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Biotechnology Market 10-Year Market Forecast and Trends Analysis Research Report2017 2025 – Instant Tech News

Posted: February 17, 2020 at 2:41 pm

TMRR, in its recent market report, suggests that the Biotechnology market report is set to exceed US$ xx Mn/Bn by 2029. The report finds that the Biotechnology market registered ~US$ xx Mn/Bn in 2018 and is spectated to grow at a healthy CAGR over the foreseeable period. This Biotechnology market study considers 2018 as the base year, 2019 as the estimated year, and 2019 2029 as the forecast timeframe.

The Biotechnology market research focuses on the market structure and various factors (positive and negative) affecting the growth of the market. The study encloses a precise evaluation of the Biotechnology market, including growth rate, current scenario, and volume inflation prospects, on the basis of DROT and Porters Five Forces analyses. In addition, the Biotechnology market study provides reliable and authentic projections regarding the technical jargon.

Important regions covered in the Biotechnology market research include Region 1 (Country 1, country 2), Region 2 (Country 1, country 2), Region 3 (Country 1, country 2) and Region 4 (Country 1, country 2).

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The Biotechnology market study answers critical questions including:

The content of the Biotechnology market report includes the following insights:

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On the basis of component, the global Biotechnology market report covers the following segments:

Trends and Opportunities

Growing demand for new technologies such as tissue engineering, fermentation, recombinant technology, and DNA sequencing is expected to magnify the size of the biotechnology industry. Rising demand for food for meeting the unmet needs of the incessantly growing population across the globe and low availability of natural resources that are non-renewable is expected to fuel the growth of the global biotechnology market. Genetic modification and genetic engineering has applications in agricultural food items and is thus is likely to stimulate the adoption of biotechnology further. Moreover, declining prices of technologies related to DNA sequencing is anticipated to trigger the commencement of research and development activities in order to understand genetic variations better and developing therapeutic solutions.

However, the growth of the global biotechnology market is likely to be hampered by due to the high risks associated with genetically modified crops and organisms and also due to ethical issues regarding clinical trials. Lack of understanding of biosystems creates difficulties in predicting the nature of the artificial organisms made from biotechnology experiments. However, the sector can expect more funds owing to the growing need for understanding chronic diseases at a molecular level and conduct novel diagnostic and therapeutic procedures.

Global Biotechnology Market: Market Potential

In April 2016, BASF SE commenced a new research and development center at the Crop Protection division headquarter in Limburgerhof, Germany in order to achieve biological crop protection and seed solutions. In June 2016, BASF signed an agreement in order to acquire Chemetall, a developer and producer of treatment and system solutions for surface treatment. The acquisition is expected to advance the technologies of BASF SE. Another major merger occurred of DuPont with the Dow Chemical Company in order to diversify to diversify its seed and crop protection portfolio.

Global Biotechnology Market: Regional Outlook

North America and Europe are expected to emerge prominent in the global biotechnology market. This progress can be attributed to the rising initiatives in terms of research and development by prime industry players and growing awareness among private and public research institutions. Even the market in Asia Pacific is likely to exhibit lucrative growth opportunities in the coming years owing to favorable regulatory scenarios.

Global Biotechnology Market: Vendor Landscape

Leading players in the market are adopting strategies in terms of acquisitions and mergers and strategic collaborations in order to maintain a strong hold in the market. Some of the leading players in the market are Sanofi, Lonza, Novartis, F. Hoffman La Roche, Genentech, GlaxoSmithKline, Pfizer, Johnson & Johnson, Genzyme, Celgene, Biogen, AstaZeneca, Amgen, and Abbott.

All the players running in the global Biotechnology market are elaborated thoroughly in the Biotechnology market report on the basis of R&D developments, distribution channels, industrial penetration, manufacturing processes, and revenue. In addition, the report examines, legal policies, and comparative analysis between the leading and emerging Biotechnology market players.

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Animal Biotechnology Market By Production, Manufacturer, Revenue Analysis And Forecast To 2028 – TechNews.mobi

Posted: February 17, 2020 at 2:41 pm

The research study presented in this report offers complete and intelligent analysis of the competition, segmentation, dynamics, and geographical advancement of the Global Animal Biotechnology Market. The research study has been prepared with the use of in-depth qualitative and quantitative analyses of the global Animal Biotechnology market. We have also provided absolute dollar opportunity and other types of market analysis on the global Animal Biotechnology market.

It takes into account the CAGR, value, volume, revenue, production, consumption, sales, manufacturing cost, prices, and other key factors related to the global Animal Biotechnology market. All findings and data on the global Animal Biotechnology market provided in the report are calculated, gathered, and verified using advanced and reliable primary and secondary research sources. The regional analysis offered in the report will help you to identify key opportunities of the global Animal Biotechnology market available in different regions and countries.

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The authors of the report have segmented the global Animal Biotechnology market as per product, application, and region. Segments of the global Animal Biotechnology market are analyzed on the basis of market share, production, consumption, revenue, CAGR, market size, and more factors. The analysts have profiled leading players of the global Animal Biotechnology market, keeping in view their recent developments, market share, sales, revenue, areas covered, product portfolios, and other aspects.

