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Archive for the ‘Genetic medicine’ Category

Accelerating Access to Breakthrough Cancer Therapies – TAPinto.net

Tuesday, February 11th, 2020

Atlantic Health System Cancer Care is dedicated to providing patients with access to the most promising and life-saving trials, research, and innovations in the communities where they live and work. Cutting-edge initiatives include the following:

In affiliation with the Translational Genomics Research Institute (TGen) of Phoenix, AZ, Atlantic Health System Cancer Care has created the nations firstBreakthrough Oncology Accelerator, a pioneering research and clinical collaboration that offers multiple early and late-phase clinical trials, right here in New Jersey. The Accelerator is designed to improve patient access to life-saving therapies through more rapid deployment of new research trials and novel payment mechanisms post-approval, saidEric Whitman, MD, medical director of Atlantic Health System Cancer Care.

The Breakthrough Treatment Center is part of the Breakthrough Oncology Accelerator and offers phase 1 clinical trials using the latest immunotherapies, cell-based therapies and genetic medicine options to cancer patients who have not responded to other treatments. The Center typically accommodates eight to 14 patients daily.

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We treat all patients with advanced cancers and use all kinds of treatment, saidDr. Angela Alistar, medical director of the Breakthrough Treatment Center who came to Morristown Medical Center from Wake Forest University a few years ago. She is widely known for her pioneeringresearch on pancreatic cancer, which has doubled the patient survival rate.

As a physician, I always look for early-phase studies because I know what standard of care can do. Unless I have a curative standard of care treatment, Im not interested. I want to do better. I want to find a clinical trial that combines standard of care with something exciting that has promise. Im always looking for, How can we do better? Thats what this Center is about: Not waiting until the last minute, but giving our patients the best options up front.

Atlantic Health System Cancer Care is also the lead affiliate ofAtlantic Health Cancer Consortium (AHCC), the only New Jersey-based Community Oncology Research Program (NCORP) designated by the National Cancer Institute (NCI). Covering 73% of the states population, the AHCC NCORP presents a substantial opportunity to advance scientific understanding of cancer prevention, screening, control, treatment and care delivery research within a large and diverse population, saidMissak Haigentz, MD, medical director of Hematology and Oncology for Atlantic Health System and principal investigator for AHCC NCORP.

To learn more about Atlantic Health System cancer research trials, please go toatlantichealth.org/research

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Myriad Submits sPMA for myChoice CDx with Lynparza in First-Line Maintenance Therapy in Advanced Ovarian Cancer – Yahoo Finance

Tuesday, February 11th, 2020

SALT LAKE CITY, Feb. 11, 2020 (GLOBE NEWSWIRE) -- Myriad Genetics, Inc. (MYGN), a leader in molecular diagnostics and precision medicine, announced that it has submitted a supplementary premarket approval (sPMA) application to the U.S. Food and Drug Administration (FDA) for its myChoice CDx test to help identify women with advanced ovarian cancer who are potential candidates for maintenance therapy with Lynparza (olaparib) in combination with bevacizumab. Myriads filing is based on the positive results from the Phase 3 PAOLA-1 trial of Lynparza that was published online in the New England Journal of Medicine in December 2019. Lynparza is marketed by AstraZeneca (LSE/STO/NYSE: AZN) and Merck, known as MSD outside of the U.S. and Canada.

This regulatory submission represents another important milestone for the myChoice CDx test, said Nicole Lambert, president, Myriad Oncology and Womens Health. Our goal is to improve patient care through precision medicine and ensure that women with advanced ovarian cancer have access to targeted therapies.

Myriad's myChoice CDx is the most comprehensive homologous recombination deficiency test, enabling physicians to identify patients with tumors that have lost the ability to repair double-stranded DNA breaks, resulting in increased susceptibility to DNA-damaging drugs such as platinum drugs or PARP inhibitors. The myChoice CDx test comprises tumor sequencing of the BRCA1 and BRCA2 genes and a composite of three proprietary technologies (loss of heterozygosity, telomeric allelic imbalance and large-scale state transitions).

About Ovarian CancerOvarian cancer affects approximately 22,000 women per year in the United States according to the American Cancer Society. Typically, ovarian cancer is diagnosed at later stages when it has metastasised to other areas of the body and only 20 percent of patients are diagnosed with early stage disease. Ovarian cancer is one of the deadliest cancers with approximately 14,000 deaths per year attributed to the disease. Patients with certain characteristics such as a family history of the disease, certain genetic mutations such as those in the BRCA1 and BRCA2 genes, obesity and endometriosis face a higher risk from ovarian cancer.

About Myriad GeneticsMyriad Genetics Inc. is a leading precision medicine company dedicated to being a trusted advisor transforming patient lives worldwide with pioneering molecular diagnostics. Myriad discovers and commercializes molecular diagnostic tests that: determine the risk of developing disease, accurately diagnose disease, assess the risk of disease progression, and guide treatment decisions across six major medical specialties where molecular diagnostics can significantly improve patient care and lower healthcare costs. Myriad is focused on five critical success factors: building upon a solid hereditary cancer foundation, growing new product volume, expanding reimbursement coverage for new products, increasing RNA kit revenue internationally and improving profitability with Elevate 2020. For more information on how Myriad is making a difference, please visit the Company's website: http://www.myriad.com.

Myriad, the Myriad logo, BART, BRACAnalysis, Colaris, Colaris AP, myPath, myRisk, Myriad myRisk, myRisk Hereditary Cancer, myChoice, myPlan, BRACAnalysis CDx, Tumor BRACAnalysis CDx, myChoice CDx, EndoPredict, Vectra, GeneSight, riskScore, Prolaris, Foresight and Prequel are trademarks or registered trademarks of Myriad Genetics, Inc. or its wholly owned subsidiaries in the United States and foreign countries. MYGN-F, MYGN-G.

Lynparza is a registered trademark of AstraZeneca.

Safe Harbor StatementThis press release contains forward-looking statements within the meaning of the Private Securities Litigation Reform Act of 1995, including statements relating to ensuring that women with advanced ovarian cancer have access to targeted therapies; and the Company's strategic directives under the caption "About Myriad Genetics." These "forward-looking statements" are based on management's current expectations of future events and are subject to a number of risks and uncertainties that could cause actual results to differ materially and adversely from those set forth in or implied by forward-looking statements. These risks and uncertainties include, but are not limited to: the risk that sales and profit margins of our molecular diagnostic tests and pharmaceutical and clinical services may decline; risks related to our ability to transition from our existing product portfolio to our new tests, including unexpected costs and delays; risks related to decisions or changes in governmental or private insurers reimbursement levels for our tests or our ability to obtain reimbursement for our new tests at comparable levels to our existing tests; risks related to increased competition and the development of new competing tests and services; the risk that we may be unable to develop or achieve commercial success for additional molecular diagnostic tests and pharmaceutical and clinical services in a timely manner, or at all; the risk that we may not successfully develop new markets for our molecular diagnostic tests and pharmaceutical and clinical services, including our ability to successfully generate revenue outside the United States; the risk that licenses to the technology underlying our molecular diagnostic tests and pharmaceutical and clinical services and any future tests and services are terminated or cannot be maintained on satisfactory terms; risks related to delays or other problems with operating our laboratory testing facilities and our healthcare clinic; risks related to public concern over genetic testing in general or our tests in particular; risks related to regulatory requirements or enforcement in the United States and foreign countries and changes in the structure of the healthcare system or healthcare payment systems; risks related to our ability to obtain new corporate collaborations or licenses and acquire new technologies or businesses on satisfactory terms, if at all; risks related to our ability to successfully integrate and derive benefits from any technologies or businesses that we license or acquire; risks related to our projections about our business, results of operations and financial condition; risks related to the potential market opportunity for our products and services; the risk that we or our licensors may be unable to protect or that third parties will infringe the proprietary technologies underlying our tests; the risk of patent-infringement claims or challenges to the validity of our patents or other intellectual property; risks related to changes in intellectual property laws covering our molecular diagnostic tests and pharmaceutical and clinical services and patents or enforcement in the United States and foreign countries, such as the Supreme Court decision in the lawsuit brought against us by the Association for Molecular Pathology et al; risks of new, changing and competitive technologies and regulations in the United States and internationally; the risk that we may be unable to comply with financial operating covenants under our credit or lending agreements; the risk that we will be unable to pay, when due, amounts due under our credit or lending agreements; and other factors discussed under the heading "Risk Factors" contained in Item 1A of our most recent Annual Report on Form 10-K for the fiscal year ended June 30, 2019, which has been filed with the Securities and Exchange Commission, as well as any updates to those risk factors filed from time to time in our Quarterly Reports on Form 10-Q or Current Reports on Form 8-K. All information in this press release is as of the date of the release, and Myriad undertakes no duty to update this information unless required by law.

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High Testosterone in Women Linked to Type 2 Diabetes – Technology Networks

Tuesday, February 11th, 2020

Having genetically higher testosterone levels increases the risk of metabolic diseases such as type 2 diabetes in women, while reducing the risk in men. Higher testosterone levels also increase the risks of breast and endometrial cancers in women, and prostate cancer in men.

The findings come from the largest study to date on the genetic regulation of sex hormone levels, published today inNature Medicineand led by researchers from the Medical Research Council (MRC) Epidemiology Unit at the University of Cambridge and the University of Exeter. Despite finding a strong genetic component to circulating testosterone levels in men and women, the authors found that the genetic factors involved were very different between the sexes.

The team used genome wide association studies (GWAS) in 425,097 UK Biobank participants to identify 2,571 genetic variations associated with differences in the levels of the sex hormone testosterone and its binding protein sex-hormone binding globulin (SHGB).

The researchers verified their genetic analyses in additional studies, including the EPIC-Norfolk study and Twins UK, and found a high level of agreement with their results in UK Biobank.

The team next used an approach called Mendelian randomisation, which uses naturally occurring genetic differences to understand whether known associations between testosterone levels and disease are causal rather than correlative. They found that in women, genetically higher testosterone increases the risks of type 2 diabetes by 37 per cent, and polycystic ovary syndrome (PCOS) by 51 per cent. However, they also found that having higher testosterone levels reduces T2D risk in men by 14 per cent. Additionally, they found that genetically higher testosterone levels increased the risks of breast and endometrial cancers in women, and prostate cancer in men.

Dr John Perry from the MRC Epidemiology Unit at the University of Cambridge, and joint senior author on the paper, says: "Our findings that genetically higher testosterone levels increase the risk of PCOS in women is important in understanding the role of testosterone in the origin of this common disorder, rather than simply being a consequence of this condition.

"Likewise, in men testosterone-reducing therapies are widely used to treat prostate cancer, but until now it was uncertain whether lower testosterone levels are also protective against developing prostate cancer. Our findings show how genetic techniques such as Mendelian randomisation are useful in understanding of the risks and benefits of hormone therapies."

Dr Katherine Ruth, of the University of Exeter, one of the lead authors of the paper, added: "Our findings provide unique insights into the disease impacts of testosterone. In particular they emphasise the importance ofconsidering men and women separately in studies,as we saw opposite effects for testosterone on diabetes. Caution is needed in using our results to justify use of testosterone supplements, until we can do similar studies of testosterone with other diseases, especially cardiovascular disease."

Reference: Ruth et al. (2020).Using human genetics to understand the disease impacts of testosterone in men and women. Nature Medicine.DOI: https://doi.org/10.1038/s41591-020-0751-5.

This article has been republished from the following materials. Note: material may have been edited for length and content. For further information, please contact the cited source.

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Howard University College of Medicine Receives Grant to Support Youth with Sickle Cell Disease – Howard Newsroom

Tuesday, February 11th, 2020

WASHINGTON The Department of Pediatrics and Child Health in the Howard University College of Medicine has received a $42,000 grant from the Walter Brownley Trust Bank of America, N.A., Trustee to support children with sickle cell disease and their families. There are approximately 1,500 children and youth with sickle cell disease in the Washington, D.C. region.

The project supported by the grant, entitled LIFE (Learning Is Fundamental for Everyone) with Sickle Cell Disease, will focus on increasing educational and other support services for school-age children with sickle cell. Services include education and advocacy training, transportation assistance, special informational workshops for families, and distribution of other needed resources.

Most sickle cell disease patients have low socioeconomic status, lack social support, and face many barriers for achieving optimal medical care and educational achievement, says Dr. Sohail Rana, professor of pediatrics in the College of Medicine and lead administrator of the Life project. The condition can also result in brain complications that place youth at high risk for limited educational achievement. This grant will help us ensure that children and youth with sickle cell disease are fully connected to available resources in the school system and in the larger community.

