COVID-19 can affect the blood. Its spike protein may be the culprit. – News@Northeastern

Early on in the pandemic, Lee Makowski read an article about the condition of peoples bodies after dying of COVID-19, and he was shocked by what he learnedthere was something very wrong with the patients blood.

The autopsy reports revealed COVID-19 patients were suffering from huge amounts of thick, coagulated blood, and dysfunctional blood vessels were tearing through body tissue instead of repairing ithighly uncommon side effects of respiratory diseases.

Lee Makowski, chair of the bioengineering department at Northeastern. Photo by Matthew Modoono/Northeastern University

The postmortem evidence plus his own experience with something called COVID toesan odd side effect of the disease that causes heightened blood vessel formation in the toes, turning them bright redled Makowski to speculate that something about the virus might be causing abnormal blood-related complications.

One of the most perplexing and devastating effects of this disease is the scenario where three or four weeks after being hospitalized with pneumonia, people under the age of 50 are back home, they feel fine, and then all of a sudden they have a stroke and die, says Makowski, professor and chair of the bioengineering department at Northeastern.

Makowski, who recently published his hypothesis in the journal Viruses, believes the spike protein found on the surface of the virus might mimic proteins that regulate blood vessels and control the formation of blood clots, which could explain many of the non-respiratory complications of COVID-19.

The spike protein is an arm-like apparatus that the virus uses to attach to and enter healthy cells. At the tip of the spike protein rests a string of three amino acids called RGD. This structure is known for connecting cells to each other in the body.

Researchers dont know yet whether RGD is the culprit for COVID-19s blood-related complications, but they do know that RGD can contribute to the formation of blood clots and the growth of new blood vessels when it interacts with cell receptors called integrins.

Other proteins that have RGD are known to cause complications. Our theory is that RGD is making it easier for the virus to bind to things that could cause these blood complications, says William Olson-Sidford, a third-year bioengineering student and co-author of the paper who worked on this project as a co-op last fall.

Right now, researchers know that the viruss spike protein binds to cell receptors called ACE2. ACE2 is found in many cell types including in the lungs, heart, blood vessels, kidneys, liver, and gastrointestinal tract.

But our theory is that because [the virus] has an RGD, it may also be more likely to bind to other cells in the body that people arent thinking about, Olson-Sidford says.

Makowski hypothesizes that dysregulated blood vessel growthwhich can disrupt lung tissueis triggered by an increase of RGD during infection.

As for COVID-19-related kidney failure, its hard to know whether its caused by direct damage to the tissue by viral invasion or indirect damage through coagulation and blocked arteries, Makowski says. But either way, a faulty connection between RGD and integrin could be the culprit.

Recognizing that coagulation is a major problem has greatly improved the survival rate of people who are severely sick with COVID-19, Makowski says. Now if you end up in the ICU, you almost always get an anticoagulant, and that saves a lot of lives.

Uncovering the cause of that coagulation is the next step. Makowski hopes his hypothesis will spur other researchers to investigate further.

For media inquiries, please contact Shannon Nargi at s.nargi@northeastern.edu or 617-373-5718.

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COVID-19 can affect the blood. Its spike protein may be the culprit. - News@Northeastern

2021 Exclusive Insights on: Rhodiola Extract Market to Witness Robust Expansion throughout the Forecast Period| Martin Bauer Group, Parchem, The Green…

Final Report will add the analysis of the impact of COVID-19 on this industry.

Introduction and Scope: Rhodiola Extract MarketHolistic research derivatives focusing on Rhodiola Extract Market is a high-grade professional overview of various market determinants and factors representing factors, challenges, trends, threats, and a holistic overview that determine the overall growth directive of the Rhodiola Extract market. Crucial understanding on the various elements and growth propellants of the aforementioned market has been scrutinized effectively by research experts.

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Rhodiola Extract Market Segment by Manufacturers, this report covers: Martin Bauer Group, Parchem, The Green Labs LLC, Shaanxi Jintai Biological Engineering Co., Ltd, Hawk-bio, Nutra Green Biotechnology Co.,Ltd

Market Segment by Type covers: Powdered, Encapsulated

Market Segment by Applications can be divided into: Medicine, Cosmetics, Supplements, Other

Competitive Landscape

Competitor analysis is one of the best sections of the report that compares the progress of leading players based on crucial parameters, including market share, new developments, global reach, local competition, price, and production. From the nature of competition to future changes in the vendor landscape, the report provides in-depth analysis of the competition in the global Rhodiola Extract market.

Production, consumption, revenue, market share, and growth rate are the key targets forRhodiola Extract Market forecast from 2013 to 2026 (forecast) in these regions:

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Chapter 1: Global Rhodiola Extract Market Report 2020 Market Overview, Product Overview, Market Segmentation, Market Overview of Regions, Market Dynamics, Limitations, Opportunities and Industry News and Policies.Chapter 2: Global Rhodiola Extract Market Report 2020 Industry Chain Analysis, Upstream Raw Material Suppliers, Major Players, Production Process Analysis, Cost Analysis, Market Channels, and Major Downstream Buyers.Chapter 3: Value Analysis, Production, Growth Rate and Price Analysis by Type of Global Rhodiola Extract Market Report 2020.Chapter 4: Downstream Characteristics, Consumption and Market Share by Application of Global Rhodiola Extract Market Report 2020.Chapter 5: Production Volume, Price, Gross Margin, and Revenue ($) of Global Rhodiola Extract Market Report 2020 by Regions.Chapter 6: Global Rhodiola Extract Market Report 2020 Production, Consumption, Export, and Import by Regions.Chapter 7: Global Rhodiola Extract Market Report 2020 Market Status and SWOT Analysis by Regions.Chapter 8: Competitive Landscape, Product Introduction, Company Profiles, Market Distribution Status by Players of Global Rhodiola Extract Market Report 2020.Chapter 9: Global Rhodiola Extract Market Report 2020 Market Analysis and Forecast by Type and Application.Chapter 10: Global Rhodiola Extract Market Report 2020 Market Analysis and Forecast by Regions.Chapter 11: Global Rhodiola Extract Market Report 2020 Industry Characteristics, Key Factors, New Entrants SWOT Analysis, Investment Feasibility Analysis.Chapter 12: Global Rhodiola Extract Market Report 2020 Market Conclusion of the Whole Report.Continue

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Ionic liquid formulation can uniformly deliver chemotherapy to tumors while destroying cancerous tissue in preclinical studies | Harvard John A….

A research team led by Samir Mitragotri, the Hiller Professor of Bioengineering and Hansjorg Wyss Professor of Biologically Inspired Engineering at the Harvard John A. Paulson School of Engineering and Applied Sciences (SEAS) and Rahmi Oklu, of the Mayo Clinic, report the development of a new ionic liquid formulation that killed cancer cells and allowed uniform distribution of a chemotherapy drug into liver tumors and other solid tumors in the lab. This discovery could solve a problem that has long plagued drug delivery to tumors and provide new hope to patients with liver cancer awaiting a liver transplant.

The preclinical study results are published in Science Translational Medicine.

Uniform drug delivery to tumors is often riddled with challenges. Higher drug doses are often used to encourage drug delivery into the tumor, and these higher doses could lead to significant toxicity.

"If the drug cannot penetrate the tumor and remain there, then it cannot do its job," said Oklu, the director of Mayo Clinics Minimally Invasive Therapeutics Laboratory.

Current treatment involves ablation, which involves heating or cooling the tumor or infusing radioactive particles into the arteries of the tumor to destroy the cancer cells and keep patients within the criteria for a transplant.

"You could do a microwave ablation and basically burn the tumor, but that is often not an option if the tumor is close to the heart or other important structures. And sometimes it is hard to find the blood supply of the tumor to infuse the radioactive particles," said Oklu.

The research team developed an ionic liquid essentially salt in a liquid state as an alternative way to deliver drugs into tumors through an ultrasound-guided needle injection. Once injected, the ionic liquid deposited the chemotherapy drugs uniformly, killing the cancer cells as the liquid engulfed the tumors.

Mitragotri and his lab have been pioneering the use of ionic liquids for all kinds of treatment applications, including as a way to deliver insulin by skin patches and pills, as nanoparticle coatings for targeted delivery, as vaccine adjuvants, and as a way to deliver therapeutics to treat psoriasis.

Ionic liquids are an exceptionally versatile group of materials, said Mitragotri. In our lab, we have already demonstrated that they have the ability to overcome a variety of biological barriers within the body for delivering drugs. In this study, we demonstrate a novel application of ionic liquids to deliver chemotherapeutic drugs in the liver tumor.

The researchers reported this approach was successful in preclinical studies using freshly resected human tumors in the lab and liver tumors in animal models. In addition, the authors reported that the chemotherapy remained in the targeted zone for the length of the 28-day trial.

Whereas drugs often wash away quickly from direct injection into tumors or from standard IV delivery of chemotherapy through the veins of the arm, the ionic liquid, which the authors call a "locally active agent for tumor treatment and eradication," or LATTE, also encouraged immune cell infiltration in the microenvironment of the tumor. This may play a role in achieving immunotherapy in solid tumors. The researchers say this could solve current challenges, especially in hepatocellular carcinoma the most common form of liver cancer where liver transplant can be curative.

The authors suggest that LATTE may work via diverse methods, and future studies are planned to expand on these preclinical findings. Future efforts might examine additional chemotherapy drugs, effects of immunotherapy agents and effects on overall survival, and involve a detailed analysis of local and body-wide immune implications of this experimental intervention.

This has been a very exciting collaboration, said Mitrigotri. Our lab focuses on chemistry, material science and engineering aspects of ionic liquids. This collaborative study with interventional radiologist Dr. Oklus lab at Mayo Clinic has enabled us to demonstrate a novel application of these amazing materials.

In addition to Oklu, Mayo Clinic authors include lead author Hassan Albadawi, Zefu Zhang, Izzet Altun, Jingjie Hu, and Leila Jamal. In addition to Mitragotri, authors from Harvard University are Kelly Ibsen, and Eden Tanner.

This study was funded by the National Institutes of Health.

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Ionic liquid formulation can uniformly deliver chemotherapy to tumors while destroying cancerous tissue in preclinical studies | Harvard John A....

Global Chitin 2021 Industry, Market Growth, Analysis, Trend and Forecast to 2027 Wall Street Call – Reported Times

iCrowdNewswire Feb 12, 20213:30 PM ET

Chitin Market 2021-2027

A New Market Study, Titled Chitin Market Upcoming Trends, Growth Drivers and Challenges has been featured on fusionmarketresearch.

Description

This global study of theChitin marketoffers an overview of the existing market trends, drivers, restrictions, and metrics and also offers a viewpoint for important segments. The report also tracks product and services demand growth forecasts for the market. There is also to the study approach a detailed segmental review. A regional study of the globalChitin industryis also carried out in North America, Latin America, Asia-Pacific, Europe, and the Near East & Africa.The report mentions growth parameters in the regional markets along with major players dominating the regional growth.

