Miami, FL (PRWEB) October 15, 2012

Leveraging more than a decade of experience in the biotech industry and a founding member of GeneCell International, Jose Cirino, Director of Operations, is an industry expert for expanding awareness in the field of adult stem cells worldwide. Cirino plays a pivotal role in GeneCell Internationals success, managing all operational aspects of a company thats at the forefront of the biotech industry. While providing leadership and direction for the company, he is responsible for all strategic planning to help advance GeneCells mission and objectives, as well as the expansion of product, service and development at the national and international levels. Currently, Cirino is not only working on the expansion and awareness of cord blood services, but on the implementation of other adult stem cells sources, such as umbilical cord tissue, dental pulp, and adipose (fat) tissue into other countries. He has presentation talks in the advantage of adult cord blood banking to health and biotech industry organizations, conferences and small group meetings (both English and Spanish). Cirino was a key player in the expansion of GeneCell International into Miami, Florida, as the first and only stem cell laboratory of its kind in the South Floridian market and the gateway to international countries.

Through his field of work, Cirinos aspiration and passion is being able to assist individuals in potentially saving their life when a debilitating immune deficiency or disorder arises. Though, Cirino continuously asks himself, Why isn't everyone banking these cells?

His best assumption is that people are not informed about stem cell banking and what is most disheartening, some have never even heard of it. Most people are not aware they have stem cells in their body. Others believe that stem cells only come from only human embryos since this is whats mainly discussed in politics and the news today. May this be the reason they are choosing to have no part in it and ignore it? If so, this is not the case, these cells are found in adults and there are not controversial, moral, ethical or have any political issues surrounding them. The amazing thing about these cells, aside from their potential to treat a variety of different diseases, is that for the most part they can be harvested from the individual through relatively minimally invasive procedures and can be cryogenically frozen (at a temperature of -321 F (-196 C)) and stored for decades until a disease manifests itself or the needed for cell-based therapies arises," said Cirino.

Due to this lack of awareness, there is a massive shortage of stem cell units stored for future treatments. This shortage, or lack of availability, is mostly affecting patients of African, Asian, Hispanic and Native American Indian descent. I, being a minority member of this group, am very concerned by this shortage. Since patients who need a transplant are more likely to find a match within their own genetic background, Cirino adds it is important that the pool of donors reflects the overall community.

A persons blood stem cell type is inherited, which means a patient is more likely to find a matched donor from within their own ethnic group, more than half of cord blood donations and privately banked cord blood in the United States are from Caucasians while minorities remain underrepresented, significantly. By increasing awareness of the advantages of cord blood among minorities, there is a potential for increased access to therapies for more people.

Umbilical cord blood preservation is a process by which blood is collected from the umbilical cord of a newborn baby and is stored cryogenically in a specially-designated bank. According to the National Marrow Donor Program, cord blood contains cells that can be transfused to a patient to treat various diseases, including lymphoma and leukemia. Currently, there are approximately 80 treatable diseases and the list of illnesses continues to grow. Cord blood is rich in stem cells and because certain immune cells found in the cord blood are not mature, there is less risk for the recipients immune system to reject these cells. Cord blood can be used to treat the child from whom the blood was collected as well as some first-degree relatives who are a close genetic match, such as immediate family members. Additionally, patients can get the treatment in about three weeks - as opposed to six to eight for bone marrow from an adult donor.

Prior to founding GeneCell, Cirino served as the President of the International Division to a cord blood laboratory in Boston, Massachusetts, where he was responsible for identifying, evaluating and selecting international representatives for affiliate programs to expand the services internationally. In doing so, he coordinated laboratory development protocol license agreements and implemented these programs throughout various international countries. After the expansion into other countries, Cirino would manage the company owned offices as well as provide support to the affiliate offices, from Mexico and South America, to the UK and the Middle East. He also represented the company at international health and biotech industry conferences, implemented new sales tools and processes for all international divisions of the company, and oversaw all accounting tasks as a method of monitoring its sales projections. Cirino joined the company as the Accounting Manager, where he was responsible for all aspects of U.S. and international accounting functions. He is a seasoned accounting professional, holding various accounting positions within large companies such as Sir Speedy Printing Centers of Boston and Harvard Institute for International Development. He has served as a member within various industry organizations including the International Cord Blood Society, and New England Fertility Society, as well as participated in the International Federation of Gynecology and Obstetrics (FIGO), The Mexican Federation of Ultrasounds, The World Cord Blood Congress, and Stem Cells USA-Regenerative Medicine conferences.

In addition to cord blood, Cirinos implementation projects of other adult stem cells sources, in the U.S. and other countries, include Cord Tissue Segment, Dental Pulp and Adipose Tissue:

About Cord Tissue Segment - A gelatinous substance, which functions as the primary connective tissue of the umbilical cord and is referred to as Whartons Jelly. This segment contains an important amount of Mesenchymal stem cells. These cells are an excellent candidate for regenerative medicine and tissue engineering applications. Mesenchymal stem cells have shown great promise in the potential treatment of diseases such as heart attack, Parkinsons disease, Alzheimers disease, type I diabetes, assist in bone and dental regeneration and expedite wound healing. In the past, the umbilical cord has been viewed as medical waste and discarded, resulting in the loss of this potential life-saving resource. By storing the stem cells extracted from your umbilical cord tissue segment along with your babys cord blood, youll have access to a wider variety of stem cells as new scientific discoveries are made.