In the pediatrics department, the LIFE project and will be supported by Patricia Houston, project coordinator, and Cynthia Gipson, a family advocate.

Sickle cell disease is the most common genetic disease in the United States and primarily affects African Americans. It leads to anemia, pain crisis, strokes and other problems. The Howard University College of Medicine, the Howard University Center for Sickle Cell Disease, and Howard University Hospital, have long served as the major center for medical care, research, and other resources to people with sickle cell disease in the Washington region.

For more information about the project, please contact Patricia Houston at phouston@howard.edu or 202-865-4578.

About Howard University

Founded in 1867, Howard University is a private, research university that is comprised of 13 schools and colleges. Students pursue studies in more than 120 areas leading to undergraduate, graduate and professional degrees. The University operates with a commitment to Excellence in Truth and Service and has produced one Schwarzman Scholar, three Marshall Scholars, four Rhodes Scholars, 11 Truman Scholars, 25 Pickering Fellows and more than 70 Fulbright Scholars. Howard also produces more on-campus African-American Ph.D. recipients than any other university in the United States. For more information on Howard University, visit http://www.howard.edu.

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Media Contact: Sholnn Freeman, sholnn.freeman@howard.edu

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Genomenon Commended by Frost & Sullivan for Advancing Clinical Genomics Interpretation and Personalized Medicine with Its Mastermind Platform -…

Tuesday, February 11th, 2020

The company's content-rich genomic database platform and AI-driven processing help mitigate early-stage genomic translational research challenges

SANTA CLARA, Calif. , Feb. 11, 2020 /CNW/ --Based on its recent analysis of the global clinical genomics interpretation market, Frost & Sullivan recognizes Genomenon, Inc. with the 2020 Global Company of the Year Award.Genomenon offers products and services to pharmaceutical companies and clinical diagnostic labs to streamline clinical genomics interpretation and connect scientific evidence to patients' genomic data. Its flagship product, Mastermind, automatically simplifies variant interpretation for faster, more accurate diagnosis and clinical decision-making. In just over two years, Mastermind amassed more than 5,000 users in 1,700 clinical laboratories across 101 countries.

"Powered by its proprietary Genomic Language Processing algorithm and genomic literature database, Mastermind has emerged a leading automated disease-gene-variant association database," said Christi Bird , Principal Consultant at Frost & Sullivan. "Unlike other commercially available tools, the first-in-class genomic database search engine enables full articles and supplemental datasets searches across the genomic literatureallowing geneticists, molecular pathologists, and researchers to identify disease-causing variants from genomic-sequencing datasets quickly and accurately."

Mastermind accelerates tertiary analysis by identifying every research article that includes any given variant in the context of any disease or phenotype and prioritizes the search results by clinical relevance. It leverages artificial intelligence (AI) and machine learning (ML) to offer the world's most comprehensive gene and variant landscape, having indexed 100 times more content and identified 20 times more variants than the incumbent database built by manual curation. It also reduces the average 90-minute variant search and curation time using Google or Google Scholar to less than 30 minutes, delivering industry-leading turnaround times and superior diagnostic yields and throughput.

Genomenon is aggressively expanding these compelling value propositions to clinical labs around the world through partnerships. In the past year, it signed agreements with Congenica, Fabric Genomics, GenomOncology, LifeMap Sciences, Diploid, Limbus, Shanghai Shanyi Biological Technology Co., and Google. As next-generation sequencing (NGS) labs use various companies with access to Mastermind for tertiary analysis, partnerships are becoming increasingly important for building stickiness and expanding geographical footprint.

"With three platform choices, Basic, for genomics research; Professional, for clinical decision support; and Enterprise, for advanced implementations, users can select an offering that best fits their current needs, application, sample volume, and price range," noted Bird. "The company recently included phenotypic searches in its engine capability and will be further adding drug and therapeutic searches, strengthening its expansion into the pharmaceuticals industry to advance personalized medicine."

Each year, Frost & Sullivan presents a Company of the Year award to the organization that demonstrates excellence in terms of growth strategy and implementation in its field. The award recognizes a high degree of innovation with products and technologies, and the resulting leadership in terms of customer value and market penetration.

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Frost & Sullivan Best Practices awards recognize companies in a variety of regional and global markets for demonstrating outstanding achievement and superior performance in areas such as leadership, technological innovation, customer service, and strategic product development. Industry analysts compare market participants and measure performance through in-depth interviews, analysis, and extensive secondary research to identify best practices in the industry.

About Frost & Sullivan

For over five decades, Frost & Sullivan has become world-renowned for its role in helping investors, corporate leaders, and governments navigate economic changes and identify disruptive technologies, Mega Trends, new business models, and companies to action, resulting in a continuous flow of growth opportunities to drive future success. Contact us: Start the discussion.

Contact:

Lindsey Whitaker P: +1 (210) 477-8457E: lindsey.whitaker@frost.com

About Genomenon, Inc.

Genomenon connects patient DNA with the billions of dollars spent on research to help doctors diagnose and cure cancer patients and babies with rare diseases.

Their flagship product, the Mastermind Genomic Search Engineis used by hundreds of genetic labs worldwide to accelerate diagnosis, increase diagnostic yield and assure repeatability in reporting genetic testing results.

Genomenon licenses Mastermind Genomic LandscapesTM to pharmaceutical and bio-pharma companies to inform precision medicine development, deliver genomic biomarkers for clinical trial target selection, and support CDx regulatory submissions with empirical evidence.

For more information, visit Genomenon.com

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EXCLUSIVE INTERVIEW: The Greek Professor who ‘broke’ the coronavirus DNA sees a vaccine coming soon – Greek City Times

Tuesday, February 11th, 2020

Pagona Lagiou; Professor and Director of Preventive Medicine and Hygienic Epidemiology of Medical School of National and Kapodistrian University of Athens, Gigas Magiorkinis; Assistant Professor at National and Kapodistrian University of Athens, Dimitrios Paraskevis; Deputy Professor of Preventive Medicine and Hygienic Epidemiology of Medical School of National and Kapodistrian University of Athens, Evagelia Georgia Kostaki; PhD

Greek Epidemiology Professor Dr. Dimitrios Paraskevis, the scientist who broke the coronavirus DNA, speaks exclusively to Greek City Times and provides answers on the potential availability of a vaccine against the virus, what we should be mindful of and how the lethal coronavirus started spreading.

By Konstantinos Sarrikostas

What is it actually like running after lethal viruses on a daily basis, 24 hours per day; locating, analyzing and decoding genetic material which leaves a hecatomb of dead people in its wake?

The Father of Medicine Hippocrates became the founder of Orthologic Medicine discouraging his fellow citizens from metaphysical elements, superstitions and even prejudices. Actually, he said that in serious diseases, the most effective method in treatment is absolute accuracy and fastidiousness, which modern doctors, who follow his oath, literally strive for in the healing of their fellow human beings.

Dr. Dimitrios Paraskevis, a modern Hippocrates, is Deputy Professor of Preventive Medicine and Hygienic Epidemiology at the Medical School of the National and Kapodistrian University of Athens. Along with two fellow colleagues, he has managed -in time- to analyse and decode the DNA of the lethal coronavirus which recently broke out in China and has alarmed the international community.

According to Dr. Dimitrios Paraskevis we are in the final stages of discovering a vaccine against the virus, its cause and origin and vital information on how to protect ourselves from it.

As he points out, in a few months time we will have the vaccine against the coronavirus; but what is absolutely essential is the total implementation of hygiene rules and most importantly behave with great composure.

THE INTERVIEW

Professor, the entire planet is discussing the coronavirus and peoples concern is really great. Could you please tell us in simple terms what the coronavirus is and why it has spread so rapidly?

The coronavirus spreads relatively easy for several reasons, the most significant one being that it can be spread by droplets if someone is exposed to them, for instance through sneezing or coughing. Other reasons include the fact that no preventative measures were taken to contain the virus or at the very least limit its spread, especially when it first infected people at the end of November and the beginning of December 2019 a period of prime importance.

This happened because it is an unknown virus and as such there was no awareness amongst the people in China in order that they initiate the necessary control measures. Therefore, when a great number of people have already been infected, you realise that from that point on, it is more difficult to control the infection. Moreover, owing to the fact that universal transfers are really easy nowadays, a disease can easily be spread globally.

From your studies and genetic analysis as the lead scientist of your research team , have you reached a conclusion about how it started? Was it, after all, spread by bats or could it be a lab product: a discussion which exists globally?

The coronavirus belongs to a team which is characterized as B team and its the same team to which the virus which caused the epidemic SARS in 2003 belongs. The genetic material of the virus which has caused this present epidemic, presents a great proportion with the genetic material of the relevant virus infecting bats.

Talking about proportion we mean that it reaches the level of 96%; that is, the possible source of infection is this particular animal, i.e. bats. Of course, we cannot rule out the fact that the infection can be made by another animal, another carrier, another mammal which has been infected by bats and this, in turn, transferred it to humans. This will be hard to find because we have to find the particular animal and locate the truth, the part of the virus which caused the infection. But, on the other hand, it is not of a particular importance either for epidemiology or for research in the creation of vaccines or antivirus drugs.

As to whether the virus has been created in a lab, that is, if it is a product of human intervention, I would like to assure you that such theories exist almost always in every epidemic with every new virus.

There is no possibility scientifically- that something like this has happened. There is no possibility because it was confirmed that this virus exists in animals, the infections from animals to people are very frequent and also all the people from whom it was isolated and characteristically the virus in China during the period of December, had an identical virus, which means that this was the result of infections among diverse people. Therefore, allow me to repeat that human intervention or the possible origin from a lab, should be indisputably ruled out.

The World Health Organization (WHO) has not used the term pandemic yet. Is it, Professor, a pandemic and when does a pandemic exist?

A pandemic, according to WHO, is defined as such when the epidemic has a great spread in, at least, two areas, in two continents. The areas as they are defined by WHO, are not exactly the geographic continents, but they are slightly different. Not to get into many details, the definition of pandemic refers to the geographic spread and not as much to the number of cases.

In Greece, for the time being, there are no certified cases. Do you believe, too, that it is a matter of time before we will be seeing our first case? How well-prepared is our country with the measures that are increasingly updated.

In Greece, there is no certified case. There may be but it is unlikely that there are any. The authorities have taken the appropriate measures, have announced the protection measures to be undertaken by health professionals, by the population and what people who travel should be mindful of.

We are informed about measures in airports and there has been an attempt for a prompt diagnosis of a possible case which is absolutely important to limit further infections.

Is the diagnosis of the specific virus easy and what are the symptoms?

The symptoms are identical to the ones of the flu and the definition of a potential case is related to whether someone has been exposed to other people from areas in which there are cases. That is, a fellow citizen who has not travelled and has flu symptoms, as you realise, does not have this virus.

So, in the first stages and absence of a case in Greece, if someone has symptoms, these symptoms should be accompanied with an exposure to another possible case, obviously and possibly outside Greece so that there may be a realistic possibility that they have been infected. Therefore, our fellow-citizens are more likely to suffer from the flu or another virus rather than the coronavirus.

The documentation of the infection, is feasible at the Paster Institute as well as in other laboratories which can diagnose if an infection is caused by this specific virus.

As far as travelling is concerned and according to WHO, people should not restrict their travels unless they are in areas in which there is a great number of cases. However, they should follow all the instructions which are recommended in reference to the prevention of infection from these viruses. What are some preventative measures?

People should wash their hands with soap for about 20 seconds and especially when they are in congested places such as airports; they should avoid touching their eyes, nose or mouth with their hands. So, when we find ourselves in public places where there are several fellow- citizens, we should bear in mind that we must take great care of our hands hygiene and that they must not touch our face. Also, if we feel symptoms identical to the ones of the flu, we should stay home, so that we dont expose other people to danger; and if symptoms persist, we should ask for medical advice.

Is the mask just some fashion accessory or does it actually contribute to the restriction of the virus spread?

The mask does not constitute the absolute means of protection and it doesnt mean that anyone who wears it is either totally or to a great extent protected from a possible flu infection or coronavirus. The role of the mask is to protect other people from the sufferer who must wear it. If they sneeze while talking, much fewer droplets are exposed, therefore the mask is a way of protection, especially for the protection of others. So, someone wearing a mask should be aware of the fact that they are not totally protected from these viruses.

Professor, why is this virus so lethal? There have have already been 630 deaths and more than 31.400 cases*?

We should clarify the following: The coronavirus is not so lethal in relation to other viruses. The number of deaths concerns a relatively great number of people about whom the coronavirus infection has been documented. Coronavirus as well as flu virus causes, to a great extent, very mild symptoms.

