Category Archives: Stell Cell Research

Brain Cell Transplants Are Being Tested Once Again For Parkinson’s – NPR

Researchers are working to revive a radical treatment for Parkinson's disease.

The treatment involves transplanting healthy brain cells to replace cells killed off by the disease. It's an approach that was tried decades ago and then set aside after disappointing results.

Now, groups in Europe, the U.S. and Asia are preparing to try again, using cells they believe are safer and more effective.

"There have been massive advances," says Claire Henchcliffe, a neurologist at Weill Cornell Medicine in New York. "I'm optimistic."

"We are very optimistic about ability of [the new] cells to improve patients' symptoms," says Viviane Tabar, a neurosurgeon and stem cell biologist at Memorial Sloan Kettering Cancer Center in New York.

Henchcliffe and Tabar joined several other prominent scientists to describe plans to revive brain cell transplants during a session Tuesday at the International Society for Stem Cell Research meeting in Boston.

Their upbeat message marks a dramatic turnaround for the approach.

During the 1980s and 1990s, researchers used cells taken directly from the brains of aborted fetuses to treat hundreds of Parkinson's patients. The goal was to halt the disease.

Parkinson's destroys brain cells that make a substance called dopamine. Without enough dopamine, nerve cells can't communicate with muscles, and people can develop tremors, have difficulty walking and other symptoms.

Drugs can temporarily raise dopamine levels, easing symptoms. But their effectiveness tends to wane over time.

So researchers thought a better approach would be to simply replace the cells that produce dopamine. "The rationale is that if those cells are lost, and we know they make dopamine, and we know that dopamine is important for good coordination, good automatic movement, why could we not replace those cells," Henchcliffe says.

For some patients, the transplanted fetal cells produced dramatic improvements. But rigorous studies eventually showed that many other patients were not helped. And some developed an unwelcome side effect: uncontrolled movements.

So in 2003, researchers declared a moratorium on transplants for Parkinson's. "There was a stepping back to re-evaluate what exactly just happened," Henchcliffe says.

That took a while. But it's clear now that over the long term, some patients really were helped by the procedure.

Henchliffe got to examine five people who'd received transplants more than 15 years earlier.

"These were patients with decades of Parkinson's disease, and I thought it was really striking that a subset actually seemed to be doing much better than one would expect," she says.

Meanwhile, researchers never stopped looking for ways to make cell transplants safer and more effective.

The early transplants were pretty crude, Tabar says. One problem was that the cells came directly from the brains of fetuses, she says.

"What you were placing in the patient was just a soup of brain," she says. "It did not have only the dopamine neurons, which exist in the tissue, but also several different types of cells."

Some of those other cells may also have grown in the patients' brains, causing side effects, she says.

To prevent that sort of problem, scientists at Sloan Kettering have spent the past dozen years figuring out how to turn stem cells into pure lines of dopamine cells in the lab.

Unlike the transplanted fetal cells, these cells are an exact replacement for the neurons that produce dopamine in an adult brain, "So you are confident that everything you are putting in the patient's brain will consist of right type of cell," Tabar says.

Another advantage of lab-grown cells is that the supply is unlimited. "Not only can we grow them, in fact we have almost 1,000 doses of these cells already sitting in a freezer," Tabar says.

Tabar, along with her colleague and husband, Lorenz Studer, hope the Food and Drug Administration will give them permission to begin testing those cells in Parkinson's patients in 2018.

Both have a financial stake in a startup that's funding the project.

Meanwhile, several other groups around the globe are also launching transplant studies. Researchers say a handful of patients in Australia have already received cells.

Some scientists are worried that the renewed rush to make transplants work could lead to more disappointments.

But Tabar says the time is right. "On the one hand, you don't want to rush," she says. "On the other hand I think the field is ready for something bold."

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Brain Cell Transplants Are Being Tested Once Again For Parkinson's - NPR

Stem cell research program out of funds in three years – San Diego Reader

Californias taxpayer-funded $3 billion stem cell research program, officially known as the California Institute for Regenerative Medicine, is spending money at the rate of $22,000 an hour, and expected to run out of cash in three years, reports Capitol Weekly.