In global market, the following companies are covered:Bayer AGMerck &, Inc.Pfizer, Inc.SanofiBiogenesis BagoSanta Cruz Biotechnology, Inc.Boehringer InghlemVirbac Inc.Zoetis

Market Segment by Product TypeDiagnostic TestsDrugsReporductive & Genetic ProdutcsVaccines

Market Segment by ApplicationPreventive Care for AnimalsDevelopment of Animal PharmaceuticalsFood Safety and Drug DevelopmentOthers

Key Regions split in this report: breakdown data for each region.United StatesChinaEuropean UnionRest of World (Japan, Korea, India and Southeast Asia)

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Animal Biotechnology Market Size and Forecast

In terms of region, this research report covers almost all the major regions across the globe such as North America, Europe, South America, the Middle East, and Africa and the Asia Pacific. Europe and North America regions are anticipated to show an upward growth in the years to come. While Animal Biotechnology Market in Asia Pacific regions is likely to show remarkable growth during the forecasted period. Cutting edge technology and innovations are the most important traits of the North America region and thats the reason most of the time the US dominates the global markets. Animal Biotechnology Market in South, America region is also expected to grow in near future.

The Animal Biotechnology Market report highlights is as follows:

This Animal Biotechnology market report provides complete market overview which offers the competitive market scenario among major players of the industry, proper understanding of the growth opportunities, and advanced business strategies used by the market in the current and forecast period.

This Animal Biotechnology Market report will help a business or an individual to take appropriate business decision and sound actions to be taken after understanding the growth restraining factors, market risks, market situation, market estimation of the competitors.

The expected Animal Biotechnology Market growth and development status can be understood in a better way through this five-year forecast information presented in this report

This Animal Biotechnology Market research report aids as a broad guideline which provides in-depth insights and detailed analysis of several trade verticals.

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Tags: Animal BiotechnologyAnimal Biotechnology IndustryAnimal Biotechnology MarketAnimal Biotechnology Market IntelligenceChina Animal Biotechnology Market TrendEurope Animal Biotechnology M

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Know the Future Opportunities of Bromisoval Market and its detail analysis by Focusing Top Companies like Sumitomo Seika, CR Double-Crane, Haitian…

Posted: February 17, 2020 at 2:41 pm

Bromisoval Market report provides substantial information on the industry size, share, trends and applications; further offering vital statistics to market players and investors. Such information poses a high level accuracy as the data is sourced from reliable entities and figures denoted are summed after extensive market analysis. The data obtained from the report eases the process of predicting upcoming market opportunities.

Encompassing a comprehensive overview on market size, share and growth opportunities, Bromisoval market report allows to gather detailed insights on segmental growth which is propelled by specific applications in the key regions and countries as per denoted in the table of content. For this, the report considers market volumes and numbers generated from the segmental analysis.

Such segmentation uncovers various hidden trends and market statistics that may highly influence the decisions of various participants, including investors and new market entrants. The report also presents detailed analysis of the major vendors and manufacturers in the market further proving helpful to the start-ups looking to set up their business portfolios in the Bromisoval market.

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The Various segmentation of the market based on various factors:

Market Players:

Sumitomo Seika, CR Double-Crane, Haitian Biotechnology, Huashang Pharmaceutical

By Type:

Purity Above 98%, Purity Below 98%

By Application:

Bromisoval Tablet, Bromisoval Injection, Other

The Key regions are extensively analyzed with respect to every parameter of the geographies in question, comprising, North America (United States, Canada and Mexico), Europe (Germany, France, UK, Russia and Italy), Asia-Pacific (China, Japan, Korea, India and Southeast Asia), South America (Brazil, Argentina, Colombia etc.)

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From the Bromisoval market research reports, the following points are available with detailed study at every point:

Production Analysis Initiation of this Bromisoval is analyzed relying on top countries, types, and applications. Here, the report will extensively cover price analysis of varied Bromisoval market key players.

Profit and Sales Evaluation Both earnings and sales are verified for various components of this international Bromisoval market. Still another crucial aspect, the price that plays a vital role in sales development can be assessed in this section for several regions.

Segments and Advantages In continuation of using earnings, this report studies design and ingestion to its Bromisoval market. This report also highlights the difference between usage and supply, export, and import data.

Competition In this section, many global Bromisoval industry-top players have been studied depending on their company profile, product portfolio, ability, price, cost, and revenue.

Other Analysis Aside from the above information, demand, and supply scrutiny to the Bromisoval economy, contact information from leading producers, suppliers, and major consumers can also be allocated.

Finally : It comprehensively evaluates the global Bromisoval market with different perspectives for the purpose of providing a detailed, informative, and accurate analysis of regional market growth, key players operating analysis, market segmentation, and other many of the important aspects.

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Know the Future Opportunities of Bromisoval Market and its detail analysis by Focusing Top Companies like Sumitomo Seika, CR Double-Crane, Haitian...

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Puma Biotechnology, Inc. (NASDAQ:PBYI): When Will It Breakeven? – Simply Wall St

Posted: February 17, 2020 at 2:41 pm

Puma Biotechnology, Inc.s (NASDAQ:PBYI): Puma Biotechnology, Inc., a biopharmaceutical company, focuses on the development and commercialization of products to enhance cancer care. The US$477m market-cap posted a loss in its most recent financial year of -US$113.6m and a latest trailing-twelve-month loss of -US$95.1m shrinking the gap between loss and breakeven. As path to profitability is the topic on PBYIs investors mind, Ive decided to gauge market sentiment. Below I will provide a high-level summary of the industry analysts expectations for PBYI.

See our latest analysis for Puma Biotechnology

According to the 8 industry analysts covering PBYI, the consensus is breakeven is near. They expect the company to post a final loss in 2021, before turning a profit of US$12m in 2022. PBYI is therefore projected to breakeven around 2 years from today. What rate will PBYI have to grow year-on-year in order to breakeven on this date? Using a line of best fit, I calculated an average annual growth rate of 52%, which signals high confidence from analysts. If this rate turns out to be too aggressive, PBYI may become profitable much later than analysts predict.

