NIH Award Supports Research on Biological Drug to Rebuild Heart Tissue – University of Arkansas Newswire

University of Arkansas

Josh Sakon, University of Arkansas

FAYETTEVILLE, Ark. With funding from the National Institutes of Health, University of Arkansas researchers hope to develop the first therapeutic drug that can regenerate heart tissue. The lesion-seeking biological drug, released through stent placement, could treat coronary blockages and prevent heart failure.

Currently, there are no viable therapeutics available on the market that can promote regeneration of the heart to prevent myocardial infarction, or heart attack, said Josh Sakon, professor of biochemistry in the J. William Fulbright College of Arts and Sciences. All available medicines treat only symptoms to slow the onset of heart failure. The design of our biologics improves current methods of controlled release, because it takes advantage of specific biochemical events that occur during heart failure.

Biologics, or biological drugs, are pharmaceutical products made from or containing components of living organisms. Used in biotechnology, biologics include a variety of products taken from humans, animals or microorganisms.

Sakon received $30,000 from the NIH and a matching gift from the Commercialization Fund, a subset of the U of A Chancellors Fund to develop and commercialize sFGF1, a human fibroblast growth factor designed by Suresh Thallapuranam, professor of biochemistry. Fibroblast growth factors are cell-signaling proteins involved in a variety of processes critical to normal physiological development. Irregularities in the function of these proteins lead to a range of developmental defects.

Thallapuranam and Kartik Balachandran, associate professor of biomedical engineering, are part of Sakons team focused on developing the drug. They are working on fusing sFGF1 with a different, collagen-binding protein released through stents, the thin mesh tubes that a heart surgeon inserts into arteries and blood vessels to relieve blockage and promote tissue healing. As Sakon mentioned, the advantage of their drug is that it functions in accordance with specific biochemical activity that occurs leading up to and during an adverse event.

In addition to funding drug development, the NIH award will help the researchers obtain intellectual property and pursue critical safety and feasibility assessments, including toxicity and biocompatibility testing in both lab and animal studies. Their results will be used to secure Small Business Technology Transfer funding for preclinical efficacy studies before seeking approval from the U.S. Food and Drug Administration. The NIH funding will also help the researchers identify a potential drug carrier.

The researchers project is one of seven biomedical innovations funded by the NIH via XLerateHealth and its affiliate, the Southeast XLerator Network, which is led by the University of Kentucky. The award is part of the networks Ideas to Products program that supports researchers with competitive proof-of-concept funding that will help accelerate healthcare technologies for commercialization.

With 24 academic institutions, the Southeast XLerator Network was created to support the commercialization of promising life science and healthcare innovation in several southeastern states and Puerto Rico. Its program goal is to broaden the geographic distribution of NIH funding and to help accelerate early-stage biomedical technology from laboratory to market, with an emphasis on supporting geographically underserved areas in healthcare.

According to the American Heart Association, more than 600,000 Americans experience a new myocardial infarction each year, with 275,000 deaths attributable to heart failure. About one in four patients who survive an initial heart attack develop heart failure within four years of the initial first heart attack. Rapid diagnosis and intervention after a coronary blockage can significantly improve chances of patient survival.

Suresh Thallapuranam holds the Cooper Chair of Bioinformatics Research.

About the University of Arkansas: The University of Arkansas provides an internationally competitive education for undergraduate and graduate students in more than 200 academic programs. The university contributes new knowledge, economic development, basic and applied research, and creative activity while also providing service to academic and professional disciplines. The Carnegie Foundation classifies the University of Arkansas among fewer than 3 percent of colleges and universities in America that have the highest level of research activity. U.S. News & World Report ranks the University of Arkansas among its top American public research universities. Founded in 1871, the University of Arkansas comprises 10 colleges and schools and maintains a low student-to-faculty ratio that promotes personal attention and close mentoring.

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NIH Award Supports Research on Biological Drug to Rebuild Heart Tissue - University of Arkansas Newswire

Automatic Biochemistry Analyzers Market Research Report 2020: Key Players, Applications, Drivers, Trends and Forecast to 2026 – WaterCloud News

Prefectural Hospital

In addition, the report categorizes product type and end uses as dynamic market segments that directly impact the growth potential and roadmap of the target market. The report highlights the core developments that are common to all regional hubs and their subsequent impact on the holistic growth path of the Automatic Biochemistry Analyzers market worldwide. Other valuable aspects of the report are the market development history, various marketing channels, supplier analysis, potential buyers and the analysis of the markets industrial chain.

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Table of Content

1 Introduction of Automatic Biochemistry Analyzers Market

1.1 Overview of the Market1.2 Scope of Report1.3 Assumptions

2 Executive Summary

3 Research Methodology of Verified Market Research

3.1 Data Mining3.2 Validation3.3 Primary Interviews3.4 List of Data Sources

4 Automatic Biochemistry Analyzers Market Outlook

4.1 Overview4.2 Market Dynamics4.2.1 Drivers4.2.2 Restraints4.2.3 Opportunities4.3 Porters Five Force Model4.4 Value Chain Analysis

5 Automatic Biochemistry Analyzers Market, By Deployment Model

5.1 Overview

6 Automatic Biochemistry Analyzers Market, By Solution

6.1 Overview

7 Automatic Biochemistry Analyzers Market, By Vertical

7.1 Overview

8 Automatic Biochemistry Analyzers Market, By Geography

8.1 Overview8.2 North America8.2.1 U.S.8.2.2 Canada8.2.3 Mexico8.3 Europe8.3.1 Germany8.3.2 U.K.8.3.3 France8.3.4 Rest of Europe8.4 Asia Pacific8.4.1 China8.4.2 Japan8.4.3 India8.4.4 Rest of Asia Pacific8.5 Rest of the World8.5.1 Latin America8.5.2 Middle East

9 Automatic Biochemistry Analyzers Market Competitive Landscape

9.1 Overview9.2 Company Market Ranking9.3 Key Development Strategies

10 Company Profiles

10.1.1 Overview10.1.2 Financial Performance10.1.3 Product Outlook10.1.4 Key Developments

11 Appendix

11.1 Related Research

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Fort Bend ISD Class of 2020 valedictorians, salutatorians – Chron.com

Austin High School valedictorian Joshua Cheung is planning to attend the University of Texas at Austin to study mechanical engineering. His advice: Try your best. Remember what is most important to you and avoid losing sight of your goals. Dont take life too seriously and remember to have fun!

Austin High School valedictorian Joshua Cheung is planning to attend the University of Texas at Austin to study mechanical engineering. His advice: Try your best. Remember what is most important to you and

Photo: Courtesy Fort Bend ISD

Austin High School valedictorian Joshua Cheung is planning to attend the University of Texas at Austin to study mechanical engineering. His advice: Try your best. Remember what is most important to you and avoid losing sight of your goals. Dont take life too seriously and remember to have fun!