Original post:
Director of Operations for GeneCell International, Jose Cirino, Accentuates the Importance Surrounding the Minority ...

About a week ago, the Nobel Prize winners in medicine were revealed as Sir John B. Gurdon and Shinya Yamanaka for their work in cell research.

The award was given to these two doctors for the discovery that mature cells can be reprogrammed to become pluripotent." That is, any mature cells can go back to their original state, thus reversing the process of cell aging.

Yamanaka was able to draw this conclusion due to a combination of his own research and the research of Gurdon done 40 years earlier.

In 1962, Gurdon was able to take the nucleus from a frogs intestine and place it into a frogs egg. From this, a normal frog was born. Gurdons research was inspiration to Yamanakas experiment, where he wanted to reverse the process of cell maturity without using an egg.

He was able to figure out a gene combination, which he inserted into a mature cell, so that the cell was able to go back to its primitive state.

According to Yamanaka, whats significant about this technology is not only can we avoid the ethical controversy of using embryos, but also a transplant patient can avoid organ rejection because the treatment will be done by using the patients own cells and not somebody elses.

Past controversy of stem cell research has come from the fact that in order to examine a brand new cell, the scientist would have to kill an embryo. Yamanaka also mentions that this discovery may some day be a possible cure for Parkinsons disease.

Since, Yamanakas discovery was made in 2006, classroom textbooks have already been changed and biology teachers have been informing their students about this new method.

DePaul professor Dr. Elizabeth LeClaire talked to her biology students about the research Thursday.

I dont think [the research] will revolutionize the world of medicine, said LeClaire. This may not be the answer you want to hear, but most diseases are very common and are caused by diet and exercise.

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Cell transformation earns Nobel Prize

CT model portfolio compared to 3 major indices YTD

• Cell Therapy Portfolio:  +24.44%
• Dow Jones:  +4.5%
• S+P 500:  +6.78%
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More than one back story exists on
Shinya Yamanaka and his Nobel Prize, but one that has received little
attention this week also raises questions about hoary practice of
peer review and publication of research – not to mention the
awarding of billions of dollars in taxpayer dollars.

“All's fair in love and war, they
say, but science is supposed to obey more noble ideals. New findings
are submitted for publication, the studies are farmed out to experts
for objective 'peer review' and the best research appears promptly
in the most prestigious journals. 

“Some stem cell biologists are crying
foul, however. Last year(2009), 14 researchers in this notoriously
competitive field wrote
to leading journals complaining of "unreasonable or
obstructive reviews". The result, they claimed, is that
'publication of truly original findings may be delayed or rejected.' 

“Triggered by this protest, New
Scientist scrutinised the dynamics of publication in the most
exciting and competitive area of stem
cell research, in which cells are 'reprogrammed' to
acquire the versatility of those of an early-stage embryo. In this
fast-moving field, where a Nobel prize is arguably at stake,
biologists are racing feverishly to publish their findings in top
journals. 

“Our analysis of more than 200
research papers from 2006 onwards reveals that US-based scientists
are enjoying a significant advantage, getting their papers published
faster and in more prominent journals (find
our data, methods and analyses here). 

“More mysterious, given his standing
in the field, is why two of Yamanaka's papers were among the 10 with
the longest lags. In the most delayed of all, Yamanaka reported that
the tumour-suppressing gene p53 inhibits the formation of
iPS cells. The paper took 295 days to be accepted. It was eventually
published by Nature in August 2009 alongside four similar
studies. 'Yamanaka's paper was submitted months before any of the
others,' complains Austin
Smith at the University of Cambridge, UK, who coordinated
the letter sent to leading journals. 

“Yamanaka suggests that editors may
be less excited by papers from non-US scientists, but may change
their minds when they receive similar work from leading labs in the
US. In this case, Hochedlinger submitted a paper similar to
Yamanaka's, but nearly six months after him. Ritu
Dhand, Nature's chief biology editor, says that each paper
is assessed on its own merits. Hochedlinger says he was unaware of
Yamanaka's research on p53 before publication.”

“A common criticism is that peer
review is biased towards well-established research groups and the
scientific status quo. Reviewers are unwilling to reject papers from
big names in their fields out of fear, and they can be hostile to
ideas that challenge their own, even if the supporting data is good.
Unscrupulous reviewers can reject papers and then quickly publish
similar work themselves.” 

Source:
http://feedproxy.google.com/~r/blogspot/uqpFc/~3/lESi4gQF2IA/yamanaka-and-frailty-of-peer-review.html

This week's announcement of the Nobel
Prize for Shinya Yamanaka brought along some interesting
tidbits, including who was “snubbed” as well as recollections
from the recipient.

“'My father probably still thinks in
heaven that I’m a doctor,' he said in the interview(with Asahi
Shimbun last April). 'IPS cells are still at a research phase and
have not treated a single patient. I hope to link it to actual
treatment soon so I will be not embarrassed when I meet my father
someday.'”

