Category Archives: Stell Cell Research


Mighty morphed brain cells cure Parkinson’s in mice, but human trials still far off – STAT

M

ice that walk straight and fluidly dont usually make scientists exult, but these did: The lab rodents all had a mouse version of Parkinsons disease and only weeks before had barely been able to lurch and shuffle around their cages.

Using a trick from stem-cell science, researchers managed to restore the kind of brain cells whose death causes Parkinsons. And the mice walked almost normally.The same technique turned human brain cells, growing in a lab dish, into the dopamine-producing neurons that are AWOL in Parkinsons, scientists at Swedens Karolinska Institute reportedon Monday in Nature Biotechnology.

Success in lab mice and human cells is many difficult steps away from success in patients. The study nevertheless injected new life into a promising approach to Parkinsons that has suffered setback after setback replacing the dopamine neurons that are lost in the disease, crippling movement and eventually impairing mental function.

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This is not going to happen in five years or possibly even 10, but Im excited about the potential of this kind of cell replacement therapy, said James Beck, chief scientific officer of the Parkinsons Foundation, which was not involved in the study. It could really give life back to someone with Parkinsons disease.

There is no cure for Parkinsons, a neurodegenerative disease that affects an estimated 10 million people worldwide, most prominently actor Michael J. Fox. Drugs that enable the brain to make dopamine help only somewhat, often causing movement abnormalities called dyskinesia as well as bizarre side effects such as a compulsion to gamble; they do nothing to stop the neurodegeneration.

As Parkinsons patients wait, Fox Foundation and scientist feud over drug trial

Rather than replacing the missing dopamine, scientists led by Karolinskas Ernest Arenas tried to replace dopamine neurons but not in the way that researchers have been trying since the late 1980s. In that approach, scientists obtained tissue containing dopamine neurons from first-trimester aborted fetuses and implanted it intopatients brains.Although a 2001clinical trialfound that the transplants partly alleviated the rigidity and tremors of Parkinsons, the procedure caused serious dyskinesia in about 20 percent of patients, Beck said. More problematic is that fetal issue raises ethical concerns and is in short supply.

It was clear that usable fragments of brain tissue were extremely difficult to recover, said Dr. Curt Freed, of the University of Colorado, who pioneered that work.

Instead, several labs have therefore used stem cells to produce dopamine neurons in dishes. Transplanted into the brains of lab rats with Parkinsons, the neurons reduced rigidity, tremor, and other symptoms. Human studies are expected to begin in the US and Japan this year or next, Beck said.

In the Karolinska approach, there is no need to search for donor cells and no cell transplantation or [need for] immunosuppression to prevent rejection, Arenas told STAT. Instead, he and his team exploited one of the most startling recent discoveries in cell biology: that certain molecules can cause one kind of specialized cell, such as a skin cell, to pull a Benjamin Button, aging in reverse until they become like the embryonic cells called stem cells. Those can be induced to morph into any kind of cell heart, skin, muscle, and more in the body.

Muhammad Ali and Parkinsons disease: Was boxing to blame?

Arenas and his team filled harmless lentiviruses with a cocktail of four such molecules. Injected into the brains of mice with Parkinsons-like damage, the viruses infected plentifulbrain cells called astrocytes. (The brains support cells, astrocytes perform jobs like controlling blood flow.)The viruses also infected other kinds of cells, but their payload was designed to work only in astrocytes, and apparently caused no harm to the other cells.

The molecules, called transcription factors, reprogrammed some of the astrocytes to become dopamine neurons, which were first detected three weeks later in the mouse brains. The dopamine neurons were abundant 15 weeks later, an indication that after changing into dopamine neurons the astrocytes stayed changed.

Five weeks after receiving the injections, the mice, which used to have Parkinsons-like gait abnormalities, walked as well as healthy mice. That suggests that direct reprogramming [of brain cells] has the potential to become a novel therapeutic approach for Parkinsons, Arenas told STAT.

That could have value for preserving the brain circuitry destroyed by Parkinsons, said Colorados Freed.