Austin High School valedictorian Joshua Cheung is planning to attend the University of Texas at Austin to study mechanical engineering. His advice: Try your best. Remember what is most important to you and

Fort Bend ISD Class of 2020 valedictorians, salutatorians

Fort Bend ISD recently announced the top two students for each of the districts 11 high school Class of 2020 graduates.Fort Bend County Judge KP George, who served as district trustee before winning election as county judge, urged students to continue striving for excellence.

Congratulations to our future leaders, Judge George said in a telephone interview Friday. I encourage you to strive higher and work harder, so you can achieve your hopes and dreams to build a better future for all. We need you more than ever.

Related: New venue, different dates announced for Fort Bend ISD graduations due to COVID-19

Austin High School

Valedictorian Joshua Cheung is planning to attend the University of Texas at Austin to study mechanical engineering. His advice: Try your best. Remember what is most important to you and avoid losing sight of your goals. Dont take life too seriously and remember to have fun! Salutatorian Naveen Ali is planning to attend the University of Texas at Austin to study computer science. His advice: Life is a collection of failures. The people that succeed are those who learn from these failures.

Bush High School

Valedictorian Evan He is planning to attend the University of Texas at Austin to study biomedical engineering with plans to later to start a company that solves the antibiotic resistance crisis from the worlds over-reliance on antibiotics. His advice: Never lose an opportunity because you doubted yourself. Living life without regrets means committing wholeheartedly to the most challenging decisions. If you never test the boundaries of your limits, you will never be able to reach your full potential. Salutatorian Jada Dan Nguyen is planning to attend the University of Texas at Austin to study biology and public health and go on to graduate from medical school and become a cardiologist. Her advice: Be prepared to adapt and learn to take experiences as lessons, a sign, or motivation.

Clements High School

Valedictorian Siddharth Muppalla is a National Merit Scholar who is planning to study mathematics and computer science at Massachusetts Institute of Technology to pursue a career in finance. His advice: Reality is built by your beliefs. Salutatorian Stephan Xie plans to study computer science and philosophy at Rice University. His advice: Be fearless leaders and fight for solutions to the world we now handle.

Dulles High School

Valedictorian Shaan Parekh is a National Merit Scholar who aspires to become an entrepreneur and is planning to attend the University of Texas at Austin to study computer science and business. His advice: Do more, and then some. Salutatorian Krish Singal plans to attend the University of Texas at Austin to study computer science and mathematics as a Turing Scholar and aspires to innovate, discover and build a better tomorrow with the power of science. His advice: Live life with a mission and savor the adventure.

Elkins High School

Valedictorian Kaitlyn Nguyen plans to attend the University of California at Los Angeles to study biochemistry and aspires to graduate from medical school and become a doctor. Her advice: Take chances, make mistakes, and get messy! Salutatorian Jesica Joy plans to study biochemistry at the University of Texas at Austin with a goal of graduating from medical school and working in emergency medicine. Her advice: Work hard and never lose sight of what inspires and excites you. Find what youre passionate about and follow it.

Hightower High School

Valedictorian Isabella Gandara is a National Merit Scholar who plans to study biological engineering and computer science at the Massachusetts Institute of Technology to eventually pursue scientific research as a principal investigator in the field of computational biology. Her advice: Look to other people for inspiration, but never try to imitate their success. Your life, your happiness, and your success should be uniquely your own. Salutatorian Snehal Anil Kumar is planning to study biochemistry at the University of Texas at Austin with her goal to attend medical school. Her advice: Strive to be a lighthouse to the despairing ship captains of the world.

Kempner High School

Valedictorian Emily Nguyen plans to study biological sciences at Rice University and hopes to graduate from medical school and become a doctor. Her advice: We have but one life. Lets live it well and do some good along the way. Salutatorian Trish Nguyen-Thach plans to study biology at the University of Houston with the goal of becoming a dentist with a possible specialization in specialize in orthodontics or prosthodontics. Her advice: With patience and persistence, we can achieve anything. We are the future and the change.

Marshall High School

Valedictorian Christian Wilson plans to study arts and entertainment tech at the University of Texas and hopes to work in the entertainment sector as a director, screen writer, animator or working for Disney. His advice: Do not be stressed about the little things in life because if you are, you will not be able to enjoy the big things that are going to happen. Just handle your business and have fun while doing so. Salutatorian Mija Obey is planning to study forensic chemistry at Sam Houston State University. Her goal is to become a Forensic Scientist in more than one department and find my purpose in life:. Her advice: A smooth sea never made a skilled sailor- Franklin D. Roosevelt

Ridge Point High School

Valedictorian John Breinholt IV will study chemistry at the University of Utah with further plans to study orthopedic surgery for the spine at the University of Arizona Medical School. Advice: Successful careers take more than just skill or intelligence. You will hardly get anywhere with a bad attitude towards others. Salutatorian Meredith Stickler is planning to study business at the University of Texas at Austin and hopes to graduate from law school. Her advice: Set goals to push yourself. Pain is temporary, but quitting is forever.

Travis High School

Valedictorian Sahana Ramaswamy will study biomedical engineering at Texas A&M University with post-college plans to work in a research position and aid in the development of biomedical technology. Advice: Your efforts always matter. You may not see the results today or tomorrow, but success will undoubtedly be in your future. Never give up. Salutatorian Amy Li plans to study design at the University of Texas and become a creative director or an industrial designer. Advice: Believe in yourself and be curious.

Willowridge High School

Valedictorian Alexander Vazquez-Benitez will study biomedical engineering at the University of Texas at Austin and aspires to become a biomedical engineer. Advice: Be sure to learn from your mistakes, persevere and be open to change. Salutatorian Neida Murillo plans to study biochemistry at Texas A&M University and hopes to become a perfusionist. Advice: You are capable of a lot, which you have proven by graduating amid a difficult time. Remember to hide from the procrastination monster.

Graduation ceremonies are scheduled June 1-6 at Kenneth Hall Stadium.

knix@hcnonline.com

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Fort Bend ISD Class of 2020 valedictorians, salutatorians - Chron.com

Mynomx Pioneers the Personalization Science of Food Nutrition to Prevent and Fight Onset of COVID-19 – Yahoo Finance

Mynomx Inc. (formerly Precision Wellness, Inc.), a Silicon Valley-based company at the intersection of next-generation AI analytics and the latest medical and nutrition science, today announced their personalized nutrition approach to boosting cardio and metabolic health for disease prevention and immune system support.

The Novel Coronavirus (COVID-19) has swept the world and struck those with underlying cardiometabolic syndrome: inflammation, hypertension, obesity, diabetes, and cardiovascular disorders, the hardest. The incidence and prevalence of people with cardiometabolic syndromes are on the rise, with over 40% of the US population suffering from one form of cardiovascular disease, posing the greatest burden as the nation's costliest chronic disease and number one killer.