As a result, the number of people who have been infected is much bigger than the number of people whose infection has been documented. So, the denominator, when we estimate death-rate, is much bigger because the real number of the cases is unknown and a lot bigger related to those who have the infection documented.

Until now, the death-rate was considered to be approximately 3% to 4% but it is possibly much less because as I already earlier the real number of the cases is unknown.

Those who are more susceptible to this infection are older people, vulnerable groups and people who suffer from chronic heart diseases, chronic breathing diseases and immunodeficiency. The above categories constitute the percentage of serious symptoms or death.

How far or how close are we for the coronavirus vaccine creation? Can we be optimistic since a relative treatment for very old viruses and lethal diseases has not been found yet?

There are viruses, as you have correctly mentioned, for which it is not easy to develop vaccines. Hopefully, the coronavirus does not have these characteristics.

We consider that the coronavirus vaccine will be available relatively quickly, possibly even in a few months if we also estimate the time required for clinical tests.

Several Institutes and Centres have actively engaged in the creation of the vaccine. It is believed that in some weeks vaccines will be available for clinical tests. In the meantime, protection measures are vital for the restriction of the virus and for our protection.

I would like to point out once more: there are other viruses and diseases that are really dangerous. I realise how worried people are; the coronavirus is something new. However, Greece and the international community have been confronted with similar threats before, over the last 10 years, a fact that fills us with optimism.

We have the experience and the know-how so that we can face this menace effectively. What is really necessary is composure and optimism about the fact that even this disease will be challenged effectively with minimum human cost.

* Data as of the time of interview

This article was researched and written by a GCT team member.

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EXCLUSIVE INTERVIEW: The Greek Professor who 'broke' the coronavirus DNA sees a vaccine coming soon - Greek City Times

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Massive Genetic Map of Cancer Mutations Cataloged Available to Doctors and Researchers Worldwide – SciTechDaily

Tuesday, February 11th, 2020

Chromosomes prepared from a malignant glioblastoma visualized by spectral karyotyping (SKY) reveal an enormous degree of chromosomal instability a hallmark of cancer. Credit: NCI Center for Cancer Research (CCR)

Mutations in 38 different types of cancer have been mapped by means of whole genome analysis by an international team of researchers from, amongst others, the University of Copenhagen, Aarhus University, Aarhus University Hospital, and Rigshospitalet. The researchers have compiled a catalog of the cancer mutations that will be available worldwide to doctors and researchers.

Globally, cancer is one of the biggest killers and in 2018, an estimated 9.6 million people died of the disease. In order to provide the best treatment for the disease, it is essential to find out which mutations are driving the cancer.

We have studied and analyzed the whole genome, and our analyses of mutations that are affecting cancer genes have enabled us to genetically explain 95 percent of the cancer occurrences we have studied by means of mutations. Joachim Weischenfeldt

In a major international collaboration called Pan-Cancer Analysis of Whole Genomes (PCAWG), researchers from the University of Copenhagen, Aarhus University, Aarhus University Hospital, and Rigshospitalet have helped to map mutations in 38 different types of cancer.

The mutations have all been combined into a sort of catalog. The catalog, which is already available online, allows doctors and researchers from all over the world to look things up, consult with and find information about the cancer of a given patient.

Most previous major studies have focused on the protein coding two percent of the genome. We have studied and analyzed the whole genome, and our analyses of mutations that are affecting cancer genes have enabled us to genetically explain 95 percent of the cancer occurrences we have studied by means of mutations, says co-author Joachim Weischenfeldt, Associate Professor at the Biotech Research & Innovation Centre, University of Copenhagen, and the Finsen Laboratory, Rigshospitalet.

So, if you know which mutations have caused cancer, the so-called driver mutations, you will be able to better tailor a treatment with the most suitable drugs or design new drugs against the cancer. Precision medicine is completely dependent on the mapping of driver mutations in each cancer, in relation to diagnosis, prognosis and improved treatment, says co-author Jakob Skou Pedersen, professor at Bioinformatics Research Centre and Department of Clinical Medicine, Aarhus University, and Aarhus University Hospital.

The new research results are published in a special edition of the scientific journal Nature with focus on PCAWG. To date, it is the largest whole genome study of primary cancer. This means that the analysis was performed based on material from the tissue in which the tumor originated and before the patient has received any treatment.

The researchers have mainly analyzed and had data on the most common types of cancer such as liver, breast, pancreas and prostate cancer. In total, they have analyzed whole genome-sequenced tumor samples from more than 2,600 patients.

Based on their analyses, they could see that the number of mutations in a cancer type varies a lot. Myeloid dysplasia and cancer in children have very few mutations, while there may be up to 100,000 mutations in lung cancer.

The infographic is an overview of the different cancer types studied in the Pan-Cancer Project. The lower part also lists the six cancer types (for men and women) for which the most samples were available. Credit: Rayne Zaayman-Gallant/EMBL

But even though the number of mutations spans widely, researchers could see that on average there were always 4-5 mutations that were driving the disease, the so-called drivers no matter what type of cancer it was.

It is quite surprising that almost all of them have the same number of driver mutations. However, it is consistent with theories that a cancerous tumor needs to change a certain number of mechanisms in the cell before things start to go wrong, says Jakob Skou Pedersen.

In the catalog, the researchers have divided the mutations into drivers and passengers. Driver mutations provide a growth benefit for the cancer, while passenger mutations cover all the others and are harmless. The vast majority of all mutations are passengers.

To store and process the vast amount of data, the research team has used so-called cloud computing, using 13 data centers spread across three continents. They have had centers in Europe, the US, and Asia.

The large data set has been necessary to establish what was common and unique to the different types of cancer. Today, cancer is divided according to the tissue in which the disease originates, for example breast, brain, and prostate.

The researchers found many things that were completely unique to each type of tissue. Conversely, they also found many common traits across the tissue types. According to Joachim Weischenfeldt, there is thus a need to rethink the way we think about cancer.

Cancer is a genetic disease, and the type of mutations is often more important than where the cancer originates in the body. This means that we need to think of cancer not just as a tissue-specific disease, but rather look at it based on genetics and the mutations it has.

For example, we may have a type of breast cancer and prostate cancer where the driver mutations are similar. This means that the patient with prostate cancer may benefit from the same treatment as the one you would give the breast cancer patient, because the two types share an important driver mutation, says Joachim Weischenfeldt.

Reference: Pan-cancer analysis of whole genomes by The ICGC/TCGA Pan-Cancer Analysis of Whole Genomes Consortium, 5 February 2020, Nature.DOI: 10.1038/s41586-020-1969-6

The International Cancer Genome Research Consortium has been supported by national foundations, including Independent Research Fund Denmark.

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Genentech Provides Topline Results From Investigator-Led Phase II/III Trial With Gantenerumab in Rare Inherited Form of Alzheimer’s Disease – BioSpace

Tuesday, February 11th, 2020

Feb. 10, 2020 06:00 UTC

SOUTH SAN FRANCISCO, Calif.--(BUSINESS WIRE)-- Genentech, a member of the Roche Group (SIX: RO, ROG; OTCQX: RHHBY), announced today that the gantenerumab arm of the Phase II/III DIAN-TU-001 study did not meet its primary endpoint in people who have an early-onset, inherited form of Alzheimers disease (AD). This form of AD, known as autosomal dominant AD (ADAD), accounts for less than 1% of all cases of the disease. The study, sponsored by Washington University School of Medicine in St. Louis, did not show a significant slowing of the rate of cognitive decline in people treated with investigational medicine gantenerumab as measured by the novel DIAN Multivariate Cognitive Endpoint, compared with placebo. Overall, gantenerumab's safety profile in DIAN-TU-001 was consistent with that from other clinical trials of the investigational medicine and no new safety issues were identified.

Genentech and Roche are conducting additional analyses to understand the totality of the gantenerumab data from the study, in collaboration with Washington University School of Medicine. Data will be presented at the AAT-AD/PD Focus meeting in April 2020.

We are very grateful to all those involved in this study and hope the data can further contribute to the science and collective understanding of this complex disease, said Levi Garraway, M.D., Ph.D., chief medical officer and head of Global Product Development. Although DIAN-TU didnt reach its primary endpoint, the trial represents the first of its kind and a bold undertaking by all partners involved. Given its experimental nature, we are unable to draw firm conclusions about the impact of gantenerumab in autosomal dominant Alzheimer's disease. This outcome does not reduce our confidence in the ongoing Phase III GRADUATE clinical program.

Gantenerumab, a late-stage investigational medicine, continues to be studied in two large global Phase III studies (GRADUATE 1 and 2) in the broader population of people with AD that is not directly caused by gene mutations (sporadic AD). Every person with ADAD who received gantenerumab in DIAN-TU-001 started on a lower dose and only started titrating to a fivefold higher target dose approximately halfway through the trial, prompted by learnings from other studies of gantenerumab. The GRADUATE studies have been designed from the outset to maximize exposure to gantenerumab, bringing all patients to target dose with minimal or no dose interruption within the study period.

Genentech and Roches AD pipeline spans investigational medicines for different targets, types and stages of AD. In addition to the gantenerumab program, Genentech and Roche are evaluating semorinemab in Phase II studies in sporadic AD. Crenezumab also continues to be studied in the Alzheimers Prevention Initiative Phase II trial in ADAD.

About the DIAN-TU-001 study

DIAN-TU-001 is a Phase II/III study sponsored by Washington University School of Medicine in St. Louis, United States. The study tested two investigational therapies compared to placebo (Genentech and Roches gantenerumab and Eli Lilly and Company's solanezumab) to determine if either of these treatments could slow the rate of cognitive decline and improve disease-related biomarkers in people who are known to have a genetic mutation for inherited AD. The primary outcome measure for the study the DIAN Multivariate Cognitive Endpoint is a novel outcome measure designed to assess cognitive performance in people with ADAD.

The study followed 194 participants for up to 7 years; the average was about 5 years. Fifty-two people were randomized to active gantenerumab in the study. All participants came from families that carry a genetic mutation that causes inherited AD. The small study included people who did not yet have symptoms of AD at the time of enrollment as well as people who already had mild symptoms of the disease. There are 24 study centers worldwide for DIAN-TU-001, across the United States, Australia, Canada, France, Spain and the United Kingdom.

In the DIAN-TU-001 study, the most common adverse events reported more frequently with gantenerumab than placebo were injection-site reactions, infection of the nose and throat (nasopharyngitis), and amyloid-related imaging abnormalities (ARIA), manifesting as cerebral edema or microhemorrhages. The majority of ARIA findings were asymptomatic; if symptoms occurred, they were mild in nature and resolved.

About autosomal dominant Alzheimers disease

Autosomal dominant AD (ADAD; also known as familial AD or dominantly-inherited AD [DIAD]) is a rare, inherited form of AD caused by single gene mutations in the APP, PSEN1 or PSEN2 genes. Less than 1% of all AD cases worldwide are thought to be caused by genetic mutations. It usually has a much earlier onset than the more common sporadic AD, with symptoms developing in people in their 30s to 60s. If an individual has one of these mutations, there is a 50% chance they will pass it on to each of their children.

About gantenerumab

Gantenerumab is an investigational medicine designed to bind to aggregated forms of beta-amyloid and remove beta-amyloid plaques, a pathological hallmark of AD thought to lead to brain cell death. Previous clinical studies of gantenerumab showed beta-amyloid plaque lowering in people with the more common form of AD that is not directly caused by gene mutations. The clinical significance of this effect is being investigated in two Phase III studies (GRADUATE 1 and 2), which are assessing the safety and efficacy of gantenerumab for the treatment of people with sporadic AD. The GRADUATE program is currently enrolling more than 2,000 patients in up to 350 study centers in more than 30 countries worldwide.

About Genentech in neuroscience

Neuroscience is a major focus of research and development at Genentech and Roche. The companys goal is to develop treatment options based on the biology of the nervous system to help improve the lives of people with chronic and potentially devastating diseases. Genentech and Roche have more than a dozen investigational medicines in clinical development for diseases that include multiple sclerosis, spinal muscular atrophy, neuromyelitis optica spectrum disorder, Alzheimers disease, Huntingtons disease, Parkinsons disease and autism.

About Genentech

Founded more than 40 years ago, Genentech is a leading biotechnology company that discovers, develops, manufactures and commercializes medicines to treat patients with serious and life-threatening medical conditions. The company, a member of the Roche Group, has headquarters in South San Francisco, California. For additional information about the company, please visit http://www.gene.com.