A lot of hurdles need to be overcome before this becomes a Parkinsons treatment. The Trojan horse system for delivering the reprogramming molecules inside viruseswould need to turn more astrocytes into dopamine neurons and leave other kinds of cells alone: Although viruses getting into mouse brain cells apparently caused no harm, that might not be so in people. We will need to use virus with selective [attraction] for astrocytes, Arenas said.

The morphed cells would presumably be ravaged by whatever produced Parkinsons in the first place. But in other cell transplants, Arenas said, the disease catches up with transplanted cells in 15 to 20 years, buying patients a good period of time. He thinks it might be possible to give patients a single injection but hold off some of the reprogramming with a drug, turning it on when the brain again runs short of dopamine neurons.

The basic technology to develop such strategies currently exists, he said.

The Karolinska lab is working to make the techniquesafer and more effective, including by using viruses that would deliver reprogramming molecules only to astrocytes. We are open to collaborations aimed at human studies, Arenas said.

Would patients be willing to undergo brain injections? People with Parkinsons disease, Beck said, are willing to go through a lot for any hope of improvement.

Sharon Begley can be reached at sharon.begley@statnews.com Follow Sharon on Twitter @sxbegle

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Mighty morphed brain cells cure Parkinson's in mice, but human trials still far off - STAT

California’s stem cell agency invites public to San Diego event April 20 – The San Diego Union-Tribune

Stem cell cures are real, and more are on the way. Thats part of the message Californias stem cell agency will deliver in a special patient advocate event in La Jolla on Thursday, April 20.

To be held from noon to 1 p.m., the California Institute for Regenerative Medicine (CIRM) event will take place at the Sanford Consortium for Regenerative Medicine, 2880 Torrey Pines Scenic Drive, La Jolla, CA 92037. Its across the street from the Salk Institute for Biological Studies.

Stem cell experts will describe the work done and in progress with the numerous kinds of stem cells, embryonic and non-embryonic, and the public will be able to ask questions.

Those interested in attending can RSVP via the Web at j.mp/cirmsd1.

The event, Stem Cell Therapies and You, is sponsored by CIRM and UC San Diego, which hosts one of CIRMs alpha stem cell clinics.

Four speakers are to present their perspectives on stem cell research:

-- Catriona Jamieson, director of the CIRM UC San Diego Alpha Stem Cell Clinic and an expert on blood cancers

-- Jonathan Thomas, chairman of CIRMs governing board

-- Jennifer Briggs Braswell, executive director of the Sanford Stem Cell Clinical Center

-- David Higgins, patient advocate for Parkinsons on the CIRM board

Click on the video slide show below to hear an interview with Thomas about the event:

No stem cell treatments funded by CIRM have yet been approved for use. But dozens of clinical trials with these experimental therapies are under way, and some patients have already been cured.

Most spectacularly, a number of children born with bubble baby disease, or SCID, have been cured of their immune deficiency by CIRM-funded research. Scientists extracted some of their blood-forming stem cells, repaired the genetic defect and then reinfused them into the children. The stem cells proceeded to build a functional immune system.

CIRM was given $3 billion by the states voters in a $6 billion bond issue in 2004 to develop new disease treatments with stem cells. (The remaining $3 billion represents bond interest). The agency has spent most of that money, and soon voters may be asked whether to appropriate more funding.

Do these results justify the $3 billion allocation? And do they justify more funding, whether by the state, biomedical companies or private philanthropy? Was it wise for CIRM to focus so heavily on research in its first years? (The agency was recently scrutinized by the biomedical publication Stat for funding just a trickle of clinical trials.)

And if CIRM runs out of cash, as is projected to occur by 2020, what happens to the work in progress?

These are some of the questions CIRM faces as its cash winds down over the next few years.

Thomas, the CIRM board chairman, said the event is one of a series in which CIRM presents its evidence not only to patient advocates, but to the taxpayers who fund CIRM.

This will be the first one, Thomas said. Well have one in Los Angeles, and have one in San Francisco, one in Sacramento and maybe the Central Valley.