Request a Sample Report @ https://www.fusionmarketresearch.com/sample_request/(COVID-19-Version)-Global-Chitin-Market/12603

Scopolamine is a medication used in the treatment of motion sickness and postoperative nausea and vomiting. Scopolamine is used to prevent nausea and vomiting caused by motion sickness or from anesthesia given during surgery.

The report offers detailed coverage of Chitin industry and main market trends with impact of coronavirus. The market research includes historical and forecast market data, demand, application details, price trends, and company shares of the leading Chitin by geography. The report splits the market size, by volume and value, on the basis of application type and geography.

First, this report covers the present status and the future prospects of the global Chitin market for 2015-2024.And in this report, we analyze global market from 5 geographies: Asia-Pacific[China, Southeast Asia, India, Japan, Korea, Western Asia], Europe[Germany, UK, France, Italy, Russia, Spain, Netherlands, Turkey, Switzerland], North America[United States, Canada, Mexico], Middle East & Africa[GCC, North Africa, South Africa], South America[Brazil, Argentina, Columbia, Chile, Peru].

At the same time, we classify Chitin according to the type, application by geography. More importantly, the report includes major countries market based on the type and application.Finally, the report provides detailed profile and data information analysis of leading Chitin company.

Key CompaniesFMC CorpKitozymeKunpoong BioBIO21Heppe Medical ChitosanYaizu SuisankagakuGolden-ShellLushen BioengineeringAK BIOTECHZhejiang New Fuda Ocean BiotechWeifang Sea Source Biological ProductsQingdao Honghai Bio-techHaidebei Marine BioengineeringJiangsu Aoxin BiotechnologyJinhu Crust Product

Market Segment as follows:By RegionAsia-Pacific[China, Southeast Asia, India, Japan, Korea, Western Asia]Europe[Germany, UK, France, Italy, Russia, Spain, Netherlands, Turkey, Switzerland]North America[United States, Canada, Mexico]Middle East & Africa[GCC, North Africa, South Africa]South America[Brazil, Argentina, Columbia, Chile, Peru]

Market by TypeChitosan HClCarboxymethyl ChitosanChitosan Quaternary Ammonium SaltHydroxypropyl ChitosanChitosan OligosaccharideOthers

Market by ApplicationMedicalHealth FoodCosmeticsWater TreatmentOthersAsk Queries @ https://www.fusionmarketresearch.com/enquiry.php/(COVID-19-Version)-Global-Chitin-Market/12603 Table of Contents

Part 1 Market Overview1.1 Market Definition1.2 Market Development1.2.1 Current Situation1.2.2 Aspects of COVID-19 Impact1.3 By TypeTable Type of ChitinFigure Global Chitin Market Share by Type in 20191.4 By ApplicationTable Application of ChitinFigure Global Chitin Market Share by Application in 20191.5 By RegionFigure Global Chitin Market Share by Region in 2019Figure Asia Chitin Market Share by Region in 2019

Part 2 Key Companies2.1 FMC Corp2.1.1 Company ProfileTable FMC Corp Overview List2.1.2 Products & Services Overview2.1.3 Sales Data ListTable Chitin Business Operation of FMC Corp (Sales Revenue, Sales Volume, Price, Cost, Gross Margin)2.2 Kitozyme2.3 Kunpoong Bio2.4 BIO212.5 Heppe Medical Chitosan2.6 Yaizu Suisankagaku2.7 Golden-Shell2.8 Lushen Bioengineering2.9 AK BIOTECH2.10 Zhejiang New Fuda Ocean Biotech2.11 Weifang Sea Source Biological Products2.12 Qingdao Honghai Bio-tech2.13 Haidebei Marine Bioengineering2.14 Jiangsu Aoxin Biotechnology2.15 Jinhu Crust Product

Part 3 Global Market Status and Future Forecast3.1 Global Market by RegionTable Global Chitin Market by Region, 2015-2019 (Million USD)Figure Global Chitin Market Share by Region in 2019 (Million USD)Table Global Chitin Market by Region, 2015-2019 (Volume)Figure Global Chitin Market Share by Region in 2019 (Volume)Table Price List by Region, 2015-20193.2 Global Market by CompanyTable Global Chitin Market by Company, 2015-2019 (Million USD)Figure Global Chitin Market Share by Company in 2019 (Million USD)Table Global Chitin Market by Company, 2015-2019 (Volume)Figure Global Chitin Market Share by Company in 2019 (Volume)Table Price List by Company, 2015-20193.3 Global Market by TypeTable Global Chitin Market by Type, 2015-2019 (Million USD)Figure Global Chitin Market Share by Type in 2019 (Million USD)Table Global Chitin Market by Type, 2015-2019 (Volume)Figure Global Chitin Market Share by Type in 2019 (Volume)Table Price List by Type, 2015-20193.4 Global Market by ApplicationTable Global Chitin Market by Application, 2015-2019 (Million USD)Figure Global Chitin Market Share by Application in 2019 (Million USD)Table Global Chitin Market by Application, 2015-2019 (Volume)Figure Global Chitin Market Share by Application in 2019 (Volume)Table Price List by Application, 2015-20193.5 Global Market by ForecastFigure Global Chitin Market Forecast, 2020-2025 (Million USD)Figure Global Chitin Market Forecast, 2020-2025 (Volume)ContinueABOUT US :

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Keywords:Chitin, Chitin Industry, Chitin Market Trends, Chitin Industry Trends, Chitin Market Growth, Chitin Market Size, Chitin Manufacturer, Global Chitin Industry, Global Chitin Market Trends, Chitin Growth, Global Chitin Market Share, Chitin Industry Analysis, Chitin Industry Forecast, Chitin Manufacturer, Chitin Manufacturers, Chitin Market, Chitin Market Forecast, Chitin Market Analysis, Chitin Market Parameters, Chitin Market Segmentation, Chitin Market Share, Chitin Market Trend, Chitin Prospectus, Chitin Research Report, Chitin Segmentation, Global Chitin Market Size, Global Chitin Survey

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Global Chitin 2021 Industry, Market Growth, Analysis, Trend and Forecast to 2027 Wall Street Call - Reported Times

[Herald Interview] GenEdit to hone in on nervous system disorders in 2021 blueprint – The Korea Herald

It was Christmas Eve in 2015. The seasonal festive vibe was blocked out from the science lab in UC Berkley, California, where bioengineering doctoral candidate Lee Gun-woo, then 27, was immersed in his research.

Lees heart quickened as he watched the results of his experiment unravel before his eyes. A polymer nanoparticle traveled straight to his intended target genome in a test rat and changed its DNA.

A jolt ran down his spine. This could make CRISPR DNA scissors work in the human body. It could be a game changer in delivering drugs to tackle genetically caused illnesses, he thought.

Lee dialed up his friend and fellow scientist Park Hyo-min.

Hyeong, lets start a company, Lee said.

The conception

The story of Lee Gun-woo, 33, and Park Hyo-min, 41, is truly an American Dream come true.

The duo co-founded the gene therapy company GenEdit in May 2016 with Lee as the chief executive officer leading research and Park as the chief technology officer responsible for validation of development.

What GenEdit does is step up the game for the groundbreaking DNA scissors technology called CRISPR.

The technology snips parts of the human DNA to remove or insert new genetic material. The Nobel Prize for Chemistry in 2020 went to scientists Emmanuelle Charpentier and Jennifer Doudna for their contribution to its discovery.

Lee and Park are not strangers to the leading CRISPR researcher Doudna, who is a professor at their alma mater UC Berkley.

Doudnas name is listed as a contributor to Lee and Parks co-authored article published in Nature in 2017, titled Nanoparticle delivery of Cas9 ribonucleoprotein and donor DNA in vivo induces homology-directed DNA repair. Lee, Park and scientist Michael Convoy have equal stakes in the piece as main authors, according to the science journal.

CRISPR gene editing is a two-part system comprising a customizable guide RNA and a protein called Cas9.

The guide RNA directs Cas9 to any desired segment of DNA for editing. The Cas9 enzyme then cuts the DNA at that precise location, allowing for genes to be turned on or off or for the removal or insertion of DNA. But editing the DNA of cells in a petri dish -- or even curing a mouse of a disease -- is one thing; making the hot new technology work in humans is a whole other challenge. Sneaking the gene-editing complex into human cells is no easy task, according to American Chemical Societys Chemical & Engineering News introductory article dated 2017.

This is where GenEdit steps in.

Born out of UC Berkleys laboratory, GenEdits polymer nanoparticle delivery technology can make the Cas9 travel to the desired location in human body. This innovative concept has attracted global angel investors such as the likes of Sequoia Capital, Bow Capital, Data Collective Bio and SK Holdings. The Series Seed financing round raised a total of $8.5 million, led by DCVC Bio and SK Holdings.

Before he knew it, Lee was named in Forbes top 30 entrepreneurs under the age of 30 in 2018.

5th anniversary

Now in its fifth year, GenEdit aspires for the future where all hereditary illness can be cured with gene therapies.

There are countless ailments that are passed down the blood line and GenEdit is studying DNA markers for non-viral polymers that will match them.

Speaking to The Korea Herald in a video interview, CTO Park Hyo-min said that GenEdit will soon decide on the first target disease within 2021.

Were not definitive at this point, but there is a good chance we will narrow down our focus to central nervous system diseases, for which we have been able to amass a volume of promising data, Park said.

It is not with absolute certainty I say this, but we may be able to deliver a novel drug for a rare CNS disease within the next six to seven years, said Park, if authorities fast-track their approval for orphan drugs for rare diseases.

Park declined to say if Alzheimers Disease or dementia were research subjects.

We are aware that companies who tackle AD receive tremendous attention from investors. However, conditions like AD or dementia do not have a clear genetic cause, Park said, underlining that GenEdits target indications are only those with high correlation with genetic roots.

Other than CNS indications, the company is also perusing therapies for liver and immune cell diseases.

The liver has comparatively low hurdle for drug delivery mechanisms, Park said, Precisely for that reason there is much competition in the area of liver treatments, but we may still consider to throw our gloves in.

Apart from their main target pipeline, for which GenEdit intends to see through to drug commercialization, the company is open to strategically licensing out other findings, Park said.

When asked what motivates these researches, and what does it feel like to be a young, celebrated scientist, CEO Lee Gun-woo -- who is eight years younger than co-founder Park -- remained modest.

Through this winding long process of life, I dream of serving the society in any way I can. To be able to serve, I believe its imperative to broaden my capabilities, Lee said.

I had the opportunity to listen to astronaut Jonny Kims webinar. He spoke of Martin Luther King and the life of service, that everyone is capable of greatness through the act of giving, Lee said. One of my dreams is to use science to benefit more patients, and I am profoundly grateful that I am on that path.

