Could this stem cell breakthrough offer an end to diabetes?

Research into a cure for diabetescould result in an end to insulin injections It has beenhailed as the biggest medical breakthrough since antibiotics Harvard researcher Doug Melton promised his children he'd find a cure Treatment involves making insulin-producing cells from stem cells Scientistshope to have human trials under way within a 'few years'

By Fiona Macrae for the Daily Mail

Published: 17:41 EST, 9 October 2014 | Updated: 04:45 EST, 10 October 2014

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Scientists have hailed stem-cell research into a cure for diabetes as potentially the biggest medical breakthrough since antibiotics.

It could result in an end to insulin injections, and to the disabling and deadly complications of the disease, such as strokes and heart attacks, blindness and kidney disease.

The treatment, which involves making insulin-producing cells from stem cells, was described as a 'phenomenal accomplishment' that will 'leave a dent in the history of diabetes'.

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Could this stem cell breakthrough offer an end to diabetes?

BioTimes Subsidiary Cell Cure Neurosciences Ltd. Files an IND with the FDA for OpRegen Designed to Treat Patients …

The design of the proposed clinical trial, Phase I/IIa Dose Escalation Safety and Efficacy Study of Human Embryonic Stem Cell-Derived Retinal Pigment Epithelium Cells Transplanted Subretinally in Patients with Advanced Dry-Form Age-Related Macular Degeneration with Geographic Atrophy, is based on a pre-IND meeting with the FDA and a series of earlier interactions with the agency. Patients will undergo a single transplantation and the study will explore three different doses of OpRegen. Following transplantation, the patients will be followed over 12 months at specified intervals and then at longer time periods, to evaluate the safety and tolerability of the product. A secondary objective of the clinical trial will be to explore the ability of transplanted OpRegen to engraft, survive, and moderate the disease progression.

The filing of this IND is the culmination of 12 years of research and development starting at the Hadassah Human Embryonic Stem Cell Research Center at Hadassah University Medical Center, Jerusalem, Israel, under the direction of Prof. Benjamin Reubinoff, MD, PhD and continuing at Cell Cure Neurosciences Ltd., said Charles S. Irving Ph.D., Cell Cures CEO. We look forward to initiating the clinical trial that will, for the first time, utilize xeno-free grade human embryonic stem cell derived RPE cells with high purity and potency, for the treatment of geographic atrophy, the severe stage of dry-AMD.

About Age-Related Macular Degeneration

Age-related macular degeneration (AMD) is one of the major diseases of aging and is the leading eye disease responsible for visual impairment of older persons in the US, Europe and Australia. AMD affects the macula, which is the part of the retina responsible for sharp, central vision that is important for facial recognition, reading and driving. There are two forms of AMD. The dry form (dry-AMD) advances slowly and painlessly until it progresses to the severe form called geographic atrophy (GA). Once the atrophy reaches the fovea (the center of the macula), patients lose their central vision and may develop legal blindness. There is currently no effective treatment for dry-AMD. There are about 1.6 million new cases of dry-AMD in the US annually. The yearly economic loss to the gross domestic product in the United States from dry-AMD has been estimated to be $24.4 billion. The market opportunity for a treatment for GA has been estimated at over $5 billion globally. About 10% of patients with dry-AMD develop wet-AMD, which is an acute disease and can lead to severe visual loss in a matter of weeks. Wet-AMD can be treated with currently-marketed VEGF inhibitors such as Lucentis or Eylea, however, such products typically require frequent repeated injections in the eye, and patients often continue to suffer from the continued progression of the underlying dry-AMD disease process. Current estimated annual sales of VEGF inhibitors for the treatment of the wet form of AMD are estimated to be about $7 billion worldwide. The root cause of the larger problem of dry-AMD is believed to be the dysfunction of RPE cells. One of the most exciting therapeutic approaches to dry-AMD is the transplantation of healthy, young RPE cells to support and replace the patients old degenerating RPE cells and to head off the advancing atrophy before it reaches the fovea. One of the most promising sources of healthy RPE cells is cells derived from pluripotent stem cells.