Well hear the latest with projects that are in clinical trials. We have 30-plus now in clinical trials, Thomas said. A great many of those are being undertaken at our alpha stem cell clinics. A prominent one of course is at UC San Diego.

So well talk about what theyre doing but also about whats happening elsewhere in the network at the other alpha stem cell clinics.

bradley.fikes@sduniontribune.com

(619) 293-1020

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California's stem cell agency invites public to San Diego event April 20 - The San Diego Union-Tribune

NHLBI stem cell consortium provides new insights into genetics of … – National Institutes of Health (press release)


National Institutes of Health (press release)
NHLBI stem cell consortium provides new insights into genetics of ...
National Institutes of Health (press release)
Largest, most diverse collection of stem cells of its kind could lead to improved diagnoses, treatments.

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NHLBI stem cell consortium provides new insights into genetics of ... - National Institutes of Health (press release)

In four related papers, researchers describe new and improved tools for stem cell research – Phys.Org

April 6, 2017 A false color scanning electron micrograph of cultured human neuron from induced pluripotent stem cell. Credit: Mark Ellisman and Thomas Deerinck, National Center for Microscopy and Imaging Research, UC San Diego.

Induced pluripotent stem cells (iPSCs), derived from human adult cells and capable of being differentiated to become a variety of cell types, are a powerful tool for studying everything from molecular processes underlying human diseases to elusive genetic variants associated with human phenotypes.

In a new paper published online April 6 in Stem Cell Reports, a large team of researchers led by senior author Kelly Frazer, PhD, professor of pediatrics and director of the Institute for Genomic Medicine at University of California San Diego School of Medicine describe a new collection of 222 systematically derived and characterized iPSC lines generated as part of the National Heart, Lung and Blood Institute's NextGen consortium.

Dubbed iPSCORE for "iPSC Collection for Omic Research," Frazer said the novel collection addresses several significant issues that currently hamper using iPSCs as a model system for human genetic studies investigating the segregation of traits, such as lack of large numbers of molecularly well-phenotyped lines and representation of ethnic diversity as well as participants from families and genetically unrelated individuals.

"The iPSCORE collection contains 75 lines from people of non-European ancestry, including East Asian, South Asian, African American, Mexican American, and Multiracial. It includes multigenerational families and monozygotic twins," said Frazer. "This collection will enable us to study how genetic variation influences traits, both at a molecular and physiological level, in appropriate human cell types, such as heart muscle cells. It will help researchers investigate not only common but also rare, and even family-specific variations."

The Stem Cell Reports paper is, in fact, one of four related studies just published by different teams of scientists, each with Frazer as senior author. The other three studies all utilize the iPSCORE resource to either address important genetic questions or develop new tools for analyzing iPSC lines:

Explore further: Induced pluripotent stem cells don't increase genetic mutations

More information: "iPSCORE: A Resource of 222 iPSC Lines Enabling Functional Characterization of Genetic Variation Across a Variety of Cell Types," Stem Cell Reports: DOI: 10.1016/j.stemcr.2017.03.012

"Aberrant iPSC Methylation is Associated with Motif Enrichment and Gene Expression Changes in a Clone-Specific Manner Independent of Genetics," Cell Stem Cell: DOI: 10.1016/j.stem.2017.03.010

"Large-Scale Profiling Reveals the Influence of Genetic Variation on Gene Expression in Human Induced Pluripotent Stem Cells," Cell Stem Cell: DOI: 10.1016/j.stem.2017.03.009

"High-Throughput and Cost-Effective Characterization of Induced Pluripotent Stem Cells," Stem Cell Reports: DOI: 10.1016/j.stemcr.2017.03.011

It's been more than 10 years since Japanese researchers Shinya Yamanaka, M.D., Ph.D., and his graduate student Kazutoshi Takahashi, Ph.D., developed the breakthrough technique to return any adult cell to its earliest stage ...

