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When will Season 16 of ‘Grey’s Anatomy’ be on Netflix? – TheNationRoar

Greys Anatomy which has a massive fan base is still a big part of Netflixs lineup.

Looking for when season 16 of Greys Anatomy will hit Netflix? Heres everything you need to know.

Greys Anatomy with a lot of viewers has become a dominant force on US network ABC and it continues to be one of the most popular primetime shows on American television.

The series has seen a lot of changes over the past fifteen seasons, but the one character that remains constant is Meredith Grey played by Ellen Pompeo.

Greys Anatomy is not only the longest-running scripted primetime carried by ABC, but this record-breaking season is also the longest-running American primetime medical drama series, exceeding ER, Scrubs, and M*A*S*H.

Usually, all-new seasons of Greys Anatomy arrive in the summer on Netflix.

The fifteenth season had arrived almost one month after the finale had aired on ABC, on the 15th of June.

As per the trends, the new season will wrap up on ABC in the coming 2020 May.

So Netflix will receive season 16 one month after the finale airs.

So we can expect to see season sixteen of Greys Anatomy on Netflix in May/June 2020.

There have been speculations about whether the franchise will renew new seasons after the sixteen seasons or not?

But a sigh of relief was felt among the fans when it was officially announced on 10th May 2019 that Greys Anatomy will come back for two new seasons, 16 and 17 respectively.

The lead actress, Ellen Pompeo has also renewed her contract for two more seasons.

However, the future of Greys Anatomy beyond season 17 remains a mystery.

The popularity of the series is still incredible after all these years but all good things must come to an end eventually.

There have been many rumors that Greys Anatomy will be leaving Netflix as of March 2019.

However, it has been revealed that Greys Anatomy streaming future will still be Netflix.

Netflix library has adopted the series many years and they are considered to be under a legacy contract.

This means that for the foreseeable future Greys Anatomy will continue to stream on Netflix.

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When will Season 16 of 'Grey's Anatomy' be on Netflix? - TheNationRoar

Veritas, a US Genetic Sequencing Company, Suspends US Operations Due to Decreased Funding; CFIUS Thought to be Leading Cause – Lexology

According to news articles published in early December, Veritas Genetics, a Massachusetts-based company that hoped to lower the cost of whole-genome sequencing, is suspending its U.S. operations because of a lack of investment. Articles theorize that the decreased funding was driven mainly by new CFIUS regulations and heightened CFIUS scrutiny.

Early in December 2019, Veritas announced that its adverse financing situation had forced the suspension of its U.S. business. Veritas has stated that it is assessing potential paths forward, and there are rumors that one such path is the sale of the company. Veritas will no longer sell its tests, which include genetic testing for diseases and cancers (such as the BRCA test), in the United States. Veritas will continue to operate and sell its tests outside the United States.

Veritas first launched in 2014, and since 2015 it had raised $50 million in financing. Major investors included Chinese companies, such as Lilly Asia Ventures, which invested $10 million into the company, and Simcere Pharmaceutical. However, there has been increased scrutiny in the past two years for transactions that involve Chinese investors, especially when sensitive personal information, such as genetic information, is at stake. This year, for example, CFIUS forced iCarbonX, the Chinese, majority owner of U.S. company PatientsLikeMe, to divest its stake in the U.S. company.

According to news reports, recent CFIUS activity may have scared away not only Chinese investors but also non-Chinese investors reluctant to invest in a company with Chinese ownership. Non-Chinese investors may fear that Veritass Chinese ownership will lead to increased CFIUS scrutiny of any investment into Veritas, regardless of the investors nationality. Investors may also worry that CFIUS scrutiny could delay their return on investment if their firms are forced to stall business to address CFIUSs concerns.

No doubt the proposed CFIUS regulations from September also concern foreign investors: the proposed regulations explicitly target U.S. companies that maintain or collect sensitive personal data of U.S. citizens. While most sensitive personal data only triggers the proposed regulations if the U.S. business maintains or collects such data on greater than one million individuals, companies with genetic data are considered to be covered businesses no matter how many individuals are involved. Thus, companies like Veritas will always fall under CFIUS jurisdiction if a foreign person would acquire certain rights in the company. These rights include:

Several genetic and biopharmaceutical companies expressed concern in public comments to the regulations that the proposed regulations, specifically including all genetic data in the definition of sensitive personal data, would stymie foreign investment in these companies. Several companies argued that the Department of the Treasury should revise the proposed CFIUS regulations to require that genetic data be identifiable. Companies often are in possession of anonymized genetic information, which these companies argued does not pose a risk to national security. We await publication of the final regulations and whether CFIUS will make any changes to the definition of sensitive personal data, particularly as it pertains to genetic information. It is to be seen whether U.S. companies in other industries will face similar funding obstacles as foreign investors grow more wary of CFIUS.

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Veritas, a US Genetic Sequencing Company, Suspends US Operations Due to Decreased Funding; CFIUS Thought to be Leading Cause - Lexology

Does Myriad Genetics’s (NASDAQ:MYGN) Share Price Gain of 47% Match Its Business Performance? – Yahoo Finance

It hasn't been the best quarter for Myriad Genetics, Inc. (NASDAQ:MYGN) shareholders, since the share price has fallen 20% in that time. In contrast the stock is up over the last three years. However, it's unlikely many shareholders are elated with the share price gain of 47% over that time, given the rising market.