About OpRegen

Cell Cure's OpRegen consists of RPE cells that are produced using a proprietary process that drives the differentiation of human embryonic stem cells into high purity RPE cells. OpRegen is also xeno-free," meaning that no animal products were used either in the derivation and expansion of the human embryonic stem cells or in the directed differentiation process. The avoidance of the use of animal products eliminates some safety concerns. OpRegen is formulated as a suspension of RPE cells. Preclinical studies in mice have shown that following a single subretinal injection of OpRegen as a suspension of cells, the cells can rapidly organize into their natural monolayer structure and survive throughout the lifetime of the animal. OpRegen will be an off-the-shelf allogeneic product provided to retinal surgeons in a final formulation ready for transplantation. Unlike treatments that require multiple injections into the eye, such as currently-marketed products like Lucentis and Eylea for wet-AMD, it is expected that OpRegen would be administered in a single procedure.

About Cell Cure Neurosciences Ltd.

Cell Cure Neurosciences Ltd. was established in 2005 as a subsidiary of ES Cell International Pte. Ltd. (ESI), now a subsidiary of BioTime, Inc. (NYSE MKT: BTX). Cell Cures second largest shareholder is HBL Hadasit Bio-Holdings, (TASE: HDST, OTC: HADSY). Cell Cure is located in Jerusalem, Israel on the campus of Hadassah Medical Center. Cell Cure's mission is to become a leading supplier of human cell-based therapies for the treatment of retinal and neural degenerative diseases. Its technology platform is based on the manufacture of diverse cell products sourced from clinical-grade (GMP-compatible) human embryonic stem cells. Its current focus is the development of retinal pigment epithelial (RPE) cells for the treatment of age-related macular degeneration. Cell Cure's major shareholders include BioTime, Inc., HBL Hadasit Bio-Holdings Ltd., Teva Pharmaceuticals Industries Ltd. (NYSE: TEVA), and Asterias Biotherapeutics (OTCBB: ASTY). Additional information about Cell Cure can be found on the web at http://www.cellcureneurosciences.com. A video of a presentation by Cell Cures CEO Dr. Charles Irving is available on BioTimes website.

About BioTime

BioTime is a biotechnology company engaged in research and product development in the field of regenerative medicine. Regenerative medicine refers to therapies based on stem cell technology that are designed to rebuild cell and tissue function lost due to degenerative disease or injury. BioTimes focus is on pluripotent stem cell technology based on human embryonic stem (hES) cells and induced pluripotent stem (iPS) cells. hES and iPS cells provide a means of manufacturing every cell type in the human body and therefore show considerable promise for the development of a number of new therapeutic products. BioTimes therapeutic and research products include a wide array of proprietary PureStem progenitors, HyStem hydrogels, culture media, and differentiation kits. BioTime is developing Renevia (a HyStem product) as a biocompatible, implantable hyaluronan and collagen-based matrix for cell delivery in human clinical applications, and is planning to initiate a pivotal clinical trial around Renevia, in 2014. In addition, BioTime has developed Hextend, a blood plasma volume expander for use in surgery, emergency trauma treatment and other applications. Hextend is manufactured and distributed in the U.S. by Hospira, Inc. and in South Korea by CJ HealthCare Corporation, under exclusive licensing agreements.

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BioTimes Subsidiary Cell Cure Neurosciences Ltd. Files an IND with the FDA for OpRegen Designed to Treat Patients ...

Arthritis of shoulder; results four years after stem cell therapy by Harry Adelson, N.D. – Video


Arthritis of shoulder; results four years after stem cell therapy by Harry Adelson, N.D.
Heavy discusses his outcome four years out from his first bone marrow stem cell treatment for his arthritic shoulders and torn rotator cuffs by Harry Adelson, N.D. http://www.docereclinics.com.

By: Harry Adelson, N.D.

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Arthritis of shoulder; results four years after stem cell therapy by Harry Adelson, N.D. - Video

Stem cell treatments surging into clinic

Michael Scott, a ViaCyte vice president, holds the VC-01 device that holds progenitor cells that will mature to make insulin and other hormones.

More than ever before, stem cell therapies appear poised to transform medicine potentially curing heart disease, diabetes and paralyzing injuries, among other ailments.

But its also clear that such innovations will be very expensive.

How the government, insurers and patients will pay for what could be a flood of these new treatments drew the attention of more than 700 biomedical and health-care executives Tuesday at the 2014 Stem Cell Meeting on the Mesa.

The annual conference, held on La Jolla's Torrey Pines Mesa, will run through Thursday. It brings together the business and academic worlds of cell therapy, including but not limited to stem cell treatments.