University of Tsukuba-led researchers explored the function of the reprogramming factor KLF4 in production of induced pluripotent stem cells (iPSCs). KLF4 was shown to bind upstream of the Tcl1 target gene, which controls ...

Parkinson's disease (PD), a chronic, progressive and devastating neurodegenerative motor disease affecting as many as one million Americans, is complex. Its causes likely include a combination of genetic, environmental and ...

As the promise of using regenerative stem cell therapies draws closer, a consortium of biomedical scientists reports about 30 percent of induced pluripotent stem cells they analyzed from 10 research institutions were genetically ...

A multinational team of researchers led by stem cell scientists at the University of California, San Diego School of Medicine and Scripps Research Institute has documented specific genetic abnormalities that occur in human ...

How do you improve a Nobel Prize-winning discovery? Add a debilitating disease-causing gene mutation.

When scientists talk about laboratory stem cells being totipotent or pluripotent, they mean that the cells have the potential, like an embryo, to develop into any type of tissue in the body. What totipotent stem cells can ...

Viruses have a ubiquitous presence in the world. Their population is estimated to be 1031, 10 times greater than the nonillion (1030) of microbes on the planeta figure that surpasses the number of stars in the Milky Way. ...

Timesharing, researchers have found, isn't only for vacation properties.

Octopuses, squid, and cuttlefish often do not follow the genetic instructions in their DNA to the letter. Instead, they use enzymes to pluck out specific adenosine RNA bases (some of As, out of the As, Ts, Gs, and Us of RNA) ...

The DNA molecules in each one of the cells in a person's body, if laid end to end, would measure approximately two metres in length. Remarkably, however, cells are able to fold and compact their genetic material in the confined ...

In a major advance for fundamental biological research, UC San Francisco scientists have developed a tool capable of illuminating previously inscrutable cellular signaling networks that play a wide variety of roles in human ...

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In four related papers, researchers describe new and improved tools for stem cell research - Phys.Org

NORTH AMERICA STEM CELL ASSAY MARKET FORECAST 2017-2025 – PR Newswire (press release)

LONDON, April 6, 2017 /PRNewswire/ -- KEY FINDINGS The North America stem cell assay market is expected to grow $1082 million by 2025. The market growth is expected at the CAGR of 21.69% in the forecast period. The base year considered for the market study is 2016. Rise in the adoption of stem cell assay, the evolvement of technology and increase spending in the stem cell assay market are the key drivers in the North America stem cell assay market. Download the full report: https://www.reportbuyer.com/product/4807895/

MARKET INSIGHTS The North America stem cell assay market is segmented on the basis of types of assay, product, kits, application, end-user and geography. The North America stem cell assay market by type is segmented into cell viability and toxicity assays, isolation and purification assays, cell identification assays, cell differentiation assays, cell function assays and cell apoptosis assays. The product of North America stem cell assay market is segmented into instruments and detection kits.

The kits of stem cell assay market are further segmented into adult stem cell kits, human embryonic stem cell kit. The stem cell market by application is further bifurcated into regenerative medicine and therapy development, drug discovery and development and clinical research market. The end-user of stem cell market is segmented into research institutes and industry research. The North America stem cell assay market by geography is segmented into US, Canada, and rest of North America. Increasing Adoption of Stem Cell Assay, improvement in the Technology, high expense in Stem Cell Research are the major drivers for the market growth in North America region. The rise in the adoption of stem cell assay for drug screening & testing is one of the major reasons driving the industry research Download the full report: https://www.reportbuyer.com/product/4807895/

About Reportbuyer Reportbuyer is a leading industry intelligence solution that provides all market research reports from top publishers http://www.reportbuyer.com

For more information: Sarah Smith Research Advisor at Reportbuyer.com Email: query@reportbuyer.com Tel: +44 208 816 85 48 Website: http://www.reportbuyer.com

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NORTH AMERICA STEM CELL ASSAY MARKET FORECAST 2017-2025 - PR Newswire (press release)

Organogenesis Shares Successes and Best Practices for Cell-Based Product Manufacturing at the 6th Stem Cell … – PR Newswire (press release)

Apligraf (manufactured near the conference, in Canton, MA), and Dermagraft (manufactured in San Diego, CA), are FDA-approved Class III medical devices indicated for the treatment of diabetic foot ulcers. Apligraf is also indicated for the treatment of venous leg ulcers. More than 1 million units of the products have been shipped to date.