Check out our latest analysis for Myriad Genetics

While markets are a powerful pricing mechanism, share prices reflect investor sentiment, not just underlying business performance. One flawed but reasonable way to assess how sentiment around a company has changed is to compare the earnings per share (EPS) with the share price.

Over the last three years, Myriad Genetics failed to grow earnings per share, which fell 37% (annualized).

Thus, it seems unlikely that the market is focussed on EPS growth at the moment. Therefore, we think it's worth considering other metrics as well.

It could be that the revenue growth of 4.2% per year is viewed as evidence that Myriad Genetics is growing. In that case, the company may be sacrificing current earnings per share to drive growth, and maybe shareholder's faith in better days ahead will be rewarded.

You can see below how earnings and revenue have changed over time (discover the exact values by clicking on the image).

It's good to see that there was some significant insider buying in the last three months. That's a positive. On the other hand, we think the revenue and earnings trends are much more meaningful measures of the business. So we recommend checking out this free report showing consensus forecasts

Investors in Myriad Genetics had a tough year, with a total loss of 8.9%, against a market gain of about 40%. Even the share prices of good stocks drop sometimes, but we want to see improvements in the fundamental metrics of a business, before getting too interested. Unfortunately, last year's performance may indicate unresolved challenges, given that it was worse than the annualised loss of 6.9% over the last half decade. Generally speaking long term share price weakness can be a bad sign, though contrarian investors might want to research the stock in hope of a turnaround. If you want to research this stock further, the data on insider buying is an obvious place to start. You can click here to see who has been buying shares - and the price they paid.

Myriad Genetics is not the only stock insiders are buying. So take a peek at this free list of growing companies with insider buying.

Story continues

Please note, the market returns quoted in this article reflect the market weighted average returns of stocks that currently trade on US exchanges.

If you spot an error that warrants correction, please contact the editor at editorial-team@simplywallst.com. This article by Simply Wall St is general in nature. It does not constitute a recommendation to buy or sell any stock, and does not take account of your objectives, or your financial situation. Simply Wall St has no position in the stocks mentioned.

We aim to bring you long-term focused research analysis driven by fundamental data. Note that our analysis may not factor in the latest price-sensitive company announcements or qualitative material. Thank you for reading.

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Does Myriad Genetics's (NASDAQ:MYGN) Share Price Gain of 47% Match Its Business Performance? - Yahoo Finance

Seattle Genetics Submits New Drug Application to the US FDA for Tucatinib – OncoZine

Based on the results of the pivotal HER2CLIMB Trial (NCT02614794) presented at the 42nd San Antonio Breast Cancer Symposium (SABCS) held in San Antonio, Texas, December 10 14, 2019, and data published in the New England Journal of Medicine (NEJM), Seattle Genetics confirmed that the company completed the submission of a New Drug Application (NDA) to the U.S. Food and Drug Administration (FDA) for tucatinib.

Tucatinib is an investigational, oral, small molecule tyrosine kinase inhibitor (TKI). Tyrosine kinases are enzymes that are a part of many cell functions, including cell signaling, growth, and division. But in some cases they may be too active or found at high levels in some types of cancer cells. In that case, blocking them may help keep cancer cells from growing.

Tucatinib is highly selective for HER2.

HER2-positive breast cancerPatients with HER2-positive breast cancer have tumors with high levels human epidermal growth factor receptor 2 (HER2), a protein which promotes the aggressive spread of cancer cells.

According to the American Cancer Society, in the United Stated, an estimated 271,270 new cases of invasive breast cancer were diagnosed in in 2019.[1] In addition, based on the available data, between 15% and 20% of all diagnosed breast cancer cases worldwide are HER2-positive.[2]

Historically, HER2-positive breast cancer tends to be more aggressive and more likely to recur than HER2-negative breast cancer.[2][3][4]

In patients with metastatic breast cancer, the most common site of first metastasis is in bone, followed by lung, brain, and liver.[5][6] In about 50% of metastatic HER2-positive breast cancer cases, patients develop brain metastases over time. [2][7]

Although there have been many advances in the treatment of metastatic HER2-positive breast cancer, there is still a significant unmet medical need for new therapies that can impact metastatic disease, especially brain metastases. There are currently no approved therapies demonstrating progression-free survival or overall survival benefit for the treatment of patients with HER2-positive metastatic breast cancer after progression following treatment with trastuzumab emtanzine.[8][9][10]

Combination therapyIn their NDA, Seattle Generics requested the FDA to approve tucatinib in combination with capecitabine (Xeloda; Genentech/Roche) and trastuzumab (Herceptin; Genentech/Roche) for treatment of patients with locally advanced unresectable or metastatic HER2-positive breast cancer, including patients with brain metastases, who have received at least three prior HER2-directed agents separately or in combination, in the neoadjuvant, adjuvant or metastatic setting.

This setting is the same setting for which the investigational drug was recently granted Breakthrough Therapy designation by the FDA and included patients with brain metastases, who have been treated with trastuzumab, pertuzumab (Perjeta; Genentech/Roche), and trastuzumab emtanzine (Kadcyla; Genentech/Roche).

HER2CLIMB TrialThe HER2CLIMB study is a multinational randomized (2:1), double-blind, placebo-controlled, active comparator, pivotal clinical trial included data from 612 enrolled patients.

The trial results published in the NEJM, presented at the SABCS by Rashmi K. Murthy, M.D., assistant professor of Breast Medical Oncology, demonstrated that tucatinib significantly improved progression free survival (PFS) and overall survival (OS) in patients with advanced HER2-positive breast cancer, with and without brain metastasis.