The young co-founders of GenEdit had not foreseen that they would be leading a gene therapy company in the US when they first set foot on US soil in 2011.

Lee had come straight after his bachelors degree in bioengineering at Korea Advanced Institute of Science and Technology in Daejeon, and Park had come after completing a masters in food science at Korea University in Seoul.

Lee had spent most of his life growing up in his home city of Daegu, while Park had lived in Seoul.

I would like to tell scientists in Korea that they must create reasons to come out to the US. Korea has great science, but one cant deny that its here in the US where all the breakthrough innovations happen, said Park.

If in Korea, every academic novelty would have to be indirectly studied. Here, everything becomes a raw, immediate experience. We get to be in the heart of the research leading scientific progress, shoulder-to-shoulder with Nobel laureates, Park said.

Being in southern California, we are adjacent to companies like Genentech. Remember the time when the only drugs available were swallowable tablets? Genentech is the company that pioneered the protein-based drug shots that revolutionized cancer therapies. We aspire to be the next Genentech in the realm of gene therapies, Lee said.

His source of joy is his parents who send him support from Daegu. Although there are limitations to their comprehension of the intricate science of Lees work, news of their son always fills them with pride, Lee said. Due to the COVID-19 pandemic, Lee has not been able to pay them visits as of late.

As for Park, he is most thankful to Lee and his wife for being a spiritual buttress. As a father of four, with his eldest now 12 years old, Park says he is especially thankful to Lee for clocking in more hours at work, and to his wife for her sacrificial love.

What binds Lee and Park together as partners is the deep trust and camaraderie that has built up in the decade they have known each other. The five years in school and five years in business have united them as near-family and made them an inseparable team.

As of February, GenEdit had 17 full-time employees, of whom 14 were researchers. By the end of the year, GenEdit plans to boost the headcount to 27 full-time workers. Lee and Park said that they have built a culture where it is OK to make mistakes and keep matters transparent. Anyone who wants to try some cool science and do fun researches is welcome to join this science-focused team, they said.

By Lim Jeong-yeo (kaylalim@heraldcorp.com)

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[Herald Interview] GenEdit to hone in on nervous system disorders in 2021 blueprint - The Korea Herald

Latest Report on Algae Oil Market to Drive Amazing Growth by 2026 | Lonza Group Ltd.; Royal DSM; Runke Biological Company; Cargill Alking…

The report titled Algae Oil Market By Grade (Fuel Grade, Food Grade, and Feed Grade), By Application (Food & Beverage, Biofuel, Dietary Supplements, and Animal Feed), And By Region Global Industry Perspective, Comprehensive Analysis, and Forecast, 2020 2026 utilizing diverse methodologies aims to examineand put forth in-depth and accurate data regarding the globalAlgae Oil Market.To begin with, the report comprises the major players actively participating and competing within theAlgae Oil Market; it entails several companies, manufacturers, suppliers, organizations, and so on. Thus, the report will assist in understanding the initiatives and approaches implemented by these players to create and reinforce their market presence.The report is segregated into different well-defined sections to provide the reader with an easy and understandable informational document. Further, each section is elaborated with all the required data to gain knowledge about the market before entering it or reinforcing their current foothold. The report is divided into:

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Along with the market overview, the report comprises Porters Five Forces analysis elucidating the five forces: explicitly suppliers bargaining power, degree of competition, buyers bargaining power, and threat of substitutes in the globalAlgae Oil Market.In addition, theAlgae Oil Marketreport also entails the number of participants, like intermediaries, system integrators, and end-users existing in the globalAlgae Oil Marketwhile putting forth the competitive landscape to get a clearer view of the markets growth statistics and dynamics.

The key major market players include:Lonza Group Ltd.; Royal DSM; Runke Biological Company; Cargill Alking Bioengineering; Rishon International Group; Cellana Inc.; and Hubei Fuxing Biotechnology.

The report encompasses the leading manufacturers along with their respective share in the global market in terms of revenue. Moreover, it mentions their tacticalsteps in the last few years, leadership changes, and product innovationinvestmentsto help in making well-informed decision and also to stay at forefront in the competition.

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Moving to the growth drivers and restraints section, one will be presented with all factors that are directly or indirectly aiding the growth of the globalAlgae Oil Market. To get acquainted with the markets growth statistics, it is essential to assess the several drivers of the market. In addition, the report also puts forth the existing trends along with new and possible growth opportunities in the global market.Moreover, the report includes the factors that can possibly hinder the growth of the market. Understanding these factors is similarlycrucial as they aid in comprehending the markets weaknesses.

The segmentation of the globalAlgae Oil Marketsegregates the market based on different aspects such as Type, Application, end use industry and region. Further, each segment is elaborated providing all the vital details along with growth analysis for the forecast period. The report also divides the market by region into North America, Europe, AsiaPacific, the Middle East & Africa, and Latin America. The regional analysis covers the volume and revenue assessment of every region along with their respective countries. In addition, the report also entails various market aspects such as import & export, supply chain value, market share, sales, volume, and so on.

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Primary and secondary approaches are being used by the analysts and researchers to compile thesedata. Thus, thisAlgae Oil Marketis intended at directing the readers to a better, apprehensive, and clearer factsand data of the globalAlgae Oil Market..

The latestAlgae Oil Marketreport is crafted along with the ongoing COVID-19-stimulated pandemic condition that has severely influenced the market growth on global as well as regional extents. It presents thorough market study on the basis of the post-COVID-19 and existing market scenario. Also, it includes the likely future impacts of the outbreak on the globalAlgae Oil Market

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Latest Report on Algae Oil Market to Drive Amazing Growth by 2026 | Lonza Group Ltd.; Royal DSM; Runke Biological Company; Cargill Alking...

Exhaled respiratory droplets increase with the onset of COVID-19 infection and with aging and obesity | Harvard John A. Paulson School of Engineering…

Superspreading events have distinguished the COVID-19 pandemic from the early outbreak of the disease. Now, research from Harvard University, Tulane University, MIT and Massachusetts General Hospital finds that a critical factor in these and other transmission events is the propensity of certain individuals to exhale large numbers of small respiratory droplets. The researchers found that age, obesity and COVID-19 infection all correlate with a propensity to breathe out more respiratory droplets.

Understanding the source and variance of respiratory droplet generation may lead to effective approaches to reducing COVID-19 infection and transmission.

The study was published yesterday in the Proceedings of the National Academy of Sciences.

Respiratory droplet generation in the airways varies between people depending on their phenotype, said David Edwards, Associate in Bioengineering at the Harvard John A. Paulson School of Engineering and Applied Sciences and co-author of the study. While our results show that the young and healthy tend to generate far fewer droplets than the older and less healthy, they also show, in combination with the results from nonhuman primates, that any of us, when infected by COVID-19, may be at risk of producing a large number of respiratory droplets. This is an important finding in that the majority of these droplets are smaller than a single micron, meaning they can carry infection deep into our lungs and propagate infection very far in poorly circulated indoor settings.

Using data from an observational study of 194 healthy people, ages 19 to 66, and an experimental study of nonhuman primates with COVID-19, researchers found that exhaled aerosol particles vary greatly between subjects. Those who were older with higher body mass indexes (BMI) and increasing degree of COVID-19 infection had three times the number of exhaled respiratory droplets as others in the study group.

The researchers found that 18 percent of human subjects accounted for 80 percent of the exhaled particles of the group, reflecting a distribution of exhaled aerosol particles analogous to a classical 20:80 super-spreader distribution of airborne infection. The findings suggest that quantitative assessment and control of exhaled aerosol may be critical to slowing the airborne spread of COVID-19 in the absence of an effective and widely disseminated vaccine.

Our nonhuman primate studies suggest that within a few days of infection by SARS-CoV-2 aerosol, exhaled aerosol increases with the rise of viral replication in the airways, reaching a peak within about a week from first infection and then diminishing in magnitude as the infection is cleared to return to baseline within two weeks post infection, said co-author Chad Roy, Professor of Microbiology and Immunology at Tulane School of Medicine and a core scientist at the Tulane National Primate Research Center at Tulane University. We observed these same phenomena with TB-infected nonhuman primates. It seems likely that viral and bacterial infection of the airway weaken airway mucus in similar ways and promote airborne movement of infection with risks to ourselves and those around us.

The authors argue that management of COVID-19 through the restoration of airway lining mucus barrier function, and, monitoring of exhaled aerosol numbers might be important strategies in the control of transmission and infection of COVID-19, and other respiratory infectious diseases, including TB and influenza.

The research was co-authored by Dennis Ausiello, of Massachusetts General Hospital and Harvard Medical School; Jonathan Salzman and Tom Devlin, of Sensory Cloud; Robert Langer, of the Massachusetts Institute of Technology; and Brandon J. Beddingfield, Alyssa C. Fears, Lara A. Doyle-Meyers, Rachel K. Redmann, Stephanie Z. Killeen and Nicholas J. Maness, of Tulane National Primate Research Center .

It was supported in part by National Institute of Allergy and Infectious Disease (Grant # HHSN272201700033I), the National Institutes of Health (Grant # OD01110) and the Bill & Melinda Gates Foundation

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Exhaled respiratory droplets increase with the onset of COVID-19 infection and with aging and obesity | Harvard John A. Paulson School of Engineering...

Bioinformatics Software for Predictive Modeling and Expression Analysis Market 2021 : Growth And Future Prospects Analyzed KSU | The Sentinel…

Bioinformatics is a branch of science that uses technology to collect vital information pertaining to the bioengineering, biology, and biotechnology domain to present a logical analysis. To perform the analysis it uses various software tools, which are specifically designed for generating a biology analysis termed as bioinformatics software. Today, these tools are being used for creating predictive modeling and expression analysis of various genes and phenotypes. Adoption of bioinformatics software tools has significantly reduced the technical burden, introduced accuracy, and enabled efficiency in the scientific research is conducted.

The research report by Transparency Market Research has been compiled with deliberation and meticulous assessment of various factors. With primary and secondary research methodologies used to compile the overall report, the publication offers a thorough understanding of the globalbioinformatics software for predictive modeling and expression analysis. The report includes comments and recommendations by expert market leaders, which are aimed at helping the readers make well-informed business decisions.

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Global Bioinformatics Software for Predictive Modeling and Expression Analysis Market: Trends and Drivers

The sudden drop in the prices of gene sequencing and the subsequent rise in the demand for gene expression and predictive modeling has led to the emergence of bioinformatics software for predictive modeling and expression analysis. The market is also thriving due to the emerging trend of outsourcing bioinformatics services and the superb technological advancements in the corresponding field. The entry of several new players who are taking up contracts of delivering bioinformatics services along with offering value added services has given the global market tremendous boost. The growth of the pharmaceutical industry and the evolution of healthcare industry have been the very turning points for the global bioinformatics software for predictive modeling and expression analysis.

