Author Archives: admin


Stem Cells – A Medical Dictionary, Bibliography, And Annotated …

Jan 23

Stem Cells A Medical Dictionary, Bibliography, And Annotated Research Guide To Internet References http://www.tradebit.com Stem Cells A Medical Dictionary, Bibliography, And Annotated Research Guide To Internet References Icon Health Publications This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and expressions relating to stem cells. It also gives extensive lists of bibliographic citations. Finally, it provides information to users on how to update their knowledge using various Internet resources. The book is designed for physicians, medical students preparing for Board examinations, medical researchers, and patients who want to become familiar with research dedicated to stem cells. If your time is valuable, this book is for you. First, you will not waste time searching the Internet while missing a lot of relevant information. Second, the book also saves you time indexing and defining entries. Finally, you will not waste time and money printing hundreds of web pages.Words: research guide, research how to, stem researchAuthor: ICON Health Publications Publisher: ICON Health Publications Illustration: N Language: ENG Title: Stem Cells A Medical Dictionary, Bibliography, and Annotated Research Guide to Internet References Pages: 00000 (Encrypted PDF) On Sale: 2004-03-03 SKU-13/ISBN: 9780597842245 Lib Category: Research Lib Category: Computer network resources Category: Science : Life Sciences Genetics Genomics This is a 3-in-1 reference book. It gives a complete medical dictionary covering hundreds of terms and

By: JimmyfbcCanales

Read this article: Stem Cells A Medical Dictionary, Bibliography, And Annotated Research Guide To Internet References Video

Read more:
Stem Cells – A Medical Dictionary, Bibliography, And Annotated ...

Stem Cell Joint Repair Treatment Osteoarthritis Cartilage in Bangkok, Thailand

Food and Healthcare Press Releases Monday January 21, 2013

Bangkok--21 Jan--Urban Beauty Thailand

Osteoarthritis is the most common form of arthritis. It causes pain, swelling and reduced motion in your joints. It can occur in any joint, but usually affects your hands, knee, hips or spine. Thailand Osteoarthritis breaks down the cartilage in your joints. Cartilage is the slippery tissue that covers the ends of bones in a joint. Healthy cartilage absorbs the shock of movement. When you lose cartilage, your bones rub together. Over time, this rubbing can permanently damage the joint. Factors that may cause osteoarthritis include:

Being overweight

Getting older

Injuring a joint

Thailand Osteoarthritis, or OA, is often related to aging, although sometimes the cause is not known. Before the age of 55 it occurs equally in women and men. After that age it is more common in women. By the age of 70 the majority of people will have at least minor Osteoarthritis.

Stem cell treatment in Thailand is one of the best options to get rid of osteoarthritis. Like many other procedures osteoarthritis treatment in Thailand uses autologous adult stem cells. These are harnessed from the patients fat cells so there is very little chance of patients body rejecting them.

Adipose (fat) tissue extraction tends to be more worthwhile than other methods such as bone marrow extraction. This is because it produces up to ten times more stem cells. Adipose derived stem cells (ASCs) have been shown to be just as effective as other stem cells as they display proliferative efficiency and multipotency in tissue regeneration.

Stem cell treatment in Bangkok uses new technology known as Adistem Cell Technology. Photoactivation Technology has been used for activating adipose derived stem cells (ASCs) for therapeutic and regenerative application since 2008. This technology uses low intensity of light at specific frequencies to increase various anti-inflammatory and healing agents from ASCs. Harvesting ASCs is done through a simple, minimally invasive liposuction under local anesthesia. The process is relatively easy and painless and poses minimal risk to the patient. It is a single procedure in a sterile setting. After harvesting, the stem cells are separated from the fats using standard technique.