"One of the challenges we see with cell-based manufacturing is the transition from pilot to commercial scale production and the ability to perform large scale manufacturing at a low cost," said Dr. Pitkin. "At Organogenesis, we've achieved this successfully through process optimization and product consistency that includes multiple levels of quality control and safety."

In Apligraf, keratinocyte stem cells are required to form the product's differentiated epidermis and provide increased levels of growth factors and cytokines, so it is vital that these cells are preserved through the manufacturing, shipping and distribution process. Through a scale-up manufacturing process that creates a three-dimensional bi-layered construct, Organogenesis is able to produce a bioengineered product with living cells on a consistent basis that delivers a therapeutic benefit to patients with hard-to-heal wounds.

"With five million Americans affected by diabetic foot ulcers and venous leg ulcers, it's crucial that we consistently produce and manufacture safe, reliable products that promote healing," added Dr. Pitkin. "Organogenesis is at the forefront of this effort, having developed a successful and reliable manufacturing process."

The 6th Stem Cell Product Development and Commercialization Conference presents information regarding cutting-edge developments in all areas of stem cell research, including the biology, medicine, applications and regulation of stem cells. Topics of discussion include recent developments in pre-clinical and clinical trials of stem cell therapy, regenerative medicine and tissue engineering, cancer stem cells, immunotherapy, stem cell reprogramming, and regulatory policies regarding stem cell research.

About Organogenesis Inc.Headquartered in Canton, Massachusetts, Organogenesis Inc. is a global leader in regenerative medicine, offering a portfolio of bioactive and acellular biomaterials products in advanced wound care and surgical biologics, including orthopedics and spine. Organogenesis' versatile portfolio is designed to treat a variety of patients with repair and regenerative needs. For more information, visit http://www.organogenesis.com.

CONTACT:Angelyn Lowe (781) 830-2353 alowe@organo.com

To view the original version on PR Newswire, visit:http://www.prnewswire.com/news-releases/organogenesis-shares-successes-and-best-practices-for-cell-based-product-manufacturing-at-the-6th-stem-cell-product-development-and-commercialization-conference-300436140.html

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Organogenesis Shares Successes and Best Practices for Cell-Based Product Manufacturing at the 6th Stem Cell ... - PR Newswire (press release)

Frequency Therapeutics to Present at the 14th Stem Cell Research … – Business Wire (press release)

WOBURN, Mass.--(BUSINESS WIRE)--Frequency Therapeutics, a company spearheading the movement to restore hearing by harnessing the regenerative potential of progenitor cells in the body, today announced that Chris Loose, Ph.D., the Companys Co-founder and Chief Scientific Officer, will be presenting at the 14th Stem Cell Research and Regenerative Medicine Conference. The presentation titled, Progenitor Cell Activation - an Enabling Technology for In-Situ Tissue Regeneration, will look to explore the companys proprietary Progenitor Cell Activation (PCA) platform, founded on recent discoveries in progenitor cell biology by Bob Langer, Sc.D. at MIT and Jeff Karp, Ph.D., at Harvard. PCA is leading to a new class of drugs that regenerate healthy tissue within the body. The presentation will take place on Wednesday, April 5 at 4:50 p.m. The conference is being held from April 5 to 6 in Boston, MA.

The biology, chemistry and regenerative properties behind our PCA platform is quite exciting and has the potential to yield a whole new category of disease-modifying therapeutics for a wide range of degenerative conditions, said Dr. Loose. Our lead program is focused on the over 360 million people worldwide who suffer from hearing impairment, with no effective therapeutic solutions currently available. By targeting cellular regeneration within the inner ear to restore healthy tissue and reverse hearing loss, we look to develop a direct therapeutic approach through a locally applied drug without the need for surgical interventions.