View source version on businesswire.com: https://www.businesswire.com/news/home/20200209005048/en/

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Maybe Memorizing the Krebs Cycle Was Worthwhile After All – Medscape

Friday, February 7th, 2020

Like most medical students, I struggled to memorize the Krebs cycle, the complex energy-producing process that takes place in the body's mitochondria. Rote learning of Sir Hans Krebs' eponymous cascade of reactions persists and has been cited as a waste of time in modern medical education. However, it looks like that specialized knowledge about mitochondrial structure and function may finally come in handy in the clinic.

Advances in genetics have contributed to improved diagnostic accuracy of a diverse spectrum of mitochondrial disorders. Respiratory chain, nuclear gene, and mitochondrial proteome mutations can lead to multisystem or organ-specific dysfunction.

A new potential treatment for mitochondrial disorders, elamipretide, has received orphan drug designation from the US Food and Drug Administration (FDA) and is in clinical trials sponsored by Stealth Biotherapeutics. [Dr Wilner has consulted for Stealth Biotherapeutics.] Recently I had the opportunity to interview Hilary Vernon, MD, PhD, associate professor of genetic medicine at Johns Hopkins University, Baltimore, Maryland, and an expert on mitochondrial disorders. Dr Vernon discussed her research on elamipretide as a treatment for Barth syndrome, a rare form of mitochondrial disease.

I am the director of the Mitochondrial Medicine Center at Johns Hopkins Hospital. I work with individuals from infancy through adulthood who have mitochondrial conditions. I became interested in this particular area when I was early in my pediatrics/genetics residency at Johns Hopkins and saw the toll that mitochondrial disorders took on patients' lives and the limited effective therapies. At that point, I decided to focus on patient care and research in this area.

Mitochondrial disorders can be difficult to recognize because of their inherent multisystem nature and variable presentations (even between affected members of the same family). However, there are several considerations that should raise a clinician's suspicion for a mitochondrial condition. Ascertaining a family history of disease inheritance through the maternal line can raise the suspicion for a mitochondrial DNA disorder. Identification of a combination of medical issues in different organ systems that are seemingly unrelated in an individual (ie, optic atrophy and muscle weakness or diabetes and hearing loss) can also raise suspicion for a mitochondrial condition.

Due to the nature of mitochondria as the major energy producers of the cells, high-energy-requiring tissues such as the brain and the muscles are often affected. Perhaps the best known mitochondrial diseases to neurologists are MELAS (mitochondrial encephalopathy, lactic acidosis, and stroke) as well as MERFF (myoclonic epilepsy with ragged red fibers). There is a nice body of literature on the effects of arginine and citrulline in modifying stroke-like episodes in MELAS, and this is a therapy that is in current practice.

Mitochondria are complex organelles whose structure and function are encoded in hundreds of genes originating from both the nucleus of the cell and the mitochondria themselves. Mitochondria have many key roles in cellular function, including energy production through the respiratory chain, coordination of apoptosis, nitrogen metabolism, fatty acid oxidation, and much more.

Various cofactors and vitamins can be employed to improve mitochondrial function for different reasons. For example, if a specific enzyme is dysfunctional, supplying the cofactor for that enzyme may improve its function (ie, pyruvate dehydrogenase and thiamine). Antioxidants have also been considered to help reduce the oxidant load that could potentially cause ongoing damage to the mitochondrial membrane resulting from respiratory chain dysfunction (ie, coenzyme Q-10).

It is important to remember that the highest number of individual mitochondrial disorders result from mutations in genes located in the nuclear DNA. For example, the TAZ gene that is abnormal in Barth syndrome is a nuclear gene located on the X chromosome. These genes are amenable to the "regular" approaches to gene therapy.

Targeting mitochondrial DNA for gene therapy requires a different set of approaches because the gene delivery has to overcome the barrier of the mitochondrial membranes. However, research is ongoing to overcome these obstacles.

Barth syndrome is a very rare genetic X-linked disorder that usually only affects males. The genetic defect leads to an abnormal composition of cardiolipin on the inner mitochondrial membrane. Cardiolipin is an important phospholipid involved in many mitochondrial functions, including organization of inner mitochondrial membrane cristae, involvement in apoptosis, and organization of the respiratory chain (which is responsible for producing ATP via the process of oxidative phosphorylation), and many of these functions are abnormal in Barth syndrome. Individuals with Barth syndrome typically have early-onset cardiomyopathy, myopathy, intermittent neutropenia, fatigue, poor early growth, among other health concerns.

Early in my post-residency career, I followed several patients with Barth syndrome and was quickly welcomed into the Barth syndrome community by the families and the Barth Syndrome Foundation. From there, I founded the only interdisciplinary Barth syndrome clinic in the US and began to focus a significant amount of my clinical and laboratory research on this condition.

Most commonly, these individuals come to medical attention because of cardiomyopathy, but a minority of patients do come to attention due to repeated infections and neutropenia. Patients were identified for study participation through the Barth Syndrome Foundation or because they were already patients of my study team.

All participants were known to have Barth syndrome prior to study entry, and all had confirmatory genetic testing showing a pathogenic mutation in the TAZ gene.

By binding to cardiolipin in the inner mitochondrial membrane, elamipretide is believed to stabilize cristae architecture and electron transport chain structure during oxidative stress. I thought it would be great if this could help to stabilize the abnormal cardiolipin components on the inner mitochondrial membrane in Barth syndrome.

We observed improvements in several areas across the study population in the open-label extension part of the study. This includes a significant improvement in exercise performance (as measured by the 6-minute walk test, with an average improvement of 95.9 meters at 36 weeks) and a significant improvement in muscle strength. We also observed a potential improvement in cardiac stroke volume. Most of the adverse events were local injection-site reactions and were mild to moderate in nature.

The TAZPOWER trial has an ongoing open-label extension with the same endpoints as the placebo-controlled portion evaluated on an ongoing basis. In addition, in my laboratory, we are using induced pluripotent stem cells to learn more about how cardiolipin abnormalities affect different cell types in an effort to understand the tissue specificity of disease. This will help us to understand whether different aspects of Barth syndrome would necessitate individual management or clinical monitoring strategies.

Mitochondrial inner membrane dysfunction is increasingly recognized as a major aspect of the pathology of a wide range of mitochondrial conditions. Therefore, based on the role of stabilizing mitochondrial membrane components, elamipretide has a potential role in many disorders of the mitochondria.

Yes, this is what we would call "secondary mitochondrial dysfunction" (meant to differentiate from "primary mitochondrial disease," which is caused by defects in genes that encode for mitochondrial structure and function). Approaches intended to protect the mitochondria from further damage, such as antioxidants or strategies that can bypass the mitochondria for ATP production, could overlap as treatment for primary mitochondrial disease and secondary mitochondrial dysfunction.

This is something that is much discussed as a newer consideration for families who are affected by disorders of the mitochondrial DNA, but not something I have experience with firsthand.

Yes. The United Mitochondrial Disease Foundation and the Mitochondrial Medicine Society collaborated to develop the Mito Care Network, with 19 sites identified as Mitochondrial Medicine Centers across the US.

Andrew Wilner is an associate professor of neurology at the University of Tennessee Health Science Center in Memphis, a health journalist, and an avid SCUBA diver. His latest book is The Locum Life: A Physician's Guide to Locum Tenens.

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Tampa health care expert unveils health care plan using artificial intelligence, genetics, medical case management to save taxpayers $1.4 trillion per…

Friday, February 7th, 2020

A Tampa health care expert goes public with a plan to fix America's broken health care system.

TAMPA, Fla. (PRWEB) February 05, 2020

TAMPA, Fla. Local health care expert and medical case management consultant Paul Roberts has spent two decades working to develop more efficient ways to improve healthcare, and now the 47-year-old is attempting his most ambitious task to reform America's health care system.

"There's no question about it, our healthcare system is broken and that really is something that all Americans can get behind, regardless of their political ideologies," said Roberts. "It affects all of us and we need to address it before costs skyrocket even more."

According to Roberts, his alternative plan will save tax payers an estimated 40 percent over Medicare for All, while enhancing the overall quality of care.

Roberts calls his plan Coordinated Care for All, and while it is modeled somewhat like a single-payer government-managed healthcare system, there would be no mandate to participate. Private sector competition would continue by allowing people to opt out. The plan could also be easily adopted for use in the private sector as well.

Roberts's plan focuses on several key areas including prediction of risk, education, prevention, cost containment, efficiency, and medical case management, combining all of these target areas of focus with a centralized computer system, while utilizing artificial intelligence and voluntary genetic input to predict risk.

Coordinated Care for All would combine technology, artificial intelligence and genetics to identify and target the following:

According to Roberts, while all of this can be applied to a model for a single-payer source (Universal Healthcare), the same ideas can also be also applied to the private sector. Additionally, the allowance of pre-existing conditions and competition within the private healthcare sector are inclusive in the plan.

To promote his plan, Roberts has taken big steps. Originally, he tried working with lawmakers, but when that process resulted in slow results, he decided to invest more than $250,000 into the production of a feature-length documentary film called "Diagnosing Healthcare," which is set to be released this spring.

Since beginning his push, Roberts has been gaining momentum. The Case Management Society of America published an article focusing on his plan in their latest issue of their flagship magazine, CMSA Today. Additionally, Roberts was recently interviewed about Coordinated Care for All on American Medicine Today, and next month Roberts is scheduled to speak at the Synapse Innovation Summit at Amalie Arena in Tampa Feb 11-12.

"I realized that in order to be taken seriously, I needed to take my plan directly to the American public, so that's what I am doing," said Roberts. "At the end of the day, the focus of my plan is on improving cost-effectiveness, while also improving the quality of care delivered."

For more information on Coordinated Care for All, visit http://www.robertsccm.com.

For the original version on PRWeb visit: https://www.prweb.com/releases/tampa_health_care_expert_unveils_health_care_plan_using_artificial_intelligence_genetics_medical_case_management_to_save_taxpayers_1_4_trillion_per_year/prweb16890739.htm

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AI, 5G, and IoT can help deliver the promise of precision medicine – VentureBeat

Friday, February 7th, 2020

This article is part of the Technology Insight series, made possible with funding from Intel.

When my son was a toddler, he went to his pediatrician for a routine CAT scan. Easy stuff. Just a little shot to subdue him for a few minutes. Hed be awake and finished in a jiffy.

Except my son didnt wake up. He lay there on the clinic table, unresponsive, his vitals slowly falling. The clinic had no ability to diagnose his condition. Five minutes later, he was in the back of an ambulance. My wife and I were powerless to do anything but look on, frantic with worry for our boys life.

It turned out that hed had a bad reaction to a common hydrochloride sedative. Once that was figured out, doctors quickly brought him back around, and he was fine.

But what if, through groundbreaking mixtures of compute, database, and AI technologies, a quick round of analyses on his blood and genome could have revealed his potential for such a reaction before it became a critical issue?

What if it were possible to devise a course of treatment specific to him and his bodys unique conditions, rather than accepting a cookie-cutter approach and dealing with the ill effects immediately after?

And what if that could be done with small, even portable medical devices equipped with high-bandwidth connectivity to larger resources?

In short, what if, through the power of superior computing and next-generation wireless connectivity, millions of people like my son could be quickly, accurately treated on-site rather than endure the cost and trauma of legacy medical methods?

These questions I asked about my son are at the heart of todays efforts in precision medicine. Its the practice of crafting treatments tailored to individuals based on their characteristics. Precision medicine spans an increasing number of fields, including oncology, immunology, psychiatry, and respiratory disorders, and its back end is filled with big data analytics.

Key Points:

Pairing drugs to gene characteristics only covers a fraction of the types of data that can be pooled to target specific patient care.

Consider the Montefiore Health System in the Bronx. It has deployed a semantic data lake, an architecture for collecting large, disparate volumes of data and collating them into usable forms with the help of AI. Besides the wide range of data specific to patients collected onsite (including from a host of medical sensors and devices), Montefiore healthcare professionals also collate data from sources as needed, including PharmGKB databank (genetic variations and drug responses), the National Institute of Healths Unified Medical Language System (UMLS), and the Online Mendelian Inheritance in Man (human genomic data).

Long story short, the Intel/Cloudera/Franz-based solution proved able to accurately create risk scores for patients, predict whether they would have a critical respiratory event, and advise doctors on what actions to take.

We are using information for the most critically ill patients in the institution to try and identify those at risk of developing respiratory failure (so) we can change the trajectory, noted Dr. Andrew Racine, Montefiores system SVP and chief medical officer.

Now that institutions like Montefiore can perform AI-driven analytics across many databases, the next step may be to integrate off-site communications via 5G networking. Doing so will enable physicians to contribute data from the field, from emergency sites to routine in-home visits, and receive real-time advice on how to proceed. Not only can this enable healthcare professionals to deliver faster, more accurate diagnoses, it may permit general physicians to offer specialized advice tailored to a specific patients individual needs. Enabling caregivers like this with guidance from afar is critical in a world that, researchers say, faces a shortage 15 million healthcare workers by 2030.