Go here to see the original:
Stem Cell Joint Repair Treatment Osteoarthritis Cartilage in Bangkok, Thailand

Springhill Medical Group-What is Stem Cell Therapy? – Stem Cell Cafe

Jan 22

Springhill Medical Group-What is Stem Cell Therapy? springhillmedgroup.com We have been hearing about this stem cell lately but does everyone know about what this really is? According to medical researchers, stem cell treatments have the potential to change the face of human disease and alleviate suffering. There are already many stem treatments nowadays but they are not usually used because they tend to be experimental and they are very expensive. Medical researchers foresee being able to use technologies derived from stem cell research to treat cancer, spinal cord injuries, and muscle damage, amongst a number of other diseases and impairments. This stem cell therapy is established in order to treat disease or injury by introducing new adult stem cells into damaged tissue. Stem cell therapy is an intervention strategy. The good thing about stem cell is that there are minimal risk of rejection and side effects. They have the ability to self-renew and give rise to subsequent generations with variable degrees of differentiation capacities. They also offer significant potential for generation of tissues that can potentially replace diseased and damaged areas in the body. It has been said that there are already a number of stem-cell therapies that exist but most are costly. But bone-marrow transplantation, to some extent has exemption.

By: Madeline Brunner

See the article here: Springhill Medical Group-What is Stem Cell Therapy? Video

Read this article: Springhill Medical Group-What is Stem Cell Therapy? Video

Continued here:
Springhill Medical Group-What is Stem Cell Therapy? - Stem Cell Cafe

Bacteria Can Morph Host Cells Into Stem Cells – Stem Cell Cafe

Jan 19

Featured Article Academic Journal Main Category: Stem Cell Research Also Included In: Infectious Diseases / Bacteria / Viruses;Biology / Biochemistry Article Date: 18 Jan 2013 14:00 PST

Current ratings for: Bacteria Can Morph Host Cells Into Stem Cells

5 (2 votes)

Researchers at the University of Edinburgh made this remarkable discovery while studying mice infected with bacteria that cause leprosy, an infectious disease that attacks the nerve system.

They propose the finding will help stem cell researchers use similar mechanisms to develop new stem cell treatments for degenerative conditions.

They write about their findings in the 17 January issue of the journal Cell.

Senior researcher Anura Rambukana, Chair of Regeneration Biology at Edinburgh, says in a press statement:

Bacterial infections can completely change a cells make up, which could have a wide-range of implications, including in stem cell research.

But once the infection is established, the bacterium then sets about reprogramming the Schwann cells to become like stem cells.

See the original post here:
Bacteria Can Morph Host Cells Into Stem Cells – Stem Cell Cafe

'Brimming with energy' after $20K stem cell treatment

Jennifer Vasilakos got the shocking surprise of her life after helping a man who stopped to ask her for directions. That man happened to be the billionaire founder of the Beanie Baby company and what he did may have saved her life. NBC's Kristen Dahlgren reports.

By Kristen Dahlgren and Erica Ayisi, NBC News

What started out as a modest fundraising event held in a Santa Barbara, Calif., parking lot has turned into a life-changing moment for Jennifer Vasilakos, thanks to a chance meeting with Beanie Baby billionaire Ty Warner.

It all began ina parking lot in July of last year. Vasilakos, 42, set up a table near her hometown's annual Santa Barbara French Festival to raise money for stem cell treatment, displaying signs and flyers that explained her cause.She also brought a small moneybox to stash cash made from parking cars for festival-goers.

Equipped with sunglasses, a water bottle and coffee, Vasilakos was prepared to spend the day raising awareness and telling people her personal story that she was diagnosed with acute renal failure in 2011 and had received dialysis three times a day, three times a week. It was a grueling regimen that she would endure the rest of her life. A kidney transplant wasnt an option; she had been rejected as a candidate because of a previous bout with cancer.

Vasilakos, aReiki teacher and herbalist,decided her only option was to save up for stem cell treatment a costly procedure that is not performed in the United States.

But as the day wore on, her moneybox largely remained empty. The festival, she said, was completely dead.

That's when a lost driver in a small little car drove up, looking for directions. Jennifer chatted him up.

Louis Lanzano / ASSOCIATED PRESS

Ty Warner, Beanie Baby creator and chief executive of Ty Inc., arrives at the Toy Fair to sign

Read the original:
'Brimming with energy' after $20K stem cell treatment

CRF to sponsor 8th International Conference on … – Stem Cell Cafe

Jan 19

WHAT:

The final agenda for the Eighth International Conference on Cell Therapy for Cardiovascular Disease, sponsored by the Cardiovascular Research Foundation, is now available online at http://celltherapy.crf.org/conference/agenda.html. The conference, which will be held January 23-25, 2013, is the premier meeting dedicated to the evolving field of cell-based therapies for the repair and regeneration of cardiac and vascular disease, as well as related diseases such as diabetes and stroke.