Chris has provided exceptional leadership in translating the vision of our founders, Bob Langer and Jeff Karp, into a successful product development organization, said David Lucchino, President, Co-founder and CEO of Frequency. This presentation exemplifies the core of the research and development Frequency is performing with our PCA platform, and addresses our intent of advancing a first-in-class therapeutic option for chronic hearing loss.

ABOUT PROGENITOR CELL ACTIVATION (PCA) Frequencys precise and controlled approach transiently causes Lgr5+ progenitor cells to divide and differentiate, much like what is seen in naturally regenerating tissues such as the skin and intestine. Frequency activates stemness through mimicking signals provided by neighboring cells (the stem cell niche) with small molecules, and this proprietary approach is known as the Progenitor Cell Activation (PCA) platform. Frequency believes that PCA has the potential to yield a whole new category of disease-modifying therapeutics for a wide range of degenerative conditions. To fuel its drug discovery programs, Frequency is leveraging a PCA screening platform using primary human cells, including cochlear progenitor cells and adult human progenitor cells from the GI tract. Frequencys initial focus is on chronic noise induced hearing loss. Other potential applications include skin disorders, gastrointestinal diseases, and diabetes.

ABOUT FREQUENCY THERAPEUTICS Frequency Therapeutics develops small molecule drugs that activate progenitor cells within the body to restore healthy tissue. Through the transitory activation of these progenitor cells, Frequency enables disease modification without the complexity of genetic engineering. Our lead program re-creates sensory cells in the inner ear to treat chronic noise induced hearing loss, which affects over 30 million people in the U.S. alone. http://www.frequencytx.com.

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Frequency Therapeutics to Present at the 14th Stem Cell Research ... - Business Wire (press release)

UConn professor tackling cell research to treat cancer – UConn Daily Campus

Laijun Lai, an Associate Research Professor at the University of Connecticut is currently doing research to find treatment for cancers, autoimmune deficiencies and genetic diseases through the use of T cells and stem cells.

The first area of his research focuses on gene engineering approaches to treating cancers and autoimmune diseases.

Lais research has resulted in two patents and several grants from NIH, the American Cancer Society and the Connecticut Regenerative Medicine Fund.

We are very excited with our results. We believe that our research will eventually lead to the new approach in the treatment of cancer, autoimmune diseases or genetic diseases, such as (DGS), Lai said.

The progression of cancerous tumors is accompanied by a very significant suppression of the immune system, which interferes with the bodys ability to send an effective immune response in order to eliminate chemotherapy, Lai said.

In terms of autoimmune disease, disorders develop when the immune system targets and destroys the bodys own tissues, Lai said.

Therefore, the study investigates new approaches to enhance T cell function for use in the treatment of cancer, while also looking for new ways to inhibit T cell function to treat autoimmune disease, Lai said.

Several T cell inhibitor molecules have been identified. Were trying to find a new T cell inhibitor molecule by using the bioinformatic approach to identify several new genes that are related to T cell inhibitor molecules, Lai said.

He then used the gene engineering approach to produce recombinant proteins from these genes. And these preliminary studies have shown that in a dish, the proteins can inhibit T cell function.

By using the gene engineering approach we can enhance the immune function that can fight a lot of diseases, such as cancer and infections, Lai said.

The second area of my research is using stem cell technology to prevent and treat autoimmune disease, Lai said.

The thymus, an organ of the immune system, is the primary organ that naturally produces T cells for the body.

Thymic epithelial cells (TECs) mediate T cell selections, generating T cells that are able to react with foreign antigens, such as bacteria and viruses, Lai said.

In the prevention or treatment of autoimmune diseases, it would induce immune tolerance of certain antigens by using the mechanisms that would occur in the thymus under normal circumstances, Lai said.

However, the thymus undergoes age-dependent involution resulting in a serious compromise of T cell function in the elderly, Lai said. Many studies have shown that embryonic stem cells (ESCs) or pluripotent stem cells (iPSCs) have huge potential to treat many diseases because these cells can change into many types of cells in a dish.