The multi-billion-dollar bond borrowing was authorized by state voters in 2004 after elite scientists and Hollywood stars, including Parkinsons sufferer Michael J. Fox and quadriplegic Christopher Reeve, argued in a $34 million ballot campaign that medical miracles were just around the corner. They teased the public, Jim Lott, an ex-vice president of the Hospital Association of Southern California and critic of the program told Capitol Weekly. They teased us with Proposition 71. And they did not deliver on the tease, and I dont want them to be able to get away with that again.

Additional funding sought by the institute, critics say, should be conditioned on reforming the way cash grants are handed out, which currently go overwhelmingly to those affiliated with institutions who control seats on the stem cell groups board. We need to do this in a more responsible and accountable way, according to Lott.

As the battle for new money ramps up, UCSDs Sanford Stem Cell Clinical Center, number four among top funding recipients, is looking for a new communications director, to receive a salary commensurate with experience. Says an online job notice, This position works closely with and supports the Executive Director on communications of scientific and medical information of interest to our community and constituents.

Minimum qualifications include demonstrated experience in writing and editing promotional materials, e.g. newsletters, brochures, web announcements, fact sheets, background pieces, etc. Another requirement: Must be willing to work on projects where animals and human embryonic stem cells are used in research.

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Stem cell research program out of funds in three years - San Diego Reader

Stem cell research could help the infertile – Shanghai Daily (subscription)

SCIENTISTS at Beijings Tsinghua University are leading the world in inducing in-vitro differentiation of human embryonic stem cells into follicle-like cells. The breakthrough is expected to help the study of premature ovarian failure and improve assisted reproductive technology.

The achievement of the research team led by Professor Kehkooi Kee was published in the latest issue of academic journal Nature Communications.

The research showed the differentiation of human embryonic stem cells into follicle-like cells can be achieved under the combined action of two RNA-binding proteins specifically expressed in germ cells, DAZL and BOULE, and growth factors GDF9 and BMP15.

Kee, a Malaysian Chinese scientist, said that unlike somatic cells, germ cells can transmit the genetic chromosomes of the father and mother to the next generation. In the genetic process, germ cells undergo unique meiosis and genetic recombination.

How do the germ cells regulate this process? How do they keep the balance between passing the genes to the next generation and creating a diverse genome? That is the most interesting question for me in this field of study, said Kee.

However, scientists must overcome difficulties. Although they can obtain some human germ cell samples by patient agreement, the sample size is far from enough for molecular experiments and cell experiments.

We needed to build an in-vitro platform to study the various mechanisms during the process of human germ cell development. So we chose human embryonic stem cells to differentiate into germ cells, including sperms and eggs, Kee said.

In 2009, he and his colleagues used human embryonic stem cells to create human primordial germ cells and sperm-like cells for the first time.

After successfully culturing human sperm-like cells in-vitro, Kees team tried to culture follicle-like cells. A follicle is composed of an oocyte and many granulosa cells around it. At first we thought inducing the formation of granulosa cells would be a challenge.

But it was found that growth factors GDF9 and BMP15 could promote the development of follicles.

We have compared the in-vitro cultured cells with in-vivo cells, and found they have many similar characteristics. But we can only call the in-vitro cells follicle-like, because we cant prove they are exactly the same until we conduct functional experiments, Kee said. We hope to improve the efficiency of our experiment, and culture more mature antral follicles to test their function.

Helping the infertile is the aim of the research team. Some women cannot have babies because of premature ovarian failure. We might study whether this is caused by gene mutations by conducting in-vitro germ cell experiments, and then develop treatments, Kee said.

The team is also attempting to induce the differentiation of human embryonic stem cells into germ cells on Chinas first cargo spacecraft, Tianzhou-1, to study the effects of the space environment on human reproduction.