The trial met its primary endpoint of the study demonstrated that the treatment combination reduced the risk of death by 46% compared with trastuzumab and capecitabine alone. The trial also met its secondary endpoints at interim analysis, demonstrating prolonged OS, reduced the risk of death by 34% and extended PFS by 52% among patients with brain metastasis.

Furthermore, with 41%, the overall response rate was higher in the tucatinib group compared with 23% in the standard of care treatment.

This is a uniquely designed trial in that it allowed patients to enroll if they had untreated, treated stable or previously treated, but progressive brain metastasis, Murthy noted.

Brain metastasizes are common in up to half of patients during the disease course, but there are limited systemic treatment options because most available agents have difficulty crossing the blood brain barrier, she added.

Well toleratedThe study results demonstrated that the triplet combination of tucatinib + capecitabine + trastuzumab was generally well tolerated with no unexpected toxicities. In the tucatinib arm the investigators observed diarrhea, hand-foot syndrome, nausea, fatigue, and vomiting, all mostly low grade, as the reported adverse events. Furthermore, there was a low drug discontinuation rate of 5.7% in the triplet arm compared with 3% in the control arm.

This trial verified that tucatinib is both a safe and effective treatment, Murthy explained during the SABCS.

These results are realy unprecedented for late line therapy in locally advanced, metastatic, breast cancer. This is a major treatment advance for patients who have significant unmet medical need. I believe that tucatinib in combination with trastuzumab and capecitabine could be the new standard of care for patients pretreated with multiple anti-HER2 agents including patients with brain metastasis, Murthy said.

Todays submission marks another important milestone for Seattle Genetics and tucatinib, and a potential advance for patients with either locally advanced or metastatic HER2-positive breast cancer, including those with and without brain metastases, said Roger Dansey, MD, Chief Medical Officer at Seattle Genetics.

We look forward to working with the FDA on the review of this application, he concluded.

Clinical trialsTucatinib, Trastuzumab, and Capecitabine for the Treatment of HER2+ LMD NCT03501979A Study of Tucatinib vs. Placebo in Combination With Ado-trastuzumab Emtansine (T-DM1) for Patients With Advanced or Metastatic HER2+ Breast Cancer NCT03975647A Study of Tucatinib vs. Placebo in Combination With Capecitabine & Trastuzumab in Patients With Advanced HER2+ Breast Cancer (HER2CLIMB) NCT02614794

References[1] American Cancer Society, Cancer Facts and Figures 2018-2019.[2] Loibl S, Gianni L (2017). HER2-positive breast cancer. The Lancet 389(10087): 2415-29.[3] Slamon D, Clark G, Wong S, et al. (1987). Human breast cancer: correlation of relapse and survival with amplification of the HER-2/neu oncogene. Science 235(4785): 177-82.American Cancer Society (ACS) (2018). Breast cancer HER2 status. Last accessed: December 20, 2018.[4] Kennecke H, Yerushalmi R, Woods R, et al. (2010). Metastatic Behavior of Breast Cancer Subtypes. Journal of Clinical Oncology 28(20): 3271-7.[5] Berman AT, Thukral AD, Hwang W-T, et al. (2013). Incidence and Patterns of Distant Metastases for Patients With Early-Stage Breast Cancer After Breast Conservation Treatment. Clinical Breast Cancer 13(2): 88-94.[6] Duchnowska R, Loibl S, Jassem J (2018). Tyrosine kinase inhibitors for brain metastases in HER2-positive breast cancer. Cancer Treatment Reviews 67: 71-7.[7] Verma S, Miles D, Gianni L, et al. (2012). Trastuzumab Emtansine for HER2-Positive Advanced Breast Cancer. New England Journal of Medicine 367(19): 1783-91.[8] Geyer CE, Forster J, Lindquist D, et al. (2006). Lapatinib plus Capecitabine for HER2-Positive Advanced Breast Cancer. New England Journal of Medicine 355(26): 2733-43.[9] Blackwell KL, Burstein HJ, Storniolo AM, et al. (2012). Overall Survival Benefit With Lapatinib in Combination With Trastuzumab for Patients With Human Epidermal Growth Factor Receptor 2Positive Metastatic Breast Cancer: Final Results From the EGF104900 Study. Journal of Clinical Oncology 30(21): 2585-92.

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Seattle Genetics Submits New Drug Application to the US FDA for Tucatinib - OncoZine

Scientists’ articles have been published in top journals – Mirage News

The Department of Sports and Health Tourism, Sports Physiology, and Medicine of the Faculty of Physical Education has had its anniversary celebration 10 years from its founding. The staff of the department made a good gift for the anniversary: they published three articles in Q1 journals in the areas of medicine, biochemistry, genetics, and molecular biology.

2019 was a very busy year for the department: the team carried out two projects with the support of the Russian Science Foundation. The first is devoted to the study of myokines special proteins that are produced by muscles during physical exercise (the project manager is Professor Leonid Kapilevich, head of the department). In the second project, the effect of physical exertion on the compensation of type 2 diabetes mellitus was studied (the project manager is Professor Alexander Chibalin, a staff member of TSU and Karolinska Institute, Sweden). This resulted in 15 scientific articles in journals included in the international databases Web of Science and Scopus, including three articles in journals from the first quartile.

The article Transcriptomic Changes Triggered by Ouabain in Rat Cerebellum Granule Cells: Role of 3- And 1-Na +, K + -ATPase-mediated Signaling was published in PLoS ONE (the USA journal, impact factor 6.26, 27th of 2,836 journals in the category Medicine Myology). In this work, the role of monovalent ions (sodium and potassium) as regulators of intracellular processes was studied.

