Scribe Therapeutics to Collaborate With Biogen to Develop CRISPR-based Genetic Medicines for Neurological Diseases, Including Amyotrophic Lateral…

ALAMEDA, Calif.--(BUSINESS WIRE)--Scribe Therapeutics Inc., the company focused on engineering the most advanced platform for CRISPR-based genetic medicine, today announced a research collaboration with Biogen Inc. (Nasdaq:BIIB) to develop and commercialize CRISPR-based therapies that address an underlying genetic cause of Amyotrophic Lateral Sclerosis (ALS).

Scribes platform is focused on engineering, delivering, and developing novel, custom CRISPR molecules. The companys first technology, X-Editing (XE), provides greater editing activity, specificity and deliverability than other CRISPR genome editing tools currently available.

Scribe has designed, engineered and tested thousands of evolved CRISPR enzymes to build an advanced platform for creating breakthrough in vivo treatments, said Benjamin Oakes, CEO and co-founder of Scribe Therapeutics. Were proud to collaborate with Biogen and apply our uniquely customized approaches with the goal of developing new, safe and effective genetic medicines for neurodegenerative disease.

Under the terms of the collaboration, Scribe will work with Biogen to create therapeutics for genetically-driven ALS, with an option to pursue an additional neurological disease target with high, unmet need. Scribe will receive $15 million upfront and is eligible for more than $400 million in potential development and commercial milestone payments between the two targets of interest. Scribe is also eligible to receive tiered, high single digit to sub-teen royalties.

About Scribe Therapeutics

Scribe Therapeutics is a molecular engineering company focused on building best-in-class in vivo therapies to permanently treat the underlying cause of disease. Founded by CRISPR inventors and leading molecular engineers Benjamin Oakes, Brett Staahl, David Savage, and Jennifer Doudna, Scribe is overcoming the limitations of current genome editing technologies by developing custom engineered enzymes and delivery modalities as part of a proprietary, evergreen platform for CRISPR-based genetic medicine. The company is backed by leading individual and institutional investors including Andreessen Horowitz. To learn more about Scribes mission to rewrite the story of disease, visit http://www.scribetx.com

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Scribe Therapeutics to Collaborate With Biogen to Develop CRISPR-based Genetic Medicines for Neurological Diseases, Including Amyotrophic Lateral...

NIH RADx initiative advances six new COVID-19 testing technologies – National Institutes of Health

News Release

Tuesday, October 6, 2020

The National Institutes of Health, working in collaboration with the Biomedical Advanced Research and Development Authority (BARDA), today announced a third round of contract awards for scale-up and manufacturing of new COVID-19 testing technologies. The six new Rapid Acceleration of Diagnostics (RADx) initiative contracts total $98.35 million for point-of-care and other novel test approaches that provide new modes of sample collection, processing and return of results. Innovations in these new technologies include integration with smart devices, mobile-lab processing that can be deployed to COVID-19 hot spots, and test results available within minutes.

These awards are part of the RADx Tech program, focused on rapidly advancing early testing technologies. RADx Tech and the RADx Advanced Technology Platforms (RADx-ATP) the latter for late-stage scale-up projects are now supporting a combined portfolio of 22 companies for a total of $476.4 million in manufacturing expansion contracts. These six additional technologies are expected to add as many as 500,000 tests per day to the U.S. capacity by the end of 2020 and 1 million tests per day by early 2021. Combined with previous contractsannounced in July and September, RADx Tech and RADx-ATP contracts are expected to increase test capacity by 2.7 million tests per day by the end of 2020.

Since launching in April, the NIH RADx initiative has moved swiftly to facilitate critical expansion of early and late-stage testing technologies as well as research to remove barriers to testing for underserved and vulnerable populations, said NIH Director Francis S. Collins, M.D., Ph.D. Each of the technologies emerging from the RADx initiative will play a critical role in extending accessibility to testing in diverse settings.

The latest group of testing technologies have been optimized and assessed within the NIH RADx Tech development pipeline and have met the rigorous criteria for advancement. Factors such as speed, accuracy, cost and accessibility are key considerations for RADx support. The RADx initiative provides financial support and expertise to help companies reach milestones for U.S. Food and Drug Administration authorization, scale-up and commercialization.