“If he can’t learn simple
biological facts he would have no chance of doing the work of a
specialist, and it would be a sheer waste of time, both on his part
and of those who would have to teach him.”

Source:
http://feedproxy.google.com/~r/blogspot/uqpFc/~3/7J31SRIukpg/yamanaka-rejected-slow-and-clumsy.html

SAN FRANCISCO – A move to tighten
budget controls on grants from the $3 billion California stem cell
agency stalled Monday, but it appears that the plan is headed for
ultimate approval.

Source:
http://feedproxy.google.com/~r/blogspot/uqpFc/~3/EqLIk55mLu4/tighter-controls-on-stem-cell-grant.html

The iPierian biopharmaceutical company
in South San Francisco was quick to make a change in its web site
this morning after the Nobel Prize for medicine was announced.

It was all part of the reaction today
in California to the Nobel for Yamanaka, who has substantial links to
the Golden State, including UCSF and the Gladstone Institutes.

“Dr. Yamanaka’s story is a
thrilling tale of creative genius, focused dedication and successful
cross-disciplinary science. These traits, nurtured during Dr.
Yamanaka’s postdoctoral training at Gladstone, have led to a
breakthrough that has helped propel the San Francisco Bay Area to the
forefront of stem cell research. Dozens of labs — often supported
by organizations such as the California Institute for Regenerative
Medicine (CIRM) and the Roddenberry Foundation–have adopted his
technology.” 

"There are few moments in science
that are undisputed as genuine elegant creativity and simplicity.
Shinya Yamanaka is responsible for one of those. The induced
pluripotent stem cells he created will allow us to interrogate and
understand the full extent and variation of human disease, will
enable us to develop new medicines and will forever change the way
science and medicine will be conducted for the benefit of mankind. An
extraordinary accomplishment by a genuinely modest and brilliant
scientist. He absolutely deserves a Nobel award.”

“CIRM alone is funding almost $190
million in awards developing better ways of creating iPS cells and
using those cells to develop new therapies (the
full list of iPS grants is on our website).”

Source:
http://feedproxy.google.com/~r/blogspot/uqpFc/~3/RbQ09EsO8Qc/yamanaka-and-golden-state.html

Going against the grain can be
difficult as UC Davis stem cell scientist Paul Knoepfler learned
again in connection with his research that dealt with similarities
between cancer and iPS cells.

“Not surprisingly...there are certain
members of the stem cell field who would rather focus away from the
ideas that iPS cells are similar in some respects to cancer.”

“Once we had a manuscript together
comparing iPS cells to cancer cells, we sent it to several high
profile journals without much luck. We thought that the fact that our
data indicated that iPS cells are similar to cancer cells might make
reviewers and editors excited. We thought that the paper was novel
and thought provoking in a number of ways. At the same time I
realized the theme of the paper would be controversial. 

“I would say two general things about
the review process at the two journals that turned down the paper.
First, the reviewers at these journals were enormously helpful with
their suggestions and helped us improve the paper substantially.
Second, they were clearly very uncomfortable with the notion that iPS
cells are related in some ways to cancer so unsettled in fact that I
believe it influenced their reviews.”

“Yeah, it may be unsettling that iPS
cells share traits with cancer cells, but if that is the reality,
isn’t it important that people know that and think about it, talk
about it, and address the issue with eyes open?”

Source:
http://feedproxy.google.com/~r/blogspot/uqpFc/~3/LITB6cXS-ZM/stem-cell-orthodoxy-and-peer-review.html

NEWARK, Calif., Oct. 12, 2012 (GLOBE NEWSWIRE) -- StemCells, Inc. (STEM) today announced the issuance of U.S. Patent Number 8,283,164 titled "Liver engrafting cells, assays, and uses thereof." The patent broadly covers purified populations of human liver cells, including the Company's human liver engrafting cells (hLEC). hLEC cells were first isolated by Company researchers in the late 1990s, and Company scientists have repeatedly demonstrated the cells' engraftment and robust bioactivity in vivo and that they are expandable. While the Company's hLEC cells are purified from donated adult livers not suitable for transplant, the newly issued '164 patent importantly claims cells independent of tissue source. Therefore, the '164 patent has potential relevance to those deriving liver cells from iPS or ESC platforms. The term of the '164 patent extends into 2022.

"This new patent extends our IP protection around hLEC cells and should be of interest to those searching for an expandable human liver cell," said Martin McGlynn, President and Chief Executive Officer of StemCells, Inc. "Because the liver is such a key organ, finding an expandable, reliable and well-characterized liver cell population is an important step forward in both medical research and drug development. For example, liver disease afflicts some 25 million Americans and transplantation of an expandable liver cell could potentially address many of the shortcomings of whole liver transplantation. Moreover, the right liver cells could make profound contributions to drug screening and toxicity testing."