Global Bioinformatics Software for Predictive Modeling and Expression Analysis Market: Regional Outlook

In terms of geography, the global market is segmented into North America, Asia Pacific, Rest of the World, and Europe. Currently, North America holds a leading share in the bioinformatics software for predictive modeling and expression analysis market. The region is expected to assert its dominance in the coming years due to the well-established healthcare infrastructure, higher acceptance of technological advancements, and increasing investments in the development of software tools. Furthermore, increasing awareness amongst healthcare professionals about advantages of deploying bioinformatics software for predictive modeling and expression analysis is also expected to fuel the rise of the regional market in the near future. Europe trails this lead quite closely for similar reasons and is expected to remain a steady contributor to the rising revenue of the global market in the coming years.

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On the other hand, the fast-paced growth of the medical sector in Asia Pacific is also expected to offer several lucrative opportunities to Asia-Pacific bioinformatics software for predictive modeling and expression analysis market. The emergence of medical tourism in developing countries such as China, India, and Japan are likely to utilize these methods in areas of gene expression, drug discovery, and determination of phenotypic information. Furthermore, increasing investments by the governments to improve the healthcare sector is also expected to fuel the Asia Pacific bioinformatics software for predictive modeling and expression analysis.

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Key Companies Mentioned in the Report are:

The prominent players operating in the global bioinformatics software for predictive modeling and expression analysis market are SmartGene Services SARL, Accelrys, Inc., Affymetrix, Inc., Agilent Technologies Inc., Biobase GmbH, Cartagenia N.V., CLC bio A/S, DNASTAR, Inc., PerkinElmer, Inc., GenoLogics Life Sciences Software Inc., Illumina, Inc., Genedata AG, Genomatix Software GmbH and Molecular Networks GmbH.

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Our reports are single-point solutions for businesses to grow, evolve, and mature. Our real-time data collection methods along with ability to track more than one million high growth niche products are aligned with your aims. The detailed and proprietary statistical models used by our analysts offer insights for making right decision in the shortest span of time. Fororganizationsthat require specific butcomprehensiveinformation we offer customized solutions through ad-hoc reports. These requests are delivered with the perfect combination of right sense of fact-oriented problem solving methodologies and leveraging existing data repositories.

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Stay safe on the farm this planting season – McDonough Voice

ByEmily Steele, Illinois Extension, Media Communications Coordinator| Special to the McDonough County Voice

URBANA, Ill. Spring is characterized by a fury of activity on farms. In the rush to get crops in the ground, farmers may not have safety and health as a priority.

Learn how to prevent common farm injuries and illness during this critical time at a free online webinar by University of Illinois Extension and AgrAbility. Preparing for a Safe Planting Season will run from noon to 1 p.m. CT Feb. 18 online via Zoom. Register online atgo.illinois.edu/AgrSafePlanting. Those who cannot attend live can still sign up to receive access to the recorded webinar.

In Illinois, we often see an uptick in agricultural-related injuries in the spring, saysJosie Rudolphi, Illinois Extensionspecialist. And COVID-19 will again present additional health and safety challenges to farmers.

Extension andIllinois AgrAbilityare joining together to provide practical tips and seasonal reminders appropriate for large and small-scale producers and farm families. Rudolphi will be joined bySalah Issafrom theCollege of Agricultural and Biological Engineering.

Illinois Extension provides equal opportunities in programs and employment. If you need a reasonable accommodation to participate, contact Josie Rudolphi atjosier@illinois.edu. Early requests are strongly encouraged to allow sufficient time for meeting access needs.

Source: Josie M. Rudolphi,Illinois Extension Specialist, Assistant Professor, College of Agricultural and Biological Engineering

About Illinois Extension: Illinois Extension leads public outreach for University of Illinois by translating research into action plans that allow Illinois families, businesses, and community leaders to solve problems, make informed decisions, and adapt to changes and opportunities.

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The science behind those afternoon naps Harvard Gazette – Harvard Gazette

How often a person takes daytime naps, if at all, is partly regulated by their genes, according to new research led by investigators at Harvard-affiliated Massachusetts General Hospital (MGH) and published inNature Communications.

In this study, the largest of its kind ever conducted, the MGH team collaborated with colleagues at the University of Murcia in Spain and several other institutions to identify dozens of gene regions that govern the tendency to take naps during the day. They also uncovered preliminary evidence linking napping habits to cardiometabolic health.

Napping is somewhat controversial, says Hassan Saeed Dashti of the MGH Center for Genomic Medicine, co-lead author of the report with Iyas Daghlas, a medical student at Harvard Medical School (HMS). Dashti notes that some countries where daytime naps have long been part of the culture (such as Spain) now discourage the habit. Meanwhile, some companies in the United States now promote napping as a way to boost productivity. It was important to try to disentangle the biological pathways that contribute to why we nap, says Dashti.

Previously, co-senior author Richa Saxena, principal investigator at the Saxena Lab at MGH, and her colleagues used massive databases of genetic and lifestyle information to study other aspects of sleep. Notably, the team has identified genes associated with sleep duration, insomnia, and the tendency to be an early riser or night owl. To gain a better understanding of the genetics of napping, Saxenas team and co-senior author Marta Garaulet of the department of physiology at the University of Murcia, performed a genome-wide association study (GWAS), which involves rapid scanning of complete sets of DNA, or genomes, of a large number of people. The goal of a GWAS is to identify genetic variations that are associated with a specific disease or, in this case, habit.

For this study, the MGH researchers and their colleagues used data from the UK Biobank, which includes genetic information from 452,633 people. All participants were asked whether they nap during the day never/rarely, sometimes or usually. The GWAS identified 123 regions in the human genome that are associated with daytime napping. A subset of participants wore activity monitors called accelerometers, which provide data about daytime sedentary behavior, which can be an indicator of napping. This objective data indicated that the self-reports about napping were accurate. That gave an extra layer of confidence that what we found is real and not an artifact, says Dashti.

Several other features of the study bolster its results. For example, the researchers independently replicated their findings in an analysis of the genomes of 541,333 people collected by 23andMe, the consumer genetic-testing company. Also, a significant number of the genes near or at regions identified by the GWAS are already known to play a role in sleep. One example isKSR2, a gene that the MGH team and collaborators had previously found plays a role in sleep regulation.

Digging deeper into the data, the team identified at least three potential mechanisms that promote napping:

This tells us that daytime napping is biologically driven and not just an environmental or behavioral choice, says Dashti.

Some of these subtypes were linked to cardiometabolic health concerns, such as large waist circumference and elevated blood pressure, though more research on those associations is needed.

Future work may help to develop personalized recommendations for siesta, says Garaulet.

Furthermore, several gene variants linked to napping were already associated with signaling by a neuropeptide called orexin, which plays a role in wakefulness. This pathway is known to be involved in rare sleep disorders like narcolepsy, but our findings show that smaller perturbations in the pathway can explain why some people nap more than others, says Daghlas.

Saxena is the Phyllis and Jerome Lyle Rappaport MGH Research Scholar at the Center for Genomic Medicine and an associate professor of anesthesia at HMS.

The work was supported by the National Institute of Diabetes and Digestive and Kidney Diseases, the National Heart, Lung, and Blood Institute, MGH Research Scholar Fund, Spanish Government of Investigation, Development and Innovation, the Autonomous Community of the Region of Murcia through the Seneca Foundation, Academy of Finland, Instrumentarium Science Foundation, Yrj Jahnsson Foundation, and Medical Research Council.

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The science behind those afternoon naps Harvard Gazette - Harvard Gazette

RARE-X Announces the Expansion of its Board of Directors to Support the Organization’s Growth and Launch Efforts – WFMZ Allentown

ALISO VIEJO, Calif., Feb. 10, 2021 /PRNewswire-PRWeb/ -- RARE-X today announced three new board members who will help support the nonprofit's work in structured patient data collection, responsible data sharing, and the promise of its Federated Data Sharing Platform for data sharing and analysis. The new board members are Cynthia Grossman, PhD, director at Biogen; Jason Colquitt, CEO of Across Healthcare; and Simon Frost, CEO of Tiber Capital Group.

"The additions of Cynthia Grossman, PhD, Jason Colquitt, and Simon Frost to the board are very strategic. All bring a depth of knowledge in patient advocacy, health tech, scaling-up organizations, and operational excellence," said Nicole Boice, RARE-X Co-Founder/Executive Director. "We are honored to have them join an already extraordinary board and thrilled to channel their expertise, talent, and energy into helping RARE-X build towards the future."

Cynthia Grossman, PhD, is a director at Biogen, leading the MS PATHS program, a collaborative research network aimed at generating evidence to improve outcomes for patients living with Multiple Sclerosis. Prior to joining Biogen, Cynthia was director at FasterCures, a center of the Milken Institute. Before joining FasterCures, she was chief of the HIV Care Engagement and Secondary Prevention Program in the Division of AIDS Research (DAR) at the National Institute of Mental Health (NIMH). Cynthia has spent her career working to improve health by expanding opportunities for patients' perspectives to shape the processes by which new therapies are discovered, developed, and delivered. Cynthia graduated Phi Beta Kappa from Earlham College with a B.A. in psychology and biology and earned her Ph.D. in clinical psychology from the University of Vermont. She has been the recipient of a National Science Foundation Incentives for Excellence Scholarship, an NIH Ruth L. Kirschstein National Research Services Award, and a Postdoctoral Fellowship in Pediatric Psychology at the Warren Alpert Medical School of Brown University.

Jason Colquitt is CEO of Across Healthcare, a company he founded in 2012, leveraging his 20+ years in the healthcare technology field. His work has caused positive disruption within the healthcare industry as he has partnered with many organizations ranging from small start-ups to some of the world's largest health companies including Greenway Health, Walgreens Boots Alliance, Quintiles, IQVIA, Cystic Fibrosis Foundation, Muscular Dystrophy Association, American College of Surgeons, and American Heart Association. Jason has worked directly with patients, caregivers, physicians, regulators, and researchers. Jason was diagnosed with Carnitine Palmitoyltransferase II Deficiency (CPT II), a rare mitochondrial disease. He has used his experiences and technical background to help the rare disease community. Jason holds a Bachelor's degree in Applied Mathematics from Auburn University.

Simon Frost is the CEO of Tiber Capital Group. Before joining Tiber Capital Group, he was the chief investment officer of Greencourt Capital, a public company with approximately $1 billion in real estate assets. Before joining Greencourt Capital, Simon was president and COO of Key Properties. He was also the co-founder of The American Home, one of the largest single-family rental aggregators in the United States. Simon holds Bachelor's and Master's degrees in economics from Cambridge University in England, and a Bachelor's degree in finance from the University of South Africa. Simon serves as director of both Cure AHC and Hope For Annabel, charities dedicated to finding therapies for Alternating Hemiplegia of Childhood.