This years conference will focus on pivotal preclinical and clinical studies on the path to commercialization, focusing on the status of molecular, cell, and tissue products, in addition to delivery systems.

WHY:

Recent advances in stem cell research demonstrate great potential as breakthrough therapies for conditions like diabetes, Parkinsons and heart disease. Now in its 12th year of clinical trials, the application of stem cells in the treatment of cardiovascular diseases has realized many notable successes, as well as identified challenges that await the next round of clinical studies. Renowned thought leaders in this field will convene to present their work, experiences, observations, and opinions on the benefits and unmet challenges of cell-based therapies.

Sessions will focus on:

WHO:

More here: CRF to sponsor 8th International Conference on Cell Therapy for Cardiovascular Disease

Read this article:
CRF to sponsor 8th International Conference on ... - Stem Cell Cafe

Drug targets hard-to-reach leukemia stem cells responsible for relapses

Jan. 17, 2013 Researchers at the University of California, San Diego School of Medicine have discovered that hard-to-reach, drug-resistant leukemia stem cells (LSCs) that overexpress multiple pro-survival protein forms are sensitive -- and thus vulnerable -- to a novel cancer stem cell-targeting drug currently under development.

The findings, published in the January 17 online issue of Cell Stem Cell, open the possibility that diseases like chronic myeloid leukemia (CML) and some solid tumor cancers might -- in combination with other therapies -- be more effectively treated with this drug, and with a lower chance of relapse.

Led by principal investigator Catriona H. M. Jamieson, MD, PhD, associate professor of medicine and director of stem cell research at UC San Diego Moores Cancer Center, the researchers found that a compound called sabutoclax appears to selectively target LSCs that express particular protein isoforms through alternatively splicing, a fundamental process in which a gene is able to code for multiple proteins.

An emerging class of drugs called tyrosine kinase inhibitors (TKI) -- such as imitinib (Gleevec), gifitinib (Iressa) and sunitinib (Sutent) -- has become a popular anti-cancer treatment. However, current TKIs are not 100 percent effective. In cases of CML, for example, some LSCs tucked protectively within bone marrow elude destruction, develop resistance to therapy, self-renew and eventually cause the leukemia to dramatically return.

Jamieson and colleagues found that alternative splicing of BCL2 genes, which code for proteins involved in apoptosis or programmed cell death, specifically promoted malignant transformation of dormant white blood cell precursors into "blast crisis" LSCs. The blast crisis is the final phase of CML when overabundant, abnormal white blood cells crowd out healthy cells, causing serious dysfunction.

Of clinical importance, they noted that sabutoclax, which suppresses all BCL2 anti-apoptotic proteins, renders these marrow-dwelling blast crisis LSCs sensitive -- and more susceptible -- to TKI-based therapeutics at doses that do not harm normal progenitor cells.

"Our findings show that pan-BCL2 inhibition will be critical for the eradication of cancer stem cells in CML and that there is an essential link between cancer stem cell dormancy, pro-survival BCL2 isoform expression and therapeutic resistance," Jamieson said. "By using a novel pan-BCL2 inhibitor, we may be able to prevent therapeutic resistance by sensitizing malignant stem cell clones to TKIs."

The findings may have implications for treating solid tumor cancers, such as colon, prostate, breast, and brain cancers, noted Daniel J. Goff, the study's first author. "With many of these tumor types being shown to harbor cancer stem cells, it raises the question of whether BCL2 family expression as well as isoform-switching may be crucial for the maintenance of cancer stem cells in these diseases as well," he said. "If so, they may also be candidates for treatment with a BCL2 inhibitor like sabutoclax."