In California alone, 131 clinical trials are taking place with stem cells, according to Clinicaltrials.gov, a government website that tracks clinical trials. Patients are being treated for conditions such as blindness from retinal diseases, HIV, leukemia, sickle cell disease, stroke and aging of skin.

The recent proliferation of clinical trials marks great progress toward the ultimate goal of getting new treatments to patients, said stem cell researcher Jeanne Loring, who directs the Center for Regenerative Medicine at The Scripps Research Institute in La Jolla.

Its been a sea change from last year, said Loring, who is working with some colleagues in planning their own stem cell trial to treat Parkinsons disease.

Theyre developing replacement neurons grown from artificial embryonic stem cells called induced pluripotent stem cells. The process begins with cells derived from the skin of patients to be treated.

Home-grown milestone

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BrainStorm : FDA Grants Fast Track Designation To NurOwn For Treatment Of ALS

By RTT News, October 07, 2014, 07:19:00 AM EDT

(RTTNews.com) - BrainStorm Cell Therapeutics Inc. ( BCLI ), a developer of adult stem cell technologies for neurodegenerative diseases, said that the United States Food and Drug Administration or FDA has designated NurOwn as a Fast Track product for the treatment of amyotrophic lateral sclerosis (ALS, or Lou Gehrig's Disease).

NurOwn consists of autologous mesenchymal stem cells that have been induced to secrete neurotrophic factors, and is currently being studied in a randomized, double-blind, placebo-controlled phase 2 clinical trial in ALS patients.

"We are pleased that the FDA has granted Fast Track status for NurOwn as this will allow us greater and more frequent dialogue with the Agency as we continue the development of this ground-breaking cell therapy for the treatment of ALS," said Tony Fiorino, Chief Executive Officer of BrainStorm.

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In 1985, Ayatollah Kohmeini issued a fatwa in favor of transgender people. Today, Iran's government pays for half of the cost of gender reassignment surgery. (AFP/File)

In 2007, when former President Mahmoud Ahmadinejaddeclaredduring a Columbia University appearance, In Iran we dont have homosexuals like in your country, many chuckled. It seemed to verify the average persons preconceptions of the country as being primitive and socially backwards.Ahmadinejad was obviously wrong and his response spotlighted the fact that homophobia is a major issue in Iranian society. The event wasnt meant to facilitate a productive discussion on the Islamic Republics many failings though, it was meant to reassure Columbia students and faculty of their own progressiveness. Ahmadinejad got a podium. The audience got a way to criticize his ideological beliefs.

Orientalist thinking like this obviously has consequences in how we discuss and view Iran. It isnt just that we have trouble discussing the many problems that do exist in the country, such as human rights violations. We are also prevented from recognizing when Iran is doing things more or less right. Iran is actually far more progressive than many people realize on a number of issues. This is especially apparent when it comes to: organ donations, family planning, transgender surgery, drug rehabs, stem cell research, and HIV prevention.

Organ Donations

Iran is one of the few countries that permits the selling of an organkidneys to be preciseto another individual if they are undergoing organ failure. It wasnt until theIran-Iraq Warthat organ donations became a commonprocedurein the country, causing kidney transplants in particular to jump drastically, thanks to wartime and a dwindling supply of dialysis machines. Here is how itworks: two non-profits regulated by the Iranian governmenttheCharity Foundation for Special Diseasesand the Charity Association for the Support of Kidney Patients (CASKP)implement a number of rules andregulationsfor the purchase and sale of organs. The charities are designed to find vendors and introduce them to recipients, checking the compatibility of a possible donation and ensuring a fair trade.

Rulessuch as physicians being able to give a medical assessment of the potential surgery, without being allowed to undertake the procedure itselfgo leagues in ensuring that a donation is compatible and that there is a fair trade. The government then reportedly pays a sum of about $1,200 as well as medical coverage to the donors. Through a non-profit, recipients are said to pay a few thousand dollars more. Interestingly, kidney donations themselves are banned from non-Iranian citizens, as well as international organ trading.