Enabling services like these is not trivial in any way. Consider the millions of people who might need to be genetically sequenced in order to arrive at a broad enough sample population for such diagnostics. Thats only the beginning. Different databases must be combined, often over immense distances via the cloud, without sacrificing patients rights or privacy. Despite the clear need for this, according to the Wall Street Journal, only 4% of U.S. cancer patients in clinical trials have their genomic data made available for research, leaving most treatment outcomes unknown to the research and diagnostic communities. New methods of preserving patient anonymity and data security across systems and databases should go a long way toward remedying this.

One promising example: using the processing efficiencies of Intel Xeon platforms in handling the transparent data encryption (TDE) of Epic EHR patient information with Oracle Database. Advocates say the more encryption and trusted execution technologies, such as SGX, can be integrated from medical edge devices to core data centers, the more the public will learn to allow its data to be collected and used.

Beyond security, precision medicine demands exceptional compute power. Molecular modeling and simulations must be run to assess how a drug interacts with particular patient groups, and then perhaps run again to see how that drug performs the same actions in the presence of other drugs. Such testing is why it can take billions of dollars and over a decade to bring a single drug to market.

Fortunately, many groups are employing new technologies to radically accelerate this process. Artificial intelligence plays a key role in accelerating and improving the repetitive, rote operations involved in many healthcare and life sciences tasks.

Pharmaceuticals titan Novartis, for example, uses deep neural network (DNN) technology to accelerate high-content screening, which is the analysis of cellular-level images to determine how they would react when exposed to varying genetic or chemical interactions. By updating the processing platform to the latest Xeon generation, parallelizing the workload, and using tools like the Intel Data Analytics Acceleration Library (DAAL) and Intel Caffe, Novartis realized nearly a 22x performance improvement compared to the prior configuration. These are the sorts of benefits healthcare organizations can expect from updating legacy processes with platforms optimized for acceleration through AI and high levels of parallelization.

Interestingly, such order-of-magnitude leaps in capability, while essential for taming the torrents of data flowing into medical databases, can also be applied to medical IoT devices. Think about X-ray machines. Theyre basically cameras that require human specialists (radiologists) to review images and look for patterns of health or malady before passing findings to doctors. According to GE Healthcare, hospitals now generate 50 petabytes of data annually. A staggering 90% comes from medical imaging, GE says, with more than 97% unanalyzed or unused. Beyond working to use AI to help reduce the massive volume of reject images, and thus cut reduce on multiple fronts, GE Healthcare teamed with Intel to create an X-ray system able to capture images and detect a collapsed lung (pneumothorax) within seconds.

Simply being able to detect pneumothorax incidents with AI represents a huge leap. However, part of the projects objective was to deliver accurate results more quickly and so help to automate part of the diagnostic workload jamming up so many radiology departments. Intel helped to integrate its OpenVINO toolkit, which enables development of applications that emulate human vision and visual pattern recognition. Those workloads can then be adapted for processing across CPUs, GPU, AI-specific accelerators and other processors.

With the optimization, the GE X-ray system performed inferences (image assessments) 3.3x faster than without. Completion time was less than one second per image dramatically faster than highly trained radiologists. And, as shown in the image above, GEs Optima XR240amx X-ray system is portable. So this IoT device can deliver results from a wide range of places and send results directly to doctors devices in real time over fast connections, such as 5G. A future version could feed analyzed X-rays straight into patient records. There, they become another factor in the multivariate pool that constitutes the patients dataset, which in turn, enables personalized recommendations by doctors.

By now, you see the problem/solution pattern:

The U.S. provides a solid illustration of the impact of population in this progression. According to the U.S. Centers for Disease Control (CDC), even though the rate of new cancer incidents has flattened in the last several years, the countrys rising population pushed the number of new cases diagnosed from 1.5 million in 2010 to 1.9 million in 2020, driven in part by rising rates in overweight, obesity, and infections.

The white paper Accelerating Clinical Genomics to Transform Cancer Care (below) paints a stark picture of the durations involved in traditional approaches to handling new cancer cases from initial patient visit to data-driven treatment.

At each step, delays plague the process extending patient anxiety, increasing pain, even leading to unnecessary death.

Intel created an initiative called All in One Day to create a goal for the medical industry: take a patient from initial scan(s) to precision medicine-based actions for remediation in only 24 hours. This includes genetic sequencing, analysis that yields insights into the cellular- and molecular-level pathways involved in the cancer, and identification of gene-targeted drugs able to deliver the safest, most effective remedy possible.

To make All in One Day possible, the industry will require secure, broadly trusted methods for regularly exchanging petabytes of data. (Intel notes that a typical genetic sequence creates roughly 1TB of data. Now, multiply that across the thousands of genome sequences involved in many genomic analysis operations.) The crunching of these giant data sets calls for AI and computational horsepower beyond what todays massively parallel accelerators can do. But the performance is coming.

As doctors will have to service ever-larger patient populations, expect them to need data results and visualizations delivered to wherever they may be, including in forms animated or rendered in virtual reality. This will require 5G-type wireless connectivity to facilitate sufficient data bandwidth to whatever medical IoT devices are being used.

If successful, more people will get more personalized help and relief than ever possible. The medical IoT and 5G dovetail with other trends now reshaping modern medicine and making these visions everyday reality. A 2018 Intel survey showed that 37% of healthcare industry respondents already use AI; the number should rise to 54% by 2023. Promising new products and approaches appear daily. A few recent examples are here, here and here.

As AI adoption continues and pairs with faster hardware, more diverse medical devices, and faster connectivity, perhaps we will soon reach a time when no parent ever has to watch an unresponsive child whisked away by ambulance because of adverse reactions that might have been avoided through precision medicine and next-gen technology.

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Nigerias most prominent geneticists and medical research professionals are coming together to promote genomics research and make new drug discoveries…

Friday, February 7th, 2020

54gene has announced the launch of the African Centre for Translational Genomics (ACTG), an initiative established to facilitate translational genomics research by African scientists.

This initiative is the coming together of leading scientists as a welcome development for leveraging talent from across Nigeria to promote genomics research scholarship.

The establishment will also re-invest in the health ecosystem by empowering the next generation of African genomic scientists through the provision and implementation of grants, fellowships, internships, and training for medical researchers, trainees, and students, the company said in a statement released on Tuesday, February 4th, 2020.

According to a 2018 National Center for Biotechnology Information (NCBI) report, Nigeria has few medical geneticists and genetic counselors in Nigeria with most genetic disorders patients seen by pediatricians.

With this first concerted effort from genetic scientists and researchers, the ACTG will be funding its first study under the Non-Communicable Diseases - Genetic Heritage Study (NCD-GHS) Consortium. The consortium will see over 100,000 Nigerians participate in the eponymous study which will seek to understand the genetic basis of the highly prevalent non-Communicable Diseases (NCDs) in Nigeria such as cancers, diabetes, Alzheimers, chronic kidney, sickle cell disease, among others.

ALSO READ: Business Insider chats with the CEO of 54gene, the company building the world's first pan-African biobank

The consortium will have a steering committee co-led by the Director-General of Nigeria Institute of Medical Research [NIMR], Prof. Babatunde Lawal Salako, the Director of National Biotechnology Development Agencys Centre for Genomics Research and Innovation [NABDA-CGRI], Prof Oyekanmi Nash, the CEO of 54gene, Dr. Abasi Ene-Obong, Dr. Segun Fatumo, Assistant Professor, London School of Hygiene and Tropical Medicine [LSHTM], and Dr. Omolola Salako, Consultant Oncologist, College of Medicine, University of Lagos [CMUL].

Speaking on the consortium launch, Dr. Abasi Ene-Obong, said, In continuation with our belief at 54gene that genetic research in Africa should be ethical and beneficial to the communities we serve, and that African scientists be at the forefront of new drug discoveries that benefit Africans and the world at large; we have set up the ACTG to harness translational genetic research across Africa. The NCD-GHS study is our pilot effort under the ACTG that has the potential to rewrite the playbook of genomics research, where African scientists will be placed at the forefront of new drug discoveries for conditions that affect the health of not only Nigerians but greater Africa and the world.

Our collaboration with scientists at NIMR and NABDA-CGRI, as a consortium, is a highly welcome initiative which we believe will be a rewarding and mutually beneficial experience for all parties. For 54gene specifically, the opportunity for us to contribute to a broader national agenda for genomics research is both inspiring and humbling, and we are committed to ensuring its success.

Joining Dr. Ene-Obong at the launch of the NCD-GHS Consortium included many of Nigerias most prominent geneticists and medical research professionals.

Professor. Babatunde Lawal Salako, Director General of the Nigeria Institute of Medical Research (NIMR), added that the consortium will engage senior scientists that have made their mark in the field of cardiometabolic research in teaching hospitals across the country to ensure representativeness and quality.

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Dyne Therapeutics Expands Leadership Team with Key Hires – Business Wire

Friday, February 7th, 2020

WALTHAM, Mass.--(BUSINESS WIRE)--Dyne Therapeutics, a biotechnology company pioneering targeted therapies for patients with serious muscle diseases, today announced the addition of three key members to its leadership team: Oxana Beskrovnaya, Ph.D., senior vice president and head of research; Chris Mix, M.D., senior vice president, clinical development; and John Najim, vice president, chemistry, manufacturing and controls (CMC).

Dyne is establishing a leadership position in muscle disease therapeutics by combining transformative science with an organizational passion for changing the lives of patients, said Joshua Brumm, president and chief executive officer of Dyne. We are thrilled to welcome Oxana, Chris and John to our growing team. Leveraging their collective experience in the discovery and development of novel medicines, we are poised to rapidly advance our programs toward the clinic and are fully focused on execution.

Dr. Beskrovnaya is an accomplished R&D leader with a strong track record of discovering and developing first-in-class therapeutics for rare genetic diseases. Prior to joining Dyne, she served as head of musculoskeletal and renal research in Sanofis rare disease and neurological unit, where she advanced a pipeline of drug candidates using multiple therapeutic modalities, including nucleic acids, proteins and small molecules. Dr. Beskrovnaya is the author of numerous patents, invited reviews, editorials, book chapters and original research articles in major scientific journals. She received her Ph.D. in genetics from Moscow Genetics Institute, followed by postdoctoral fellowship training in neuromuscular diseases at the Howard Hughes Medical Institute at the University of Iowa.

Dr. Mix brings extensive clinical development experience to Dyne, most recently serving as vice president of rare genetic disease clinical development at Agios Pharmaceuticals, where he oversaw development across several hemolytic anemia indications. In his previous role as vice president of clinical development at Sarepta Therapeutics, he focused on advancing candidate therapies for rare neuromuscular disease. Dr. Mix received his B.A. in chemistry from Haverford College and his M.D. from the University of Massachusetts Medical School. He completed his residency in internal medicine at Tufts Medical Center, a fellowship in nephrology at the Beth Israel Deaconess Medical Center in Boston and an M.S. in clinical care research at the Tufts School of Biomedical Sciences.

Mr. Najim brings a wealth of CMC biopharmaceutical development and cGMP manufacturing experience across multiple biologic expression systems and small molecules. Mr. Najim previously held roles of increasing responsibility at Proteon Therapeutics, including most recently as vice president of manufacturing and process development, and also served as associate director of manufacturing at Dyax Corporation. He received his B.S. in biochemistry from Merrimack College and his MBA from Bentley University.

About Dyne TherapeuticsDyne Therapeutics is pioneering life-transforming therapies for patients with serious muscle diseases. The companys FORCE platform delivers oligonucleotides and other molecules to skeletal, cardiac and smooth muscle with unprecedented precision to restore muscle health. Dyne is advancing treatments for myotonic dystrophy type 1 (DM1), Duchenne muscular dystrophy (DMD) and facioscapulohumeral muscular dystrophy (FSHD). Dyne was founded by Atlas Venture and is headquartered in Waltham, Mass. For more information, please visit http://www.dyne-tx.com, and follow us on Twitter and LinkedIn.

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Is the medication you’re taking worth its price? – Salon

Sunday, February 2nd, 2020

Austin was three years old and Max was a newborn when their mother, Jenn McNary, learned they had a rare genetic condition called Duchenne muscular dystrophy. The doctor painted a grim picture: Her boys would stop walking by age 12 or 13 and, shortly thereafter, they would require nighttime ventilation. They would each need a tracheotomy, a feeding tube, or both by their late teens. Death would come a few years later.