This is a fundamentally new approach, explains Leonid Kapilevich. Traditionally, calcium is considered the main ion that is the regulator of cellular metabolism, especially in muscles. However, the team showed that it is the ratio of sodium and potassium in the cell that is able to regulate the process of gene transcription, moreover, regardless of calcium.

The article Elevation of Intracellular Na + Contributes to Expression of Early Response Genes Triggered by Endothelial Cell Shrinkage was published in the journal Cellular Physiology and Biochemistry (published in Sweden, impact factor 5.11, 51stof 2,124 journals in Biochemistry, Genetics and Molecular Biology ). This article continues the research whose results are described in the previous article. Here, an attempt is made to understand how sodium ions affect the metabolic processes in the cell. It was found that one of the most likely ways is by changing the osmotic pressure of the cytoplasm and, as a consequence, the volume of the cell and its components.

The article Low AS160 and High SGK Basal Phosphorylation Associates with Impaired Incretin Profile and Type 2 Diabetes in Adipose Tissue of Obese Patients was published in the journal Diabetes Research and Clinical Practice (published in the Netherlands, impact factor 3.26, 26th of 133 journals in Internal Medicine). The study examined molecular changes in adipose tissue in patients with diabetes, which contribute to impaired glucose metabolism and can serve as a target for the therapeutic effect of exercise.

The tenth anniversary against the background of the centennials of other departments and faculties looks, of course, modest, but even for this short period the department has something to be proud of, says Leonid Kapilevich. During this time, two doctoral and nine masters theses were defended at the department, 15 student manuals were published, 115 articles were published in journals included in international databases, five monographs, and two grants from the Russian Science Foundation were won.

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Scientists' articles have been published in top journals - Mirage News

An Alzheimer’s research pioneer, right here at Penn – Penn: Office of University Communications

A primary project for Garrett Gibbons, a postdoctoral researcher at the Center for Neurodegenerative Disease Research (CNDR), is to develop novel tau antibodies as possibletherapies to treat Alzheimers disease. When in the thick of it, the scientific process becomes a huge, timelyand sometimes redundanttask.

One particular experiment comes to mind: Gibbons and his colleagues were injecting tau into mice models, which the mice developed antibodies against, and when they were harvested, the cells were paired with another cell to make a hybridoma. The problem? After two times running the full experiment, the antibodies still didnt meet certain criteria to be applicable.

Gibbons, quite disheartened, told his adviserVirginia Man-Yee Lee, a Perelman School of Medicine professor and director of CNDR, that the benchmark was too high.

Virginia was like, Well, try again, Gibbons recalled. She pushed back and said how she thought we could do better.

Although admittedly frustrated at the time, Gibbons rethought the project, and, ultimately, underwent a revamped test a third time.

And we got better antibodies, performing better than the previous ones, he said. They are now the candidates that we are evaluating as immunotherapy in mice, as potential treatments for Alzheimers disease.

It is safe to say, noted Gibbons, that without this kind of persistence from Lee, Alzheimers research wouldnt be nearly as developed as it is today. A pioneer in the field of neurodegenerative diseases, Lee was recently recognized for her four decades of work with a $3 million Breakthrough Prize in Life Sciences, an award backed by major technology leaders from companies including Google and Facebook.

Growing up in Hong Kong in a very traditional Chinese family, my mother never wanted me to become a professional, let alone a scientist, Lee said to the crowd, while accepting her Breakthrough Prize at the Oscars of Science in Silicon Valley in early November. Thankfully John Trojanowski, my life partner and collaborator, convinced me to embark on this wonderful journey with him, identifying proteins that are involved in devastating neurological diseases, which affect more and more of us, but have no effective treatment.

Lee, with a background in biochemistry and neuroscience, and Trojanowski, who studied pathology and neuropathology, have toiled alongside each other at Penn since the mid-1980s. They began work in Alzheimers research when it was very uncommon to do soin fact, their mentors urged them to stay far, far away from it.

What [our mentors] saw as a swamp, said Trojanowski, we saw as a huge challenge and opportunity that has led to an engaging career.

Before Lee and Trojanowski, prior studies had determined that an Alzheimers patients brain progressively accumulates plaques, abnormal clusters of protein fragments called beta-amyloid, that build up between nerve cells, and tangles, which form inside dying cells. Using this as a starting point, the duo detected their first major finding in 1991: that tau is the building block protein of the neurofibrillary tangles.

In 1997, Lee and Trojanowski found that Lewy bodies, the hallmark brain pathology of Parkinsons disease, are formed by alpha-synuclein. Knowing what causes Lewy bodies is important to Alzheimers researchers because about 50 percent of Alzheimers patients have Lewy bodies that contribute to cognitive deficits.

Then, in 2006, they discovered the pathological protein deposits in amyotrophic lateral sclerosis, or ALS, and frontotemporal degeneration, or FTD, are formed by TDP-43, a multifunctional DNA- and RNA-binding protein, and these deposits are also present in a large number of Alzheimers patients brains.

Lee was specifically recognized for the Breakthrough Prize for discovering TDP-43 protein aggregates in FTD and ALS, and revealing that different forms of alpha-synuclein, in different cell types, underlie Parkinsons disease and Multiple System Atrophy.