Excerpt from:
Stem cell research could help the infertile - Shanghai Daily (subscription)

Stem Cell Therapy Offers Hope for Multiple Sclerosis Remission – Healthline

By combining an experimental stem cell treatment with a nanoparticle delivery system, researchers may eventually stop MS and other autoimmune diseases.

An innovative stem cell therapy could change how we treat multiple sclerosis (MS), but are we any closer to a cure?

The work of Dr. Su Metcalfe, founder and chief scientific officer of the biotech company LIFNano, appears to be breathing new life into that hope.

Metcalfe and her team developed a way to fight MS by using the bodys own natural mechanisms but it hasnt been tested in humans yet.

MS is an inflammatory and neurodegenerative autoimmune disease that can result in an array of neurological symptoms including fatigue, muscle spasms, speech problems, and numbness. It is caused by the immune system attacking myelin, the insulating coating that runs along the outside of nerve cells. The result is damage to the brain and central nervous system.

The disease currently affects roughly 2.5 million people worldwide. About 200 new cases are diagnosed each week in the United States.

LIFNano uses a new treatment based on LIF a stem cell protein that forms naturally in the body to signal and regulate the immune systems response to myelin.

LIF, in addition to regulating and protecting us against attack, also plays a major role in keeping the brain and spinal cord healthy, Metcalfe recently told Cambridge News.

In fact it plays a major role in tissue repair generally, turning on stem cells that are naturally occurring in the body, making it a natural regenerative medicine, but also plays a big part in repairing the brain when its been damaged, she said.

Metcalfe has spent years studying LIF, but only recently realized its potential for treatment likening it to an on/off switch for the immune system.

However, once she discovered its potential, there were almost immediate problems in its application. One of the earliest was how quickly LIF breaks down once it is administered into the body.

If you try just to inject it into a patient, it dissipates or disappears in about 20 minutes, Olivier Jarry, CEO of LIFNano, told Healthline.

That makes it unusable in a clinic. You would have to have some kind of pump and inject it continually.

A breakthrough came for Metcalfe when she took findings from her studies of LIF and applied them to nanotechnology. The treatment she is now developing relies on nanospheres derived from a well-established medical polymer known as PLGA, which is already used in materials like stitches. And because it is biodegradable, it can be left to dissolve inside the body.

Storing LIF inside these PLGA nanospheres before administering them into the bloodstream allows for a sustained dose over the course of several days.

The process differs significantly from the current drugs used to treat MS. These treatments most often fall under the category of drugs known as immunosuppressors, which inhibit the bodys overall immune system response.

LIF is theoretically much more precise than immunosuppressors, and should keep the immune system functioning against harmful infections and disease.

Were not using any drugs, said Metcalfe. Were simply switching on the bodys own systems of self-tolerance and repair. There arent any side effects because all were doing is tipping the balance. Autoimmunity happens when that balance has gone awry slightly, and we simply reset that.

The team cautions that LIF therapy is still several years away.

While some outlets have run wild with Metcalfes research, announcing that a cure for MS is right around the corner, those headlines are speculative.

Some MS advocacy groups have even made public statements calling coverage of her work premature and irresponsible.

Jarry told Healthline that LIFNano is expecting to enter FDA phase I trials in 2020. This would be the first time that it is used in human subjects. But even if the treatment proves to be safe and effective, the soonest it could be on the market is 2023, he estimated.

The main focus of LIF therapy is now on MS. But it has potential for treating other autoimmune diseases including psoriasis and lupus.

We are optimistic in the sense that we may provide a long-term remission for patients with MS, said Jarry.

Is it a cure? Wed love at some point to use the term cure, but we are very cautious.

Continued here:
Stem Cell Therapy Offers Hope for Multiple Sclerosis Remission - Healthline

WideCells well-placed for stem cell revolution – Proactive Investors UK

One company, several arms

PLC () has three separate businesses all housed under the same company, the biggest of which is currently CellPlan, the worlds first stem cell healthcare insurance plan.

While stem cell storage costs a few thousand pounds, the cost of the treatments that use them can run into the hundreds of thousands.

For an average premium of 150 per year, CellPlan provides insurance for up to 1mln of treatment, travel, accommodation and repatriation costs.

