can be retrieved when needed. Shekar gets a certificate and a CR Management number which will be part of his son's medical records.

These are your own (autologous) cells and will need no matching should you need them for treatment of tissue-and-organ-related diseases such as spinal cord/bone/liver/cartilage regeneration, diabetes, eye-care, etc., says Shailesh. Adds Dr. Julian, Now for most diseases we just do maintenance therapy. With their regenerative property, stem cells will cure diseases in the future.

Fine, but for a few details. One, is the banking fee? Yes, you have to pay for the banking facility, but we can help you with EMIs, says Shailesh. Subsidies are given to the poor as part of CSR. We want to reach as many households as possible. Others are the right to will it and fool-proof identification of the cells. We may store DPSCs at six and may need them at sixty.

Go here to read the rest:
It's not pulp fiction

SEATTLE, Feb. 29, 2012 /PRNewswire/ -- Omeros Corporation (NASDAQ: OMER - News) today announced that it has identified compounds that functionally interact with each of the following six orphan G protein-coupled receptors (GPCRs): GPR17, GPR153, CCRL2, LGR4, LGR6 and OPN5. Without compounds that functionally interact with orphan GPCRs, developing drugs targeting those receptors is extremely difficult. Omeros has now unlocked 33 of them, representing over 40 percent of the Class A orphan GPCRs. There are approximately 120 orphan GPCRs and Omeros expects to unlock a large percentage of them, focusing first on Class A orphan GPCRs.

GPR17 is a novel target tied to multiple sclerosis. GPR153 is associated with schizophrenia, and CCRL2 is connected to immunological disorders, such as rheumatoid arthritis. LGR4 is linked to cancer stem cells and the self-renewal and maintenance of adult stem cells. LGR4 is also tied to bone disorders, such as osteoporosis. LGR6 is expressed in the hair follicle stem cells and is involved in long-term wound repair, including the formation of new hair follicles. OPN5 is a recently discovered photoreceptor for ultraviolet light, but its physiological role is currently unknown. Omeros is in the process of filing broad patent applications around its unlocked orphan GPCRs and compound optimization efforts are in progress.

"We continue to advance rapidly through the Class A orphans and, by the end of 2012, we plan to have screened them all using our proprietary Cellular Redistribution Assay," said Gregory A. Demopulos, M.D., chairman and chief executive officer of Omeros. "For each of these receptors, the compounds uniquely identified by Omeros represent keys to drug development, and we believe that Omeros exclusively controls those keys. In parallel with our successful screening efforts, we are building our patent position for each of our unlocked orphans with the goal of protecting and capitalizing on our discoveries."

Ongoing GPCR Program

Omeros is screening orphan GPCRs against its small-molecule chemical libraries using its proprietary, high-throughput cellular redistribution assay (CRA). The CRA detects receptor antagonists, agonists and inverse agonists. Omeros has announced that it has identified and confirmed sets of compounds that interact selectively with 33 orphan receptors linked to metastatic melanoma (GPR19), esophageal squamous cell carcinoma and obesity-related type-2 diabetes (GPR39), hepatocellular carcinoma (GPR80), squamous cell carcinoma (GPR87), pancreatic cancer (GPR182), acute lymphoblastic leukemia (P2Y8/P2RY8), ovarian and prostate cancer (OGR1), arterial stiffness (GPR25), sleep disorders (OPN4), cognitive disorders (GPR12), torpor or "suspended animation" (GPR50), anxiety disorders (GPR31), schizophrenia (GPR52, GPR153), bipolar disorder and schizophrenia (GPR78), psychotic and metabolic disorders (GPR27, GPR85, GPR173), cognitive impairments (MAS1), inflammatory responses (GPR32), obesity and diabetes (GPR21), appetite control (GPR101), immunological disorders (CCRL2), rheumatoid arthritis and HIV-mediated enteropathy (GPR15), respiratory and immune disorders (GPR141), multiple sclerosis (GPR17), motor control (GPR139), congenital cataracts and birth defects of the brain and spinal cord (GPR161), cancer stem cells and the self-renewal and maintenance of adult stem cells (LGR4) and long-term wound repair, including the formation of new hair follicles (LGR6). In addition, Omeros has unlocked GPR20, GPR135 and OPN5, which have not yet been tied to any indications but are expressed preferentially in the gastrointestinal tract (GPR20), brain (GPR135) and eye, brain, testes and spinal cord (OPN5).

About G Protein-Coupled Receptors

GPCRs, which mediate key physiological processes in the body, are one of the most valuable families of drug targets. According to Insight Pharma Reports, GPCR-targeting drugs represent 30 to 40 percent of marketed pharmaceuticals. Examples include Claritin (allergy), Zantac (ulcers and reflux), OxyContin (pain), Lopressor (high blood pressure), Imitrex (migraine headache), Reglan (nausea) and Abilify (schizophrenia, bipolar disease and depression) as well as all other antihistamines, opioids, alpha and beta blockers, serotonergics and dopaminergics.