In October 2011, StemCells formed a wholly-owned subsidiary to focus on both the therapeutic and research tool applications of its hLEC technologies and to serve as an investment vehicle for those interested in a "pure play" liver cell company. The '164 patent is one of several patents issued to the Company on a worldwide basis claiming expandable liver cells, including U.S. Patent Nos. 7,811,818 and 7,211,404, Japan Patent No. 4445876, Australian Patent No. 2002315392, and European Patent No. 1406998. Patent prosecution in the family is ongoing on a worldwide basis, including China application 02816528.4.

About StemCells, Inc.

StemCells, Inc. is engaged in the research, development, and commercialization of cell-based therapeutics and tools for use in stem cell-based research and drug discovery. The Company's lead therapeutic product candidate, HuCNS-SC(R) cells (purified human neural stem cells), is currently in development as a potential treatment for a broad range of central nervous system disorders. The Company recently reported results from a Phase I clinical trial in Pelizaeus-Merzbacher disease (PMD), a fatal myelination disorder in children. The trial results showed preliminary evidence of progressive and durable donor-derived myelination in all four patients transplanted with HuCNS-SC cells. The Company is also conducting a Phase I/II clinical trial in chronic spinal cord injury in Switzerland and a Phase I/II clinical trial in dry age-related macular degeneration in the United States. In addition, the Company is pursuing preclinical studies of its HuCNS-SC cells in Alzheimer's disease. StemCells also markets stem cell research products, including media and reagents, under the SC Proven(R) brand. Further information about StemCells is available at http://www.stemcellsinc.com.

The StemCells, Inc. logo is available at http://www.globenewswire.com/newsroom/prs/?pkgid=7014

Apart from statements of historical fact, the text of this press release constitutes forward-looking statements within the meaning of the Securities Act of 1933, as amended, and the Securities Exchange Act of 1934, as amended, and is subject to the safe harbors created therein. These statements include, but are not limited to, statements regarding the prospect of enforcing the Company's intellectual property against infringers, the potential breadth and length of patent protection in the United States or in any other geography; and the likelihood that any of the Company's intellectual property will be found to be valid and enforceable. These forward-looking statements speak only as of the date of this news release. The Company does not undertake to update any of these forward-looking statements to reflect events or circumstances that occur after the date hereof. Such statements reflect management's current views and are based on certain assumptions that may or may not ultimately prove valid. The Company's actual results may vary materially from those contemplated in such forward-looking statements due to risks and uncertainties to which the Company is subject, including the Company's ability to obtain the increased capital resources needed to continue its current operations and to conduct the research, preclinical development and clinical trials necessary for regulatory approvals and for continued patent prosecution efforts; uncertainty regarding the validity and enforceability of the Company's existing patents; and other factors that are described under the heading "Risk Factors" in the Company's Annual Report on Form 10-K for the year ended December 31, 2011, and in its subsequent reports on Form 10-Q and Form 8-K.

Continue reading here:
StemCells, Inc. Awarded Broad U.S. Patent Covering Expandable Liver Cells

SAN FRANCISCO (KGO) -- Bay Area stem cell researchers are reporting early, encouraging results from two clinical trials. The first, involves patients, paralyzed with spinal cord injuries and a treatment that could offer new hope for their future.

Nearly 20 years after the football injury that left him paralyzed, Roman Reed still holds onto the hope that he will someday walk again.

"One hundred percent, without a doubt. I've been wrong about the date, but not the fact I will walk again," said Reed.

Reed now runs a foundation to promote stem cell research and has been closely watching a clinical trial being conducted by Bay Area based Stem Cells Inc. Its goal is to use stem cell therapy to restore motor function in patients with spinal cord injuries.

"We're on the road on to being able to cure paralysis, it's so important, and stem cells are the way to do it," said Reed.

Stephen Huhn, M.D., Ph.D., from Stem Cells Inc., says the test procedure began a two hour surgery to clear a path to the spinal cord. Researchers then injected the cells directly into the damaged area.

"So the first three patients in the trial were designed to enroll patients who had the worst of the worst injuries. In other words, complete loss of sensory function and complete loss of motor function below the level of injury," said Huhn.

The phase one trials are all about establishing safety, but six months out, the researchers began measuring some intriguing improvements in two of those three patients. Both reported feeling in areas below the areas of their injuries.

The company cautions that the data is very preliminary, but they say researchers were able to measure the improved sensory response using several testing methods, including electrical stimulation, and response to heat -- which are considered more accurate than the patient's own self-reporting.

"You can't fake that. When we saw that data, that's when we became very excited," said Martin McGlynn, the CEO of Stems Cells Inc.

View post:
Bay Area stem cell researchers see encouraging results

METRO VANCOUVER -- It started with a routine blood test after a bout of pneumonia.

But since finding two rare bone marrow conditions, the family of 11-year-old Jonathan Barnes has been campaigning to shore up the list of potential marrow donors, and to keep local blood banks stocked.

Without finding a bone marrow donor who will match Jonathan's criteria, the Anmore youngster will likely end up with leukemia. Despite the frightening prospect, Jonathan and his family are meeting the challenge with poise.

"He knows he has a condition called myelodysplasia. He knows that he needs to have a bone marrow transplant," said Mariam Barnes, Jonathan's mother.

"He knows he will get cancer if he doesn't have the transplant. But in the way that children are always so wonderfully unique, he's not fazed by that."