Following the recent award of a licence from Portuguese regulators at the beginning of June, CellPlan is now authorised to be sold in three countries the UK, Spain and Portugal.

WideCells entered the year with a definitive agreement with the UKs largest cord blood bank, Biovault, to market and sell its product to both new and existing customers of the facility.

With that licence in hand, the launch of CellPlan to Biovault stem cell storage customers is anticipated to follow later this month which should generate the plans maiden revenues.

WideCells has established the Institute of Stem Cell Technology which is based in the University of Manchester Innovation Centre. It focuses on stem cell research and regenerative medicine, and the company is already exploiting the commercial potential of this facility.

At the end of last year it inked a letter of intent with a California-based medical device company that could be worth up to 100,000.

Qigenix agreed to pay the sum in three stages so it can use WideCells' Institute of Stem Cell Technology to undertake some research.

WideCells third revenue stream comes from its blood banking operations, for which the group inked two more outlying deals at the end of January to take it into the rapidly expanding Brazilian umbilical cord cell storage market.

Between them, the two new reputable storage and processing facilities had more than 5,000 high net worth clients on their books.

The Brazilian cord blood banking market is projected to be worth almost US$450mln by 2023, making it the largest in South Americas booming stem cell industry.

In all, there are 500 of these banks dotted around the world; however, the top ten banks store around half the samples.

Last but not least is WideAcademy which is still in its infancy. Its WideCells education and training division, designed to promote awareness of the benefits of stem cell storage.

The plan is to work with strategic partners in the tech and education sector to produce and deliver informative and easily-digestible content and courseware.

For London-listed WideCells, the venture is something of win-win. It expects WideAcademy to be profitable on its own by charging for access to some of the resources, while at the same time helping to boost interest in its other businesses.

There are some big names on board, too. Incs () former head of education, Alan Greenberg, is heading up the WideAcademy team as the divisions senior vice president, while Jimmy leach, ex-head of digital communications at Downing Street, is the editor-in-chief.

WideCells published its maiden results for the year to 31 December 2016 back in March, having only listed last summer.

Like most developing companies, the group - which raised 2mln when it floated on the main market - only had revenues of 25,000 for the full-year to December 31 2016, down from 50,644 a year earlier, while its loss for the year increased to 1.361mln, up from 213,056 a year earlier reflecting higher administration costs following flotation.

But WideCells had cash and cash equivalents of 1.149mln at the year-end, up from 33,753 a year earlier.

That figure should be a little healthier now, given that it raised 649,000 through a private placing back in April.

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WideCells well-placed for stem cell revolution - Proactive Investors UK

Scientists Starting Dangerous Embryonic Stem Cell Trials With Cells That Could Mutate in Patients – LifeNews.com

China will begin trialling the use of embryonic stem-cells (ES) to treat Parkinsons disease and macular degeneration, in a move that has met with criticism from international experts.

The trials, which come in the wake of new stem-cell regulations introduced in China in 2015, will test the efficacy of injecting ES-derived cells into damaged areas of the brain and eyes.

In one trial, ES-derived neuronal-precursor cells will be injected into the areas of the brain affected by Parkinsons disease in attempt to regenerate dopamine-producing tissue. In another trial, the ES-derived retinal cells will be injected into eyes of people with age related macular degeneration. It is believed that the retinal cells may be able to replace cells damaged as a result of epithelial tissue degeneration.

It will be a major new direction for China, Pei Xuetao, a stem-cell scientist at the Beijing Institute of Transfusion Medicine who is on the central-government committee that approved the trials, told Nature.

Keep up with the latest pro-life news and information on Twitter.

Other researchers who work on Parkinsons disease, however, worry that the trials might be misguided.

Jeanne Loring, a stem-cell biologist at the Scripps Research Institute in La Jolla, California, who is also planning stem-cell trials for Parkinsons, is concerned that the Chinese trials use neural precursors and not ES-cell-derived cells that have fully committed to becoming dopamine-producing cells. Precursor cells can turn into other kinds of neurons, and could accumulate dangerous mutations during their many divisions, says Loring. Not knowing what the cells will become is troubling.

