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Store-A-Tooth™ Dental Stem Cell Banking and Product News


Posted by James Andrews on Thu, Dec 27, 2012 @ 09:48 AM

Professor KeifferTimothy J. Kieffer, professor in the UBC Department of Cellular & Physiological Sciences and the Department of Surgery and current leader of the Diabetes Research Group in the Life Sciences Centre (www.diabetes.ubc.ca). Highlights the flurry of activity going on in labs around the world to harness the extraordinary potential of stem cells.

Those who suffer from diabetes are poised to benefit significantly from this work.


By definition, stem cells have the ability to self renew and differentiate into other cells types.  In 1998 University of Wisconsin scientist James Thomson and colleagues reported the isolation of pluripotent stem cells from few day-old embryos obtained from fertility clinics.  These embyronic stem (ES) cells were shown to be capable of vast expansion and differentiation into some 200 different cell types found in the body.

The promise was immediately obvious – in theory healthy cells could be produced to replace damaged or defective cells to treat human disease.  Despite this potential, ethical issues associated with the source of these cells prompted governments to put severe restrictions on their use for research.

In 2006, Japanese scientists at Kyoto University led by Shinya Yamanaka made a remarkable discovery.  They demonstrated that cultured mouse skin cells could be reprogrammed into stem cells with the potential of ES cells by simply introducing four genes into the cells.  These cells were termed induced pluripotent stem (iPS) cells and, just one year later, both Yamanaka’s and Thomson’s teams achieved the same feat with human skin cells, thereby providing the world with a less controversial source of stem cells.

This protocol gave us the tools to envision patient specific cell therapy.  A patient in need of a specific cell type could provide a tiny skin sample to be used to generate stem cells, which could then be expanded, differentiated into the desired cell type, and then transplanted to treat their disease or injury.  Moreover, iPS cells provide a means to study human disease.  Stem cells can be generated from patients and subsequently differentiated into the diseased cell type to study its defects and develop corrective measures to treat the disease.  This year Yamanaka shared a Nobel Prize with British Scientist John Gurdon for this work.

Those who suffer from diabetes can take hope.  The disease afflicts an estimated 350-million people worldwide and is caused by insufficient production of insulin from pancreatic beta-cells.  Many patients rely on daily insulin injections to survive, but a few have received an expermental therapy consisting of transplant of cadaveric islets ­­­– clusters of the insulin producing beta-cells collected from organ donors.  The procedure involves infusion of a few teaspoons of cells into the portal vein and frees patients from the burdens of glucose monitoring and insulin injections.  With a proven effective clinical path, an unlimited source of insulin producing cells is needed to make this approach widely available.  Could stem cells hold the answer?

Over the past decade, there have been considerable advances towards harnessing stem cells to tackle diabetes.  Developmental biologists are elucidating how beta-cells are created, often with model systems such as fish, and this knowledge is being exploited to create recipies to convert stem cells into beta-cells.  Success has already been obtained in treating diabetes in animal models.  iPS cells have now been made from patients with diabetes and these have been converted to beta-cells – an important first step towards modeling diabetes to understand the root cause.

Professor Kieffer concludes that with momentum gaining, he wouldn’t be surprised if stem cells can deliver us from diabetes within the next decade.

As Dr. Kieffer points out, “Insulin was isolated in the 1920s. For 90 years, people have been injecting themselves with insulin; it’s time to develop something better.”  Insulin injections are required several times per day to manage diabetes, meaning that patients with type 1 diabetes face thousands of injections and blood glucose tests each year. According to the World Health Organization, recent estimates are that 366 million people worldwide have type 1 diabetes.

Dr. Kieffer and his team are exploring alternatives to insulin injections by looking at cell engineering, cell transplants and gene therapies.  Their hope is that they can re-establish automatic meal-regulated insulin production within the body to eliminate the need for insulin injections.

Being prepared for the Solution

While the scientists and researchers push the technology forwards, a parallel technology in the preservation of healthy stem cells from cord blood and from dental pulp (baby and wisdom teeth for example) has been gaining momentum. Parents around the world are taking advantage of the services offered by these stem cell banks to preserve their children's stem cells either at birth in the case of cord blood or when teeth are naturally falling out or have been scheduled to be extracted.

Visit Stem Cell For a Cure to learn about one such stem cell banking service that has dedicated its resources to "finding a cure" - www.stemcellsforacure.com


You can schedule a personal consultation with a stem cell expert or download information about preserving your family's stem cells from here:


Speak to a stem cell specialist Family stem cell info kit

Tags: Dental Stem Cells, Research, Healthcare, Regenerative Medicine, Stem Cells & Diabetes, Adult Stem Cells

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