While finding an exact match is extremely difficult, getting on the donor list is easier than most people might think, Barnes said.

"A lot of people don't do it because they think it's involving needles but the beginning step is just a mouth swab. It comes to you in the post and you post it back, and they put you on the register," she said.

"What we didn't know and what I don't think many people know, is that they're desperately short of young male donors . There's 19 million people on the transplant register across the world, but only 10 per cent of those are the groups that they need - ethnically diverse young men."

It would be easier to find a match for the family if they could use donated stem cells from umbilical chords, but that procedure won't be available in Canada until next year and the Barnes don't have that much time, she said.

"We're just praying and hoping that someone, somewhere in the world, will put forward a match that will fit with Jonathan."

View post:
Anmore boy needs bone marrow transplant

Washington, October 13 (ANI): In a new study, researchers have taken the first steps to create neural-like stem cells from muscle tissue in animals.

"Reversing brain degeneration and trauma lesions will depend on cell therapy, but we can't harvest neural stem cells from the brain or spinal cord without harming the donor," Osvaldo Delbono, lead author of the study from Wake Forest Baptist Medical Center, said.

"Skeletal muscle tissue, which makes up 50 percent of the body, is easily accessible and biopsies of muscle are relatively harmless to the donor, so we think it may be an alternative source of neural-like cells that potentially could be used to treat brain or spinal cord injury, neurodegenerative disorders, brain tumours and other diseases, although more studies are needed," Delbono said.

In an earlier study, the Wake Forest Baptist team isolated neural precursor cells derived from skeletal muscle of adult transgenic mice.

In the current research, the team isolated neural precursor cells from in vitro adult skeletal muscle of various species including non-human primates and aging mice, and showed that these cells not only survived in the brain, but also migrated to the area of the brain where neural stem cells originate.

Another issue the researchers investigated was whether these neural-like cells would form tumours, a characteristic of many types of stem cells. To test this, the team injected the cells below the skin and in the brains of mice, and after one month, no tumours were found.

"Right now, patients with glioblastomas or other brain tumours have very poor outcomes and relatively few treatment options," Alexander Birbrair, first author of the study, said.

"Because our cells survived and migrated in the brain, we may be able to use them as drug-delivery vehicles in the future, not only for brain tumours but also for other central nervous system diseases," he added.

The findings of the study have been published online in the journals Experimental Cell Research and Stem Cell Research. ANI)

See the rest here:
Stem cells from muscle tissue 'may help cure neurodegenerative diseases'

By Mary Brophy Marcus HealthDay Reporter

FRIDAY, Oct. 12 (HealthDay News) -- Autism researchers have been given the go-ahead by the U.S. Food and Drug Administration to launch a small study in children with autism that evaluates whether a child's own umbilical cord blood may be an effective treatment.

Thirty children with the disorder, aged 2 to 7, will receive injections of their own stem cells from umbilical cord blood banked by their parents after their births. All of the cord blood comes from the Cord Blood Registry, the world's largest stem cell bank.

Scientists at Sutter Neuroscience Institute, in Sacramento, Calif., said the placebo-controlled study will evaluate whether the stem cell therapy helps improve language and behavior in the youngsters.

There is anecdotal evidence that stem cell infusions may have a benefit in other conditions such as cerebral palsy, said lead study investigator Dr. Michael Chez, director of pediatric neurology at the institute.

"We're hoping we'll see in the autism population a group of patients that also responds," Chez said. Other autism and stem cell research is going on abroad, but this study is the first to use a child's own cord blood stem cells.

Chez said the study will involve only patients whose autism is not linked to a genetic syndrome or brain injury, and all of the children will eventually receive the stem cells.

Two infusions will take place during the 13-month study. At the start of the research, the children will be split into two groups, half receiving an infusion of cord blood stem cells and half receiving a placebo. At six months, the groups will swap therapies. The infusions will be conducted on an outpatient basis with close monitoring, Chez said.

"We're working with Sutter Children's Hospital, who does our oncology infusions with the same-age children," he said. "They are very experienced nurses who work with preschool and school-age kids to help them get through medical experiences."

Each child and his or her parents will be given a private room with a television and videos, beverages, and perhaps a visit from the hospital's canine therapy dog, and then a topical anesthetic will be applied to the arm to numb the skin before intravenous needle placement. A hematology expert will be giving the infusions and monitoring for safety, said Chez, who noted that each child will be watched closely for an hour and a half before heading home. They will be seen the next day as well for a safety check.

Link:
Could Stem Cells Treat Autism? Newly Approved Study May Tell

Hanggang ngayon ay usap-usapan pa rin ang Fresh Cell Therapy (FCT) o mas kilala natin bilang stem cell therapy lalo nat marami nang celebrities ang nahihikayat na sumailalim sa naturang medical procedure na nagpo-promote ng anti-aging at nakatutulong para labanan ang ilang serious health conditions.

Isa na nga rito ang sikat na hairstylist, beauty expert, philanthropist, businessman, at TV host na si Ricky Reyes o mas kilala bilang si Mother Ricky.

Sumailalim si Mother Ricky sa FCT noong Hunyo ng taong ito at ngayon nga ay ine-enjoy niya ang benepisyo nito sa kanyang kalusugan.