Lorenz Studer, a stem-cell biologist at the Memorial Sloan Kettering Cancer Center in New York City, says that support is not very strong for the use of precursor cells. I am somewhat surprised and concerned, as I have not seen any peer-reviewed preclinical data on this approach, he told Nature.

LifeNews Note: This appeared at Bioedge.org and is reprinted with permission.

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Scientists Starting Dangerous Embryonic Stem Cell Trials With Cells That Could Mutate in Patients - LifeNews.com

Berkeley Stem Cell Center – Research UC Berkeley

The Berkeley Stem Cell Center supports research and teaching in stem cell biology, engineering, and medicine at UC Berkeley, Lawrence Berkeley National Laboratory, and Children's Hospital and Research Center at Oakland. Activities sponsored by the Center include seminars, roundtables, and an annual retreat. The Center's CIRM funded Shared Stem Cell Research Laboratories in Stanley Hall and LSA provide investigators with fully equipped stem cell tissue culture and flow cytometry facilities and outstanding technical expertise. Its CIRM Center of Excellence, located in the Li Ka-Shing Center for Biomedical and Health Sciences, provides additional state of the art laboratory space and core facilities for tissue culture and flow cytometry, as well as molecular and cellular and whole animal imaging. Through its CIRM training program, the Center annually awards stem cell research fellowships to 16 highly talented pre-doctoral, postdoctoral, and physician scientists in training. The Siebel Stem Cell Institute - UC Berkeley supports stem cell research collaborations between Berkeley Stem Cell Center and Stanford University investigators, and provides funding to bring notable visiting scholars to campus.

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Berkeley Stem Cell Center - Research UC Berkeley

Stem cell researcher takes on the brain’s fight against age-related diseases – USC News

What happens to the stem cells in our brains as we age? Albina Ibrayeva, a PhD student in the USC Stem Cell laboratory of Michael Bonaguidi, addresses this question as she tries to understand how the brain naturally fights against aging and suggests promising therapeutic avenues for treating age-related neurodegeneration, disease and disorders.

I love science. As an undergraduate student back in Kazakhstan, I constantly sought ways to put my knowledge into practice. During my sophomore year, I interned at the National Center for Biotechnology in Astana. This experience enabled me to work with some of the brightest minds dedicated to scientific research in my country and showed me the meaningfulness of a career in biomedical research. Since then, I knew that I wanted to be a scientist.

I won a scholarship and was accepted to graduate school at USC, first to study biomedical engineering as a masters student, then the biology of aging as a PhD student. In 2015, I joined Michael Bonaguidis lab. So here I am, excited and really passionate about contributing to a not-so-distant future where research and medicine advance all humans well-being.

USC is one of the worlds top research universities, especially for someone who is studying neuroscience, stem cells and aging. The synergy among the LAC-USC Medical Center, the Alzheimers Disease Research Center, the Geriatric Studies Center, the Alzheimers Therapeutic Research Institute, the Laboratory of NeuroImaging, the Zilkha Neurogenetic Institute and USCs stem cell research center provides one of the best avenues to do great research and advance clinical and basic science.

Not only I am blessed to work at USC, but also I like the fact that we are surrounded by the best universities, such as Caltech and the University of California campuses in L.A., San Diego, San Francisco and Santa Barbara with whom we collaborate. California is known to be the most progressive place on Earth in science, technology and innovation. That is why I think I am in the right place, where I too can contribute to science and research on aging and its effects.

After graduating from the USC PhD program, I would like to work as a professor and researcher at a U.S. university. It is one of my dreams to be able to share my knowledge and being a professor would allow me to do so, while continuing my research to benefit U.S. health care and the science of aging.

Research, of course, is and will remain a big part of my life. Science is there to help people who are suffering from different diseases and disorders. In particular, stem cell research has a great potential for its therapeutic application across fields. Science can be really challenging. However, at the same time it is really exciting, and I am a firm believer that science is changing and will change the world, if given a chance.