Accordingto CASKPs director Mostafa Ghassemi, In 2010, a total of 2,285 kidney transplants took place in the country, of which 1,690 kidneys were supplied from volunteers and 595 from those clinically brain-dead. The policy is a bit unnerving and controversial, but it has still been wildly successful. As of 1999, Irans kidney transplant waiting list no longer exists. As the CATO Institute points out, if a decades worth of reports in the transplant literature are to be believed, only one country in the world does not suffer from an organ shortage: Iran. Although Iran clearly does not serve as a model for solving most of the worlds problems, its method for solving its organ shortage is well worth examining.

Family Planning

While the United States begins a renewed debate on the use birth control and organizations like Planned Parenthood every so often, Iran was once known to have one of the premier family planning systems in the world. After the Iran-Iraq War came to an end in 1988, the country saw a jump in population growth thatcausedAyatollah Ruhollah Khomeini to issue fatwas or religious edicts so that contraceptives could be obtained free at government clinics, including thousands of new rural health centers.

In addition, Health workers promoted contraception as a way to leave more time between births and help reduce maternal and child mortality. Couples intending to marry were required to receive counseling in family planning. Irans family planning system was such an important stepforwardthat it was internationally acclaimed, and the then-Minister of Health ended up receiving the 2000 United Nations Population Award.

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New technique allows scientists to find rare stem cells within bone marrow

13 hours ago by Anne Trafton MIT and SMART researchers have developed a way to isolate mesenchymal stem cells based on physical traits such as stiffness. Credit: MIT

Deep within the bone marrow resides a type of cells known as mesenchymal stem cells (MSCs). These immature cells can differentiate into cells that produce bone, cartilage, fat, or musclea trait that scientists have tried to exploit for tissue repair.

In a new study that should make it easier to develop such stem-cell-based therapies, a team of researchers from MIT and the Singapore-MIT Alliance in Research and Technology (SMART) has identified three physical characteristics of MSCs that can distinguish them from other immature cells found in the bone marrow. Based on this information, they plan to create devices that could rapidly isolate MSCs, making it easier to generate enough stem cells to treat patients.

Until now, there has been no good way to separate MSCs from bone marrow cells that have already begun to differentiate into other cell types, but share the same molecules on the cell surface. This may be one reason why research results vary among labs, and why stem-cell treatments now in clinical trials are not as effective as they could be, says Krystyn Van Vliet, an MIT associate professor of materials science and engineering and biological engineering and a senior author of the paper, which appears in the Proceedings of the National Academy of Sciences this week.

"Some of the cells that you're putting in and calling stem cells are producing a beneficial therapeutic outcome, but many of the cells that you're putting in are not," Van Vliet says. "Our approach provides a way to purify or highly enrich for the stem cells in that population. You can now find the needles in the haystack and use them for human therapy."

Lead authors of the paper are W.C. Lee, a former graduate student at the National University of Singapore and SMART, and Hui Shi, a former SMART postdoc. Other authors are Jongyoon Han, an MIT professor of electrical engineering and biological engineering, SMART researchers Zhiyong Poon, L.M. Nyan, and Tanwi Kaushik, and National University of Singapore faculty members G.V. Shivashankar, J.K.Y. Chan, and C.T. Lim.

Physical markers

MSCs make up only a small percentage of cells in the bone marrow. Other immature cells found there include osteogenic cells, which have already begun the developmental path toward becoming cartilage- or bone-producing cells. Currently, researchers try to isolate MSCs based on protein markers found on the cell surfaces. However, these markers are not specific to MSCs and can also yield other types of immature cells that are more differentiated.

"Conventional cell-surface markers are frequently used to isolate different types of stem cells from the human bone marrow, but they lack sufficient 'resolution' to distinguish between subpopulations of mesenchymal stromal cells with distinct functions," Lee says.

The researchers set out to find biophysical markers for multipotencythe ability to become many different cell types. They first suspected that cell size might be a factor, because fetal bone marrow stem cells, which tend to have a higher percentage of MSCs, are usually small in diameter.

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Stem Cells, Malaria, and the Genetics of Drug Response at Translational Medicine Symposium

PUBLIC RELEASE DATE:

6-Oct-2014

Contact: Karen Kreeger karen.kreeger@uphs.upenn.edu 215-349-5658 University of Pennsylvania School of Medicine @PennMedNews

PHILADELPHIA The University of Pennsylvania's Institute for Translational Medicine and Therapeutics' 9th Annual International Symposium (ITMAT), Progress in Translational Science: Emerging Therapeutic Modalities, will be held on October 13-14. The symposium will feature outstanding speakers from the United States and abroad to address topics at the core of translational science. Speakers will include experts researching advances in stem cell biology, single cell metabolomics, and infectious diseases.