The current RARE-X Board of Directors includes: Betsy Bogard, head of program and alliance management within the 4:59 Initiative at 5AM Ventures; Nicole Boice, co-founder and executive director of RARE-X; Jason Colquitt, CEO of Across Healthcare; Wendy Erler, vice president of Patient Experience, STAR and Advocacy at Alexion Pharmaceuticals; Simon Frost, CEO of Tiber Capital Group; Peter Goodhand, CEO of Global Alliance for Genomics and Health; Cynthia Grossman, PhD, director at Biogen; Walt Kowtoniuk, PhD, COO of MOMA Therapeutics and venture partner at Third Rock Ventures; Craig Martin, president of Rithm Health and interim CEO at Global Genes; Katherine Maynard, principal at PWR; Angeli Moeller, PhD, head of Pharma Informatics International at Roche; David Pearce, PhD, president of Innovation and Research for Sanford Health; Anthony Philippakis, MD, PhD, chief data officer at Broad Institute; John Reynders, PhD, chief data scientist at Reynders Consulting; Morrie Ruffin, co-founder and board member of ARM Foundation for Cell and Gene Medicine and managing partner, Adjuvant Partners; Alvin Shih, MD, president and CEO at Catamaran Bio.

ABOUT RARE-X

RARE-X is a 501(c)(3) patient advocacy organization focused on supporting the acceleration and development of life-altering treatments and future cures for patients impacted by rare disease. Enabled by best-in-class technology, patients, researchers, and other technology vendors, RARE-X will gather structured, fit-for-purpose data to share broadly, benefitting from 21st-century governance, consent, and federated data sharing technology. RARE-X is building the largest collaborative patient-driven, open-data access project for rare diseases globally. For more information, visit http://www.rare-x.org.

Media Contact:

Tom Hume, Marketing Communications RARE-X

tomh@rare-x.org

Media Contact

Tom Hume, RARE-X, 7602144863, tomh@rare-x.org

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RARE-X Announces the Expansion of its Board of Directors to Support the Organization's Growth and Launch Efforts - WFMZ Allentown

Pfizer to nearly halve COVID-19 vaccine production timeline, sterile injectables VP says – FiercePharma

With an upsized production goal of 2 billion COVID-19 vaccine doses this year, Pfizer and its German partner BioNTech arent resting on their laurels now that their shot, Comirnaty, has emergency nods in the U.S., Europe and beyond. As the companies continueto build out capacity, manufacturing efficiency is getting its own boost, Pfizerrevealed.

The time it takes the companyto produce a COVID-19 vaccine batch could soon be cut from 110 days to an average of just 60, Chaz Calitri, vice president of sterile injectables, told USA Today. We call this Project Light Speed, and its called that for a reason, he said. Just in the last month, weve doubled output.

One element teed up for acceleration is DNA productionthe first step inPfizers vaccine manufacturing process, Calitri explained. Making that DNA originally took 16 days, but the process will soon take just nine or 10 days, he said.

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RELATED:Pfizer, Johnson & Johnson balk at shareholders' push for COVID-19 vaccine pricing info

Production efficiencies aside, the company is also looking to dial up capacity with the addition of new manufacturing lines atall three of its U.S. plants, USA Today said.Demand for a functional shot meant Pfizer didnt have the span of several years typically required to refineits manufacturing process, so the company is improving as it goes, Calitri noted.We just went straight into commercial production," he said.

Engineers took an eye to improving manufacturing the moment vials started coming off production lines, which led the company to make a lot of really slick enhancements, he added.

A Pfizer spokesperson confirmed Calitris comments to Fierce Pharma via email.

RELATED:First-to-market Pfizer expects a whopping $15B from its COVID-19 shot in 2021

Pfizer and BioNTechs manufacturing network depends on six facilities split between Europe and the U.S. Stateside, the vaccine starts its life at Pfizers Chesterfield, Missouri, plant, where the DNA is produced. It then heads to the companys facility in Andover, Massachusetts, for transcription into mRNA, before finally making its way to Kalamazoo, Michigan for fill-finishwith lipid and lipid nanoparticle production and formulation taking place somewhere prior to that final step.Calitri heads up operations at the Kalamazoo plant.

Pfizer and BioNTechs mRNA-based vaccine last year became the first COVID-19 shot authorized in Europe and the U.S. On deck to supply hundreds of millions of doses to those two regions alone, BioNTechs CEO Uur ahin recently said the companies would boost their 2021 output target to 2 billion doses from a prior goal of 1.3 billion.

At the time, ahin pinned those production hopes on six global manufacturing sites tapped in the companies alliance, including a facility in Marburg, Germany, that he said was expected to go live by the end of February.

RELATED:Could combining Pfizer's and AZ's COVID-19 vaccines fill supply gaps? U.K. researchers aim to find out

A little more than a week later, the biotech won approval to start manufacturing itsvaccine at the Marburg site, which employs 300 people and is set to produce up to 750 million doses annually, German news outlet Hessenschau reported.

The announcement ran up against news that BioNTech was carrying out a factory upgrade in Puurs, Belgium that would allow itto deliver significantly more doses in the second quarterthough that production boost came with a catch: namely, a short-term disruption of supply in Europe, Canada and a few other countries.

Meanwhile, in a sign of the unconventional alliancesCOVID-19 has fostered, Pfizer and BioNTech recently got some added manufacturing muscle from two Big Pharma rivals. Sanofi in late January said it would produce more than 100 million Comirnaty doses in Europe in 2021, with the first deliveries from its site in Frankfurt, Germany, expected by August, a company spokesperson told Fierce Pharma.

Just a few days later, Swiss drugmaker Novartis said it would pitch in, too, agreeing to carry out fill-finish work at its facility in Stein, Switzerland, where production is pegged to start in the second quarter.

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Pfizer to nearly halve COVID-19 vaccine production timeline, sterile injectables VP says - FiercePharma

3 ways nanotechnology can improve tomorrow’s cars – Automotive News

With emissions reduction regulations and the popularity of electric vehicles at an all-time high, automakers are under tremendous pressure to make their internal combustion engine vehicles more fuel efficient and raise the performance of their EVs. This means they are having to look at every possible aspect of a vehicle to help it meet green regulations and consumer desires.

For example, by using nanotechnology-powered glass such as suspended particle device, or SPD, variable light transmission glass in sunroofs instead of the bulky sliding overhead panel we are all familiar with, automakers have been able to provide additional headroom for passengers without having to compromise driving stability and safety by raising the center of gravity in cars and utilities. One automaker has publicly calculated that the use of SPD smart glass can eliminate the need for 54 components in their panoramic sunroofs and reduce weight in the roof by 13 pounds.

Another automaker has calculated that this technology can reduce cabin temperature by 18 degrees without using air conditioning. This not only allows automakers to reduce weight and add space by reducing the size of air conditioning compressors by 40 percent but also reduces CO2 emissions by up to 4 grams per kilometer and increases the driving range of electric vehicles by 5.5 percent.

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3 ways nanotechnology can improve tomorrow's cars - Automotive News

Where does nanotechnology fit in the ingredients equation? – FOOD Magazine – Australia

Up until 20 years ago, not much was happening in the field of nano technology as it related to food and beverages. However, in the past 15 to 20 years there have been a number of academic papers published, as well as references made, with regard to the technology and how it can be applied to this industry.

In the December issue of Food & Beverage Industry News, Dr Julian McClements distinguished professor at Department of Food Science at the University of Massachusetts, adjunct professor, School of Food Science and Bioengineering at Zhejaing Gongshang Uni, China, and visiting professor, Harvard University, talked about the future of food. And part of that future included nanotechnology.

While the idea of nanotechnology in food is exciting, there are many facets that have yet to be discovered and it is important that when delving into nano technology in this arena that proper research and development is carried out.

Nanoparticles are a key ingredient to nanotechnology, but what are they?

If you look at something like a pumpkin, and you were standing on the moon and looking at the Earth and I held the pumpkin up in my garden, you wouldnt see it because the pumpkin is very tiny compared to the Earth, said McClements. It is about 10 million times smaller. Now, if you compare a nanoparticle to the pumpkin, it is 10 million times smaller than a pumpkin. That gives you an idea of just how tiny nano particles are. But what is incredible is that even though they are that small, we can still fabricate them, characterise them and still use them for different functional purposes.

There are several types of nanoparticles that are available in food. Organic nanoparticles can be made out of fats of lipids, or surfactant micelles that are found in milk. They can be made out of proteins, like casein micelles., or they can be made out of carbohydrates like nano starch. They can be found in nature or they can be made and can be used for different functional purposes to change the texture or bioviability of ingredients.

According to McClements, often when the idea of nanotechnology in foods is brought up, some people think they will have a negative impact on the food chain. However, nature has been putting nanoparticles in food for millions of years.

If you look at breast milk from a mother or milk from cows, they have casein micelles in them and those casein micelles are 50 to 500nm, said McClements. And they are micelles that nature has created to incorporate proteins, phosphates and calcium in a form that can get digested in your body quickly and release all these nutrients and feed the growing infant. Just because something is a growing nanoparticle doesnt mean its dangerous. You can also get other kinds of nanoparticles like oil bodies in oil seeds. Things like soy beans. If you look inside soy beans they have tiny nanoparticles in there that are like parts surrounded by proteins and these can be in the nano range as well.

Alternatively, it is possible to engineer nanoparticles. McClements gives the example of where he grew up in Northern England where there is a titanium dioxide factory near the house where he lived. They made tiny titanium dioxide particles, which were about the same size as a wavelength of light so they scatter the light strongly and they had a very high refracted index that made them good light gatherers.

If you look at the paint on my wall, the white paint has got a lot of titanium dioxide in it to make it look bright, he said. We put the same particles in foods. A lot of foods, like chewing gum, or bakery products, or the dust you get on doughnuts, has got titanium dioxide in it to make it look white and bright. If you are a food manufacturer you might potentially make these nanoparticles, or they might just occur in the product unintentionally. You didnt mean to make them, but the process you use means they end up in your food. When you are making engineered nanoparticles, are trying to do in the food industry is to create some novel effects in our foods, or we are trying to improve food quality, or safety or the nutritional properties of food?

Why use nanoparticles?

An important attribute of nanoparticles if that they are of a very small size. It is possible to take a regular food ingredient and shrink it down to the nano size where it will behave very differently to a normal food ingredient. For example, if a manufacturer is trying to deliver a bioactive component to the human body. If its small enough, it can penetrate through the mucus layer and through epithelial cells and be absorbed into the body, whereas a larger particle would be incapable of achieving such a feat.

This is because the pores in the mucus layer that enclose our intestinal tract are about 400nm. If the particle is small enough it will get through, said McClements. The same with things like microbial cells. They are covered by a coating and if you can get them small enough they can get through. That is one reason you might use nanoparticles in food.