In high school, I was a professional volleyball player. But then I realized that I dont want to pursue a career in sports, but science.

Sometimes it is hard to stay active, especially when all day long you are analyzing your data, conducting experiments and running simulations on your computer. But whenever I have free time, I try to spend it being as active as possible. I try to hike at least once a week. The Santa Monica Mountains are the best place to hike, with their breathtaking views of the Pacific Ocean, native California grasslands, famous Malibu beaches, and even some historical and cultural sites of Native American life. This is what makes me happy outside of science.

More stories about: Aging, First-Generation Students, Research, Stem Cells

Newly arrived scientist contributes brain power to stem cell research at USC.

One of 11 new postdoctoral fellows receives support from USC and Mexicos equivalent of the National Science Foundation.

Stem cell researcher Michael Bonaguidi considers the science and fiction behind a new movie about a man who wants to live forever.

Global study reveals thinning of gray matter in brain regions responsible for inhibition and emotion.

Excerpt from:
Stem cell researcher takes on the brain's fight against age-related diseases - USC News

President Trump Reappoints NIH Director Francis Collins Who Supports Embryonic Stem Cell Research – LifeNews.com

President Donald Trump has decided to appoint the director of the National Institutes of Health even though pro-life advocates called on Francis Collins to be replaced because of his support for embryonic stem cell research that involves the destruction of human life.

Last month, 40 Republicans in the House of Representatives wrote president Trump urging him to get rid of NIH director Francis Collins because of his support for the practice, which is opposed by pro-life organizations.

While we deeply respect Dr. Collins Christian faith and commitment to public service, the stances that Dr. Collins has taken in the past regarding embryonic stem cell research and human cloning are not life-affirming and directly conflict with the pro-life direction of your new presidency, the GOP lawmakers wrote. It is because of this troubling paradox that we ask you to re-consider his leadership role at NIH.

While pro-life advocates strongly support scientific research, they oppose embryonic stem cell research because the only way to obtain embryonic stem cells is to destroy unique human beings just days after conception. On the other hand, ethical adult stem cell research has produced cures or treatments for well over 100 diseases or medical conditions and involves no destruction of human life. Embryonic stem cell research has still yet to treat a single human being successfully.

But Trump has decided to keep Collins in place:

Collins is a pioneer in the field of genetics who has directed the NIH since August 2009, after successfully leading the nations effort to map the human genome. He was among several dozen Obama administration officials who Trump aides had asked to stay in their jobs at least temporarily for the purpose of continuity.

Trump made the announcement about Collins on Tuesday.

The NIH is a division of the Department of Health and Human Services and is made up of 27 different institutes and centers. Its also known as the nations medical research agency.

Trump has proposed cutting the overall NIH budget from $31.8 billion to $26 billion.

Congressman Jim Banks of Indiana told LifeNews hes not happy about the decision.

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I am disappointed in the Trump Administrations decision to keep Dr. Francis Collins as head of the NIH. Dr. Collins support of embryonic stem cell research, along with his comments that cloned embryos do not deserve the same moral protections as naturally generated embryos, make him a less than an ideal fit for a pro-life administration. I am hopeful that Dr. Collins will turn away from embryo-killing research as he continues his tenure as NIH Director.

Collins has led the NIH since 2009, when he was unanimously confirmed by the Senate.

The Obama administration forced Americans to pay for embryonic stem cell research involving the destruction of human life. National Institutes of Health chief Francis Collins approved taxpayer funding of dozens of lines of embryonic stem cells. The cells can only be obtained by destroying unborn children days after conception at which point human embryos are unique human beings.

Obama issued an executive order overturning the limits President Bush put in place on any new embryonic stem cell research funding. Bush directed federal dollars mostly to adult stem cells that are already helping patients now.

The Family Research Council responded to the Obama administrations move by saying that adult stem cells are already helping diabetes patients.

Of course, when it comes to juvenile (type I) diabetes, adult stem cells have already shown success at treating diabetes patients, the pro-life group noted.