Co-authors are Angela Court Recart, Anil Sadarangani, Heather Leu, Janine Low-Marchelli, Wenxue Ma, Alice Y. Shih, Ifat Geron, Minya Pu, Lei Bao, Ryan Chuang, Larisa Balaian, Peggy Wentworth, Kristen M. Smith, Christina A.M. Jamieson, Sheldon R. Rorris and Karen Messer, UCSD Department of Medicine and UCSD Moores Cancer Center; Hye-Jung Chun and Marco Marra, Michael Smith Genome Sciences Center, Vancouver, BC, Canada; Christian L. Barrett and Kelly A. Frazer, UCSD Department of Pediatrics; Maryla Krajewska, Jun Wei, Dayong Zhai, Maurizio Pellecchia and John C. Reed, Sanford-Burnham Medical Research Institute; Jason Gotlib, Stanford Medical Center; Mark Minden, Princess Margaret Hospital, Toronto, Canada; Giovanni Martinelli, Institute of Hematology and Medical Oncology, University of Bologna, Italy; Jessica Rusert and Lawrence S.B. Goldstein, UCSD Department of Cellular and Molecular Medicine and Howard Hughes Medical Institute; Kim-Hien Dao, Oregon Health and Science University, Portland; Kamran Shazand and Thomas J. Hudson, Ontario Institute for Cancer Research, Toronto, Canada.

Funding for this research was provided by a California Institute for Regenerative Medicine (CIRM) early Translational II grant (TR2-1789), a CIRM HALT leukemia disease team grant (DR1-01430), the UCSD CIRM Training Grant (TG2-01154), the Ratner Family Foundation, the National Cancer Institute (CA-55164), the National Institutes of Health (CA-149668), the Ontario Institute for Cancer Research, Genome Canada, Ontario Genomics Institute and the Canadian Institute of Health Research.

See more here:
Drug targets hard-to-reach leukemia stem cells responsible for relapses

Scots scientists make stem cell breakthrough

Custom byline text:

Helen Puttick Health Correspondent

The Edinburgh University team discovered the bacteria, which cause leprosy, convert cells in the nerve system so they become like stem cells.

These cells are known as the building blocks of life and are seen as the key to finding cures for a range of conditions from motor neurone disease to spinal cord injuries, which are currently irreversible.

It is hoped scientists will be able to use leprosy bacteria to grow stem cells, which have the ability to turn into any other type of cell needed by the body. These could then be transplanted into patients to repair damage.

Dr Rob Buckle, head of regenerative medicine at the Medical Research Council, has described the research as "groundbreaking".

He said: "This discovery is important not just for our understanding and treatment of bacterial disease but for the rapidly progressing field of regenerative medicine.

"In future, this knowledge may help scientists to improve the safety and utility of lab-produced pluripotent stem cells and help drive the development of new regenerative therapies for a range of human diseases, which are currently impossible to treat."

Longer-term he is hopeful the insight will lead to a new way of creating stem cell therapies. The cells can be harvested from embryos but this raises ethical issues and Mr Rambukkana said there was also a danger of embryonic stem cells developing into tumours. The leprosy cells do not carry this risk.

Mr Rambukkana said: "This (research) is very intriguing as it is the first time we have seen that functional adult tissue cells can be reprogrammed into stem cells by natural bacterial infection, which also does not carry the risk of creating tumorous cells.

Visit link:
Scots scientists make stem cell breakthrough

Bacteria's hidden skill could pave way for stem cell treatments

Jan. 17, 2013 A discovery about the way in which bugs spread throughout the body could help to develop stem cell treatments.

Researchers at the University of Edinburgh have found that bacteria are able to change the make-up of supporting cells within the nerve system, called Schwann cells, so that they take on the properties of stem cells.

Because stem cells can develop into any of the different cell types in the body -- including liver and brain cells -- mimicking this process could aid research into a range of degenerative conditions.

Scientists made the discovery studying bacteria that cause leprosy, which is an infectious neurodegenerative disease. The study, carried out in mice, found that in the early stages of infection, the bacteria were able to protect themselves from the body's immune system by hiding in Schwann cells or glial cells.

Once the infection was fully established, the bacteria were able to convert the Schwann cells to become like stem cells.

Like typical stem cells, these cells were pluripotent, meaning they could then become other cell types, for instance muscle cells. This enabled the bacteria to spread to tissues in the body.

The bacteria-generated stem cells also have another unexpected characteristic. They can secrete specialised proteins -- called chemokines -- that attract immune cells, which in turn pick up the bacteria and spread the infection.

Scientists believe these mechanisms, used by leprosy bacteria, could exist in other infectious diseases.

Knowledge of this newly discovered tactic used by bacteria to spread infection could help research to improve treatments and earlier diagnosis of infectious diseases.

The study is published in the journal Cell.