Another characteristic of nanoparticles is the high surface area. If there is a given mass of a material and a manufacturer makes it smaller and smaller, then the surface area increases. That can change the behaviour of the food.

In foods there are a lot of things that happen at the interfaces, said McClements. For example, lipid oxidation in a lot of food products happens at the water/oil interface, or lipid digestion happens there. As you increase the interface, you increase the lipid oxidation, or lipid digestion. In some cases that is good, in other cases it can be detrimental.

If you look at the molecular interaction of a molecule the surface of a material theyre different from the interactions with a normal material. For example, the melting point or the boiling point or the density and chemical reality of the molecule changes as the surface does. If we make things smaller and smaller, we can change the surface chemistry and the way theseparticles behave.

Enhancing food supply

Now that nanoparticles are used in food, how can a food manufacturer employ them into their production line and what are some of the benefits.One of the ways is to make food ingredients invisible, which sounds weird, said McClements. Say you wanted to make a transparent beverage. You want a clear beverage but you want to have an oil-soluble component in it. Normally when you put an oil soluble component in it, it wouldnt mix with water and you would get a layer of oil on top. Or you would use a conventional homogenisation technology and you would use something that is a few hundred nanometres and it would scatter light very strongly and would look something like milk. It would look very creamy. However, if you use special fabrication methods, you can make a system that has got fat in it but it looks transparent. And the way you do that is make the particles very small. Much smaller than the wavelength of light and they scatter light very weakly and therefore they look clear. When the particle size is about the same size as the wavelength of light, they scatter strongly. This is one application that the beverage industry is already using to put soluble flavours and colours and vitamins into beverage products.

Shelf life

It is also possible to use nanotechnology to increase shelf life. Around the world there are currently a lot of microbreweries opening so people are trying to make new types of beers, with all sorts of weird and interesting ingredients, according to McClements. There are often precipitates of sediments in these products., which are also found in dressings and plant-based milks and similar products.

Using nanotechnology you can try and improve the shelf life of these products and improve the stability of these products by making particles very small. There are two ways you can do this. One is to help prevent particle aggregation and the second helps stop creaming and sedimentation, he said. With creaming and sedimentation, if you have a particle in some kind of food product you want it to stay stable so that the particle looks homogenous. Any particle that has two different forces acting on it. One of them is gravity and that will tend to make the particles move upwards. The other is Brownian motion, which is like the random collisions of the molecules revolving around it. This wants to randomise the system. Brownian wants to make it homogenous and gravity wants all the particles to go to the top or bottom depending on the density distance. What you will find is that gravity increases as the particle size increases. This means things tend to separate more quickly as the particles get bigger. Whereas Brownian motion tends to increase as the particles get smaller. When the particles are small enough, the gravity forces are very weak and the Brownian motion is very strong and you can prevent creaming or sedimentation from occurring.

Then there is the ability to change the stability of particles to aggregation. When the particles aggregate they often make the creaming and aggregation faster. McClements did an experiment a few years ago where he made protein stabilised emulsion droplets and made them large and small and his team calculated the colloidal actions between them. What they found was that if there are very small particles, the colloidal interactions forces between the particles were very small.

These are so small the attracted sources that the emulsion stays stable and the product can a have a long shelf life. If the particles are bigger, the attractive forces are much stronger and then you tend to get aggregation and creaming of droplets. This experiment was an example of that by making the droplets very small, you can improve the shelf life of a product. That is the physical stability of foods, said McClements.

Reducing calorie count

Finally, McClements team also did another experiment by trying to make food healthier by trying to reduce its calorie count.

What we wanted to do was make things like sauces and salad dressings, or mayonnaise, which have nice, creamy textures, but with a much lower fat content, he said. What we did in this experiment was we made up two types of protein stabilised emulsions at pH7. One of them was stabilised by lactoferrin which was positive pH7, while the other was stabilised by -lactoglobulin, which is negative at pH7.

We either used the pure proteins or we used a mixture of these different emulsions. If you have pure -lactoglobulins then the particles are negative, and have a very low viscosity like in milk so you could just pour it. If you had pure lactoferrin it was positive, and again you have a very low viscosity and you could just pour it. This is because the droplets have a high charge and they all repel each other and therefore you wont get any aggregation in the system. If you mix these two oppositely charged particles together, they aggregate with each other because of the attraction. They form a 3D network that extends over the whole product, and you get a paste-like, creamy product. You have a very low fat content but you have a high viscosity.

Typically to get this type of viscosity you would have to get 40 to 50 per cent fat in there. This is a potential strategy to get reduced fat in foods to address things like obesity and diabetes.

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Where does nanotechnology fit in the ingredients equation? - FOOD Magazine - Australia

How Agricultural Nanotechnology Will Influence the Future of Farming Sustainability – AZoNano

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The agricultural sector is dealing with enormous challenges such as rapid climatic changes, a decrease in soil fertility, macro and micronutrient deficiency, overuse of chemical fertilizers and pesticides, and heavy metal presence in the soil. However, the global population increase has subsequently escalated food demand. Nanotechnology has immensely contributed to sustainable agriculture by enhancing crop production and restoring and improving soil quality.

Nanotechnology is applied in various aspects of agriculture, for example:

This article focuses on the recent applications of nanotechnology for sustainable farming and how it influences the future of agricultural developments.

The poor awareness of the farmers in general and the excessive use of chemicals has severely affected the agricultural land as the toxic agrochemicals pollute the surface and groundwater. The increased use of chemical pesticides also eliminates beneficial microbes, insects, and other wildlife from the soil. The cumulative effect of all of the above results in major degradation of the ecosystem.

Several nanoparticles are commercially used in agriculture. Some of the commonly used nanoparticles are mentioned below:

In the agricultural sector, polymeric nanoparticles are used in the delivery of agrochemicals in a slow and controlled manner. Some of the advantages of polymeric nanoparticles are their superior biocompatibility and minimal impact on non-targeted organisms.

Some of the polymeric nanomaterials used in agriculture are polyethylene glycol, poly(epsilon-caprolactone), poly(lactide-co-glycolides), and poly (-glutamic acid).

Silver nanoparticles are extensively used for their antimicrobial property against a wide range of phytopathogens. Scientists have also reported that silver nanoparticles enhance plant growth.

Many chemical companies use nano alumino-silicate formulations as an efficient pesticide.

These nanoparticles are biocompatible and are used as a disinfecting agent for water.

Carbon nanoparticles such as graphene, graphene oxide, carbon dots, and fullerenes, are used for improved seed germination.

Some of the other nanoparticles that are used in agriculture are zinc oxide, copper oxide nanoparticles, and magnetic nanoparticles.

Video Credit:Luca P./YouTube.com

The application of nanoherbicides and nanopesticides for the management of weed and pests have significantly increased crop productivity. Different types of nanoparticles such as polymeric nanoparticles and inorganic nanoparticles are utilized for the nanoherbicide formulations.

Scientists have developed various routes for the efficient delivery of herbicides. For example, poly (epsiloncaprolactone) nanoparticles encapsulate atrazine, a herbicide. This nanocapsule showed strong control of the targeted species, reduced genotoxicity level, and could also significantly decrease the atrazine mobility in the soil.

Huge agricultural losses are incurred annually owing to microbial (virus, fungus, and bacteria) infections.

Nanomaterials with specific antimicrobial properties help prevent microbial infestations. Some of the common pathogenic fungi that cause diseases areColletotrichum gloeosporioides,Fusarium oxysporum, Fusarium solani, and Dematophora necatrix.

Several nanoparticles such as nickel ferrite nanoparticles and copper nanoparticles, have a strong antifungal property and are effectively used in disease management. In the case of viral infection treatment, chitosan nanoparticles, zinc oxide nanoparticles, and silica nanoparticles are effective against viral diseases such as mosaic virus for tobacco, potato, and alfalfa.

Scientists have used nanotechnology to design a smart delivery system that would release nutrients in a slow and controlled manner to the targeted site to tackle nutrient deficiency in plants.

Nanofertilizers increase crop productivity by enhancing the availability of essential nutrients to the plant.

A significant increase in the yields of millet and cluster beans was found after the application of nanophosphorus fertilizers in arid conditions. Chitosan nanoparticles suspensions containing nitrogen, phosphorus, and sodium have also increased crop production.

Seed quality is an important factor which crop productivity depends on.

It has been observed that carbon nanotubes can enter the hard seed coat of tomatoes and significantly improve the germination index and plant growth.

Similarly, the germination percentage increased when soybean and corn seeds were sprayed with a multiwall carbon nanotube. Various nano treatments are available to enhance the germination index of plants.

Nanobiosensors are highly sensitive and specific when compared to conventional biosensors. These devices convert biological responses to electrical responses via a microprocessor.

Nanobiosensors offer a real-time signal monitoring and are involved in direct or indirect detection of pathogenic microorganisms, antibiotic resistance, pesticides, toxin, and heavy metal contaminants. This technology is also used to monitor crop stress, soil health, plant growth, nutrient content, and food quality.

The following are some of the strategies devised for sustainable farming using agricultural nanotechnology:

Some of the policy options for the application of nanotechnology for sustainable development of agriculture are listed below:

Acharya, A., and Pal, P.K. (2020) Agriculture nanotechnology: Translating research outcome to field applications by influencing environmental sustainability. Nano Impact, 19, 100232. https://doi.org/10.1016/j.impact.2020.100232

Prasad, R. et al. (2017) Nanotechnology in Sustainable Agriculture: Recent Developments, Challenges, and Perspectives. Frontiers in Microbiology. 8, 1014. https://doi.org/10.3389/fmicb.2017.01014

Pandey, G. (2018) Challenges and future prospects of agri-nanotechnology for sustainable agriculture in India. Environmental Technology & Innovation. 11, 299-307. https://doi.org/10.1016/j.eti.2018.06.012

Disclaimer: The views expressed here are those of the author expressed in their private capacity and do not necessarily represent the views of AZoM.com Limited T/A AZoNetwork the owner and operator of this website. This disclaimer forms part of the Terms and conditions of use of this website.

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How Agricultural Nanotechnology Will Influence the Future of Farming Sustainability - AZoNano

AREV Nanotechnology becomes a sponsor of the National Sciences Academy 2021 Hemp Symposium – GlobeNewswire

VANCOUVER, British Columbia, Feb. 10, 2021 (GLOBE NEWSWIRE) -- AREV NANOTEC BRANDS INC. (CSE: AREV) (OTC: AREVF) (AREV NanoTec), which recently introduced its nanotechnology extraction system to the world, is looking even further to the future, but this time has its sights set on helping to improve food security by way of hemp protein. (https://gvn.org/about/board/)

As such, AREV is a sponsor of the inaugural National Hemp Symposium, a joint initiative between the National Academies of Sciences Board on Agriculture and Natural Resources (BANR) and Oregon State Universitys Global Hemp Innovation Center.