It added, Interestingly, none of the human embryonic stem cell lines approved thus far are from the original group of 21 lines that had been receiving NIH funding, only one (H1one of the original five Thomson lines) has been submitted for approval, with only two other lines from Cellartis supposedly to be submitted for review.

This is surprising given that the vast majority of human embryonic stem cell research has been done with those previous lines, thus forcing most embryonic stem cell researchers to start over on experiments with new lines the group continued.

It also shows that this gold rush is just that, an attempt to grab more money built on embryo destruction, not built on science, FRC concluded.

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President Trump Reappoints NIH Director Francis Collins Who Supports Embryonic Stem Cell Research - LifeNews.com

Stem cell researcher takes on the brain’s fight against age-related … – USC News

What happens to the stem cells in our brains as we age? Albina Ibrayeva, a PhD student in the USC Stem Cell laboratory of Michael Bonaguidi, addresses this question as she tries to understand how the brain naturally fights against aging and suggests promising therapeutic avenues for treating age-related neurodegeneration, disease and disorders.

I love science. As an undergraduate student back in Kazakhstan, I constantly sought ways to put my knowledge into practice. During my sophomore year, I interned at the National Center for Biotechnology in Astana. This experience enabled me to work with some of the brightest minds dedicated to scientific research in my country and showed me the meaningfulness of a career in biomedical research. Since then, I knew that I wanted to be a scientist.

I won a scholarship and was accepted to graduate school at USC, first to study biomedical engineering as a masters student, then the biology of aging as a PhD student. In 2015, I joined Michael Bonaguidis lab. So here I am, excited and really passionate about contributing to a not-so-distant future where research and medicine advance all humans well-being.

USC is one of the worlds top research universities, especially for someone who is studying neuroscience, stem cells and aging. The synergy among the LAC-USC Medical Center, the Alzheimers Disease Research Center, the Geriatric Studies Center, the Alzheimers Therapeutic Research Institute, the Laboratory of NeuroImaging, the Zilkha Neurogenetic Institute and USCs stem cell research center provides one of the best avenues to do great research and advance clinical and basic science.

Not only I am blessed to work at USC, but also I like the fact that we are surrounded by the best universities, such as Caltech and the University of California campuses in L.A., San Diego, San Francisco and Santa Barbara with whom we collaborate. California is known to be the most progressive place on Earth in science, technology and innovation. That is why I think I am in the right place, where I too can contribute to science and research on aging and its effects.

After graduating from the USC PhD program, I would like to work as a professor and researcher at a U.S. university. It is one of my dreams to be able to share my knowledge and being a professor would allow me to do so, while continuing my research to benefit U.S. health care and the science of aging.

Research, of course, is and will remain a big part of my life. Science is there to help people who are suffering from different diseases and disorders. In particular, stem cell research has a great potential for its therapeutic application across fields. Science can be really challenging. However, at the same time it is really exciting, and I am a firm believer that science is changing and will change the world, if given a chance.

In high school, I was a professional volleyball player. But then I realized that I dont want to pursue a career in sports, but science.

Sometimes it is hard to stay active, especially when all day long you are analyzing your data, conducting experiments and running simulations on your computer. But whenever I have free time, I try to spend it being as active as possible. I try to hike at least once a week. The Santa Monica Mountains are the best place to hike, with their breathtaking views of the Pacific Ocean, native California grasslands, famous Malibu beaches, and even some historical and cultural sites of Native American life. This is what makes me happy outside of science.

More stories about: Aging, First-Generation Students, Research, Stem Cells

Newly arrived scientist contributes brain power to stem cell research at USC.

One of 11 new postdoctoral fellows receives support from USC and Mexicos equivalent of the National Science Foundation.

Stem cell researcher Michael Bonaguidi considers the science and fiction behind a new movie about a man who wants to live forever.

Global study reveals thinning of gray matter in brain regions responsible for inhibition and emotion.

Go here to see the original:
Stem cell researcher takes on the brain's fight against age-related ... - USC News