The fact that my arthritis is gone, Im very, very happy and Im thankful to Bobby [Kittichaiwong, Villa Medica CEO). And its just a two-shot on my back, gone instantly. You know, yung quality of life mo na hindi ka aray-aray-aray?

Tapos nagpunta ako sa Germany last June and its such a beautiful place. We even had meron ka pang tour sa Paris [France]. Very nice place, sabi ni Mother Ricky.

Nakausap ng PEP.ph (Philippine Entertainment Portal) si Mother Ricky sa presscon ng Villa Medica tungkol sa FCT na ginanap kaninang tanghali, Oktubre 13, sa Crowne Plaza sa Ortigas, Pasig City.

Hindi rin daw niya maitatanggi ang kabutihang naidulot ng FCT sa kanyang ina, na sumailalim din sa naturang therapy.

Oo naman, with my experience with my mom. Dati nakatungo na, ngayon nakataas na yung leeg na ganyan, paglalarawan pa ni Mother Ricky tungkol sa nagawa ng FCT sa kanyang ina.

Nai-stretch na yung mga kamay. Isang malaking utang na loob ko yun kay Bobby. It is a Christmas gift of Bobby to me to cure my mom.

View original post here:
Ricky Reyes to help set up Fresh Cell Therapy clinic in the Philippines

Friday, Oct. 12, 2012

Harvard University said neither it nor Massachusetts General Hospital have ever authorized any iPS-related clinical studies by Hisashi Moriguchi, who claims to have achieved the first clinical application using the revolutionary stem cell technology.

"No clinical trials related to Moriguchi's work have been approved by institutional review boards at either Harvard University or Massachusetts General Hospital," a statement issued by Harvard and related institutes said Thursday.

The statement confirmed that Moriguchi "was a visiting fellow at Massachusetts General Hospital from 1999-2000," but added that he "has not been associated with (the institution) or Harvard since that time."

Moriguchi, a researcher at University of Tokyo Hospital, claimed to be a visiting lecturer at Harvard and to have conducted clinical trials at Massachusetts General Hospital with other researchers to transplant artificial cardiac muscle cells developed from iPS cells into six patients with heart disease.

The claim came just after Shinya Yamanaka of Kyoto University and a British scholar were jointly awarded this year's Nobel Prize in physiology or medicine for their research on iPS cells. Yamanaka and John Gurdon were credited with the discovery that mature human cells can be reprogrammed as immature cells capable of developing into all types of body parts.

"Research has been conducted after going through due procedures, such as consultations with a university ethics committee," Moriguchi claimed. "I have been told my method of creating iPS cells is different from the one used by Yamanaka (and Gurdon), but I have been doing it my way and no problems have been identified after transplants."

Moriguchi, who is thought to have asked a heart surgeon to carry out cell transplants, unveiled details about the treatment at a meeting of annual stem-cell research conference at Rockefeller University in New York held Wednesday and Thursday.

But the event's organizer, the nonprofit New York Stem Cell Foundation, subsequently said it "has received information from Harvard University that raises legitimate questions concerning a poster presentation" by Moriguchi, and has withdrawn it from the conference.

Moriguchi graduated from Tokyo Medical and Dental University with a degree in nursing science and does not have a license to practice medicine, according to a professor who taught him as an undergraduate.

View original post here:
Doubt cast on clinical stem cell tests

ScienceDaily (Oct. 11, 2012) Early results of a Phase II intra-arterial stem cell trial for ischemic stroke showed no adverse events associated with the first 10 patients, allowing investigators to expand the study to a targeted total of 100 patients.

The results were presented October 11 by Sean Savitz, M.D., professor of neurology and director of the Stroke Program at The University of Texas Health Science Center at Houston (UTHealth), at the 8th World Stroke Congress in Brasilia, Brazil.

The trial is the only randomized, double-blind, placebo-controlled intra-arterial clinical trial in the world for ischemic stroke. It is studying the safety and efficacy of a regenerative therapy developed by Aldagen Inc., a wholly-owned subsidiary of Cytomedix, Inc., that uses a patient's own bone marrow stem cells, which can be administered between 13 and 19 days post-stroke.

The therapy, called ALD-401, consists of stem cells that are identified using Aldagen's proprietary technology to isolate cells that express high levels of an enzyme that serves as a marker of stem cells. Pre-clinical studies found that these cells enhance recovery after stroke in mice. The cells are administered into the carotid artery. Patients are followed for 12 months to monitor safety and to assess mental and physical function.

"We have been approved by the Data Safety Monitoring Board (DSMB) to move the study into the next phase, which will allow us to expand the number of sites in order to complete enrollment," said Savitz, senior investigator for the multi-center study. As per the protocol for the trial, the Food and Drug Administration required a review by the DSMB prior to advancing to the next phase.

Preclinical research, including research at the UTHealth Medical School, has suggested that stem cells can promote the repair of the brain after an ischemic stroke, which is caused by a blood clot in the brain. Stroke is a leading cause of disability and the fourth-leading cause of death in the United States, according to 2008 statistics reported by the Centers for Disease Control and Prevention.