This is exceptionally important work, and we are very proud that it is taking place at Penn. Penn President Amy Gutmann

The discoveries led by Dr. Lee and her team are extraordinary, and absolutely worthy of the prestigious Breakthrough Prize, said Penn President Amy Gutmann, who went to Silicon Valley to support Lee in receiving her honor. Dr. Lee and her team have worked to fully understand the different segments of Alzheimers disease and other related disorders, using that knowledge to develop models that are becoming the foundation for therapies that will, hopefully, stop or reverse these diseases. This is exceptionally important work, and we are very proud that it is taking place at Penn.

Its rewarding, Lee said, to reflect on how researchers are becoming increasingly interested in TDP-43s involvement in neurodegenerative diseases, and the biology that is able to follow, now.

It is gratifying that people can, and people are very interested in, using the system that weve built to identify potential therapies, Lee explained. I am really optimistic that maybe some treatment for Alzheimers and Parkinsons will become available in the next, lets say, one or two decades.

Gibbons, who can distinctly remember being a teenager and watching his grandfather cope with all the stages of Alzheimers, as well as the impact it had on his family, knew rather early it would be a field he would want to pursue. But, it wasnt until he was immersed in the research that he realized how complicated it really was.

When I first got to Penn, I was kind of blown away with the challenge and sort of became cynical and pessimistic, Gibbons said. But I like the way that Dr. Lee continues to forge ahead and isnt overwhelmed as a young investigator, that gives me a lot of inspiration and hope. Of course there will be failures, and of course science is hard. This is worthwhile, and we will get there.

In terms of Lee as a leader, Mike Henderson, a research associate in her lab, said he appreciates the way she guides him in his learning, but also provides him with the independence needed to encourage innovative, out-of-the box thinking.

She really shows you what it takes to be a good scientist in the field, he said, adding how inquisitive Lee always is. Shes very curious and I think thats really what has driven her lab and what has made her so successful.

The main reason Henderson came to Penn, he noted, was to work not only with Lee and Trojanowski, but also with the team theyve assembled through the creation of the CNDR, which celebrated its 25th year in 2018. About 50 people are part of the center today.

From the Maloney Building on Penns campus, where CNDR is housed, Lee and Trojanowski have been able to foster multidisciplinary collaborations between basic and clinical scientists, and provide resources to enable the very best research projects, including a brain and biosample bank, a drug discovery program, data management and biostastic support, and expertise in biochemistry, histology, molecular biology, microscopy, tissue culture, and genetics.

John and I spent a lot of time developing an infrastructure to do this type of work, and Penn has been such a fantastic environment, said Lee, who acknowledged all of her collaboratorsstudents, postdocs, and staff scientistsat the Breakthrough event. I truly want to thank them for their dedication and commitment, she said.

Talking later, Trojanowski added, They have made possible all that we have accomplished.

There is no doubt about it: Talking about his beloved wife of 40-plus years is probably one of Trojanowskis favorite things to do. Shes always pushing herself to be better, and shes always pushing me to be better. She is driven, hardworking, very bright, determinedall of the things that you expect to see and need to see in people that are going to be as successful as she is.

Not only is she passionate about science, he adds, shes determined to solve any problem she ever sets her eyes on. Plus, shes an amazing preceptor, trainer, encourager of science in young people. She is just exceptional, he added.

Trojanowski attended the Breakthrough event with his wife, thrilled to stand by her side on such an exciting day. Its an outstanding recognition, he said.

One might think a $3 million check in the bank could be a ticket out of work, but for Lee, she was back in Philadelphia after just a couple days. As always, she rode her bike to the officeready and willing to take on her next challenge.

What Id like to do in the next 10 to 20 years, Lee said, is really work with companiespharmaceutical companies and biotechnology companiesto come up with treatments.

Virginia Man-Yee Lee is the John H. Ware 3rd Endowed Professor in Alzheimers Research in the Department of Pathology and Laboratory Medicinein the Perelman School of Medicine.

John Q. Trojanowski is the William Maul Measey - Truman G. Schnabel, Jr., M.D. Professor of Geriatric Medicine and Gerontology in the Department of Pathology and Laboratory Medicinein the Perelman School of Medicine.

The Breakthrough Prize in Life Sciences, founded in 2013, honors transformative advances toward understanding living systems and extending human life. It is sponsored by Sergey Brin, Priscilla Chan and Mark Zuckerberg, Pony Ma, Yuri and Julia Milner, and Anne Wojcicki.

Homepage photo: Today, about 50 people make up the Center for Neurodegenerative Disease Research, led by Lee and Trojanowski, who both expressed how thankful they are for such a great team.

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An Alzheimer's research pioneer, right here at Penn - Penn: Office of University Communications

Research Fellow in Vascular Stem Cell Biology job with QUEENS UNIVERSITY BELFAST | 190420 – Times Higher Education (THE)

Application closing date 02/01/2020 Salary 33,797 - 40,322 per annum Job category/type ResearchAttachments

Job description

Queen's University Belfast is a driver of innovation based on our talented, multinational workforce. Throughout the University, our academics are collaborating across disciplines to develop new discoveries and insights, working with outside agencies and institutions on projects of international significance. We are connected and networked withstrategic partnerships across the world, helping us to expand our impact on wider society locally, nationally and globally. The University is committed to attracting, retaining and developing the best global talent within an environment that enables them to realise their full potential.