It is clear a new approach to prevention is needed and one that involves proper nutritional interventions. Mynomx focuses on preventing the onset and progression of cardiovascular and metabolic disorders, using food as medicine, through an AI-driven personalized nutrition approach designed to each person's unique metabolism, biochemistry, health, and genetics.

"Expression of our genetic blueprint works hand-in-hand with our nutritional consumption to define our metabolism. The food that we eat directly affects the biochemical pathways that may result in a metabolic imbalance within every tissue and cell, including those of our immune system", explains Dr. Mehrdad Rezaee, Interventional Cardiologist at Cardiac and Vascular Care, a clinical scientist and a Mynomx co-founder.

The Mynomx personalized nutrition approach is predicated on AI health predictive and food recommendation engines designed from the ground up to improve balance across those cardio and metabolic pillars of health that prevent the onset of inflammation, hypertension, obesity, dyslipidemia, and diabetes.

According to Dr. Rezaee, "Achieving metabolic balance leads to an efficient metabolism which is associated with increased energy levels, optimal weight, and a bolstered immune system that can remove toxins, fight bacteria and viruses, and help in preventing the onset and severity of disease, as well as the recovery from injuries."

Unlike other food platforms that only score the quality of food without the knowledge of a person's true state of health, Mynomx's personalized nutrition platform connects food, nutrition, and health at the molecular level to provide precision nutrition food scoring and recommendations based on a person's unique biology and health.

Each person's unique health and biochemistry requires different nutrients, restrictions, and sensitivities that define their personalized dietary pattern. Mynomx combines this pattern with an individual's preference, to produce a curated list of foods ranked based on this precision nutrition score.

"We believe we can profoundly improve the health of our communities through actionable health insights and recommendations that use food-as-medicine personalized to bolster each person's metabolic response," explains Mynomx CEO Nazhin Zarghamee.

Mynomx AI applies this food scoring to whole foods, meals, packaged foods, restaurants, and recipes, to allow for healthy choices at the point of food shopping, meal selection, and meal planning decision making. Food retailers can use the Mynomx platform to build deeper personalization and engagement applications.

Mynomx's outcome-driven approach is predicated around nutritional guidelines and patterns designed to boost metabolic functioning and fight COVID-19. Government and self-insured organizations can use Mynomx predictive analytics to understand the at-risk population and deliver personalized nutrition programs to drive population health, ensuring the health of our communities.

Mynomx health predictions (previously Precision Wellness) have been validated with the highest levels of accuracy across 2.8M patient populations in conjunction with leading institutions such as Stanford Medicine [or University] & Broad Institute (a Harvard, MIT, Massachusetts General Hospital Collaborative). Reference Publication.

About Mynomx

Mynomx is a leading scientific food personalization company that offers organizations and individuals an advanced, integrative approach to managing their health through personalized health insights and nutritional intervention. The data-driven Mynomx analytic platform, powered by the latest in nutritional science at the molecular level, multi-omics, and next-generation AI, offers the means to manage health through "food as medicine," preventing disease and supporting healthy aging. In addition to serving individuals, our platform is ideal for insurance and self-insured organization, corporate wellness, testing, and diagnostic companies as well as food retailers who are seeking deeper personalization and engagement. To learn more, visit http://www.mynomx.com.

View source version on businesswire.com: https://www.businesswire.com/news/home/20200529005651/en/

Contacts

Stu Smithmedia@mynomx.com

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Mynomx Pioneers the Personalization Science of Food Nutrition to Prevent and Fight Onset of COVID-19 - Yahoo Finance

CCRC researchers focusing on COVID-19 – University of Georgia

UGAs Complex Carbohydrate Research Center is tackling the pandemic

Within weeks of the appearance of COVID-19, five teams of researchers at the University of Georgias Complex Carbohydrate Research Center put other research work aside to understand the virus, how it gets into our cells, and the changes that occur inside infected cells.

This work could help identify patients most at risk early, identify ways to slow down the disease, understand which drugs provide some hope to fight it, and perhaps, in a more distant future, to even develop vaccines for viruses before a disease spreads in humans.

With COVID-19, like other diseases, a key part of understanding the disease is understanding the role played by branching structures of sugars called complex carbohydrates or glycans.

There is no human disease that doesnt in some way involve carbohydrates, said Michael Tiemeyer, Distinguished Research Professor and co-director of the CCRC.

And no center in the world brings together as many world-renowned carbohydrate researchers as CCRC, which this year is celebrating 35 years of being a leader in glycoscience, or the study of complex carbohydrates.

CCRC faculty member and GRA Distinguished Investigator Lance Wells and other UGA collaborators are working to study the virus and its coating of carbohydrates that affect COVID-19s ability to bind to a host.

Rob Woods, professor of biochemistry and molecular biology, and his collaborators are applying 3D computational models they had created to study influenza to understand the novel coronavirus. Their models analyze the position of glycans on the viruss surface that help it evade the hosts immune system.

When a virus tries to infect a cell, it first encounters a wall of glycans that covers the cell. Geert-Jan Boons, UGA Foundation Distinguished Professor in Biochemical Sciences, studies how viruses find a way through this carbohydrate forest. His lab creates complex carbohydrates, like the ones that surround human cells, to test whether viruses can bind to them or not. For the COVID-19 research they are focusing on a class of carbohydrate that they already had successfully produced.

Carbohydrates also play a role in how the COVID-19 infection progresses.

The problem my team and I are trying to answer is how to know who should go into the hospital and who shouldnt, Tiemeyer said. Just knowing how much virus someone has isnt enough, because severity doesnt necessarily correlate with viral load. His collaborators, respiratory biologists at the University of North Carolina, discovered that COVID-19 targets glands in the airway.

It is not only glands that the disease affects. The metabolism of any infected cell will change, too, and traces of these changes can be found in the blood.

The starting point for Art Edisons group is comparing blood samples from ferret models. Edisons expertise lies in identifying small molecules in the blood called metabolitesbasically any small molecule in our bodies, in our food, or produced by our cells, such as cholesterol and vitaminsusing CCRCs specialized facilities.

Edison also stressed that, if collaboration and knowledge sharing are a key part of what the CCRC does, they matter now more than ever.

In this project, more than in any other in my career, we want to make measurements that will make a difference and share our data as soon as it is collected and we know its any good, he said. It is not the time for personal territory or trying to be the first at publishing.

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CCRC researchers focusing on COVID-19 - University of Georgia

New genomic method helps obtain high-resolution maps of DNA in the cell nucleus – News-Medical.net

Researchers at Karolinska Institutet in Sweden have developed a new sequencing method that makes it possible to map how DNA is spatially organized in the cell nucleus - revealing which genomic regions are at higher risk of mutation and DNA damage.

The technique is described in an article published in the scientific journal Nature Biotechnology.