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The above story is reprinted from materials provided by University of Texas Health Science Center at Houston.

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Safety results of intra-arterial stem cell clinical trial for stroke presented

ScienceDaily (Oct. 12, 2012) Scientists at Wake Forest Baptist Medical Center have taken the first steps to create neural-like stem cells from muscle tissue in animals.

Details of the work are published in two complementary studies published in the September online issues of the journals Experimental Cell Research and Stem Cell Research.

"Reversing brain degeneration and trauma lesions will depend on cell therapy, but we can't harvest neural stem cells from the brain or spinal cord without harming the donor," said Osvaldo Delbono, M.D., Ph.D., professor of internal medicine at Wake Forest Baptist and lead author of the studies.

"Skeletal muscle tissue, which makes up 50 percent of the body, is easily accessible and biopsies of muscle are relatively harmless to the donor, so we think it may be an alternative source of neural-like cells that potentially could be used to treat brain or spinal cord injury, neurodegenerative disorders, brain tumors and other diseases, although more studies are needed."

In an earlier study, the Wake Forest Baptist team isolated neural precursor cells derived from skeletal muscle of adult transgenic mice (PLOS ONE, Feb. 3, 2011).

In the current research, the team isolated neural precursor cells from in vitro adult skeletal muscle of various species including non-human primates and aging mice, and showed that these cells not only survived in the brain, but also migrated to the area of the brain where neural stem cells originate.

Another issue the researchers investigated was whether these neural-like cells would form tumors, a characteristic of many types of stem cells. To test this, the team injected the cells below the skin and in the brains of mice, and after one month, no tumors were found.

"Right now, patients with glioblastomas or other brain tumors have very poor outcomes and relatively few treatment options," said Alexander Birbrair, a doctoral student in Delbono's lab and first author of these studies. "Because our cells survived and migrated in the brain, we may be able to use them as drug-delivery vehicles in the future, not only for brain tumors but also for other central nervous system diseases."

In addition, the Wake Forest Baptist team is now conducting research to determine if these neural-like cells also have the capability to become functioning neurons in the central nervous system.

Co-authors of the studies are Tan Zhang, Ph.D., Zhong-Min Wang, M.S., Maria Laura Messi, M.S., Akiva Mintz, M.D., Ph.D., of Wake Forest Baptist, and Grigori N. Enikolopov, Ph.D., of Cold Spring Harbor Laboratory.

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Neural-like stem cells from muscle tissue may hold key to cell therapies for neurodegenerative diseases

Public release date: 12-Oct-2012 [ | E-mail | Share ]

Contact: Marguerite Beck marbeck@wakehealth.edu 336-716-2415 Wake Forest Baptist Medical Center

WINSTON-SALEM, N.C. Oct. 12, 2012 Scientists at Wake Forest Baptist Medical Center have taken the first steps to create neural-like stem cells from muscle tissue in animals. Details of the work are published in two complementary studies published in the September online issues of the journals Experimental Cell Research and Stem Cell Research.

"Reversing brain degeneration and trauma lesions will depend on cell therapy, but we can't harvest neural stem cells from the brain or spinal cord without harming the donor," said Osvaldo Delbono, M.D., Ph.D., professor of internal medicine at Wake Forest Baptist and lead author of the studies.

"Skeletal muscle tissue, which makes up 50 percent of the body, is easily accessible and biopsies of muscle are relatively harmless to the donor, so we think it may be an alternative source of neural-like cells that potentially could be used to treat brain or spinal cord injury, neurodegenerative disorders, brain tumors and other diseases, although more studies are needed."

In an earlier study, the Wake Forest Baptist team isolated neural precursor cells derived from skeletal muscle of adult transgenic mice (PLOS One, Feb.3, 2011).

In the current research, the team isolated neural precursor cells from in vitro adult skeletal muscle of various species including non-human primates and aging mice, and showed that these cells not only survived in the brain, but also migrated to the area of the brain where neural stem cells originate.

Another issue the researchers investigated was whether these neural-like cells would form tumors, a characteristic of many types of stem cells. To test this, the team injected the cells below the skin and in the brains of mice, and after one month, no tumors were found.

"Right now, patients with glioblastomas or other brain tumors have very poor outcomes and relatively few treatment options," said Alexander Birbrair, a doctoral student in Delbono's lab and first author of these studies. "Because our cells survived and migrated in the brain, we may be able to use them as drug-delivery vehicles in the future, not only for brain tumors but also for other central nervous system diseases."

In addition, the Wake Forest Baptist team is now conducting research to determine if these neural-like cells also have the capability to become functioning neurons in the central nervous system.

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Stem cells from muscle tissue may hold key to cell therapies for neurodegenerative diseases

TOKYO: Shinya Yamanaka, fresh from the Nobel Prize for medicine, states that science and ethics must go hand in hand. Interviewed by the Mainichi Shimbun after the award, he said: "I would like to invite ethical experts as teachers at my laboratory and work to guide iPS [induced pluripotent stem] cell research from that direction as well. The work of a scientific researcher is just one part of the equation. "

Yamanaka, 50, found that adult cells can be transformed into cells in their infancy, stem cells (iPS), which are, so to speak, the raw material for the reconstruction of tissue irreparably damaged by disease. For regenerative medicine the implications of Yamanaka's discovery are obvious. Adult skin cells can for example be reprogrammed and transformed into any other cell that is desired: from the skin to the brain, from the skin to the heart, from the skin to elements that produce insulin.