It hasn't worked out that way, thanks to two new drugs that became available after the boys' 2002 diagnosis. Exondys 51, a medicine that targets their genetic mutation, slows the disease's progression, and Emflaza, a corticosteroid, mitigates some of its symptoms. Thanks to these treatments, Austin now attends college and interns at a biotech company. Max attends his local high school in Newton, Massachusetts. Both are able to get around in wheelchairs, and neither needs ventilation. McNary just rented an apartment for her boys because they can function on their own with the help of an aide.

By all accounts, the drugs have been transformative, McNary said. But, she added, her boys "aren't going to be cured," and extending and improving their life for an unknown period of time comes at a high price. Emflaza came onto the market in 2017 at an annual cost of $65,000. Exondys 51 appeared in 2016 at $748,500. Neither of the drugs will help the young men walk again and, in the eyes of some U.S. health economists, the drugs are not worth the price.

That's why McNary hates the quality-adjusted life year (QALY, pronounced "qua-lee"), an economic calculation that attempts to quantify the value of a medical intervention, based in part on the quality of life it bestows on recipients.

First developed by U.S. economists in the late 1960s and early 1970s, variations of the QALY have been used for years by governments around the world to help determine what treatments citizens can obtain under public health care. In America's free-market health care system, however, QALY calculations have largely been avoided. As McNary and others like her are finding out, that's starting to change.

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As policymakers and insurance companies scramble to get a handle on skyrocketing health care costs, they are promoting the idea of paying for value. In this view, drugs designated as higher-value should be prioritized over lower-value treatments. But this raises a thorny question: Who gets to define "value"? Health economists and insurance companies who seek to use limited health care dollars judiciously? Or patients, parents, and doctors who want to receive the best health care for their situation?

Because the quality-adjusted life year threatens her sons' ability to get the medicine they need, McNary is clear about her answer. "To me, the QALY is a measurement that says that keeping my sons alive by providing incremental benefit but not totally curing them is never going to be valuable," McNary said. "Just mull that around in your head if you are less than perfect, you are worth less money."

* * *

In QALY math, a year of perfect health is equal to 1; death equates to 0. The value of other health states is derived from surveys of patients, caregivers, or the general public. Paralysis might be valued at .35, for example, and mild Alzheimer's disease at .52, depending on the survey. Those numbers can then be plugged into a formula that allows the relative cost-effectiveness of treatments to be compared to identify the best buys.

Economists developed the QALY concept more than 40 years ago to address a fundamental question: "Where should we spend whose money to undertake what programs to save which lives with what probability?' Richard J. Zeckhauser and Donald Shepard asked in a 1976 article describing the basic QALY formula. The next year, as U.S. health care spending topped $120 billion, Harvard health policy professor Milton C. Weinstein and his colleague, cardiologist William B. Stason, sounded an alarm bell. "It is now almost universally believed that the resources available to meet the demands for health care are limited," they wrote in the New England Journal of Medicine. "We, as a nation, will have to think very carefully about how to allocate the resources we are willing to make available for health care."

Their article cited by other authors more than a thousand times in the past four decades pointed out that resources were already being allocated by millions of individual decisions: hospitals rationing beds where they didn't have room for all patients, for example, and insurers agreeing to pay for some tests and treatments but not for others. Such decisions, they argued, were often inconsistent with the "societal objective of deriving the maximum health benefits from the dollars spent," an objective that could be achieved by putting the QALY to work.

In the intervening decades, some countries the United Kingdom, the Netherlands, and Sweden, for example have embraced QALY-based evaluations. In the U.K., cost-effectiveness studies are used, in part, to determine which therapies the National Health Service will provide for residents. The publicly-funded health system does not cover Orkambi, the first cystic fibrosis treatment that targets the cause of the disease, for example, because its cost-per-QALY far exceeds the U.K. cost-effectiveness threshold.

In the United States, however, QALY-based assessments have not gained traction until recently. "Perhaps the general reason is that we as patients and our providers don't want to be limited in the treatment options available," said Louis P. Garrison Jr., an economist in the Pharmaceutical Outcomes Research and Policy Program at the University of Washington.

In fact, QALY-based cost-effectiveness reviews are so controversial that the federal government has repeatedly quashed their use. In 1992, the Department of Health and Human Services rejected Oregon's attempt to use QALY-based cost-effectiveness assessments to determine what services its Medicaid program would cover. In 2010, as part of the Patient Protection and Affordable Care Act, Congress prohibited the use of QALYs by the Medicare program. It also banned the federal Patient-Centered Outcomes Research Institute from using QALY thresholds in its assessments of comparative treatments.

* * *

A QALY Primer

A QALY reflects quality of life and length of life. A year in "perfect health" is worth 1 QALY, death is worth 0 QALYs, and other health states fall between 0 and 1. The amount that a drug lengthens or improves the quality of life is calculated as "QALYs gained." The cost of getting a certain level of health improvement is the "cost per QALY gained," shown here for several interventions targeting asthma.

But more than half of U.S. residents are covered by private insurance companies, which are not prohibited from using QALY-based assessments to decide which medicines they will cover for their members. Traditionally, however, private insurers have generally not used QALYs explicitly in their decisions about what tests and treatments they will pay for, according to a recent report by the National Council on Disability. Instead, when major U.S. insurers decide to limit access to a given medication, they usually cite insufficient data to justify its use in a given situation.

Indeed, until recently, U.S. insurers did not have a source for QALY-based cost-effectiveness reports. That began to change in 2014, when the Institute for Clinical and Economic Review, a nonprofit research organization based in Boston, turned its attention to high-cost drugs. Founded in 2006 as a research project based at Harvard Medical School, ICER initially issued reports on broad topics such as obesity management and palliative care. But when Sovaldi, a drug for deadly hepatitis C, came on the market at the then-shocking price of $84,000 for a 12-week course of treatment, ICER kicked into action. Despite the high price, its assessment found that Sovaldi is cost-effective for some patients. Insurers took notice.

Since then, the organization has been churning out several drug-assessment reports each year. Each report includes its opinion of how much the drug is worth; drugs priced higher than that are deemed not cost-effective. ICER has no authority over anyone, but its reports have become popular reading for U.S. insurers. "If there is a drug of note being approved by the FDA, there's also likely going to be an ICER assessment of that drug that can factor into their decision-making," said David Whitrap, the research organization's vice president of communications and outreach.

* * *

U.S. health care spending has risen dramatically since Weinstein and Stason expressed concern in the mid-1970s. In 2016, the U.S. spent nearly 18 percent of its gross domestic product on health care, far outstripping the average of 11 percent for 10 other high-income nations. High prices for prescription drugs is one reason. "We're seeing price tags now of $1 million, $2 million," said Seema Verma, administrator for the federal Centers for Medicare and Medicaid Services, at a conference recently. "That's completely unsustainable for the system."

That's why Peter Neumann, director of the Center for the Evaluation of Value and Risk in Health at Tufts Medical Center, said cost-effectiveness analyses are needed more than ever. But there are many reasons for the resistance, Neumann and his co-authors wrote in the Journal of the American Medical Association, including "an inclination on the part of many individuals in the United States to minimize the underlying problem of resource scarcity and the consequent need to explicitly ration care."

Further, Ari Ne'eman, a disability rights activist and consultant to Partnership to Improve Patient Care, a coalition of advocacy groups, said the idea that two health conditions can be numerically compared to one another is simply wrong. "Proponents of the QALY will say it is this mathematically perfect measure that gives us a superpower ability to compare depression drugs to cystic fibrosis drugs to cancer drugs even though all of those drugs do different things because it lets you translate them back to this common measure," he said. "Our concern is that when you engage in that process of translation, you lose some significant nuance in terms of the amount of benefit that's being delivered."

The Partnership argues the QALY calculation is flawed because it assumes quality of life can be captured by a certain number, despite the fact that different surveys arrive at different numbers. For example, a 2006 quality-of-life survey in the U.S. assigns blindness/low vision as .69 on the 0-to-1 scale, while a 2011 survey in the U.K. gives blindness/low vision a score of .78.

Beyond the methodological issues, Ne'eman said, "there are all kinds of ethical problems with it." People with disabilities and chronic medical conditions may value a treatment that offers an incremental improvement in the quality or length of their lives, even though the "QALYs gained" are less than those for a treatment that prevents the loss of perfect health.

Former U.S. Representative Tony Coelho, a Democrat from California and a primary author of the Americans with Disabilities Act, is the Partnership's chairman. "I worry that more focus is being given to what is most cost-effective for the 'average patient' than creating a system that works for each individual patient," he wrote in 2018. "The medication I take for epilepsy isn't 'high value' for every patient. But it's the only one that works for me."

That's why, Ne'eman said, cost-effectiveness analyses must consider the fact that not all patients respond the same way to a drug. Some patients need drugs that aren't deemed cost-effective for the general population. It's important to account for that, he said. "Otherwise we're giving insurers a tool to deny care to people who need it."

When an insurer decides to cover a specific drug, that decision affects everybody who pays into the insurance pool. Michael Sherman, chief medical officer for the insurer Harvard Pilgrim Health Care, uses the example of a gene therapy that costs $1 million to treat a child who will die without it. Under the ACA, families will hit their out-of-pocket maximum at about $16,000, and many health plans have out-of-pocket maximums far below that. "The rest of that million dollars is going to be paid by everyone else that's the way it works in insurance," he said. When insurers see that kind of unanticipated budget impact, they raise premiums or out-of-pocket cost-sharing for everyone.

Like other proponents of the QALY, Neumann sees it as an imperfect but useful tool. "Any single number is never going to capture everything," he said.

"The problem is, if you're not going to use QALYs, what are you going to use?"

* * *

That's an urgent question, particularly now when there is a huge pipeline for rare-disease therapies, often called orphan drugs. By 2024, orphan drug sales are expected to reach $242 billion.

In the U.S., a rare disease is defined as one that affects fewer than 200,000 people. While these conditions are individually rare, in the aggregate, an estimated 25 to 30 million Americans that's about one in 10 live with a rare disease. Most rare diseases affect children, and many are fatal or disabling.

Historically, drugmakers spent little effort developing treatments for rare diseases, but that changed with the passage of the Orphan Drug Act of 1983, which provides tax credits and a seven-year marketing exclusivity to companies that develop rare-disease treatments. Hundreds of such treatments have won FDA approval in recent years, with more than 560 medicines in the works.

Those treatments are generally expensive. On average, the per-patient cost for orphan drugs in the U.S. is almost 4.5 times more than for non-orphan drugs.

In the two decades ending in 2017, the average annual cost for orphan drugs was $123,543, based on the price at the time the drug launched, compared to $4,961 for traditional drugs. For Duchenne alone, more than 30 orphan therapies are in development. None of them are going to cure patients, McNary said. But she hopes new treatments, generally used in combination, will help her sons live longer, healthier lives and completely change the disease trajectory for younger patients whose disease has not yet progressed as far.

The barrier she worries about is cost-effectiveness analysis. In August, the Institute for Clinical and Economic Review published its assessment of treatments for Duchenne, which affects about 400 to 600 boys born in the U.S. each year. Emflaza, the corticosteroid, appears to be as good as or better than prednisone, another corticosteroid approved to treat the disease, but it would need a price cut of at least 73 percent to be considered cost-effective.

Exondys 51 approved by the FDA for about 13 percent of the Duchenne population got a worse review. In the clinical trials used to seek FDA approval, no clinical benefit, including motor function improvement, was demonstrated. (The FDA approved the drug because some of the patients treated with Exondys 51 had a slight increase in dystrophin levels in skeletal muscle.) In light of that, Exondys 51 was not deemed cost-effective at any price.

But Jenn McNary said the drug works for her sons. Austin, who was not eligible for the Exondys 51 clinical trial, stopped walking at age 10. Max got in the trial and started taking the drug at age 9."They have the same mutation, they have been raised by the same mother, so one would expect they would progress similarly," she said. "But Max walked until he was 17."

Austin was already in a wheelchair when, at age 15, he started taking Exondys 51. He regained some upper-body strength that changed his life, according to his mother. "He's able to use a urinal on his own, which makes is possible for him to have a job and to go to college without an aide," she said.

The Medicaid program in Massachusetts, where the McNarys live, won't pay for Max's Duchenne therapies. For the time-being, the drugmakers are giving him the drugs free through a patient-assistance program. Austin, because he's enrolled in college, is eligible for student coverage through Blue Cross Blue Shield of Massachusetts. The insurer, by policy, does not cover Exondys 51 for patients who can no longer walk. His mother appeals the insurance denial. Every six months, she sends a video of Austin in action, along with a letter from his doctor and so far, his medicines have been covered.