Most cells in the human body contain approximately two metres of DNA. This long stretch of DNA is divided in 46 large pieces - the chromosomes - which occupy discrete regions of the cell nucleus known as chromosome territories.

How individual parts of the genome are spatially arranged in the nucleus strongly affects how they are being read by the cell's transcriptional apparatus. However, the spatial arrangement of individual genes in the three-dimensional (3D) space of the nucleus has remained largely unexplored.

Now, a team of researchers led by Dr. Magda Bienko at Science for Life Laboratory (SciLifeLab) and the Department of Medical Biochemistry and Biophysics at Karolinska Institutet has developed a new genomic method, named Genomic loci Positioning by Sequencing or GPSeq, which can be used to obtain high-resolution maps of how DNA is spatially organized in the cell nucleus.

The method works by gradually cutting the DNA from the nuclear periphery towards the centre, followed by reading the DNA sequence around each cut. Mathematical modelling can then be used to reconstruct the 3D genome structure and find where individual genes and regions between genes are located along the nuclear radius as well as in relation to each other.

We found that the spatial distribution of different types of chromatin (composed of DNA, RNA and protein complexes) often differed from what we expected to find.

Dr Magda Bienko, Senior Author, Science for Life Laboratory, Department of Medical Biochemistry, Karolinska Institutet

"To our surprise, we found that the picture is not as simple as having all the inactive chromatin sitting at the nuclear periphery and the active chromatin amassed in the centre.

Instead, there is a continuum, a gradient of increasing activity from the nuclear periphery towards the interior, even though the inactive chromatin can be found in the very centre of the nucleus too."

An important aspect of knowing where different genomic regions are located in the nucleus is that it is now possible to map where DNA damage and mutations are most likely to occur, explains Dr. Nicola Crosetto, a senior researcher at the same department at Karolinska Institutet and the other senior author of the paper.

"We discovered that DNA mutations that are often encountered in different cancer types are enriched in the inactive chromatin located at the nuclear periphery, which might have to do with the fact that many mutagens originate from outside the cell," he says.

"On the other hand, DNA breaks and gene fusions are much more likely to be found in the nuclear centre, which might be due to the high levels of transcription that we find in the centre."

Source:

Journal reference:

Girelli, G., et al. (2020) GPSeq reveals the radial organization of chromatin in the cell nucleus. Nature Biotechnology. doi.org/10.1038/s41587-020-0519-y.

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New genomic method helps obtain high-resolution maps of DNA in the cell nucleus - News-Medical.net

Medical Grade Chitosan Market Recent Trends and Developments, by Type, by Product, Regional growth, Profit Margin, Market size, Revenue and Sales over…

In-depth Report On Medical Grade Chitosan Market including Market Landscape, and Market size, Revenues by players, Revenues by regions.

The global Medical Grade Chitosan market is broadly analyzed in this report that sheds light on critical aspects such as the vendor landscape, competitive strategies, market dynamics, and regional analysis. The report helps readers to clearly understand the current and future status of the global Medical Grade Chitosan market. The research study comes out as a compilation of useful guidelines for players to secure a position of strength in the global market. The authors of the report profile leading companies of the global Medical Grade Chitosan market, Also the details about important activities of leading players in the competitive landscape.

Some of the Important Key player operating in the Report are: Primex, KitoZyme, BIO21, YSK, Vietnam Food, NovaMatrix, KIMICA, Ningbo Zhenhai Haixin Biological, Golden-Shell Pharmaceutical, Zhejiang Fengrun Biotech, Jiangsu Shuanglin, Jiangsu Aoxin Biotechnology, Qingdao Yunzhou Biochemistry

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The report predicts the size of the global Medical Grade Chitosan market in terms of value and volume for the forecast period 2020-2026. As per the analysis provided in the report, the global Medical Grade Chitosan market is expected to rise at a CAGR of xx % between 2020 and 2026 to reach a valuation of US$ xx million/billion by the end of 2026. In 2020, the global Medical Grade Chitosan market attained a valuation of US$ XX million/billion. The market researchers deeply analyze the global Medical Grade Chitosan industry landscape and the future prospects it is anticipated to create

Segmental Analysis

The report has classified the global Medical Grade Chitosan industry into segments including product type and application. Every segment is evaluated based on growth rate and share. Besides, the analysts have studied the potential regions that may prove rewarding for the Medical Grade Chitosan manufacturers in the coming years. The regional analysis includes reliable predictions on value and volume, thereby helping market players to gain deep insights into the overall Medical Grade Chitosan industry.

Global Medical Grade Chitosan Market Segment By Type:

Animal Origin Chitosan, Plant Based Chitosan

Global Medical Grade Chitosan Market Segment By Application:

Chitosan (CS) is a linear polysaccharide which is achieved by deacetylation of chitin, which is the second most plentiful compound in nature, after cellulose. Chitosan was applied in pharmaceutics/drug/gene delivery and cell encapsulation. Chitosan was applied in binding to protein drugs, contact lenses and implants. GMP grade chitosan covers chitosan for a variety of medical applications. The industrys leading producers are Primex, KitoZyme and BIO21, with a combined revenue share of 29.72% in 2019. In 2019, the

Competitive Landscape

It is important for every market participant to be familiar with the competitive scenario in the global Medical Grade Chitosan industry. In order to fulfill the requirements, the industry analysts have evaluated the strategic activities of the competitors to help the key players strengthen their foothold in the market and increase their competitiveness.

Key companies operating in the global Medical Grade Chitosan market include: Primex, KitoZyme, BIO21, YSK, Vietnam Food, NovaMatrix, KIMICA, Ningbo Zhenhai Haixin Biological, Golden-Shell Pharmaceutical, Zhejiang Fengrun Biotech, Jiangsu Shuanglin, Jiangsu Aoxin Biotechnology, Qingdao Yunzhou Biochemistry

Key questions answered in the report:

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Table of Contents

1 Medical Grade Chitosan Market Overview1.1 Medical Grade Chitosan Product Overview1.2 Medical Grade Chitosan Market Segment by Type1.2.1 Animal Origin Chitosan1.2.2 Plant Based Chitosan1.3 Global Medical Grade Chitosan Market Size by Type (2015-2026)1.3.1 Global Medical Grade Chitosan Market Size Overview by Type (2015-2026)1.3.2 Global Medical Grade Chitosan Historic Market Size Review by Type (2015-2020)1.3.2.1 Global Medical Grade Chitosan Sales Market Share Breakdown by Type (2015-2026)1.3.2.2 Global Medical Grade Chitosan Revenue Market Share Breakdown by Type (2015-2026)1.3.2.3 Global Medical Grade Chitosan Average Selling Price (ASP) by Type (2015-2026)1.3.3 Global Medical Grade Chitosan Market Size Forecast by Type (2021-2026)1.3.3.1 Global Medical Grade Chitosan Sales Market Share Breakdown by Application (2021-2026)1.3.3.2 Global Medical Grade Chitosan Revenue Market Share Breakdown by Application (2021-2026)1.3.3.3 Global Medical Grade Chitosan Average Selling Price (ASP) by Application (2021-2026)1.4 Key Regions Market Size Segment by Type (2015-2020)1.4.1 North America Medical Grade Chitosan Sales Breakdown by Type (2015-2026)1.4.2 Europe Medical Grade Chitosan Sales Breakdown by Type (2015-2026)1.4.3 Asia-Pacific Medical Grade Chitosan Sales Breakdown by Type (2015-2026)1.4.4 Latin America Medical Grade Chitosan Sales Breakdown by Type (2015-2026)1.4.5 Middle East and Africa Medical Grade Chitosan Sales Breakdown by Type (2015-2026)1.5 Coronavirus Disease 2019 (Covid-19): Medical Grade Chitosan Industry Impact1.5.1 How the Covid-19 is Affecting the Medical Grade Chitosan Industry1.5.1.1 Medical Grade Chitosan Business Impact Assessment Covid-191.5.1.2 Supply Chain Challenges1.5.1.3 COVID-19s Impact On Crude Oil and Refined Products1.5.2 Market Trends and Medical Grade Chitosan Potential Opportunities in the COVID-19 Landscape1.5.3 Measures / Proposal against Covid-191.5.3.1 Government Measures to Combat Covid-19 Impact1.5.3.2 Proposal for Medical Grade Chitosan Players to Combat Covid-19 Impact 2 Global Medical Grade Chitosan Market Competition by Company2.1 Global Top Players by Medical Grade Chitosan Sales (2015-2020)2.2 Global Top Players by Medical Grade Chitosan Revenue (2015-2020)2.3 Global Top Players Medical Grade Chitosan Average Selling Price (ASP) (2015-2020)2.4 Global Top Manufacturers Medical Grade Chitosan Manufacturing Base Distribution, Sales Area, Product Type2.5 Medical Grade Chitosan Market Competitive Situation and Trends2.5.1 Medical Grade Chitosan Market Concentration Rate (2015-2020)2.5.2 Global 5 and 10 Largest Manufacturers by Medical Grade Chitosan Sales and Revenue in 20192.6 Global Top Manufacturers by Company Type (Tier 1, Tier 2 and Tier 3) (based on the Revenue in Medical Grade Chitosan as of 2019)2.7 Date of Key Manufacturers Enter into Medical Grade Chitosan Market2.8 Key Manufacturers Medical Grade Chitosan Product Offered2.9 Mergers & Acquisitions, Expansion 3 Global Medical Grade Chitosan Status and Outlook by Region (2015-2026)3.1 Global Medical Grade Chitosan Market Size and CAGR by Region: 2015 VS 2020 VS 20263.2 Global Medical Grade Chitosan Market Size Market Share by Region (2015-2020)3.2.1 Global Medical Grade Chitosan Sales Market Share by Region (2015-2020)3.2.2 Global Medical Grade Chitosan Revenue Market Share by Region (2015-2020)3.2.3 Global Medical Grade Chitosan Sales, Revenue, Price and Gross Margin (2015-2020)3.3 Global Medical Grade Chitosan Market Size Market Share by Region (2021-2026)3.3.1 Global Medical Grade Chitosan Sales Market Share by Region (2021-2026)3.3.2 Global Medical Grade Chitosan Revenue Market Share by Region (2021-2026)3.3.3 Global Medical Grade Chitosan Sales, Revenue, Price and Gross Margin (2021-2026)3.4 North America Medical Grade Chitosan Market Size YoY Growth (2015-2026)3.4.1 North America Medical Grade Chitosan Revenue YoY Growth (2015-2026)3.4.2 North America Medical Grade Chitosan Sales YoY Growth (2015-2026)3.5 Asia-Pacific Medical Grade Chitosan Market Size YoY Growth (2015-2026)3.5.1 Asia-Pacific Medical Grade Chitosan Revenue YoY Growth (2015-2026)3.5.2 Asia-Pacific Medical Grade Chitosan Sales YoY Growth (2015-2026)3.6 Europe Medical Grade Chitosan Market Size YoY Growth (2015-2026)3.6.1 Europe Medical Grade Chitosan Revenue YoY Growth (2015-2026)3.6.2 Europe Medical Grade Chitosan Sales YoY Growth (2015-2026)3.7 Latin America Medical Grade Chitosan Market Size YoY Growth (2015-2026)3.7.1 Latin America Medical Grade Chitosan Revenue YoY Growth (2015-2026)3.7.2 Latin America Medical Grade Chitosan Sales YoY Growth (2015-2026)3.8 Middle East and Africa Medical Grade Chitosan Market Size YoY Growth (2015-2026)3.8.1 Middle East and Africa Medical Grade Chitosan Revenue YoY Growth (2015-2026)3.8.2 Middle East and Africa Medical Grade Chitosan Sales YoY Growth (2015-2026) 4 Global Medical Grade Chitosan by Application4.1 Medical Grade Chitosan Segment by Application4.1.1 Wound Care4.1.2 Healthcare Products4.1.3 Antibacterial Products4.1.4 Others4.2 Global Medical Grade Chitosan Sales by Application: 2015 VS 2020 VS 20264.3 Global Medical Grade Chitosan Historic Sales by Application (2015-2020)4.4 Global Medical Grade Chitosan Forecasted Sales by Application (2021-2026)4.5 Key Regions Medical Grade Chitosan Market Size by Application4.5.1 North America Medical Grade Chitosan by Application4.5.2 Europe Medical Grade Chitosan by Application4.5.3 Asia-Pacific Medical Grade Chitosan by Application4.5.4 Latin America Medical Grade Chitosan by Application4.5.5 Middle East and Africa Medical Grade Chitosan by Application 5 North America Medical Grade Chitosan Market Size by Country (2015-2026)5.1 North America Market Size Market Share by Country (2015-2020)5.1.1 North America Medical Grade Chitosan Sales Market Share by Country (2015-2020)5.1.2 North America Medical Grade Chitosan Revenue Market Share by Country (2015-2020)5.2 North America Market Size Market Share by Country (2021-2026)5.2.1 North America Medical Grade Chitosan Sales Market Share by Country (2021-2026)5.2.2 North America Medical Grade Chitosan Revenue Market Share by Country (2021-2026)5.3 North America Market Size YoY Growth by Country5.3.1 U.S. Medical Grade Chitosan Market Size YoY Growth (2015-2026)5.3.2 Canada Medical Grade Chitosan Market Size YoY Growth (2015-2026) 6 Europe Medical Grade Chitosan Market Size by Country (2015-2026)6.1 Europe Market Size Market Share by Country (2015-2020)6.1.1 Europe Medical Grade Chitosan Sales Market Share by Country (2015-2020)6.1.2 Europe Medical Grade Chitosan Revenue Market Share by Country (2015-2020)6.2 Europe Market Size Market Share by Country (2021-2026)6.2.1 Europe Medical Grade Chitosan Sales Market Share by Country (2021-2026)6.2.2 Europe Medical Grade Chitosan Revenue Market Share by Country (2021-2026)6.3 Europe Market Size YoY Growth by Country6.3.1 Germany Medical Grade Chitosan Market Size YoY Growth (2015-2026)6.3.2 France Medical Grade Chitosan Market Size YoY Growth (2015-2026)6.3.3 U.K. Medical Grade Chitosan Market Size YoY Growth (2015-2026)6.3.4 Italy Medical Grade Chitosan Market Size YoY Growth (2015-2026)6.3.5 Russia Medical Grade Chitosan Market Size YoY Growth (2015-2026) 7 Asia-Pacific Medical Grade Chitosan Market Size by Country (2015-2026)7.1 Asia-Pacific Market Size Market Share by Country (2015-2020)7.1.1 Asia-Pacific Medical Grade Chitosan Sales Market Share by Country (2015-2020)7.1.2 Asia-Pacific Medical Grade Chitosan Revenue Market Share by Country (2015-2020)7.2 Asia-Pacific Market Size Market Share by Country (2021-2026)7.2.1 Asia-Pacific Medical Grade Chitosan Sales Market Share by Country (2021-2026)7.2.2 Asia-Pacific Medical Grade Chitosan Revenue Market Share by Country (2021-2026)7.3 Asia-Pacific Market Size YoY Growth by Country7.3.1 China Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.2 Japan Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.3 South Korea Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.4 India Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.5 Australia Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.6 Taiwan Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.7 Indonesia Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.8 Thailand Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.9 Malaysia Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.10 Philippines Medical Grade Chitosan Market Size YoY Growth (2015-2026)7.3.11 Vietnam Medical Grade Chitosan Market Size YoY Growth (2015-2026) 8 Latin America Medical Grade Chitosan Market Size by Country (2015-2026)8.1 Latin America Market Size Market Share by Country (2015-2020)8.1.1 Latin America Medical Grade Chitosan Sales Market Share by Country (2015-2020)8.1.2 Latin America Medical Grade Chitosan Revenue Market Share by Country (2015-2020)8.2 Latin America Market Size Market Share by Country (2021-2026)8.2.1 Latin America Medical Grade Chitosan Sales Market Share by Country (2021-2026)8.2.2 Latin America Medical Grade Chitosan Revenue Market Share by Country (2021-2026)8.3 Latin America Market Size YoY Growth by Country8.3.1 Mexico Medical Grade Chitosan Market Size YoY Growth (2015-2026)8.3.2 Brazil Medical Grade Chitosan Market Size YoY Growth (2015-2026)8.3.3 Argentina Medical Grade Chitosan Market Size YoY Growth (2015-2026) 9 Middle East and Africa Medical Grade Chitosan Market Size by Country (2015-2026)9.1 Middle East and Africa Market Size Market Share by Country (2015-2020)9.1.1 Middle East and Africa Medical Grade Chitosan Sales Market Share by Country (2015-2020)9.1.2 Middle East and Africa Medical Grade Chitosan Revenue Market Share by Country (2015-2020)9.2 Middle East and Africa Market Size Market Share by Country (2021-2026)9.2.1 Middle East and Africa Medical Grade Chitosan Sales Market Share by Country (2021-2026)9.2.2 Middle East and Africa Medical Grade Chitosan Revenue Market Share by Country (2021-2026)9.3 Middle East and Africa Market Size YoY Growth by Country9.3.1 Turkey Medical Grade Chitosan Market Size YoY Growth (2015-2026)9.3.2 Saudi Arabia Medical Grade Chitosan Market Size YoY Growth (2015-2026)9.3.3 UAE Medical Grade Chitosan Market Size YoY Growth (2015-2026) 10 Company Profiles and Key Figures in Medical Grade Chitosan Business10.1 Primex10.1.1 Primex Corporation Information10.1.2 Primex Description, Business Overview and Total Revenue10.1.3 Primex Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.1.4 Primex Medical Grade Chitosan Products Offered10.1.5 Primex Recent Development10.2 KitoZyme10.2.1 KitoZyme Corporation Information10.2.2 KitoZyme Description, Business Overview and Total Revenue10.2.3 KitoZyme Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.2.4 Primex Medical Grade Chitosan Products Offered10.2.5 KitoZyme Recent Development10.3 BIO2110.3.1 BIO21 Corporation Information10.3.2 BIO21 Description, Business Overview and Total Revenue10.3.3 BIO21 Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.3.4 BIO21 Medical Grade Chitosan Products Offered10.3.5 BIO21 Recent Development10.4 YSK10.4.1 YSK Corporation Information10.4.2 YSK Description, Business Overview and Total Revenue10.4.3 YSK Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.4.4 YSK Medical Grade Chitosan Products Offered10.4.5 YSK Recent Development10.5 Vietnam Food10.5.1 Vietnam Food Corporation Information10.5.2 Vietnam Food Description, Business Overview and Total Revenue10.5.3 Vietnam Food Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.5.4 Vietnam Food Medical Grade Chitosan Products Offered10.5.5 Vietnam Food Recent Development10.6 NovaMatrix10.6.1 NovaMatrix Corporation Information10.6.2 NovaMatrix Description, Business Overview and Total Revenue10.6.3 NovaMatrix Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.6.4 NovaMatrix Medical Grade Chitosan Products Offered10.6.5 NovaMatrix Recent Development10.7 KIMICA10.7.1 KIMICA Corporation Information10.7.2 KIMICA Description, Business Overview and Total Revenue10.7.3 KIMICA Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.7.4 KIMICA Medical Grade Chitosan Products Offered10.7.5 KIMICA Recent Development10.8 Ningbo Zhenhai Haixin Biological10.8.1 Ningbo Zhenhai Haixin Biological Corporation Information10.8.2 Ningbo Zhenhai Haixin Biological Description, Business Overview and Total Revenue10.8.3 Ningbo Zhenhai Haixin Biological Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.8.4 Ningbo Zhenhai Haixin Biological Medical Grade Chitosan Products Offered10.8.5 Ningbo Zhenhai Haixin Biological Recent Development10.9 Golden-Shell Pharmaceutical10.9.1 Golden-Shell Pharmaceutical Corporation Information10.9.2 Golden-Shell Pharmaceutical Description, Business Overview and Total Revenue10.9.3 Golden-Shell Pharmaceutical Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.9.4 Golden-Shell Pharmaceutical Medical Grade Chitosan Products Offered10.9.5 Golden-Shell Pharmaceutical Recent Development10.10 Zhejiang Fengrun Biotech10.10.1 Company Basic Information, Manufacturing Base and Competitors10.10.2 Medical Grade Chitosan Product Category, Application and Specification10.10.3 Zhejiang Fengrun Biotech Medical Grade Chitosan Sales, Revenue, Price and Gross Margin (2015-2020)10.10.4 Main Business Overview10.10.5 Zhejiang Fengrun Biotech Recent Development10.11 Jiangsu Shuanglin10.11.1 Jiangsu Shuanglin Corporation Information10.11.2 Jiangsu Shuanglin Description, Business Overview and Total Revenue10.11.3 Jiangsu Shuanglin Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.11.4 Jiangsu Shuanglin Medical Grade Chitosan Products Offered10.11.5 Jiangsu Shuanglin Recent Development10.12 Jiangsu Aoxin Biotechnology10.12.1 Jiangsu Aoxin Biotechnology Corporation Information10.12.2 Jiangsu Aoxin Biotechnology Description, Business Overview and Total Revenue10.12.3 Jiangsu Aoxin Biotechnology Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.12.4 Jiangsu Aoxin Biotechnology Medical Grade Chitosan Products Offered10.12.5 Jiangsu Aoxin Biotechnology Recent Development10.13 Qingdao Yunzhou Biochemistry10.13.1 Qingdao Yunzhou Biochemistry Corporation Information10.13.2 Qingdao Yunzhou Biochemistry Description, Business Overview and Total Revenue10.13.3 Qingdao Yunzhou Biochemistry Medical Grade Chitosan Sales, Revenue and Gross Margin (2015-2020)10.13.4 Qingdao Yunzhou Biochemistry Medical Grade Chitosan Products Offered10.13.5 Qingdao Yunzhou Biochemistry Recent Development 11 Medical Grade Chitosan Upstream, Opportunities, Challenges, Risks and Influences Factors Analysis11.1 Medical Grade Chitosan Key Raw Materials11.1.1 Key Raw Materials11.1.2 Key Raw Materials Price11.1.3 Raw Materials Key Suppliers11.2 Manufacturing Cost Structure11.2.1 Raw Materials11.2.2 Labor Cost11.2.3 Manufacturing Expenses11.3 Medical Grade Chitosan Industrial Chain Analysis11.4 Market Opportunities, Challenges, Risks and Influences Factors Analysis11.4.1 Market Opportunities and Drivers11.4.2 Market Challenges11.4.3 Market Risks11.4.4 Porters Five Forces Analysis 12 Market Strategy Analysis, Distributors12.1 Sales Channel12.2 Distributors12.3 Downstream Customers 13 Research Findings and Conclusion 14 Appendix14.1 Methodology/Research Approach14.1.1 Research Programs/Design14.1.2 Market Size Estimation14.1.3 Market Breakdown and Data Triangulation14.2 Data Source14.2.1 Secondary Sources14.2.2 Primary Sources14.3 Author Details14.4 Disclaimer