"Their discovery - says the statement of the jury that awarded him the Nobel Prize on October 8 - has revolutionized our understanding of how cells and organisms develop. Through the programming of human cells, scientists have created new opportunities for the study of diseases and development of methods for the diagnosis and therapy ".

These "opportunities" are not only "scientific", but also "ethical". Much of the scientific research and global investment is in fact launched to design and produce stem cells from embryos, arriving at the point of manipulating and destroying them, facing scientists with enormous ethical problems.

" Ethics are really difficult - Yamanaka explainsto Mainichi - In the United States I began work on mouse experiments, and when I returned to Japan I learned that human embryonic stem cells had been created. I was happy that they would contribute to medical science, but I faced an ethical issue. I started iPS cell research as a way to do good things as a researcher, and I wanted to do what I could to expand the merits of embryonic stem cells. If we make sperm or eggs from iPS cells, however, it leads to the creation of new life, so the work I did on iPS cells led to an ethical problem. If we don't prepare debates for ethical problems in advance, technology will proceed ahead faster than we think.. "

The "ethical question" Yamanaka pushed to find a way to "not keep destroying embryos for our research."

Speaking with his co-workers at the University of Kyoto, immediately after receiving the award, Yamanaka showed dedication and modesty.

"Now - he said - I strongly feel a sense of gratitude and responsibility" gratitude for family and friends who have supported him in a demanding journey of discovery that lasted decades; responsibility for a discovery that gives hope to millions of patients. Now iPS cells can grow into any tissue of the human body allowing regeneration of parts so far irretrievably lost due to illness.

His modesty also led him to warn against excessive hopes. To a journalist who asked him for a message to patients and young researchers awaiting the results of his research heresponded: "The iPS cells are also known as versatile cells, and the technology may be giving the false impression to patients that they could be cured any day now. It will still take five or 10 years of research before the technology is feasible. There are over 200 researchers at my laboratory, and I want patients to not give up hope"

"Dozens of times - he continued - I tried to get some results and I have often failed in the experiments .... Many times I was tempted to give up or cry. Without the support of my family, I could not have continued this search. From now on I will be facing the moment of truth. I would like to return to my laboratory as quickly as possible. "

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Hisashi Moriguchi presented his work at the New York Stem Cell Foundation meeting this week.

AP/Press Association

From the beginning, it seemed too good to be true. Days after Kyoto University biologist Shinya Yamanaka won a Nobel prize for his 2006 discovery of induced pluripotent stem (iPS) cells (see 'Cell rewind wins medicine Nobel'), Hisashi Moriguchi a visiting researcher at the University of Tokyo claimed to have modified that technology to treat a person with terminal heart failure. Eight months after surgical treatment in February, said a front-page splash in the Japanese newspaper Yomiuri Shimbun yesterday, the patient was healthy.

But after being alerted to the story by Nature, Harvard Medical School and Massachusetts General Hospital (MGH), where Moriguchi claimed to have done the work, denied that the procedure had taken place. No clinical trials related to Dr Moriguchi's work have been approved by institutional review boards at either Harvard University or MGH, wrote David Cameron, a spokesman for Harvard Medical School in Boston, Massachusetts. The work he is reporting was not done at MGH, says Ryan Donovan, a public-affairs official at MGH, also in Boston.

A video clip posted online by the Nippon News Network and subsequently removed showed Moriguchi presenting his research at the New York Stem Cell Foundation meeting this week.

If true, Moriguchis feat would have catapulted iPS cells into use in a wide range of clinical situations, years ahead of most specialists' predictions. I hope this therapy is realized in Japan as soon as possible, the head of a Tokyo-based organization devoted to helping children with heart problems told Yomiuri Shimbun.

But there were reasons to be suspicious. Moriguchi said he had invented a method to reprogram cells using just two chemicals: microRNA-145 inhibitor and TGF- ligand1. But Hiromitsu Nakauchi, a stem-cell researcher at the University of Tokyo, says that he has never heard of success with that method. He adds that he had also never heard of Moriguchi before this week.

Moriguchi also said that the cells could be differentiated into cardiac cells using a 'supercooling' method that he had invented. Thats another weird thing, says Nakauchi.

The article in which Moriguchi presented his two-chemical method, published in a book1 describing advances in stem-cell research, includes paragraphs copied almost verbatim from other papers. The section headed 2.3 Western blotting, for example, is identical to a passage from a 2007 paper by Yamanaka2. Section 2.1.1, in which Moriguchi describes human liver biopsies, matches the number of patients and timing of specimen extractions described in an earlier article3, although the name of the institution has been changed.

When contacted by Nature, Moriguchi stood by his publication. We are all doing similar things so it makes sense that wed use similar words, he says. He did admit to using other papers as reference.

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Stem-cell transplant claims debunked