Im not going to go through company-specific developments for PBYI given that this is a high-level summary, however, take into account that typically biotechs, depending on the stage of product development, have irregular periods of cash flow. This means that a high growth rate is not unusual, especially if the company is currently in an investment period.

Before I wrap up, theres one issue worth mentioning. PBYI currently has a debt-to-equity ratio of over 2x. Typically, debt shouldnt exceed 40% of your equity, which in PBYIs case, it has significantly overshot. Note that a higher debt obligation increases the risk in investing in the loss-making company.

There are key fundamentals of PBYI which are not covered in this article, but I must stress again that this is merely a basic overview. For a more comprehensive look at PBYI, take a look at PBYIs company page on Simply Wall St. Ive also put together a list of pertinent factors you should further research:

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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Nanoparticles in Biotechnology and Pharmaceuticals Market Overview, Top Companies, Region, Application and Forecast by 2026 Oxon Market Reports -…

Posted: February 17, 2020 at 2:41 pm

New Jersey, United States, Verified Market Research offers its latest report on the Nanoparticles in Biotechnology and Pharmaceuticals Market that includes a comprehensive analysis of a range of subjects such as market growth status, competition, segmentation, regional expansion, and market dynamics. The report includes an exhaustive analysis of the overall industry size and structure based on primary and secondary research, fieldwork, and expertise. The report also sheds light on market future trends, key opportunities, top regions, leading segments, the competitive landscape, and several other aspects of the Nanoparticles in Biotechnology and Pharmaceuticals market. Get access to crucial market information.

The researchers have studied the key development activities and tactics of the leading Nanoparticles in Biotechnology and Pharmaceuticals vendors including partnerships, acquisitions, mergers, technological development, research and development activities, and portfolio expansion. Besides, the report offers recommendations for the companies to sustain their hold in the marketplace.

Top 10 Companies in the Nanoparticles in Biotechnology and Pharmaceuticals Market Research Report:

The research study has segregated the Nanoparticles in Biotechnology and Pharmaceuticals industry into segments, including product type, application, and vertical, to broaden the overall understanding of the industry. This assessment has been carried out on the basis of size, share, and CAGR. Additionally, regional analysis has been done by the experts stressing the growth potential of the key regions and countries. The report also encompasses accurate and reliable figures based on Nanoparticles in Biotechnology and Pharmaceuticals consumption and production in key regions.

North America (United States, Mexico, and Canada)

South America (Brazil etc.)

Europe (Turkey, Germany, Russia UK, Italy, France, etc.)

The Middle East and Africa (GCC Countries and Egypt)

Asia-Pacific (Vietnam, China, Malaysia, Japan, Philippines, Korea, Thailand, India, Indonesia, and Australia)

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What the Report has in Store for you?

Industry Size & Forecast: The industry analysts have offered historical, current, and estimated projections of the industry size from the value and volume point of view

Future Opportunities: In this section of the report, Nanoparticles in Biotechnology and Pharmaceuticals participants are provided with the information on the future prospects that the Nanoparticles in Biotechnology and Pharmaceuticals industry is likely to offer

Industry Trends & Developments: Here, authors of the report have talked about the major trends and developments taking place in the Nanoparticles in Biotechnology and Pharmaceuticals marketplace and their estimated impact on the overall growth

Study on Industry Segmentation: Detailed breakdown of the key Nanoparticles in Biotechnology and Pharmaceuticals industry segments including product type, application, and vertical has been done in this portion of the report

Regional Analysis: Nanoparticles in Biotechnology and Pharmaceuticals vendors are offered crucial information of the high growth regions and their respective countries, thus helping them to invest in profitable regions

Competitive Landscape: This unit of the report throws light on the competitive scenario of the Nanoparticles in Biotechnology and Pharmaceuticals industry by focusing on the key strategies taken up by the vendors to consolidate their presence in the Nanoparticles in Biotechnology and Pharmaceuticals business.

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Analysts with high expertise in data gathering and governance utilize industry techniques to collate and examine data at all stages. Our analysts are trained to combine modern data collection techniques, superior research methodology, subject expertise and years of collective experience to produce informative and accurate research reports.

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TAGS: Nanoparticles in Biotechnology and Pharmaceuticals Market Size, Nanoparticles in Biotechnology and Pharmaceuticals Market Growth, Nanoparticles in Biotechnology and Pharmaceuticals Market Forecast, Nanoparticles in Biotechnology and Pharmaceuticals Market Analysis, Nanoparticles in Biotechnology and Pharmaceuticals Market Trends, Nanoparticles in Biotechnology and Pharmaceuticals Market

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Study shows how a tiny and strange marine animal produces unlimited eggs and sperm over its lifetime – National Institutes of Health

Posted: February 16, 2020 at 2:48 am

News Release

Thursday, February 13, 2020

NIH-supported research of Hydractinia could provide clues to human reproductive conditions.

A little-known ocean-dwelling creature most commonly found growing on dead hermit crab shells may sound like an unlikely study subject for researchers, but this animal has a rare ability it can make eggs and sperm for the duration of its lifetime. This animal, called Hydractinia, does so because it produces germ cells, which are precursors to eggs and sperm, nonstop throughout its life. Studying this unique ability could provide insight into the development of human reproductive system and the formation of reproductive-based conditions and diseases in humans.