Through the transplantation of ESCs can cause immune tolerance to the disease causative self-antigens and treat or even prevent autoimmune diseases such as Multiple Sclerosis, Lai wrote in a research statement.

The third area of my research is using stem cell technology to model and treat genetic diseases such as DiGeorge Syndromealso known as DGS, Lai said.

DGS is one of the most common genetic diseases in humans.

One of the characteristic features of DGS is that the patient has a profound thymic aplasia or hypoplasia that results in T cell immunodeficiency, Lai said, So we are going to determine the ability of ESC-derived TECs to prevent and treat DGS.

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UConn professor tackling cell research to treat cancer - UConn Daily Campus

Frequency Therapeutics to Present at the 14th Stem Cell Research … – Yahoo Finance

WOBURN, Mass.--(BUSINESS WIRE)--

Frequency Therapeutics, a company spearheading the movement to restore hearing by harnessing the regenerative potential of progenitor cells in the body, today announced that Chris Loose, Ph.D., the Companys Co-founder and Chief Scientific Officer, will be presenting at the 14th Stem Cell Research and Regenerative Medicine Conference. The presentation titled, Progenitor Cell Activation - an Enabling Technology for In-Situ Tissue Regeneration, will look to explore the companys proprietary Progenitor Cell Activation (PCA) platform, founded on recent discoveries in progenitor cell biology by Bob Langer, Sc.D. at MIT and Jeff Karp, Ph.D., at Harvard. PCA is leading to a new class of drugs that regenerate healthy tissue within the body. The presentation will take place on Wednesday, April 5 at 4:50 p.m. The conference is being held from April 5 to 6 in Boston, MA.

The biology, chemistry and regenerative properties behind our PCA platform is quite exciting and has the potential to yield a whole new category of disease-modifying therapeutics for a wide range of degenerative conditions, said Dr. Loose. Our lead program is focused on the over 360 million people worldwide who suffer from hearing impairment, with no effective therapeutic solutions currently available. By targeting cellular regeneration within the inner ear to restore healthy tissue and reverse hearing loss, we look to develop a direct therapeutic approach through a locally applied drug without the need for surgical interventions.

Chris has provided exceptional leadership in translating the vision of our founders, Bob Langer and Jeff Karp, into a successful product development organization, said David Lucchino, President, Co-founder and CEO of Frequency. This presentation exemplifies the core of the research and development Frequency is performing with our PCA platform, and addresses our intent of advancing a first-in-class therapeutic option for chronic hearing loss.

ABOUT PROGENITOR CELL ACTIVATION (PCA) Frequencys precise and controlled approach transiently causes Lgr5+ progenitor cells to divide and differentiate, much like what is seen in naturally regenerating tissues such as the skin and intestine. Frequency activates stemness through mimicking signals provided by neighboring cells (the stem cell niche) with small molecules, and this proprietary approach is known as the Progenitor Cell Activation (PCA) platform. Frequency believes that PCA has the potential to yield a whole new category of disease-modifying therapeutics for a wide range of degenerative conditions. To fuel its drug discovery programs, Frequency is leveraging a PCA screening platform using primary human cells, including cochlear progenitor cells and adult human progenitor cells from the GI tract. Frequencys initial focus is on chronic noise induced hearing loss. Other potential applications include skin disorders, gastrointestinal diseases, and diabetes.

ABOUT FREQUENCY THERAPEUTICS Frequency Therapeutics develops small molecule drugs that activate progenitor cells within the body to restore healthy tissue. Through the transitory activation of these progenitor cells, Frequency enables disease modification without the complexity of genetic engineering. Our lead program re-creates sensory cells in the inner ear to treat chronic noise induced hearing loss, which affects over 30 million people in the U.S. alone. http://www.frequencytx.com.

View source version on businesswire.com: http://www.businesswire.com/news/home/20170405005401/en/

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Frequency Therapeutics to Present at the 14th Stem Cell Research ... - Yahoo Finance