We are a leader in gender equality and diversity, and are one of the UK's most successful universities in the Athena SWAN initiative which promotes gender equality and career progression. The School of MDBS holds an Athena SWAN Silver award in recognition of our commitment and success in addressing gender equality, representation, progression and success for all our staff. We are ranked 1st in the UK for knowledge transfer partnerships, (Innovate UK) 9th in the UK for University facilities (Times Higher Education Student Experience Survey 2018) and 14th in the UK for research quality (Times and Sunday Times Good University Guide 2019).

Based in Belfast, a modern capital city, our beautiful campus is surrounded by abundant acres of parkland and is renowned as one of the safest and affordable cities in the UK. The choice of local Schools from pre-nursery upwards are some of the best available, and lovers of the outdoors can enjoy any number of activities from rowing and kayaking to top class golf among many others. We are immensely proud of what our city and our University will offer you.

Our five core values - Integrity, Connected, Ambition, Respect, Excellence - are shared by our staff and students, representing the expectations we have for ourselves and each other, guiding our day-to-day decisions and the way we behave as individuals in an international organisation.

The Wellcome Wolfson Institute for Experimental Medicine (WWIEM) is an interdisciplinary research centre which is committed to the highest quality scientific endeavour, with over 250 basic and clinical scientists working on site.Our mission is to understand the mechanisms of disease and use that understanding to develop innovative new treatments and therapies to improve patient outcomes.

We are recruiting for a Research Fellow to join the Vascular Stem Cell Biology Research team within the WWIEM led by Prof Alan Stitt to work on a project funded by the British Heart Foundation (BHF). The project will employ in in vitro and in vivo model systems and cell and molecular biological approaches to investigate the regulation of metabolism in vascular progenitors to improve tissue regeneration in ischaemic disease. The successful candidate will design, develop and refine experimental models to investigate vascular repair and re-perfusion of ischaemic tissues in order to obtain reliable and reproducible data.

The successful candidate must:

Candidate Information

Informal enquiries may be directed to Dr Christina O'Neilll via email:christina.oneill@qub.ac.uk

About the GroupFurther Information about the InstituteFurther Information for International ApplicantsNote to EAA Applicants on Brexit

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Research Fellow in Vascular Stem Cell Biology job with QUEENS UNIVERSITY BELFAST | 190420 - Times Higher Education (THE)

Biological Imaging Reagents Market is Expected to Create New Opportunities By 2027 – Market Research Sheets

Transparency Market Research has published a new report on the biological imaging reagents market for the forecast period of20192027. According to the report, the globalbiological imaging reagents marketwas valued at ~US$ 13.5 Bnin2018and is projected to expand at a CAGR of8.5%from2019to2027.

Global Biological Imaging Reagents Market:Overview

Biological imaging reagents are substances used in research and diagnosis purposes in imaging modalities, to enhance THE visualization of internal organs and in vivo live cell imaging. These reagents are used in different imaging modalities such as X-ray, MRI, and ultrasound for THE diagnosis of different diseases, as well as in drug discovery.

Growth of the global biological imaging reagents market can be attributed to the rise in the demand for diagnostic imaging procedures across the globe. Asia Pacific is a highly lucrative market for biological imaging reagents, due to the improving healthcare infrastructure and increase in the geriatric population. North America dominated the global biological imaging reagents market in2018,and the trend is projected to continue during the forecast period, due to the higher prevalence of diseases and high number of imaging procedures.

Request Sample of Biological Imaging Reagents Market Report

https://www.transparencymarketresearch.com/sample/sample.php?flag=S&rep_id=48474

High Prevalence and Increase in Incidence Rate of Chronic Diseases to Drive Market

The prevalence of chronic diseases has increased in the past few years across the globe. These diseases include cardiovascular diseases, cancer, diabetes, and neurological disorders.

These diseases need diagnostic imaging tests. Life science reagents such as biological imaging reagents are an integral part of a large number of diagnostic imaging tests. Hence, the high prevalence of these chronic diseases and increasing research activities to discover treatments for these diseases are propelling the global biological imaging reagents market. According to WHO, cardiovascular diseases account for around17.9 milliondeaths globally every year, which constitutes an estimated31%of all deaths.

Rise in the number of diagnostic imaging procedures and increase in research activities for new drug development are the other factors driving the global market. Moreover, the launch of new imaging reagents and approval of products for specific indications in the past few years contributed to the growth of the global biological imaging reagents market.

Nuclear Reagents to be Lucrative Option

Based on class, the global biological imaging reagents market has been classified into contrast reagents, optical reagents, and nuclear reagents. The optical reagents segment dominated the global biological imaging reagents market in2018. However, the contrast reagents segment is anticipated to dominate the global market from2019to2027.

Nuclear reagents are expected to be a highly lucrative segment during the forecast period, owing to the better visualization effects of imaging achieved by these reagents and rise in the demand for radiopharmaceutical agents in imaging modalities

Optical Imaging Dominated Global Market

In terms of modality, the global biological imaging reagents market has been categorized into MRI, ultrasound, X-ray & CT, nuclear, optical imaging, and others. The nuclear segment has been bifurcated into PET and SPECT. The optical imaging segment dominated the global biological imaging reagents market in2018, owing to advanced technologies in optical imaging and large number of research activities on this method.

In-vivo to be Promising Application

Based on application, the global biological imaging reagents market has been bifurcated into in vitro and in vivo.The in vitro segment has been classified into proteomics, genomics, and cell biology. In vivo is likely to be a highly promising segment in the next few years, owing to an increase in vivo research activities by CROs for drug discovery, and growth of the biopharmaceutical industry.