By sequencing and studying the genomes of simpler organisms that are easier to manipulate in the lab, we have been able to tease out important insights regarding the biology underlying germ cell fate determination knowledge that may ultimately help us better understand the processes underlying reproductive disorders in humans, Dr. Andy Baxevanis, director of the National Human Genome Research Institutes (NHGRI) Computational Genomics Unit and co-author of the paper. NHGRI is part of the National Institutes of Health.

In a study published in the journal Science, collaborators at NHGRI, the National University of Ireland, Galway, and the Whitney Laboratory for Marine Bioscience at the University of Florida, Augustine, reported that activation of the gene Tfap2 in adult stem cells in Hydractinia can turn those cells into germ cells in a cycle that can repeat endlessly.

In comparison, humans and most other mammals generate a specific number of germ cells only once in their lifetime. Therefore, for such species, eggs and sperm from the predetermined number of germ cells may be formed over a long period of time, but their amount is restricted. An international team of researchers have been studying Hydractinias genome to understand how it comes by this special reproductive ability.

Hydractinia lives in colonies and is closely related to jellyfish and corals. Although Hydractinia is dissimilar to humans physiologically, its genome contains a surprisingly large number of genes that are like human disease genes, making it a useful animal model for studying questions related to human biology and health.

Hydractinia colonies possess feeding polyps and sexual polyps as a part of their anatomy. The specialized sexual polyps produce eggs and sperm, making them functionally similar to gonads in species like humans.

During human embryonic development, a small pool of germ cells that will eventually become gametes is set aside, and all sperm or eggs that humans produce during their lives are the descendants of those original few germ cells. Loss of these germ cells for any reason results in sterility, as humans do not have the ability to replenish their original pool of germ cells.

In a separate study, Dr. Baxevanis at NHGRI and Dr. Christine Schnitzler at the Whitney Lab have completed the first-ever sequencing of the Hydractinia genome. In this study, researchers used this information to scrutinize the organisms genome for clues as to why there are such marked differences in reproductive capacity between one of our most distant animal relatives and ourselves.

Having this kind of high-quality, whole-genome sequence data in hand allowed us to quickly narrow down the search for the specific gene or genes that tell Hydractinias stem cells to become germ cells, said Dr. Baxevanis.

The researchers compared the behavior of genes in the feeding and sexual structures of Hydractinia. They found that the Tfap2 gene was much more active in the sexual polyps than in the feeding polyps in both males and females. This was a clue that the gene might be important in generating germ cells.

The scientists next confirmed that Tfap2 was indeed the switch that controls the process of perpetual germ cell production. The researchers used the CRISPR-Cas9 gene-editing technique to remove Tfap2 from Hydractinia and measured the resulting effects on germ cell production. They found that removing Tfap2 from Hydractinia stops germ cells from forming, bolstering the theory that Tfap2 controls the process.

The researchers also wanted to know if Tfap2 was influencing specific cells to turn into germ cells. Their analysis revealed that Tfap2 only causes adult stem cells in Hydractinia to turn into germ cells.

Interestingly, the Tfap2 gene also regulates germ cell production in humans, in addition to its involvement in myriad other processes. However, in humans, the germ cells are separated from non-germ cells early in development. Still, despite the vast evolutionary distance between Hydractinia and humans, both share a key gene that changes stem cells into germ cells.

This press release describes a basic research finding. Basic research increases our understanding of human behavior and biology, which is foundational to advancing new and better ways to prevent, diagnose and treat disease. Science is an unpredictable and incremental process each research advance builds on past discoveries, often in unexpected ways. Most clinical advances would not be possible without the knowledge of fundamental basic research.

The National Human Genome Research Institute (NHGRI) is one of the 27 institutes and centers at the NIH, an agency of the Department of Health and Human Services. The NHGRI Division of Intramural Research develops and implements technology to understand, diagnose and treat genomic and genetic diseases. Additional information about NHGRI can be found at: https://www.genome.gov.

About the National Institutes of Health (NIH):NIH, the nation's medical research agency, includes 27 Institutes and Centers and is a component of the U.S. Department of Health and Human Services. NIH is the primary federal agency conducting and supporting basic, clinical, and translational medical research, and is investigating the causes, treatments, and cures for both common and rare diseases. For more information about NIH and its programs, visit http://www.nih.gov.

NIHTurning Discovery Into Health

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Study shows how a tiny and strange marine animal produces unlimited eggs and sperm over its lifetime - National Institutes of Health

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Are stem cells really the key to making humans live longer? – Wired.co.uk

Posted: February 16, 2020 at 2:46 am

To some longevity acolytes, stem cells promise the secret to eternal youth. For a hefty fee, you can pay a startup to extract your own stem cells and cryogenically freeze them, in the hope that they can one day be used in a treatment to help extend your life.

Other firms let you bank stem cells from your babys umbilical cord and placenta after childbirth, if youre convinced the high cost represents an insurance policy against future illness. Or you can follow the example of Sandra Bullock and Cate Blanchett and opt for an anti-ageing cream made with stem cells derived from the severed foreskins of newborn babies in South Korea.

Stem cells are the parent cells which give rise to other cells in our bodies. Since scientists first isolated human embryonic stem cells in a lab and grew them over 20 years ago, they have been mooted as a source of great hope for regenerative medical treatments, including for age-related degenerative conditions such as Parkinsons, Alzheimers, heart disease and stroke.