The Global Hemp Innovation Center is a globally recognized leading center across multiple diverse industries and research fieldswhich serves the growing international demand for innovative approaches to food, health and fiber.

Michael Withrow, CEO of AREV, NanoTec: Were very excited to have the opportunity to become a sponsor of this very prestigious and critical conference organized by the National Science Academies & Oregon State University. This conference further expands opportunities for this sector and for AREV NanoTec as we venture towards further sophistication of our research and development in phytomedicialzation and innovations in extraction technologies use

AREV NanoTecs proprietary extraction systems extract ultra-fine particulates from everything from plants to soil, making it a natural fit for the production of hemp protein.

According to the Global Hemp Innovative Centre, hemp seed contains 20 to 30 per cent edible oil; 25 to 30 per cent protein, which includes eight of the daily essential amino acids recommended for humans 20 to 25 per cent fiber, 20 to 30 per cent carbohydrates and many essential nutrients and vitamins.

Grain or oilseed hemp products include hemp seed, seed flour, seed protein, seed powder, seed oil and hemp meal. Today, hemp grain is used in human health food because of the desirable ratio of omega-6 and omega-3 fatty acids in hemp oil.

The virtual conference, which takes place Feb. 9 to 10, offers a diverse program with a broad focus on both what the industry has accomplished to-date and what lies ahead. For more information visit the National Hemp Symposium.

Dr. Roscoe Moore DVM, MPH, PhD Former Assistant United States Surgeon General (retired) who serves on the Board of Global Virus Network at the Institute of Human Virology (IHV) University of Maryland and a member of to the Scientific Advisory Board was quoted AREV sponsorship of this important conference with the National Science Advisories supports ongoing contributions to the dramatic shifts we are seeing in this very promising sector of agriculture, human health and discovery. Our continued participation in Scientific conferences that are contributing to Scientific exchange affords the Company new opportunities or growth and development as we explore new applications in dynamic extraction technologies for therapeutic developments.

For further information, contact Mike Withrow, mike@AREVBrands.com, 778-929-6536. For more information visitarevnanotec.com

On behalf of the Board,

Mike WithrowCEO & Director

About AREV NanoTec Inc. AREV NanoTec Brands Inc. (AREV) is an early stage publicly traded life science development enterprise focused on phytomedicinal extraction of novel therapeutic approaches to infectious diseases and subsequent comorbidities via its proprietary extraction systems to identify promising small molecules that present novel mechanisms of action in human and veterinary science.

AREVs model is to toll process extraction of targeted essential and functional oils and license its formulations to Licensed Producers in Canada.The company utilizes toll processors in foreign countries to encapsulate and package its formulations that can be sold in traditional distribution channels and online.

NEITHER THE CANADIAN SECURITIES EXCHANGE NOR ITS REGULATIONS SERVICES PROVIDER HAVE REVIEWED OR ACCEPT RESPONSIBILITY FOR THE ADEQUACY OR ACCURACY OF THIS RELEASE.

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How Nanotechnology Has Improved the Auto Industry – Salon Priv Magazine

The automotive industry is constantly in pursuit of innovation. New technology has made the modern car faster, lighter, more comfortable and increasingly efficient. Many technologies have disrupted the field, and nanotechnology is one of the latest and most impactful.

Innovation has perhaps never been more critical to the industrys success than right now. As of 2018, 67% of people worldwide saw climate change as a significant threat, compared to just 56% in 2013. Since transportation is a substantial contributor to carbon emissions, theres a rising demand for the industry to become eco-friendly.

Environmental concerns aside, there are more drivers now than ever before, and that number keeps climbing. Automakers have to keep improving to satisfy the needs and desires of their growing consumer base. Nanotechnology provides a solution.

Nanotechnology refers to the applications of science, engineering and technology that occur on a nanoscale. The nanoscale deals with materials between one and 100 nanometers, so small that theyre invisible to the naked eye. Given this tiny scale, companies havent had the technology to work with these materials extensively until relatively recently.

When engineers and scientists work with nanotech, they manipulate the very atoms that make up other materials. They adjust the physical and chemical properties of matter. This level of precision enables tremendous advances and changes in how materials, parts and devices interact with the world.

This field has applications across many industries, but automakers have taken a particular interest in it. Its no exaggeration to say that nanotech has revolutionized the sector. Heres how.

One of the most common applications of nanotechnology in the auto industry is in weight reduction. Lighter cars can accelerate faster and are more fuel-efficient, as they take less power to move. Nanotechnology can create novel materials that provide the strength cars need without weighing them down.

While steel and aluminium may be comparatively light for metals, theyre still heavy. With nanotechnology, engineers can design plastics and carbon-based materials that are far lighter than these metals. Car components made from some nanoengineered plastics can be up to 40% lighter than traditional steel parts.

In addition to creating new materials, nanotechnology can improve preexisting ones. Engineers can use nanotech to modify the physical properties of steel or aluminium, improving their relative strength to achieve similar results with less material.

As the world becomes more concerned about climate change, sustainability becomes increasingly crucial for automakers. Since nanotechnology makes cars lighter, it makes them more fuel-efficient, leading to fewer carbon emissions. Nano carbons also have a thermal conductivity five times higher than other materials, reducing heat waste to improve efficiency further.

Nanotechnology has green applications beyond increasing the efficiency of fossil fuel cars, too. Nano engineers have recently developed methods for embedding silicon nanoparticles into graphene battery components to make lithium-silicon batteries. This technology can make batteries last 20% longer per charge, making electric cars a more viable option.

Nanotechnology also paves the way for thinner, more efficient hydrogen fuel cells. These technologies provide another green alternative to fossil fuel cars, producing water and heat as their only emissions. As these sustainable alternatives improve, car owners will have more options for zero-emission vehicles.

Nanoengineered materials are also typically more durable than traditionally manufactured alternatives. Research has shown that nanoparticles substantially improve scratch and abrasion resistance and maintain these properties for longer. These improvements come mostly from the way nanoparticles move as a vehicles coating encounters more elements.

As cars face adverse weather or even prolonged UV exposure from the sun, they develop microscopic scratches and cracks in their coating. Nanoparticles tend to fill pores as they appear, clogging up these minute blemishes and protecting the materials underneath. As a result, it takes longer for the elements to affect the metal under the paint, preventing rust and other corrosion.

Nanotech can improve the durability of tires, too. Materials like soot and silica improve rubbers natural properties, and the size of these particles directly impacts their efficacy. By applying these materials on a nanoscale, automakers can maximize their benefits, making tires more resistant without sacrificing grip.

Another leading application of nanotechnology in the auto industry is in the interior of a car. Vehicle interiors hold a lot of soft materials like felt and leather to make seats more comfortable. While excellent for comfort, these porous surfaces can trap bacteria and other microorganisms that could pose a risk to passengers health.

Metallic nanoparticles like silver and titanium oxide have unique antimicrobial properties that can solve this problem. Many of these tiny metal particles destroy the cell membrane of harmful microbes while posing no risk to humans. Hospitals have started using them extensively to disinfect equipment and manufacture drugs, and the auto industry has caught on.

Car manufacturers can coat interiors with these metallic nanoparticles, helping prevent the spread of disease. Similar coatings in a vehicles air filter can eliminate harmful microbes from the air, too.

Not all improvements from nanotechnology deal with vehicle performance and safety. Some are less crucial yet still central to the business side of the auto industry. Namely, nanotechnology makes cars more comfortable and aesthetically pleasing.

Some nanomaterial coatings can make surfaces hydrophobic and dirt-repellant. These improvements can help keep cars clean, both inside and outside. The anti-corrosion properties of nanoparticle-infused paints dont just protect the chassis but maintain the paints factory polish. With fewer scratches and blemishes, cars retain their initial beauty for longer.

Since some nanomaterials have tremendous heat conductivity, theyre ideal for heated seats. Seat cushions woven from nanofibers can heat up and cool faster than traditional materials, providing a more comfortable ride.

As technology advances, cars are featuring more and more of it. The more tech features a vehicle has, the more likely it is to sell, and some of this tech improves performance as well. Nanotechnology is just the latest in a long tradition of the industry embracing cutting-edge tech.

Nanotech is still relatively new, yet the automotive industry has already capitalized on it. As these technologies become cheaper and more versatile, theyll see even broader implementation. Nanotechnology could easily revolutionize transportation.

Oscar Collins is the managing editor at Modded, where he writes about a variety of topics, including the most recent trends in tech. Follow him on Twitter @TModded for regular updates!

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How Nanotechnology Has Improved the Auto Industry - Salon Priv Magazine

C-Bond Systems Retains World-Renowned Chemist and Nanotechnology Expert Professor Andrew R. Barron to Initiate a Strategic Technology Development…

C-Bond CEO Scott R. Silverman and Professor Barron Will Hold a Conference Call Today at 10:30 am EST to Discuss this Technology Development Initiative and Milestones

HOUSTON, Feb. 10, 2021 (GLOBE NEWSWIRE) -- C-Bond Systems (the Company or C-Bond) (OTC: CBNT), a nanotechnology solutions company, today announced that it has retained world-renowned chemist and nanotechnology expert Professor Andrew R. Barron to initiate a strategic technology development project: self-healing glass for the automotive sector. The objective of the development will be to create a new nano-liquid chemical solution (Liquid) that repairs visible chips and cracks in windshield glass to reduce replacements and simplify repairs.

C-Bond and Professor Andrew R. Barron, the founder of the Energy Safety Institute (ESRI) at Swansea University in the United Kingdom, are launching the development of a new Liquid that can be applied to a windshield that flows into cracks at the nano-scale and provides an active bond after being exposed to a heat source thus reforming the glass rather than filling with a resin, which is how windshields are currently repaired. A major problem with resin repair is that it relies on the bonding between the resin and the glass and the strength of the resin to replace the strength of the glass. The bonding of a typical resin to glass requires a highly clean surface, which is difficult to ensure, and thus, subsequent failure ordinarily occurs at the glass-resin interface.

The goal of this new Liquid is to be able to heal visible chips and cracks in a windshield after they occur, making it different than C-Bonds current windshield strengthener, C-Bond nanoShield, which is focused on preventing windshield chips and cracks by filling in and repairing microscopic defects on the glass surface.

At our core, we are a technology development company with an IP portfolio value of $33.7 million, stated Scott R. Silverman, Chairman and CEO of C-Bond. We have some of the best scientists in the world working on this project and expect meaningful milestones throughout the remainder of the year, including a patent filing. Although we continue to focus significant efforts on commercializing our products and are generating revenue from those products, we remain committed to expanding our strong IP portfolio, concluded Silverman.