The payers made their coverage policies before the quality-adjusted life year analysis was published. Now, insurers who have been covering the Duchenne treatments have an independent analysis with which to rethink that decision.

For now, there is one thing that QALY supporters and critics agree on. "Very promising drugs are coming, and they're going to be very expensive," said Neumann, the health economist at Tufts. Increasingly, the QALY appears poised to influence how American health care money is spent.

* * *

Lola Butcher is a health care business and policy writer based in Missouri.

This article was originally published on Undark. Read the original article.

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Here are some tips, treatment options for acne – The Reporter

Sunday, February 2nd, 2020

According to the American Academy of Dermatology, acne affects up to a staggering 50 million Americans annually.

To make matters worse, blackheads, whiteheads, pimples, cysts and other acne-related blemishes seem to occur at the most inconvenient times: before a date, a meeting, class photos, you name it. Although acne is not a serious health threat, severe acne can lead to disfiguring and permanent scarring.

Why do I have acne? Acne is most commonly linked to the changes in hormone levels during puberty, but can start at any age. Certain hormones cause the grease-producing glands next to hair follicles in the skin to produce larger amounts of oil, or abnormal sebum. This abnormal oil changes the activity of harmless skin bacterium called P. acnes, or propionibacterium acnes, which becomes more aggressive and causes inflammation and pus. Certain medications, stress and a poor diet can also contribute to acne. There is also evidence of a genetic component to acne as well.

Types of treatments: Because acne is caused by a myriad of factors, treating it with one product or medicine usually is not enough. You may need to attack it from many angles with different types of treatments that all work differently.

While a pimple will eventually go away, if you have numerous outbreaks, you could end up with scars. This is when it is time to visit a dermatologist, who may suggest a cream, lotion, gel or some that contains ingredients that can help. Many can be bought without a prescription:

Benzoyl peroxide kills bacteria and removes extra oil.

Salicylic acid keeps pores from getting clogged.

Sulfur removes dead skin cells.

Stronger treatments: If some of these over-the-counter remedies do not get your acne under control, your doctor may prescribe a retinoid to be used on the skin. This comes in a cream or gel and helps unplug oil ducts. Antibiotics in cream, lotion, solution or gel form may be used for inflammatory acne.

Isotretinoin is a medicine used to treat severe acne. It is usually used for cystic acne that does not improve after treatment with other medicines. Brand names include Accutane, Amnesteem, Sotret and Claravis. Isotretinoin is the most effective long-term medication for acne but is associated with some risks that dermatologists are familiar with. Spironolactone blocks excess hormones.

When to seek medical help: Even mild cases of acne can cause distress and, in some cases, depression. If your acne is making you feel unhappy or you are having a hard time controlling your blemishes with over-the-counter medication, see your doctor. Try to resist the temptation to pick or squeeze the spots, because this can lead to scarring.

Treatments can take a few months to work, so do not expect immediate results. Once they do start to work, the results are usually good.

Dr. Daniel Shurman of Pennsylvania Dermatology Partners in Amity Township completed his dermatology training at Thomas Jefferson University. He is fellowship-trained in both Mohs micrographic surgery and procedural dermatology, and his research interests include medical genetics, antibiotics in dermatologic surgery and wound healing.

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The first case of coronavirus being spread by a person with no symptoms has been found – Science News

Sunday, February 2nd, 2020

As the 2019 novel coronavirus outbreak continues to spreadin China, researchers have found that people carrying the virus but not showingsymptoms may be able to infect others.

If infected people can spread 2019-nCoV while asymptomatic,it could be harder to trace contacts and contain the epidemic, which is alreadya globalhealth emergency (SN: 1/30/20).

An unnamed Shanghai woman passed the virus to businesscolleagues in Germanybefore she showed signs of the illness, doctors report January 30 in the New England Journal of Medicine. Thewoman had attended a business meeting at the headquarters of the auto supplierWebasto in Stockdorf on January 20 and flew back to China on January 22. Shebecame ill with mild symptoms on the flight back to China and tested positivefor the virus.

Meanwhile, one of her German colleagues fell ill on January24 with a fever, sore throat, chills and muscle aches. His illness was brief,and he returned to work on January 27, the same day that the woman informed thecompany she carried the virus. Nasal swabs and sputum, or phlegm, samples fromthe man contained high levels of the novel coronavirus even though his symptomshad passed.

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Three other employees of the company also tested positivefor the virus. Tracing their contacts, doctors conclude that the first man andanother person caught the virus from their Chinese colleague.

Whats also concerning is that the first man apparently passedthe virus to the other two coworkers, who both had contact with him before hedeveloped symptoms. All cases of the illness have been mild.

These cases suggest that people shed the virus before theyshow symptoms and after recovery from the illness, say Camilla Rothe, atropical medicine and infectious disease specialist at the University Hospital ofLudwig-Maximilians-Universitt in Munich, and her colleagues.

Asymptomatic spread, though common for influenza viruses forexample, would be a new trick for coronaviruses. The coronaviruses that causesevere acute respiratory syndrome, or SARS, and Middle East respiratorysyndrome, or MERS, are notcontagious before people show symptoms (SN:1/28/20).

Another coworker of the firm was confirmed to have the viruson January 30, and a child of one of the infected workers has also contractedthe virus, bringing the case count to six, health officials in the German stateof Bavaria said January 31. The company has closed its headquarters near Munichuntil February 2 and began testing contacts of the ill employees on January 29.

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Here is what you need to know about novel… – ScienceBlog.com

Sunday, February 2nd, 2020

Before a packed room at the Health Sciences Learning Center on the University of WisconsinMadison campus on Jan. 29, Associate Dean for Public Health and Community Engagement Jonathan Temte asked for a moment of silence for those affected by an outbreak of a virus that in a matter of weeks has sickened nearly 10,000 people around the world and killed more than 200 people in China as of Jan. 31.

The virus, a previously unknown member of a class of coronaviruses, was first described in late December 2019 after several cases of illness appeared in people in Wuhan, a city in Hubei province, China. Its name, for now, is 2019-nCoV.

As details of the virus and its effects continue to emerge, UWMadison gathered a panel of experts, including physicians, epidemiologists, public health officials, scientists and communication experts, to address questions and concerns from the public.

Watch a video of the livestreamed event.

The event came together on short notice after the director of the Centers for Disease Control and Prevention, Robert R. Redfield, had to cancel his previously scheduled talk in Madison in order to help manage the outbreak.

Here are some takeaways:

Coronaviruses are relatively common. What makes this coronavirus unique is that it has never been implicated in human disease before. There are several human coronaviruses that cause mild disease and we have known about them for decades now, said Kristen Bernard, a professor in the UW School of Veterinary Medicine. They are the cause for about 30 percent of common colds. They are also the viruses behind the 2003 SARS and 2012 MERS outbreaks, which both killed large numbers of people.

The original source of the virus is probably bats, which serve as a reservoir for large numbers of zoonotic diseases, or those that pass between animals and people. Most of these viruses rely on an intermediary species to render it infectious in people. With SARS, experts believe that species was civet cats, and with MERS, it was dromedary camels. Some early reports blamed snakes for the 2019-nCoV outbreak, but, said Chris Olsen, emeritus professor in the School of Veterinary Medicine: I think we need to take that with a very large grain of salt.

In people, 2019-nCoV is transmitted through coughing and contact with saliva, mucus or the tears of people sick with the virus. Symptoms of illness include cough, fever and shortness of breath. Public health officials are still working to determine whether infected people can transmit the virus to others if they are not symptomatic.

There have been six confirmed cases of 2019-nCoV in the United States since mid-January, and as of Jan. 30, officials in the U.S. reported the first case of person-to-person transmission. There have been no confirmed cases in Wisconsin, though experts continue to monitor patients for symptoms and have sent six potential cases to the CDC for testing. One came back negative for the virus and results are still pending on the remaining samples. Allen Bateman, assistant director in the communicable disease division of the Wisconsin State Lab of Hygiene, said the laboratory is working with local health departments and clinical labs across the state to help with testing and response.

There are no specific cures or treatments for people with 2019-nCoV, but as is the case with many viruses, said Medical Director of Infection Control at UW Hospital and Clinics Nasia Safdar, those who are sick are offered supportive care to relieve symptoms and mitigate complications. And because the symptoms of the novel coronavirus are similar to other kinds of viruses, she and colleagues are working with health care providers to train them on containment and help keep them safe.

There are no cases of 2019-nCoV in Wisconsin at this time, but we are prepared to react if things are changing, said Patrick Kelly, interim director of medical services at University Health Services. On campus, that has meant taking steps to keep more than 40,000 students safe and provide physical and mental health care as needed. It has also meant communicating often with students and their families. An all-campus message sent Jan. 24 shared information about the novel virus and was translated on short notice in five languages.

The state has also been working on the logistics of monitoring and preparing for the virus, said School of Medicine and Public Health (SMPH) Professor of Medicine Ryan Westergaard, also chief medical officer and state epidemiologist at the Wisconsin Department of Health Services. While some areas have couriers to transport samples from the clinic to the state lab for testing, police are serving that role in others. Its been a good learning experience, he said, with people from legislative offices and the governors office at the table to make sure we are coordinating well.

Its important to be prepared for a possible outbreak of coronavirus, but public health officials still remain more concerned about seasonal influenza. That virus has had a greater impact in Wisconsin, and in the U.S., so far this year. Right now, in Dane County and southern Wisconsin, were in the midst of a huge influenza outbreak, said Temte, also a family medicine physician. As of Friday (Jan. 24), 54 children across the country had died of influenza and influenza is one of these diseases for which we have effective vaccines and effective antivirals.

Scientists at UWMadison are monitoring research developments globally. Chinese scientists worked swiftly in the aftermath of the outbreak to decode the genetic sequence of 2019-nCoV and share it with other researchers worldwide. Thomas Friedrich, a professor in the School of Veterinary Medicine, said some researchers are working with that sequence to develop vaccines against the new coronavirus. Some journals where scientists publish, including the New England Journal of Medicine, require researchers to share their raw data for others to use, and many researchers are making data instantly available on widely-used pre-print servers. I think its very important for us to make our information available to the public as much as possible, he said.

Misinformation is easy to spread, so sticking with facts when discussing 2019-nCoV is imperative, said Emily Kumlien, media strategist at UW Health. We work with the experts to get the right information to share with the community at the right time. That includes using social media and other platforms to reach people in the places where they get their news, and where misinformation is most likely to live. I think its everybodys responsibility, said Ajay Sethi, SMPH professor of population health, to serve as educated, informed opinion leaders; to identify misinformation; and to find creative and strategic ways to dispel that.

Officials believe the novel coronavirus originated in a seafood and live animal market in Wuhan. But shutting down these kinds of markets broadly would be akin to telling Wisconsinites not to hunt deer, said Bernard. Thats part of their culture and we have to be sensitive to that. However, she added: There are things we can do and thats why basic research is so, so important.

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Snake venom can now be made in a lab and that could save many lives – CNN

Sunday, February 2nd, 2020

It involves milking snake venom by hand and injecting it into horses or other animals in small doses to evoke an immune response. The animal's blood is drawn and purified to obtain antibodies that act against the venom.

Producing antivenom in this way can get messy, not to mention dangerous. The process is error prone, laborious and the finished serum can result in serious side effects.

Experts have long called for better ways to treat snake bites, which kill some 200 people a day.

Now -- finally -- scientists are applying stem cell research and genome mapping to this long-ignored field of research. They hope it will bring antivenom production into the 21st Century and ultimately save thousands, if not hundreds of thousands, of lives each year.

Researchers in the Netherlands have created venom-producing glands from the Cape Coral Snake and eight other snake species in the lab, using stem cells. The toxins produced by the miniature 3-D replicas of snake glands are all but identical to the snake's venom, the team announced Thursday.

"They've really moved the game on," said Nick Cammack, head of the snakebite team at UK medical research charity Wellcome. "These are massive developments because it's bringing 2020 science into a field that's been neglected."

Hans Clevers, the principal investigator at the Hubrecht Institute for Developmental Biology and Stem Cell Research in Utrecht, never expected to be using his lab to make snake venom.

So why did he decide to culture a snake venom gland?

Clevers said it was essentially a whim of three PhD students working in his lab who'd grown bored of reproducing mouse and human kidneys, livers and guts. "I think they sat down and asked themselves what is the most iconic animal we can culture? Not human or mouse. They said it's got to be the snake. The snake venom gland."

"They assumed that snakes would have stem cells the same way mice and humans have stems cells but nobody had ever investigated this," said Clevers.