But apart from a few small-scale examples, the only stem cell-based medical treatment practised in clinics uses haematopoietic stem cells found in the blood and bone marrow which only produce blood cells for transplants in blood cancer patients. These cells are taken from a patients sibling or an unrelated donor, before being infused into a patients blood, or theyre taken from a patients own blood before being reinfused. The procedure has been used to treat blood malignancies for almost half a century, and recently multiple sclerosis too. So how likely is it that the predictions about stem cells' longevity-enhancing powers will become a reality?

In September 2019, Google banned ads for unproven or experimental medical techniques such as most stem cell therapy, citing a rise in bad actors attempting to take advantage of individuals by offering untested, deceptive treatments [that can often] lead to dangerous health outcomes. The decision was welcomed by the International Society for Stem Cell Research, which emphasised that most stem cell interventions remain experimental. Selling treatments before well-regulated clinical trials have been done, the body said, [threatens public] confidence in biomedical research and undermines the development of legitimate new therapies.

Its easy to see how less scrupulous companies can exploit the allure of stem cells, which seem to occupy a place in our collective consciousness as a kind of magical elixir. High hopes for stem cell-based therapies have grown since 2006, when the Japanese biologist Shinya Yamanaka created a new technology to reprogram adult cells, such as skin cells, into a similar state to embryonic stem cells, which are pluripotent, meaning they can develop into any tissue in the body. The Nobel prize-winning breakthrough was hailed as a major step in the study of stem cells without the need for controversial embryo research, and towards the use of these human induced pluripotent stem cells to regenerate damaged or diseased organs or effectively grow new spare parts which could treat the life-limiting and life-shortening illnesses associated with ageing.

Gerontologist Aubrey de Grey, whose Strategies for Engineered Negligible Senescence (SENS) research foundation aims to eliminate ageing-related diseases, thinks the chances well soon have stem cell based therapies are high. For anything that's in clinical trials, you're talking about maybe five years before it's available to the general public, he says, citing stem cell treatments for Parkinsons disease, currently being tested in phase two clinical trials, as one of the developments he thinks is likely to come soonest.

However, given that these trials involve a relatively small number of participants and most clinical trials ultimately fail, his predictions might be overly optimistic. Often described as a maverick, De Grey believes that humans can live forever and there is a 50 per cent chance medical advances of which stem cell therapies will play an important part will make this a reality within the next 17 years. Though living forever, he says, is not the ultimate goal but a rather large side effect of medicine which will successfully prevent or repair the damage that comes with ageing.

For New Jersey-based Robert Hariri, who co-founded Human Longevity Inc, which set its sights more modestly on making 100 the new 60, stem cells derived from placentas present especially exciting opportunities. A biomedical scientist, surgeon and entrepreneur, Hariri says his current venture Celularity which is focused on engineering placental cells, including stem cells, to create drugs for cancer and other conditions is not as concerned about the actual age number, but about preserving human performance as we age and treating the degenerative diseases that rob us of our quality of life.

Many of those working in the field, however, remain cautious in their optimism. Researchers have highlighted the potential risks of giving pluripotent cells to patients, whether they are induced or embryonic, as these cells can develop cancer-causing mutations as they grow.

Davide Danovi, a scientist at Kings College Londons Centre for Stem Cells & Regenerative Medicine, says the path to stem cell-based therapy is very long and full of hurdles. The supply chain involves challenges, he says. On the one hand, allogeneic treatments those with stem cells derived from one individual and expanded into big batches to create cells to treat many individuals have the advantage of being similar to the traditional pharmaceutical business models. The product is clear, its something that comes in a vial and can be scaled up and mass produced, Danovi says. But this treatment can present a greater risk of rejection from the patient, as opposed to the more bespoke autologous option which is more expensive and time-consuming as it involves extracting a patients own stem cells before reprogramming them.

Danovi is most excited by the potential of stem cells to treat age-related macular degeneration. In 2017 Japanese scientist Masayo Takahash led a team that administered transplants of artificially grown retinal cells created from induced pluripotent stem cells taken from donors to five patients with the eye condition, which can cause blindness, and theyre reported to be doing well. The eye, he says seems to be a place where immunity plays less of a role relative to other issues, so you can host cells which come from another individual with fewer problems [of rejection]. But, with other organs such as the liver, he says there are major conceptual problems with creating enough tissue. Its like the clean meat burger - you're talking about a production that is, in many cases, not easy to reach with the current technology.

Hariri believes placentas will solve some of the production challenges crucially, theyre an abundant commodity, with the vast majority thrown out after childbirth. His interest was sparked 20 years ago when his oldest daughter was in the womb: When I saw her first ultrasound in the first trimester, the placenta had already developed into a relatively sizable organ, even though she was just a peanut-sized embryo. Id been taught that the placenta was nothing more than an interface, but [if that was the case], you would expect that it would grow at the same rate as the embryo. His curiosity piqued, he began to see the placenta not as an interface but as a biological factory, where stem cells could be expanded and differentiated to participate in the development of that foetus. That intrigued me and I started to collect placentas and just, you know, basically disassemble them.

Placentas have numerous benefits, he says they dont carry the same ethical controversy as embryonic stem cells, for one thing. Scientists working on embryonic stem cells have to destroy an early embryo, and that option yields them a dozen cells, which have to be culture-expanded in the laboratory into billions of cells. In contrast, the placenta houses, billions and hundreds of billions of cells, which can be expanded as well, but you're starting out with a dramatically larger starting material.