Here is the original post:
Bacteria's hidden skill could pave way for stem cell treatments

Drug targets leukemia stem cells – Stem Cell Cafe

SAN DIEGO Researchers at the University of California, San Diego School of Medicine have discovered that hard-to-reach, drug-resistant leukemia stem cells (LSCs) that overexpress multiple pro-survival protein forms are sensitive and thus vulnerable to a novel cancer stem cell-targeting drug currently under development.

The findings, published in todays (Jan. 17) online issue of Cell Stem Cell, open the possibility that diseases like chronic myeloid leukemia (CML) and some solid tumor cancers might in combination with other therapies be more effectively treated with this drug, and with a lower chance of relapse.

Led by principal investigator Catriona H. M. Jamieson, M.D., Ph.D., associate professor of medicine and director of stem cell research at UC San Diego Moores Cancer Center, the researchers found that a compound called sabutoclax appears to selectively target LSCs that express particular protein isoforms through alternatively splicing, a fundamental process in which a gene is able to code for multiple proteins.

Jamieson and colleagues found that alternative splicing of BCL2 genes, which code for proteins involved in apoptosis or programmed cell death, specifically promoted malignant transformation of dormant white blood cell precursors into blast crisis LSCs. The blast crisis is the final phase of CML when overabundant, abnormal white blood cells crowd out healthy cells, causing serious dysfunction.

Of clinical importance, they noted that sabutoclax, which suppresses all BCL2 anti-apoptotic proteins, renders these marrow-dwelling blast crisis LSCs sensitive and more susceptible to TKI-based therapeutics at doses that do not harm normal progenitor cells.

Our findings show that pan-BCL2 inhibition will be critical for the eradication of cancer stem cells in CML and that there is an essential link between cancer stem cell dormancy, pro-survival BCL2 isoform expression and therapeutic resistance, Jamieson said. By using a novel pan-BCL2 inhibitor, we may be able to prevent therapeutic resistance by sensitizing malignant stem cell clones to TKIs.

The findings may have implications for treating solid tumor cancers, such as colon, prostate, breast, and brain cancers, noted Daniel J. Goff, the studys first author. With many of these tumor types being shown to harbor cancer stem cells, it raises the question of whether BCL2 family expression as well as isoform-switching may be crucial for the maintenance of cancer stem cells in these diseases as well, he said. If so, they may also be candidates for treatment with a BCL2 inhibitor like sabutoclax.

Co-authors are Angela Court Recart, Anil Sadarangani, Heather Leu, Janine Low-Marchelli, Wenxue Ma, Alice Y. Shih, Ifat Geron, Minya Pu, Lei Bao, Ryan Chuang, Larisa Balaian, Peggy Wentworth, Kristen M. Smith, Christina A.M. Jamieson, Sheldon R. Rorris and Karen Messer, UC San Diego Department of Medicine and UC San Diego Moores Cancer Center; Hye-Jung Chun and Marco Marra, Michael Smith Genome Sciences Center, Vancouver, B.C., Canada; Christian L. Barrett and Kelly A. Frazer, UC San Diego Department of Pediatrics; Maryla Krajewska, Jun Wei, Dayong Zhai, Maurizio Pellecchia and John C. Reed, Sanford-Burnham Medical Research Institute; Jason Gotlib, Stanford Medical Center; Mark Minden, Princess Margaret Hospital, Toronto, Canada; Giovanni Martinelli, Institute of Hematology and Medical Oncology, University of Bologna, Italy; Jessica Rusert and Lawrence S.B. Goldstein, UC San Diego Department of Cellular and Molecular Medicine and Howard Hughes Medical Institute; Kim-Hien Dao, Oregon Health and Science University, Portland; Kamran Shazand and Thomas J. Hudson, Ontario Institute for Cancer Research, Toronto, Canada.

Funding for this research was provided by a California Institute for Regenerative Medicine (CIRM) early Translational II grant (TR2-1789), a CIRM HALT leukemia disease team grant (DR1-01430), the UCSD CIRM Training Grant (TG2-01154), the Ratner Family Foundation, the National Cancer Institute (CA-55164), the National Institutes of Health (CA-149668), the Ontario Institute for Cancer Research, Genome Canada, Ontario Genomics Institute and the Canadian Institute of Health Research.

See the rest here: Drug targets leukemia stem cells

The rest is here:
Drug targets leukemia stem cells – Stem Cell Cafe