The industry focuses its GPCR drug discovery efforts mostly on non-sensory GPCRs. Of the 363 total non-sensory GPCRs, approximately 240 have known ligands (molecules that bind the receptors) with nearly half of those targeted either by marketed drugs (46 GPCRs) or by drugs in development (about 70 GPCRs). There are approximately 120 GPCRs with no known ligands, which are termed "orphan GPCRs." Without a known ligand, drug development for a given receptor is extremely difficult.

Omeros uses its proprietary high-throughput CRA to identify small-molecule agonists and antagonists for orphan GPCRs, unlocking them to drug development. Omeros believes that it is the first to possess the capability to unlock orphan GPCRs in high-throughput, and that currently there is no other comparable technology. Unlocking these receptors could lead to the development of drugs that act at these new targets. There is a broad range of indications linked to orphan GPCRs including cardiovascular disease, asthma, diabetes, pain, obesity, Alzheimer's disease, Parkinson's disease, multiple sclerosis, schizophrenia, learning and cognitive disorders, autism, osteoporosis, osteoarthritis and several forms of cancer.

About Omeros Corporation

See the original post:
Adding Six More, Omeros Now Has a Total of 33 Unlocked Orphan GPCRs in its Portfolio

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Posted February 23, 2012

WASHINGTON -- The Stem Cell Action Coalition opposes Virginia House Bill No.1, the so-called Virginia "personhood bill." The Virginia Senate Committee on Education and Health is scheduled to take the matter up this week.

The language of the personhood bill states, in part, that the laws of Virginia "shall be interpreted and construed to acknowledge on behalf of unborn children at every stage of development all of the rights, privileges and immunities available to other persons, citizens and residents." The bill further states "unborn children shall include the offspring of human beings from the moment of conception until birth at every stage of biological development."

HB 1 arguably would apply to every aspect of Virginia law thus profoundly impacting inheritance, adoption, guardianship, civil and criminal liability by according the same rights as adults and children to a single cell.

The personhood bill would surely interfere with reproductive and related rights of women and couples along several fronts. These interferences include making it exceedingly difficult for couples in Virginia to seek in vitro fertilization as a means of creating families and donating for research IVF-created embryos not needed for implantation or not sufficiently healthy for implantation. Moreover, the law would prevent the pursuit of medical research in Virginia that utilizes human embryonic stem cells.

In this twisted new world, Virginia researchers deriving embryonic stem cells from donated embryos might be charged with capital crimes, even murder. Couples donating embryos to research might be designated as accessories to these crimes. Microscopic embryos, consisting of a few cells in lab dishes or frozen in IVF clinics might be designated as wards of the state and by mandate have legal guardians appointed on their behalf.

Human embryonic stem cell research has been described by scientists as the "gold standard" for those seeking to develop cures based on stem cell technology for many diseases and maladies such as Parkinson's, ALS, diabetes, MS, macular degeneration and other causes of blindness, spinal cord injuries, and other medical conditions for which there is no known cure.

Bernard Siegel, J.D., spokesperson for the Coalition and executive director of the Genetics Policy Institute commented, "It is a sad day indeed when the Commonwealth of Virginia should become an outpost for extremism by impeding potentially lifesaving scientific research. Thomas Jefferson would be appalled. The wise voters of Colorado (twice) and Mississippi overwhelmingly rejected personhood amendments to their state constitutions.

The profound implications of the personhood bill cannot be wished away by its sponsors. Passage of this bill would be an affront to couples trying to avail themselves of modern infertility treatments, stem cell researchers targeting cures and to all Virginians suffering from chronic and life threatening disease. Passage of HB 1 is akin to crushing hope.

Human embryonic stem cell research holds the promise of discovering the root causes of disease, serves as a tool for drug discovery, and will surely lead to regenerative medicines and cell therapies for repairing or replacing damaged tissues and organs.

Microscopic cells in a lab dish, that by a couples' decision, will never be implanted in a womb, should not be defined as 'people'," Siegel continued.

HB 1 represents a concerted move by opponents of all forms of early termination of pregnancy and medical research involving human embryos to attempt to pass laws to define "person" as the being that comes into existence at conception. In addition to Virginia, similar efforts to pass "personhood" legislation are underway in Oklahoma, Mississippi and in other states.

The Stem Cell Action Coalition has 75 nonprofit affiliated organizations including patient groups, medical philanthropies, scientific and medical societies and public interest organizations all dedicated to advancing scientifically meritorious and ethically responsible research.

The Stem Cell Action Coalition serves as an engine to unite the pro-cures community. It recognizes that human embryonic stem cell research must be a national public health priority at all branches and levels of government, not only as a matter of the medical health of the individuals who comprise the United States, but also as a matter of national financial health. The Coalition sponsors a web site http://www.stemcellaction.org and can be found on Twitter @StemCellAction and on Facebook at http://www.facebook.com/stemcellaction.

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Stem Cell Action Coalition Opposes Virginia Personhood Bill