Increasingly, scientists in the anti-ageing sphere are focusing on an approach that seems like the opposite of planting fresh stem cells into our bodies. Experts such as Ilaria Bellantuono at Sheffield Universitys Healthy Lifespan Institute are working towards creating senolytics medication that could kill off our senescent cells, the zombie cells that accumulate in tissues as we age and cause chronic inflammation. I think stem cells are very good for specific disease, where the environment is still young, Bellantuono says, but the data in animal models tells us that senolytics are actually able to delay the onset and reduce the severity of multiple diseases at the same time for example, there is evidence for osteoarthritis, osteoporosis, cardiovascular disease, Alzheimer's, Parkinson's, and diabetes. She explains that while human trials are still in their early stages, senolytics are likely to be more cost-effective than stem cell therapy and the status quo of older patients taking multiple pills for multiple diseases, which can interact with each other. Besides, she adds, they may actually work in tandem with stem-cell based therapies in the future, with senolytics creating a more hospitable environment in tissues to allow stem cells to do their work.

And as for the so-called penis facial? Its far from the only ultra-expensive stem cell skincare making bold anti-ageing claims but youre probably better off saving your money, as you are with the experimental medical treatments on offer. Stem cells are definitely exciting but theyre not the key to eternal youth. At least, not yet.

Robert Harari will be one of the speakers at WIRED Health in London on March 25, 2020. For more details, and to book your ticket, click here

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Accelerating Access to Breakthrough Cancer Therapies – TAPinto.net

Posted: February 16, 2020 at 2:44 am

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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An Expanding Role For PARP Inhibitors Shows Promise In Treating Ovarian Cancer – Curetoday.com

Posted: February 16, 2020 at 2:44 am

PARP inhibitors interfere with cancers ability to repair damage to its DNA. They are becoming increasingly useful in treating ovarian cancer.

Valencia Halls oncologist wanted to give her the best possible chance of staying in remission, so in June 2017, she prescribed Zejula (niraparib), a once-daily oral treatment thats part of an emerging class of medicines known as poly (ADP-ribose) polymerase (PARP) inhibitors. Just a few months before Valencia Halls disease returned, Zejula had become the first PARP inhibitor approved by the Food and Drug Administration (FDA) to treat women with recurrent ovarian cancer who do not have a genetic abnormality but previously responded well to platinum-based chemotherapy. Valencia Hall was a perfect candidate for the drug, which is referred to as a maintenance treatment because its prescribed with the goal of preventing ovarian cancer from returning.

She has been free of the disease since starting Zejula and has experienced no side effects, aside from a temporary drop in platelet counts that her oncologist corrected by dialing down Valencia Halls daily dose. Zejula has allowed me to live my life as I see fit, says Valencia Hall, 51, a freelance graphic artist in Phoenix. Its an oral medication, so I dont have to go in for infusions. The opportunity to have this as a maintenance therapy is exciting its hope.

Zejula is one of three PARP inhibitors that are taking an increasingly prominent role in ovarian cancer treatment and improving patients prognosis. With dozens of clinical trials underway, including some that seek to combine PARP inhibitors with other cancer treatments, that role could expand even more.

Drugs in this class work by inhibiting the PARP enzyme, which normally helps damaged DNA repair itself. Preventing this repair causes cancer cells to die, especially those that already have DNA repair defects due to a mutated BRCA 1 or 2 gene or other abnormalities. So far, clinical trials have shown that these drugs can lengthen the time until the disease progresses; their impact on the length of life is still being investigated. For women using a PARP inhibitor for maintenance, the drugs can help increase the time between courses of chemotherapy for recurrent disease.

In the past, we would take patients who had a high risk of recurrence and just watch them until cancer came back because we didnt have maintenance therapies that were effective, tolerable or convenient, says Dr. Bradley Monk, a professor and director of the division of gynecologic oncology at Creighton University School of Medicine at St. Josephs Hospital and Medical Center in Phoenix, Arizona, and also medical director of gynecologic oncology research for the U.S. Oncology Research Network. PARP inhibitors have been significant because theyre expanding the treatment opportunity for many patients, he adds.

Each year, more than 22,000 women in the U.S., about half of whom are over age 63, receive a diagnosis of ovarian cancer, according to the American Cancer Society. A small proportion of women have inherited mutations in BRCA1, BRCA2 or other cancer-related genes that raise their risk of ovarian cancer and can take steps to fend off the disease, including surgery to remove their ovaries. But most cases occur out of the blue, and because the symptoms can be vague and easily overlooked, like bloating or stomach pain, many women do not receive a diagnosis until the disease has advanced to the point where it can be hard to treat. The disease will recur in about 85% of women who initially respond to chemotherapy.

For women with ovarian cancer, PARP inhibitors have been an option since 2014, when the FDA approved Lynparza (olaparib) as a maintenance therapy for patients with BRCA mutations who had received three or more chemotherapy treatments. Rubraca (rucaparib) followed in 2016 and Zejula in 2017.

PARP INHIBITORS REACH MORE PATIENTS

Over the past two years, the FDA approved more uses of PARP inhibitors so that many more patients can benefit from these medicines and access the drugs earlier in treatment. In April 2018, Rubraca was approved as a maintenance therapy to treat recurrent ovarian cancer in women who responded at least partially to platinum-based chemotherapy, whether or not they had a genetic mutation. That December, Lynparza was approved as a first-line maintenance treatment for BRCA-mutated ovarian cancer, meaning patients can be given the drug after successfully completing just one round of platinum-based chemotherapy.

That was based on a clinical trial showing the drug reduced the rate of disease progression or death by 70%.