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Life Science Companies to be Lucrative End Users

In terms of end user, the global biological imaging reagents market has been divided into diagnostic laboratories, imaging centers, life sciences companies, academic & research institutes, and others. Life science companies are projected to be a highly lucrative segment during the forecast period. The segment is anticipated to expand at a high CAGR from2019to2027. Increase in the research on new drugs & molecules and large number of collaborations between pharmaceutical companies and CROs are the major factors fueling the growth of the life science companies segment.

Competitive Landscape

Bayer AG, Thermo Fisher Scientific, Inc., PerkinElmer, Inc., and Guerbet are the leading players in the global biological imaging reagents market.

The global biological imaging reagents market is fragmented in terms of number of players. Key players in the global market includeBayer AG, Thermo Fisher Scientific, Inc., PerkinElmer, Inc., Guerbet, Lantheus Holdings, Inc., Bracco S.p.A., GE Healthcare, Becton, Dickinson and Company, Siemens Healthineers, and Luminex Corporation.

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Biological Imaging Reagents Market is Expected to Create New Opportunities By 2027 - Market Research Sheets

Did Cellectis Just Provide a Glimpse of the Future of Cellular Medicine? – The Motley Fool

For all of the wondrous potential of immunotherapies, there have been some notable obstacles in the early goings. Engineering immune cells to attack cancerous tumors can lead to solid results shortly after administering a dose, but for many patients the effects wear off once rapidly mutating tumor cells acquire new defense mechanisms.

Cellectis (NASDAQ:CLLS) thinks it may have a partial solution. In mid-November, the gene editing company published the results from a proof of concept study for its "smart" immunotherapy approach. Is the technique the future of cellular medicine?

Image source: Getty Images.

Today, cellular oncology therapies genetically engineer immune cells to bolster their safety and efficacy as a cancer treatment. There are T cells, natural killer (NK) cells, tumor infiltrating lymphocytes (TILs), and others. They're often engineered with chimeric antigen receptors (CARs) or T cell receptors (TCRs), which allow them to home in on and suppress specific genes in cancer cells.

While current-generation CAR T cells or CAR NK cells are capable of mounting formidable attacks on tumors at first, treatment responses aren't durable for all patients. That's because cancer cells mutate to rely on different proliferation genes, or secrete new molecules into the tumor microenvironment that neutralize immune cells. Meanwhile, overstimulating the immune system can reduce the potency of immune cells and lead to devastating side effects, such as cytokine release syndrome.

That prompted Cellectis to design "smart" CAR T cells capable of adapting to changes in the tumor microenvironment. In a proof of concept study, the company utilized synthetic biology concepts to rewire genetic circuits in three different genes of the initial T cells.

One edit made the immunotherapy more potent, but in a controlled manner to reduce off-target toxicity. The other two edits imbued CAR T cells with the ability to secrete inflammatory proteins inside the tumor microenvironment in proportion to the concentration of cancer cells.

In other words, the smart CAR T cells only asked for help from the rest of the immune system when it was needed most, which increased the anti-tumor activity of treatment and made native immune cells less likely to become neutralized. That should reduce the likelihood of triggering cytokine release syndrome, the most common (and potentially fatal) side effect of cellular medicines, which is caused by high concentrations of immune cells.

The study was conducted in mice, which means the safety and efficacy observations can't be extrapolated into humans. But that wasn't the point. The proof of concept demonstrates that the basic idea of engineering tightly controlled genetic circuits into immunotherapies is feasible. It could even allow multiple genetic circuits of the same drug candidate to be tested against one another in parallel, hastening drug development and lowering costs. Is it the inevitable future of cellular medicine?

Image source: Getty Images.

Gene editing tools are required to engineer immune cells. In fact, immunotherapies are the lowest hanging fruit for gene editing technology platforms today. It's simply easier to engineer immune cells in the lab (ex vivo) than it is to engineer specific cell types in the complex environment of the human body (in vivo).

That explains why nearly every leading gene editing company has immunotherapy programs in its pipeline. Coincidentally, all of the leading drug candidates in the industry pipeline are off-the-shelf CAR T cells engineered to treat CD19 malignancies such as non-Hodgkin's lymphoma (NHL) and B-acute lymphoblastic leukemia (B-ALL), regardless of the gene editing approach used. The smart CAR T cells designed by Cellectis targeted CD22 malignancies, but the approach could be adapted to CD19 antigen.

Developer(s)

Drug Candidate

Gene Editing Approach

Development Status

Cellectis and Servier

UCART19

TALEN

Phase 2

Precision BioSciences (NASDAQ:DTIL)

PCAR0191

ARCUS gene editing

Phase 1/2

CRISPR Therapeutics (NASDAQ:CRSP)

CTX110

CRISPR-Cas9

Phase 1/2

Sangamo Therapeutics (NASDAQ:SGMO) and Gilead Sciences (NASDAQ:GILD)

KITE-037

Zinc finger nuclease

Preclinical

Data source: Company websites.

Will these companies eventually turn to "smart" immunotherapies with regulated genetic circuits? It does seem inevitable, especially if the approach can reduce or eliminate cytokine release syndrome and enable more durable responses.

For example, Cellectis reported that all seven patients taking part in the phase 1 trial of UCART19 suffered from at least grade 1 cytokine release syndrome, which caused complications that led to the death of one patient. Five of the seven patients achieved molecular remission, but one relapsed (and remained alive) and one died. To be fair, all patients taking part in the trial had advanced, heavily pretreated B-ALL.