Date: Monday and Tuesday, October 13 - 14, 2013, starting at 8:30 am.

Location: Smilow Center for Translational Research, Rubenstein Auditorium and Lobby, 3400 Civic Center Blvd, Philadelphia, PA 19104

Additional Details

The symposium will feature presentations in six major areas:

Garret A. FitzGerald, MD, Director of ITMAT, will host the event. Speakers and talks include:

Carl H. June, MD, Richard W. Vague Professor in Immunotherapy, Program Director of Translational Research, Abramson Family Cancer Research Institute, Perelman School of Medicine, University of Pennsylvania, Driving CARs for cancer: are we there yet?

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Stem Cells, Malaria, and the Genetics of Drug Response at Translational Medicine Symposium

UCI stem cell scientist wins coveted NIH New Innovator Award

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6-Oct-2014

Contact: Tom Vasich tmvasich@uci.edu 949-824-6455 University of California - Irvine @UCIrvine

Irvine, Calif., Oct. 6, 2014 UC Irvine scientist Weian Zhao will receive a prestigious National Institutes of Health Director's New Innovator Award to further his efforts to create stem cell-based detection methods and treatments for cancer.

It's part of the highly selective High Risk-High Reward Research Award Program and supports projects by early-career biomedical researchers with the potential to transform scientific fields and accelerate the translation of research into new ways to improve human health.

Zhao, an assistant professor of pharmaceutical sciences, will get $1.5 million over five years. He's among 50 investigators selected for the 2014 award.

His project is to engineer smart stem cell systems to effectively detect and treat the spread of cancer in the body. Cancer metastases are responsible for more than 90 percent of cancer deaths; however, few current therapies directly target metastatic cancer.

Zhao's goal is to have stem cell messengers selectively migrate to cancer sites to deliver tumor-fighting drugs or probes for contrast-enhanced medical imaging. This could, potentially, enable the identification of cancer micro-metastases at their early stages and increase the effectiveness of chemotherapeutic treatments for metastatic cancer while mitigating the symptoms associated with systemic chemotherapy.

"It's a great honor to receive this prestigious award," he said. "In particular, its high-risk-high-reward spirit gives us the freedom to pursue out-of-the-box approaches to the biggest challenge in cancer."

Zhao is a member of the Sue & Bill Gross Stem Cell Research Center and the Chao Family Comprehensive Cancer Center at UCI, with a joint appointment in the Department of Biomedical Engineering. He has received numerous awards and was named to MIT Technology Review's 2012 TR35 list of the world's top 35 innovators under the age of 35.

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UCI stem cell scientist wins coveted NIH New Innovator Award

Stem Cells, Malaria, and the Genetics of Drug Response Highlighted at Penn's 9th Annual Translational Medicine Symposium

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Newswise PHILADELPHIA The University of Pennsylvanias Institute for Translational Medicine and Therapeutics 9th Annual International Symposium (ITMAT), Progress in Translational Science: Emerging Therapeutic Modalities, will be held on October 13-14. The symposium will feature outstanding speakers from the United States and abroad to address topics at the core of translational science. Speakers will include experts researching advances in stem cell biology, single cell metabolomics, and infectious diseases.

Date: Monday and Tuesday, October 13 - 14, 2013, starting at 8:30 am.

Location: Smilow Center for Translational Research, Rubenstein Auditorium and Lobby, 3400 Civic Center Blvd, Philadelphia, PA 19104

Additional details:

The symposium will feature presentations in six major areas:

Challenges and Opportunities in Translational Research Stem Cell Therapeutics Movement in Malaria Focus on the Single Cell Variability in Drug Response Translational Immunology

Garret A. FitzGerald, MD, Director of ITMAT, will host the event. Speakers and talks include:

Kenneth S. Zaret, PhD, Joseph Leidy Professor of Cell and Developmental Biology, Perelman School of Medicine, University of Pennsylvania Discovering networks and diagnostics for pancreatic cancer progression

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Stem Cells, Malaria, and the Genetics of Drug Response Highlighted at Penn's 9th Annual Translational Medicine Symposium