Most recently, in October 2019, the FDA approved Zejula for use in patients with advanced ovarian cancer associated with a cellular abnormality called homologous recombination deficiency. BRCA1 and BRCA2 are two of these types, but in ovarian cancer, about 17 other such genetic abnormalities can drive the disease. Between 41% and 50% of ovarian tumors are thought to have homologous recombination deficiency, which can be detected with a tumor test, Myriad myChoice CDx, that the FDA also approved last October.

In a clinical trial leading to the approval, 24% of participants with homologous recombination deficiency-positive ovarian cancer responded well to Zejula, experiencing some tumor shrinkage. That may not sound like a high response rate, but it surpasses the overall response rate to PARP inhibitors among all patients with ovarian cancer either with or without mutations, says lead clinical trial investigator Dr. Kathleen Moore, associate professor of gynecologic oncology at Stephenson Cancer Center at the University of Oklahoma.

These are heavily pretreated patients in which the response rate has typically been 12%, so this was double what we normally see, Moore says. The clinical benefit here was quite high. She adds that patients with BRCA mutations did particularly well: Nearly 40% of those who previously responded well to platinum-based chemotherapy responded to Zejula. The most common side effects include gastric upset, mouth sores, rash, headache and dizziness. The drug can also cause anemia and abnormal blood counts, which, in rare cases, can lead to myelodysplastic syndrome, a bone marrow problem, or the blood cancer acute myeloid leukemia.

As PARP inhibitors continue to help a widening population of patients with ovarian cancer, a push is underway to use them earlier in the treatment process. Several trials presented at the 2019 European Society for Medical Oncology conference demonstrated the potential value of that strategy.

One study found an 84% survival rate among patients who took Zejula for two years following chemotherapy, regardless of their homologous recombination deficiency status, compared with 77% who got a placebo. The median progression-free survival period (time from treatment to disease progression) for patients taking the drug was 14 months compared with eight months for those on placebo.

Another study evaluated an investigational PARP inhibitor, veliparib, combined with chemotherapy as a first-line treatment followed by veliparib alone for maintenance. Median progression-free survival among patients on that regimen was 23.5 months versus 17.3 months for those taking a placebo.

The third trial presented at the conference involved Avastin (bevacizumab), a drug that cuts off the blood supply to tumors. The FDA approved Avastin in 2018 to treat advanced ovarian cancer in conjunction with chemotherapy.

During the more recent trial, patients with newly diagnosed advanced ovarian cancer took Avastin plus chemotherapy, followed by Avastin with Lynparza for maintenance. Those who took Lynparza along with Avastin had a median progression-free survival of 22 months compared with 17 months for those who received Avastin and a placebo.

In all three studies, progression-free survival rates were the highest among homologous recombination deficiency-positive patients, but the fact that PARP inhibitors extended survival even among those without those mutations was encouraging to oncologists who treat ovarian cancer.

These were all positive studies that undoubtedly show that PARP inhibitor maintenance following chemotherapy will extend beyond BRCA-associated ovarian cancer, Moore says. Its highly likely that a much larger proportion of women with ovarian cancer who are diagnosed in 2020 will receive a PARP inhibitor (than in previous years). Women will be able to live longer with their cancer because were developing effective therapies that push out progression-free survival.

COMBINATIONS GAIN STEAM

A clinical trial investigating a novel PARP combination proved a lifesaver for Diane Sarver, who first received a diagnosis of ovarian cancer in 2010. Chemotherapy put her cancer in remission three times, but when she relapsed again in 2015, she decided to search for a novel treatment strategy and traveled from her home in Lake Oswego, Oregon, to The University of Texas MD Anderson Cancer Center in Houston.

Sarver was entered into an early-phase trial combining Lynparza with the investigational drug AZD2014, which interferes with a cellular pathway (called phosphatidylino-sitol-3 [PI3] kinase) that drives resistance to PARP inhibitors. Within seven weeks of starting the combination therapy which consists of two oral drugs taken twice a day , Sarvers ovarian cancer came under control. As part of the ongoing trial, she continues to take the two drugs, which, she says, have caused no side effects and shes still disease-free.

Whats notable about Sarvers case is that she didnt inherit any genetic mutations that would predict such a long-lasting response to PARP inhibitors. Although her tumor tested positive for a rare BRCA mutation, it was considered nonactionable scientists did not yet know whether or not the mutation produced an aberrant protein that would make it likely to respond to the drug combination being studied. The theory behind the trial is that blocking PI3 kinase may transform tumors that would not normally respond to PARP inhibition into responders.

Im amazed that Ive had such a good outcome, says Sarver, 69, a retired clinical technologist and mother of two grown children. Her only limitation is that she has to fast two hours before and after taking the drugs, she says, but the lack of side effects has given her the freedom to travel, speak to medical students about her experiences and spend time with her family.

Ive seen both children through their college graduations, Sarver says. I feel completely functional and am grateful to have never experienced any fatigue or other physical restriction.

MD Anderson is now planning several midstage clinical trials combining PARP and PI3 kinase inhibition, including one that pairs Lynparza with Piqray (alpelisib), a drug currently used to treat some patients with breast cancer. In an early trial of the combination that was reported in April 2019, 36% of patients had a partial response of some tumor shrinkage and half achieved stable disease, meaning their cancer didnt get worse. That was impressive, considering the bulk of the patients had become resistant to platinum chemotherapy, says Dr. Shannon Westin, a clinical investigator in the department of gynecologic oncology and reproductive medicine at MD Anderson. And there was a similar response rate regardless of mutation status, which was very exciting.