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Medical Grade Chitosan Market Recent Trends and Developments, by Type, by Product, Regional growth, Profit Margin, Market size, Revenue and Sales over...

‘The Vast of Night’ | Anatomy of a Scene’The Vast of Night’ | Anatomy of a Scene – The New York Times

Im Andrew Patterson, and Im the director of The Vast of Night. So the actress here is Sierra McCormick, and shes playing Fay, who is all by herself with the 500 members of her town all at a basketball game. So the movie is set in November of 1958, and the setting is in a fictional town of Cayuga, New Mexico. [STRANGE SOUND] And the first thing that happens in this scene is you hear a very new sound. We wanted the sound in particular to be new in cinema. And so we worked pretty hard at mixing a number of elements together, and then Fay responds to it in a way that initially is it frames it as a viewer. Like you see that she doesnt understand it, and even though shes not threatened by it, she certainly starts taking immediate action. Hello? Hello? Hello? Listen, maam, can you disconnect and then try again? Its all calling, and its a strange, large object holding over my land off and on, like a tornado. Please send the police. Maam, is this an emergency? All of that frames your relationship to the sound. All of that kind of creates a tension that is a setup in this scene. And hopefully as a viewer youre looking for the resolution just like Fay, the switchboard operator, is. And what we were aiming to do was, in her performance, not go to the extreme that you would probably expect in this scene from if you were watching a horror film or you were watching a different kind of genre. We wanted her to be very grounded and continue to be the stand-in for the viewer. And we worked on that by heavily rehearsing her performance. This is actually the scene Sierra chose to audition with. And from the time that she auditioned with it to the night when we got this shot, we pulled it way, way, way back because we knew that the film itself, we didnt want to steal away the magic of where the film was going to go by having a large performance here. On set, there is no sound being played. The sound was a year away from being created at that point. And so shes just playing to an AD reading lines very dryly in the room but not necessarily in a way that you can play off of as an actor. So it truly was both the sound and the people on the other end of the line were yet to be cast and yet to be created. So theres no Sierra had to very much do this on her own, reading against someone that has no training in acting. went away. I just wanted to see if it Just call Everett Well, I dont want to disturb I think the only thing I told her as a director was this is something that is entrancing. Its mesmerizing. Its not scary. Its not threatening. And if anything, its the thing thats going to take you down the rabbit hole. [STRANGE SOUND]

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'The Vast of Night' | Anatomy of a Scene'The Vast of Night' | Anatomy of a Scene - The New York Times

Anatomy of a Classic Goal: James Rodriguez and the perfect volley – theScore

As we await the full return of world football, we're taking this opportunity to look back on some of the most memorable goals ever scored. Going frame by frame, we'll dissect how, exactly, these epic moments came to fruition.

Other classic goals: Ronaldo | Van Persie | Bergkamp | Aguero | Messi

It feels like an eternity ago now, but in the summer of 2014, burgeoning superstar James Rodriguez was the hottest commodity in world football. Young and handsome, supremely talented, and spearheading a fun, charming Colombia team, the then-22-year-old attacking midfielder was the belle of the ball at the World Cup in Brazil.

He captured the Golden Boot as the tournament's top scorer - despite playing fewer than 400 minutes as his country bowed out to the host nation in the quarterfinals - ultimately finding the net six times in just five games.

Of his sextet of goals, none left a mark on the competition quite like his gorgeous volley against Uruguay in the last-16. It was so spectacular that it's easy to forget Rodriguez also scored the other goal in Colombia's 2-0 win at the iconic Maracana in Rio de Janeiro. Nobody remembers that second one, though. His opener, a perfect volley from 25 yards out that was eventually named the best goal of the tournament, was that damn special.

Here's the breathtaking tally in all its glory:

Let's examine how Rodriguez was able to deliver a goal that was eventually bestowed with the 2014 Puskas Award.

As you can see in the opening seconds of the video above, the sequence begins with Juan Cuadrado and Abel Aguilar briefly playing hot potato with the ball while Rodriguez scurries back and forth, desperately trying to make himself available to receive the ball from either of his two compatriots.