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Professor Barron is the founder and director of the Energy Safety Research Institute (ESRI) at Swansea University in the United Kingdom and the Sr Cymru Chair of Low Carbon Energy and Environment. Educated at Imperial College (London), Professor Barron has held posts at Rice University, University of Texas at Austin, and Harvard University. He is the author of over 500 publications, 50 Patents, 8 books, and is the recipient of numerous awards including the Star of Asia International Award, Hmboldt Senior Scientist Research Award, and the first Welch Foundation Norman Hackerman Award.

The annual market for automotive glass replacement services in the U.S. exceeded $5 billion in 2016, and is expected to surpass $8 billion by 2025, according to IbisWorld. Approximately 15 million windshields are replaced in the U.S. every year.

Conference Call Details: To listen to the live call, please dial 877-830-2591 within the U.S. or 785-424-1738 internationally. The conference ID for the live call is 22663. For those unable to participate in the live call, a replay will be available from February 10, 2021 at approximately 1:00 pm EST to February 17, 2021 at 11:59 pm EST. To listen to the replay, please dial 844-488-7474 within the U.S. or 862-902-0129 internationally. The conference ID for the replay is 29211254.

About C-Bond C-Bond Systems, Inc. (OTC: CBNT) is a Houston-based advanced nanotechnology company and marketer of the patented and patent-pending C-Bond technology, developed in conjunction with Rice University and independently proven to significantly strengthen glass in key automotive and structural applications. The Companys Transportation Solutions Group sells C-Bond nanoShield, a liquid solution applied directly to automotive windshields, sold through distributors. The Companys Safety Solutions Group sells ballistic-resistant glass solutions directly to private enterprises, schools, hospitals, and government agencies. The Company also sells disinfection products, including MB-10 Tablets. For more information, please visit our website: http://www.cbondsystems.com, Facebook: https://www.facebook.com/cbondsys/ and Twitter: https://twitter.com/CBond_Systems.

Forward-Looking StatementsStatements in this press release about our future expectations, including the likelihood that the objective of the development will be to create a new Liquid that repairs visible chips and cracks in windshield glass to reduce replacements and simplify repairs; the likelihood that we are launching the development of a new Liquid that can be applied to a windshield that flows into cracks at the nano-scale and provides an active bond after being exposed to a heat source thus reforming the glass rather than filling with a resin; the likelihood that we expect meaningful milestones throughout the remainder of the year, including a patent filing; constitute "forward-looking statements" within the meaning of Section 27A of the Securities Act of 1933, Section 21E of the Securities Exchange Act of 1934, and as that term is defined in the Private Litigation Reform Act of 1995. Such forward-looking statements involve risks and uncertainties and are subject to change at any time, and our actual results could differ materially from expected results. These risks and uncertainties include, without limitation, C-Bonds ability to raise capital; the Companys ability to successfully commercialize its products; the effect of the COVID-19 global pandemic on the Companys and its customers ability to operate; the Companys ability to source materials; the Companys ability to develop self-healing glass; the Companys ability to retain key employees and consultants; as well as other risks. Additional information about these and other factors may be described in the Companys filings with the Securities and Exchange Commission (SEC) including its Form 10-K filed on March 25, 2020, its Forms 10-Q filed on November 16, 2020, August 14, 2020, and May 15, 2020, and in future filings with the SEC. The Company undertakes no obligation to update or release any revisions to these forward-looking statements to reflect events or circumstances after the date of this statement or to reflect the occurrence of unanticipated events, except as required by law.

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C-Bond Systems Retains World-Renowned Chemist and Nanotechnology Expert Professor Andrew R. Barron to Initiate a Strategic Technology Development...

Nanotechnology Market to Achieve Significant Growth in the Near Future KSU | The Sentinel Newspaper – KSU | The Sentinel Newspaper

TheNanotechnology Marketresearch report thoroughly explains each and every aspect related to the Global Nanotechnology Market, which facilitates the reports reader to study and evaluate the upcoming market trend and execute the analytical data to promote the business.

Nanotechnology Market Insight:

The Global Nanotechnology Market is expected to reach USD 24.56 billion by 2025, from USD 7.24 billion in 2017 growing at a CAGR of 16.5% during the forecast period of 2018 to 2025. The market report contains data for historic years 2016, the base year of calculation is 2017 and the forecast period is 2018 to 2025.

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The report also inspects the financial standing of the leading companies, which includes gross profit, revenue generation, sales volume, sales revenue, manufacturing cost, individual growth rate, and other financial ratios.

Prominent Key Players Covered in the report:

Altair Nanotechnologies Inc., Nanophase Technologies Corporation, Nanosys, Inc., Unidym, Inc., Ablynx, ZyvexCorporation, Acusphere, Inc., Chasm Technologies, Inc., PEN, Inc., Bruker Nano GmbH, Advanced Diamond Technologies, Inc., Advanced Electron Beams (AEB), ACS Material, Abraxis, Inc., Bruker, Agilent, Nanosurf AG, Nanoscience Instruments, Hysitron, Inc., Malvern Panalytical among others.

Key Pointers Covered in the Nanotechnology Market Industry Trends and Forecast

TheNanotechnology marketreport provides successfully marked contemplated policy changes, favorable circumstances, industry news, developments, and trends. This information can help readers fortify their market position. It packs various parts of information gathered from secondary sources, including press releases, web, magazines, and journals as numbers, tables, pie-charts, and graphs. The information is verified and validated through primary interviews and questionnaires. The data on growth and trends focuses on new technologies, market capacities, raw materials, CAPEX cycle, and the dynamic structure of the Nanotechnology market.

Major Regions as Follows:

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Table Of Contents: Nanotechnology Market

Part 01:Executive Summary

Part 02:Scope of the Report

Part 03:Research Methodology

Part 04:Market Landscape

Part 05:Pipeline Analysis

Part 06:Market Sizing

Part 07:Five Forces Analysis

Part 08:Market Segmentation

Part 09:Customer Landscape

Part 10:Regional Landscape

Part 11:Decision Framework

Part 12:Drivers and Challenges

Part 13:Market Trends

Part 14:Vendor Landscape

Part 15:Vendor Analysis

Part 16:Appendix

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To summarize:

The global Nanotechnology market report studies the contemporary market to forecast the growth prospects, challenges, opportunities, risks, threats, and the trends observed in the market that can either propel or curtail the growth rate of the industry. The market factors impacting the global sector also include provincial trade policies, international trade disputes, entry barriers, and other regulatory restrictions.

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Nanotechnology Market to Achieve Significant Growth in the Near Future KSU | The Sentinel Newspaper - KSU | The Sentinel Newspaper

Comprehensive Report on Nanotechnology Enabled Coatings for Aircraft Market 2021 | Trends, Growth Demand, Opportunities & Forecast To 2027…

Nanotechnology Enabled Coatings for Aircraft Market research report is the new statistical data source added by A2Z Market Research.

Nanotechnology Enabled Coatings for Aircraft Market is growing at a High CAGR during the forecast period 2021-2027. The increasing interest of the individuals in this industry is that the major reason for the expansion of this market.

Nanotechnology Enabled Coatings for Aircraft Market research is an intelligence report with meticulous efforts undertaken to study the right and valuable information. The data which has been looked upon is done considering both, the existing top players and the upcoming competitors. Business strategies of the key players and the new entering market industries are studied in detail. Well explained SWOT analysis, revenue share and contact information are shared in this report analysis.

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Top Key Players Profiled in this report are:

AnCatt, Applied Thin Films, FlightShield, Glonatech, Triple, CHOOSE NanoTech, General Nano, HR ToughGuard, Surfactis Technologies, Tesla NanoCoatings.

The key questions answered in this report:

Various factors are responsible for the markets growth trajectory, which are studied at length in the report. In addition, the report lists down the restraints that are posing threat to the global Nanotechnology Enabled Coatings for Aircraft market. It also gauges the bargaining power of suppliers and buyers, threat from new entrants and product substitute, and the degree of competition prevailing in the market. The influence of the latest government guidelines is also analyzed in detail in the report. It studies the Nanotechnology Enabled Coatings for Aircraft markets trajectory between forecast periods.

Global Nanotechnology Enabled Coatings for Aircraft Market Segmentation:

Market Segmentation: By Type

Anti-corrosion, abrasion, and wear-resistant aircraft nanocoatingThermal barrier and flame retardant aircraft nanocoatingAnti-icing aircraft nanocoating

Market Segmentation: By Application

Commercial aircraftMilitary aircraft

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Regions Covered in the Global Nanotechnology Enabled Coatings for Aircraft Market Report 2021: The Middle East and Africa (GCC Countries and Egypt) North America (the United States, Mexico, and Canada) South America (Brazil etc.) Europe (Turkey, Germany, Russia UK, Italy, France, etc.) Asia-Pacific (Vietnam, China, Malaysia, Japan, Philippines, Korea, Thailand, India, Indonesia, and Australia)

The cost analysis of the Global Nanotechnology Enabled Coatings for Aircraft Market has been performed while keeping in view manufacturing expenses, labor cost, and raw materials and their market concentration rate, suppliers, and price trend. Other factors such as Supply chain, downstream buyers, and sourcing strategy have been assessed to provide a complete and in-depth view of the market. Buyers of the report will also be exposed to a study on market positioning with factors such as target client, brand strategy, and price strategy taken into consideration.

The report provides insights on the following pointers:

Market Penetration: Comprehensive information on the product portfolios of the top players in the Nanotechnology Enabled Coatings for Aircraft market.

Product Development/Innovation: Detailed insights on the upcoming technologies, R&D activities, and product launches in the market.

Competitive Assessment: In-depth assessment of the market strategies, geographic and business segments of the leading players in the market.

Market Development: Comprehensive information about emerging markets. This report analyzes the market for various segments across geographies.

Market Diversification: Exhaustive information about new products, untapped geographies, recent developments, and investments in the Nanotechnology Enabled Coatings for Aircraft market.

Table of Contents

Global Nanotechnology Enabled Coatings for Aircraft Market Research Report 2021 2027

Chapter 1 Nanotechnology Enabled Coatings for Aircraft Market Overview

Chapter 2 Global Economic Impact on Industry

Chapter 3 Global Market Competition by Manufacturers

Chapter 4 Global Production, Revenue (Value) by Region

Chapter 5 Global Supply (Production), Consumption, Export, Import by Regions

Chapter 6 Global Production, Revenue (Value), Price Trend by Type

Chapter 7 Global Market Analysis by Application

Chapter 8 Manufacturing Cost Analysis

Chapter 9 Industrial Chain, Sourcing Strategy and Downstream Buyers

Chapter 10 Marketing Strategy Analysis, Distributors/Traders

Chapter 11 Market Effect Factors Analysis

Chapter 12 Global Nanotechnology Enabled Coatings for Aircraft Market Forecast

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Comprehensive Report on Nanotechnology Enabled Coatings for Aircraft Market 2021 | Trends, Growth Demand, Opportunities & Forecast To 2027...