RESEARCHERS PURSUE MORE USES

Pairing PARP inhibitors with drugs that boost the immune systems ability to fight cancer is another idea being investigated in the treatment of ovarian cancer, because tumors with unstable DNA repair abilities might also be easier for the immune system to recognize. For example, Keytruda (pembrolizumab) inhibits programmed cell death protein 1 (PD-1), an immune checkpoint responsible for keeping the immune system under control.

The drug essentially takes the brakes off the immune system so it can better recognize and attack cancer. In an early trial combining Keytruda with Zejula, 65% of patients with ovarian cancer saw their disease come under control, either with total or partial tumor shrinkage or with stable disease.

Several other ongoing studies are combining PARP inhibition with immunotherapy, including a trial of Zejula with Tecentriq (atezolizumab), an inhibitor of a protein called programmed death-ligand 1 (PD-L1), and Cotellic (cobimetinib), which inhibits the cancer-associated mitogen-activated (MEK) protein. Another study combines Zejula with TSR-042, an investigational PD-1 blocker.

Could PARP inhibitors be useful for some women even earlier in the treatment process? MD Anderson recently started a small trial designed to investigate the potential of using the agents in place of chemotherapy in women with newly diagnosed cancer who have BRCA mutations. During the trial, patients will receive Lynparza for up to three months before moving on to surgery and chemotherapy. A similar trial is ongoing using the PARP inhibitor Talzenna (talazoparib) for BRCA-mutated breast cancer.

There could be many advantages of starting treatment with a PARP inhibitor rather than chemotherapy, Westin says. Patients can take the drugs at home instead of going to a facility for chemotherapy infusions. And PARP inhibitors dont cause many of the uncomfortable side effects common with chemotherapy, like neuropathy (numbness and tingling in the extremities) and hair loss. Some patients could potentially avoid that toxicity, Westin says.

The question is: Do we even need chemotherapy? Westin adds. Can we utilize a more targeted therapy to get better results? This is the next step.

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Why sequencing the human genome failed to produce big breakthroughs in disease – The Conversation US

Posted: February 16, 2020 at 2:44 am

An emergency room physician, initially unable to diagnose a disoriented patient, finds on the patient a wallet-sized card providing access to his genome, or all his DNA. The physician quickly searches the genome, diagnoses the problem and sends the patient off for a gene-therapy cure. Thats what a Pulitzer prize-winning journalist imagined 2020 would look like when she reported on the Human Genome Project back in 1996.

The Human Genome Project was an international scientific collaboration that successfully mapped, sequenced and made publicly available the genetic content of human chromosomes or all human DNA. Taking place between 1990 and 2003, the project caused many to speculate about the future of medicine. In 1996, Walter Gilbert, a Nobel laureate, said, The results of the Human Genome Project will produce a tremendous shift in the way we can do medicine and attack problems of human disease. In 2000, Francis Collins, then head of the HGP at the National Institutes of Health, predicted, Perhaps in another 15 or 20 years, you will see a complete transformation in therapeutic medicine. The same year, President Bill Clinton stated the Human Genome Project would revolutionize the diagnosis, prevention and treatment of most, if not all, human diseases.

It is now 2020 and no one carries a genome card. Physicians typically do not examine your DNA to diagnose or treat you. Why not? As I explain in a recent article in the Journal of Neurogenetics, the causes of common debilitating diseases are complex, so they typically are not amenable to simple genetic treatments, despite the hope and hype to the contrary.

The idea that a single gene can cause common diseases has been around for several decades. In the late 1980s and early 1990s, high-profile scientific journals, including Nature and JAMA, announced single-gene causation of bipolar disorder, schizophrenia and alcoholism, among other conditions and behaviors. These articles drew massive attention in the popular media, but were soon retracted or failed attempts at replication. These reevaluations completely undermined the initial conclusions, which often had relied on misguided statistical tests. Biologists were generally aware of these developments, though the follow-up studies received little attention in popular media.

There are indeed individual gene mutations that cause devastating disorders, such as Huntingtons disease. But most common debilitating diseases are not caused by a mutation of a single gene. This is because people who have a debilitating genetic disease, on average, do not survive long enough to have numerous healthy children. In other words, there is strong evolutionary pressure against such mutations. Huntingtons disease is an exception that endures because it typically does not produce symptoms until a patient is beyond their reproductive years. Although new mutations for many other disabling conditions occur by chance, they dont become frequent in the population.

Instead, most common debilitating diseases are caused by combinations of mutations in many genes, each having a very small effect. They interact with one another and with environmental factors, modifying the production of proteins from genes. The many kinds of microbes that live within the human body can play a role, too.

Since common serious diseases are rarely caused by single-gene mutations, they cannot be cured by replacing the mutated gene with a normal copy, the premise for gene therapy. Gene therapy has gradually progressed in research along a very bumpy path, which has included accidentally causing leukemia and at least one death, but doctors recently have been successful treating some rare diseases in which a single-gene mutation has had a large effect. Gene therapy for rare single-gene disorders is likely to succeed, but must be tailored to each individual condition. The enormous cost and the relatively small number of patients who can be helped by such a treatment may create insurmountable financial barriers in these cases. For many diseases, gene therapy may never be useful.

The Human Genome Project has had an enormous impact on almost every field of biological research, by spurring technical advances that facilitate fast, precise and relatively inexpensive sequencing and manipulation of DNA. But these advances in research methods have not led to dramatic improvements in treatment of common debilitating diseases.

Although you cannot bring your genome card to your next doctors appointment, perhaps you can bring a more nuanced understanding of the relationship between genes and disease. A more accurate understanding of disease causation may insulate patients against unrealistic stories and false promises.

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