The passing lane appears to open and close multiple times before Aguilar finally makes the decision to try and clip the ball into his teammate. When he does, Uruguay's Cristian Rodriguez - naturally a winger but deployed in this match as part of manager Oscar Tabarez's three-man midfield - has just about recovered to get alongside his Colombian namesake.

Uruguay were nominally lined up in a 4-4-2 formation with Rodriguez in his more natural wide position, but when they lost the ball, the system morphed into a 5-3-2, and the winger tucked inside to offer additional support in the central area. That's great, except when he's tasked with keeping tabs on the tournament's most in-form player.

Rodriguez - the Uruguayan one - looks over his shoulder a couple times but is ultimately too focused on the ball and loses track of his Colombian counterpart, who drifts behind him into a pocket of space that's developed between the Uruguayan midfielders and defenders.

Note how the three midfielders - Alvaro Gonzalez (1), Arevalo Rios (2), and Rodriguez (3) - are practically in a straight line; that makes it exceedingly simple for Aguilar to eliminate all three of them from the play with one pass, and for our eventual goalscorer to evade their clutches with some relatively pedestrian movement.

When Aguilar does indeed decide to go for the pass, Rodriguez has planted himself in a dangerous position where, were he to receive the ball right away, he'd have plenty of time to either take a touch and shoot or look to tee up one of the two Colombian strikers.

In fairness to the Uruguayan midfield contingent - we have to at least give them some credit - they do force Aguilar to go for a difficult aerial ball, cutting off the passing lanes on the ground.

It's also important to note that Cristian Rodriguez, who's listed as standing roughly 5-foot-8, comes within inches of getting his head onto Aguilar's pass. If he even gets the slightest deflection and sends the ball careening into another direction, we're almost certainly not sitting here looking back on one of the most aesthetically pleasing goals in World Cup history.

He isn't able to change the trajectory of the pass - it just evades his head. Aguilar's ball floats beyond his intended target, though - it sails past James Rodriguez - and is cleared away by the diving figure of left-back Alvaro Pereira. The Uruguayan defender, a stalwart of Tabarez's World Cup sides, nips in front of Colombian striker Jackson Martinez to clear the danger.

Momentarily, at least.

That Pereira ends up on the ground in order to make the clearance becomes vital in about two seconds ...

Pereira's header drops directly onto the cranium of Aguilar - the ball seemed to follow him around throughout this entire sequence - and instead of trying to bring it down and control it, he quickly prods it forward, looking again to find Rodriguez, who is still in that pocket of space outlined earlier.

For a variety of reasons, none of the Uruguayan contingent on the scene - outside of Diego Godin, who we'll get to shortly - is well-placed to react when Aguilar pokes the ball to his teammate.

That really leaves just Godin, the captain and ever-present defensive rock that Uruguay was long built around, to respond when Rodriguez finally does take the ball down on his chest.

It's quite literally a split-second decision, but Godin hesitates ever so briefly while charging out to confront the Colombian No. 10. It's so subtle that it's difficult to pick it up in the clip, but he rushes out, comes to a split-second stop, and then takes another step forward before Rodriguez turns his hips and uncorks a sublime volley.

Would Godin have gotten close enough to block the shot had he rushed out, full steam ahead, and not paused momentarily?

Conventional wisdom says he did everything right. Defenders have long been instructed to close down an attacker's time and space quickly; you want to get close enough to potentially put in a tackle or react to a move, but not too close to the point where the attacker can remove you from the equation with a quick juke or feint. Essentially, you can't go charging in at full speed unless you want to get left in a heap.

But with Rodriguez having to take the ball on his chest and briefly wait for it to drop to his foot before making his next move, he was in an awkward enough spot that Godin might've been able to put those standard defensive principles aside and get just that little bit tighter.

Thankfully for neutral viewers everywhere, he didn't.

Now, back to that pocket of space. It's truly incredible that, with five opposing players essentially creating a bubble around him, Rodriguez was given time to cushion Aguilar's header, swivel, and unleash his ferocious shot.

The overhead angle provides the perfect illustration:

From there, Fernando Muslera in the Uruguayan goal never had a chance. That the ball crashed off the underside of the crossbar before springing back up off the turf and into the roof of the net only makes it that much sweeter.

In every possible way, it's the picturesque volley.

"Diego Maradona, Lionel Messi, Luis Suarez, James Rodriguez - they do things because they have certain gifts that make them special," Tabarez said after the match. "I believe he's the best player at the World Cup."

Sadly, Rodriguez's career has yet to reach similar heights. His spectacular World Cup showing earned him a mega-money move to Real Madrid just over a week after the tournament ended, but injuries, positional struggles, and a lack of playing time - which resulted in a two-year loan spell at Bayern Munich from 2017-19 - have scuppered his spell in the Spanish capital.

While it seems increasingly unlikely the 28-year-old will ever develop into the unstoppable force many tipped him to be, that shouldn't take anything away from the truly magical moment he delivered that day in Rio.

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Anatomy of a Classic Goal: James Rodriguez and the perfect volley - theScore

Greys Anatomy Boss Was Excited to Eliminate Shock Death From the Show – Us Weekly

Keeping it positive. While simultaneously running season 3 of Station 19 and season 16 of Greys Anatomy, Krista Vernoff took on two completely different methods.

On Greys Anatomy, I did the opposite of what we did on Station 19. There had been so many tragic deaths for so many years on Greys Anatomy that I felt like the most surprising thing I could do, repeatedly, was to not kill someone, Vernoff, 48, told Us Weekly exclusively.

The writer served as showrunner on Greys from 2007 to 2011, then came back on board in 2017; she also took over Station 19 for creator Stacy McKee for season 3. Although the spinoff killed off multiple characters during the season, Greys did not.

Time after time, no matter how many times Ive done it, everyone, every time expects that the person whos in danger or threatened in some way is going to die, she explained to Us. On [Greys Anatomy] everyone was so used to the shock death that they were always looking for shock death! So I felt like the more surprising thing was to bring the joy and turn up the humor and the playfulness that had, a little bit, fallen out of the show in the wake of Dereks death. That is how I feel like Greys has changed a little since I came back a lot of characters who might have been dead by now are still alive!

Derek, portrayed by Patrick Dempsey, was killed in season 11 after a car accident and was only one of the many heartbreaking deaths on the series.

During the interview, the Shameless writer also hinted at the future for DeLuca (Giacomo Gianniotti), who was diagnosed with bipolar disorder. Although Vernoff hasnt begun mapping out season 17, she has some ideas for the characters arc.

I think that people with mental health diagnoses participate as productive members of society all the time, she told Us. I dont think that a mental health diagnosis prevents a person from being a surgeon as long as hes willing to treat it. And thats the big question mark.

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Greys Anatomy Boss Was Excited to Eliminate Shock Death From the Show - Us Weekly