After sourcing some fertilized snake eggs from a dealer, the researchers found they were able to take a tiny chunk of snake tissue, containing stem cells, and nurture it in a dish with the same growth factor they used for human organoids -- albeit at a lower temperature -- to create the venom glands. And they found that these snake organoids -- tiny balls just one millimeter wide -- produced the same toxins as the snake venom.

The team compared their lab-made venom with the real thing at the genetic level and in terms of function, finding that muscle cells stopped firing when exposed to their synthetic venom.

The current antivenoms available to us, produced in horses not humans, trigger relatively high rates of adverse reactions, which can be mild, like rash and itch, or more serious, like anaphylaxis. It's also expensive stuff. Wellcome estimate that one vial of antivenom costs $160, and a full course usually requires multiple vials.

Even if the people who need it can afford it -- most snakebite victims live in rural Asia and Africa -- the world has less than half of the antivenom stock it needs, according to Wellcome. Plus antivenoms have been developed for only around 60% of the world's venomous snakes.

In this context, the new research could have far-reaching consequences, allowing scientists to create a biobank of snake gland organoids from the 600 or so venomous snake species that could be used to produce limitless amounts of snake venom in a lab, said Clevers.

"The next step is to take all that knowledge and start investigating new antivenoms that take a more molecular approach," said Clevers.

To create an antivenom, genetic information and organoid technology could be used to make the specific venom components that cause the most harm -- and from them produce monoclonal antibodies, which mimic the body's immune system, to fight the venom, a method already used in immunotherapy treatments for cancer and other diseases.

"It's a great new way to work with venom in terms of developing new treatments and developing antivenom. Snakes are very difficult to look after," Cammack said, who was not involved with the research.

Clevers said his lab now plans to make venom gland organoids from the world's 50 most venomous animals and they will share this biobank with researchers worldwide. At the moment, Clevers said they are able to produce the organoids at a rate of one a week.

But producing antivenom is not an area that pharmaceutical companies have traditionally been keen to invest in, Clevers said

Campaigners often describe snakebites as a hidden health crisis, with snakebites killing more people than prostrate cancer and cholera worldwide, Cammack said.

"There's no money in the countries that suffer. Don't underestimate how many people die. Sharks kill about 20 per year. Snakes kill 100,000 or 150,000," said Clevers.

"I'm a cancer researcher essentially and I am appalled by the difference in investment in cancer research and this research."

One challenge to making synthetic antivenom is the sheer complexity of how a snake disables its prey. Its venom contains several different components that have different effects.

Researchers in India have sequenced the genome of the Indian Cobra, in an attempt to decode the venom.

"It's the first time a very medically important snake has been mapped in such detail," said Somasekar Seshagiri, president of SciGenom Research Foundation, a nonprofit research center in India.

"It creates the blueprint of the snake and helps us get the information from the venom glands." Next, his team will map the genomes of the saw-scaled viper, the common krait and the Russell's viper -- the rest of India's "big four." This could help make antivenom from the glands as it will be easier to identify the right proteins.

In tandem, both breakthroughs will also make it easier to discover whether some of the potent molecules contained in snake venom are themselves worth prospecting as drugs -- allowing snakes to make their mark on human health in a different way to how nature intended -- by saving lives.

"As well as being scary, venom is amazingly useful," Seshagari said.

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Snake venom can now be made in a lab and that could save many lives - CNN

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7 ways to expand diversity in precision medicine research – American Medical Association

Saturday, February 1st, 2020

Ethnic and racial minority populations in the U.S. have a long history of being mistreated by the health care system, researchers and the government. The resulting mistrust can pose a challenge for researchers seeking to understand the biology of complex traits, as well as for physicians interested in delivering personalized care to diverse patients. Diversity in precision medicine research is crucial for understanding genetic differences that shape so many health outcomes and potential treatments.

Learn what physicians and health systems can do to advance precision medicine research and build rapport and trust to increase minority participation in critical research.

Genetics and precision medicine have become increasingly important in effective patient care. Through its partnerships and research, the AMA is advancing the ethical implementation of precision medicine.

About 10% of the worlds population is of European ancestry. However, this population accounts for 78% of genetic study participants. The National Institutes of Healths All of Us Research Program aims to address this disparity in medical research by enrolling 1 million or more participants to gather data on a wide variety of health conditions.

The AMA has partnered with the All of Us program, which aims to enable a new era of medicine through research, technology, and policies that empower patients, researchers and providers to work together to develop individualized care. This program is intended to gain better insights into the biological, environmental and behavioral influences on disease to enhance prevention and treatment.

The AMA Ed Hub module, All of Us Research Program: Informing the Future of Health Care, is enduring material and designated by the AMA for a maximum of 0.75 AMA PRA Category 1 Credit.

Learn more about AMA CME accreditation.

There are currently more than 320,000 All of Us participants, with about 250,000 having completed the initial steps of the program. Nationwide, more than 50% of All of Us participants are members of racial or ethnic minority groups. And in Illinois, more than 80% are from groups that have traditionally been underrepresented in biomedical research.

Joyce Ho, PhD, is a research assistant professor and lead investigator for the All of Us Research Program at Northwestern University Feinberg School of Medicine in Chicago. Ho shared how she and her colleagues in Illinois are engaging a diverse pool of participants, and offered advice for how physicians can help.

Were on track to build a sample of 1 million or more participants in the next five years or so, said Ho, adding that Illinois has more than 26,000 participants in the All of Us program to date. The Illinois Precision Medicine Consortium, which includes the University of Illinois, University of Chicago, Rush University Medical Center, NorthShore University Health System, and Cook County Health, is also in the lead nationally for how diverse their participant pool is.

The effort thats needed to reach diverse populations is something that we were prepared to put in, she said. We understood just from the history of research in this countryespecially with underrepresented populationsthat its not just, Hey, heres a consent form, please read it and we know you will participate.

Instead, trust must be built through providing honest and accurate answers to patients questions about precision medicine, the privacy and security of patients data, and more.

Those are all concepts that, regardless of how much you know about biomedical research, or whether you have participated in studies, you deserve a thorough explanation, said Ho.

Learn how to answer patients top five questions about the All of Us Research Program.

The actions of past medical researchers have earned much distrust in minority communities, making it crucial to treat these diverse populations as partners.

Nationally, even at the beginning of designing the All of Us Research Programbecause we know that we have this goal of building a diverse research databasewe made sure that participants are our partners, said Ho.

Participants from all walks of life should be included and valued in the design of the program. Everyone plays a major role.

The National Institutes of Health and its All of Us Research Program partners conducted focus groups to look at everything from participating in research to concepts about precision medicine and sharing data, said Ho. Theres a lot of work ... that we put in to understand how we can really build this resource in a way that includes what different communities want so that we really can benefit the health of people who are living in this country.

One of the most important ways that All of Us Research Program researchers in Illinois have approached this program is in the collaboration of community organizations, health systems and participants. All of Us Research Program investigators in Illinois have decades of experience working with diverse communities in biomedical research.

Transportation is often a barrier to working with underrepresented communities. It can prevent patients from receiving the health care they need. In Illinois, though, mobile clinical research units have allowed researchers to better reach these communities.

Researchers drive these research vehicles containing exam rooms to different communities to engage people about the program. They also leverage long-standing relationships with area churches, community organizations and clinics to engage community members.

That breaks down a lot of the barriers with transportation that happens in many of the communities here in Chicago, said Ho. It really makes a big difference in terms of being able to reach this community.

Engagement is keyin creating a diverse community of participants for precision medicine and biomedical research.

When we go out to talk to folks, we dont immediately ask people to participate. A lot of times, we just have great conversations with people about biomedical research, said Ho. A lot of times we are addressing a potential mistrust that has very reasonably existed in different communities.

For example, the University of Chicago has developed curriculum aimed at addressing mistrust, biomedical research and importance of research inclusion, especially among the African American community.

Our teams develop different engagement tools and strategies to reach communities that have been underrepresented in research, she said, adding that it goes beyond talking to someone for five or 10 minutes before they participate.

Instead, it is multiple conversations over time, and letting participants know that we aim to return health information back to them and perhaps in the future, they might decide to participate, said Ho.

And once participants have shared their information, it is important to reiterate that there will be a waiting period.

One of the challenges is to really explain to participants this is a long-term program and it really takes a lot of time and patience for us to be able to return the value back to you that you deserve, she said.

One of the missions of the program is not just building 1 million people and collecting all this data. Its just to have substantive conversations with people about the importance of inclusion in biomedical research to build awareness, she said.

By creating awareness around precision medicine and building trust within these communities, it is paving the way for future conversations.

Even if theyre being approached by another research group, theyll have a little more trust and understanding about why participation and representation is so important, said Ho.

Illinois All of Us researchers also have a community participant advisory board that provides feedback on the program. Together they discuss additional ways to engage Illinois communities.

These meetings cover items such as how to provide clinically relevant information to participants, which is one of the hallmarks of the program, Ho said. Were not just grabbing the data. Were also planning to return information back to participants.

Not only does the program have a 1-million-person database to build, but they need to have an infrastructure that is ready to process the volume of data and biosamples, while also prioritizing data security and privacy.

Our program spends a lot of resources building as secure of a data system as possible, said Ho, adding that there is also a whole pipeline of generating genomic data and clinically relevant data to return to participants.

Many people are wondering about the security and privacy of the data, so we need to not just build a very secure system, but be able to explain to people what the risks might be so that people can make an informed decision, she said.

One way that the All of Us program is building a robust research resource, is to include EHR data from participants. However, it is important for participants and physicians to know that the data is securely sharedall personal identifiable information is removed.

Data collected will be connected to other data types such as self-reported information, which includes health background and behaviors, as well as medical history, physical measurements and data gleaned from biosamples.

Theres a wide variety of longitudinal data were collecting from participants. Through a research data portal that the program is building, researchers will eventually be able to access data and samples to accelerate medical discoveries for diverse populations. Thats powerful, said Ho.

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7 ways to expand diversity in precision medicine research - American Medical Association

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UNC researchers contribute to breakthrough in HIV cure research – The Daily Tar Heel

Saturday, February 1st, 2020

It is important to note that a pill to cure HIV is not simply around the corner, Dr. David Margolis, director of the UNC HIV Cure Center, said.

Some of the challenges of the virus include how it integrates itself into the genetic material of human cells, Chahroudi said.

"In a way, it becomes a foreign gene that is living in the human cell," Margolis said. "That cell looks like any other cell in the body, so there is no drug or immune response that can see it. Once the sleeping virus is re-awoken, it spreads."

The long-lived persistence of the HIV virus in the body makes it difficult to eradicate, due to latently infected cells that escape the bodys immune system, according to UNC's HIV Cure Center.

When it is silent and integrated into the host cell genome, it is not visible to the immune system, and so the immune system basically doesnt have a way to attack it when its in this latent form, Chahroudi said.

People who are infected with HIV and treated with standard antiviral treatment which is effective at suppressing virus replication are still at risk by HIVs nature, Chahroudi said.

In order to try to enable the immune system to now be able to see the virus in patients or monkeys or mice who are treated with AVT you need to test different approaches to try to reverse that latency, Chahroudi said. That basically means reawakening the virus, or activating the virus, in order to now express viral antigens that can be seen and targeting by the immune system.

The work on this project began in conjunction with the beginning of the UNC and ViiV Healthcare Limited partnership, said Richard Dunham, adjunct assistant professor in the UNC HIV Cure Center and director at ViiV Healthcare.

Its really born at the interface of industry, academia, here at Qura," Dunham said. "We started on this work back in 2016/2017 and then worked our way from the lab to the mouse to the monkey over the last several years.

Chahroudi said that despite the new research discoveries, no cure has been discovered.

Neither of them was able to reduce the level of what we call reservoirs, which is basically a persistent virus that's in cells, Chahroudi said.

Dunham said that about five years ago, UNC and ViiV Healthcare came to the realization that they could make more substantial progress toward curing HIV by working together. In the years that followed, the institutions created Qura Therapeutics and the UNC HIV Cure Center to conduct research.

Emory University's HIV research team was added to further the partnership.

The overall principle here is that no one entity is really going to make that progress against HIV," Dunham said. "We feel like this partnership between industry and academia might help us to take these different and diverse approaches between the two types of organizations to work together to find an HIV cure."

Chahroudi said the next steps for the research include combining both of the latency-reversing strategies discovered at UNC and Emory to boost the immune response against the affected cells.

If were able to reawaken or reactive the virus and then treat the animals with different immune-boosting or aiding strategies, we hope that combination may have an impact on the level of virus reservoirs, Chahroudi said.

The goal for researchers at UNC is to make the chemical that treats latent cells into a drug that can be used in people, Margolis said.

university@dailytarheel.com

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UNC researchers contribute to breakthrough in HIV cure research - The Daily Tar Heel

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