Precision BioSciences has encountered similar obstacles in an ongoing phase 1/2 trial of PBCAR0191. The company's lead drug candidate was administered to nine patients with NHL or B-ALL. Three cases of cytokine release syndrome were reported, but all were manageable. Seven responded to treatment, including two that achieved a complete response, but three eventually relapsed.

CRISPR Therapeutics recently began dosing patients with CTX110 in a phase 1/2 trial that will eventually enroll up to 95 individuals, but initial results won't be available until 2020. Sangamo Therapeutics and Kite Pharma, a subsidiary of Gilead Sciences, are plowing ahead with zinc fingers,but are still in preclinical development.

Investors seem pleased with most of these gene editing stocksright now. After all, despite the obstacles, current-generation cellular medicines are delivering impressive results in patient populations with relatively few options. But upcoming data readouts could easily differentiate the pack. That could increase the need to invest in augmented capabilities, such as smart immunotherapies.

There's plenty of untapped potential in cellular medicine. Today, companies are developing drug candidates with engineered CARs and TCRs designed to test hypotheses about the function of immunotherapies. As approaches find success, measured in safer and more durable responses, the next layer of complexity will be added in an effort to find even more successful therapies. And the cycle will continue.

Therefore, it seems inevitable that the field of cellular medicine will turn to smart immunotherapies with more complex genetic edits, much like the field quickly embraced the need for engineered immune cells and off-the-shelf manufacturing processes. That said, the immediate focus for Cellectis and its peers is building a stable foundation -- and those efforts have only just begun.

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Did Cellectis Just Provide a Glimpse of the Future of Cellular Medicine? - The Motley Fool

Synthetic Biology Industry Outlook to 2024 Featuring Leading Players Active Motif, Bayer, BASF, Cargill, DowDuPont, GlaxoSmithKline, Merck, Novartis…

DUBLIN--(BUSINESS WIRE)--The "Synthetic Biology: Global Markets" report has been added to ResearchAndMarkets.com's offering.

The study scope includes core synthetic biology products (e.g., oligonucleotides, synthetic genes, BioBrick parts, delivery plasmids, chassis organisms, synthetic cells, cell-based and cell-free production systems), enabling technologies (e.g., DNA sequencing, DNA synthesis, gene editing, bioinformatics, specialty media) and enabled technologies (e.g., healthcare, industrial chemicals, consumer products, food and beverage, agriculture) that are already commercialized or are forecast to be commercialized through 2024.

Key synthetic biology technologies and products are analyzed to determine present and future market status, as well as forecasted growth from 2019 to 2024. In-depth discussion of strategic alliances, industry structures, competitive dynamics, patents and market driving forces is also provided.

The author examines the synthetic biology industry by market segment, including DNA sequencing, DNA synthesis, gene editing, synthetic biology foundries and software; as well as the agriculture; consumer products, cosmetics and skin care, food and beverage, healthcare and industrial chemicals enable product sectors.

The role of key strategic alliances and acquisitions from January 2018 to September 2019 is discussed. Emerging markets, including synthetic genes, synthetic-biology-enabled drugs and vaccines, genome-edited crops and chassis organisms; as well as metabolically engineered factories for producing synthetic fuels and specialty chemicals, are analyzed, and more than 215 companies in these fields are highlighted.

The report includes:

Market Insights

The synthetic biology industry is a prime growth opportunity due to several factors. First, many of the applications for synthetic biology have large addressable markets and the penetration rate is still modest; the industry will experience explosive growth as these penetration rates accelerate. Second, development of exciting new technologies is driving innovation within the industry. These technologies include ultra-high-throughput screening platforms for organism design, enzymatic DNA synthesis and novel gene editing platforms. Third, the industry is focusing on value-added products, placing less emphasis on cost-sensitive, commodity products.

Synthetic biology foundries now routinely design, build and test designer organisms capable of producing valuable end products. The workflow includes modifying the genomes of these organisms to produce just the right combination of taste and texture, as for the food industry. Designer organisms in the textile industry help achieve the right combination of strength, flexibility, weight, dimensional variability, and targeted surface and structural modification. High-value synthetic biology end products such as these are forecast to drive significant market growth in this industry.

This report provides in-depth coverage of the dynamic synthetic biology industry, including insights into its component technologies and market segments, as well as its leading participants.

The synthetic biology industry consists of three main sets of technologies and products: enabling, core and enabled. Enabling technologies and products are the engines that drive the development of the synthetic biology industry. Core products and technologies, including standardized DNA parts, synthetic genes and chassis organisms, are the key tools by which cellular factories and systems produce enabled products.

Synthetic biology-enabled products (e.g., pharmaceuticals, chemicals, biofuels, agricultural, textiles, food) have large downstream market potential. Synthetic biology technologies add value in each of these downstream industries. In agriculture, synthetic biology makes it possible to produce crops with desired traits, such as pest resistance or high yields. Synthetic biology allows for the production of foods free of animal products, meeting an emerging consumer need in this industry.

Key Topics Covered

1. Introduction

2. Summary and Highlights

3. Overview

4. Technology Background

5. Synthetic Biology Applications

6. Synthetic Biology Industry

7. Synthetic Biology Markets

8. Patents

9. Company Profiles

For more information about this report visit https://www.researchandmarkets.com/r/9vvv4h

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Synthetic Biology Industry Outlook to 2024 Featuring Leading Players Active Motif, Bayer, BASF, Cargill, DowDuPont, GlaxoSmithKline, Merck, Novartis...