The current round of awards support five technologies that can be delivered to the point of care and a powerful laboratorytest, said Bruce J. Tromberg, Ph.D., director of the National Institute of Biomedical Imaging and Bioengineering (NIBIB) and lead for RADx Tech, one of four programs of the NIH RADx initiative. The technologies include an antigen test that provides results in 15 minutes, a viral RNA test deployed in mobile vans that can travel to COVID hotspots and tests that require only saliva, nasal swabs or blood from a finger prick.

BARDA, part of the Office of the Assistant Secretary for Preparedness and Response within the U.S. Department of Health and Human Services, provided the funding for these RADx Tech contracts from emergency supplemental appropriations to the Public Health and Social Services Emergency Fund.

BARDA has contributed substantially to the nations COVID testing capacity with development support of 30 SARS-COV-2 diagnostic tests since March, 15 of which have achieved FDA emergency use authorization (EUA). Five of the 30 tests can distinguish between influenza and SARS-COV-2, the virus that causes COVID-19, from the same sample, and two of those have achieved EUA. To date, BARDAs industry partners have shipped more than 45 million tests to healthcare providers across the country.

Through the RADx initiative, we are expanding on our long-standing partnership with NIH to bring essential technology to the American people in the fight against COVID-19, said BARDA Acting Director Gary L. Disbrow, Ph.D.Our staff at BARDA is lending our expertise and experience in advanced development, manufacturing and scale up to help make as many accurate, fast tests available as we can as quickly as possible.

The following companies have achieved key RADx Tech milestones and will receive support for manufacturing and scale up:

Ellume USA LLC, Valencia, California

Two unique test cartridges contain a single-use, digital fluorescent immunoassay antigen test that returns accurate results in 15 minutes or less.One cartridge testing nasal swabs can be read out on two platforms by healthcare professionals, at the point of care or in laboratory settings for higher throughput. A second cartridge is being developed for home use with a self-administered nasal swab.

Luminostics, Inc., Milpitas, California

A rapid, smartphone-readout, antigen immunoassay that uses glow-in-the-dark nanomaterials to sensitively and specifically detect SARS-CoV-2 from shallow nasal swabs in 30 minutes or less, first for point-of-care use and later for home use.

Quanterix, Billerica, Massachusetts

A laboratory antigen test with ultra-sensitive single-molecule immunoassay technology to enable detection from a variety of sample types including nasopharyngeal, saliva or self-acquired blood from a finger prick. Sample collection, transport, and processing will occur within 24-48 hours using existing sample collection logistics infrastructure through a network of centralized labs.

Flambeau Diagnostics, Madison, Wisconsin

A lab module that can be deployed in a mobile van to screen asymptomatic individuals to detect SARS-CoV-2at low viral levelsin saliva samples, returning results in as little as one hour. The system can serve employers, schools and underserved populations. It uses newextractiontechnology to purify and concentrate viral RNA reliably and quickly.

Ubiquitome, Auckland, New Zealand

A battery-operated, mobile RT-PCR device that detects viral RNA with high accuracy in 40 minutes and reports results via its proprietary iPhone app. It offers high throughput and could be much lower cost than lab-based RT-PCR tests. The device is targeted for use in rural and metropolitan hospitals and mobile labs.

Visby Medical, San Jose, California

A palm-sized, single-use RT-PCR device that detects viral RNA with highly accurate results at the point of care in 30 minutes. The device was designed to be used by a person with minimal skills. This novel, versatile technology platform can also be adapted to provide simple, rapid tests for other diseases such as chlamydia, gonorrhea, and influenza.

About the Rapid Acceleration of Diagnostics (RADx SM) initiative: The RADx initiative was launched on April 29, 2020, to speed innovation in the development, commercialization, and implementation of technologies for COVID-19 testing. The initiative has four programs: RADx Tech, RADx Advanced Technology Platforms, RADx Underserved Populations and RADx Radical. It leverages the existing NIH Point-of-Care Technology Research Network. The RADx initiative partners with federal agencies, including the Office of the Assistant Secretary of Health, Department of Defense, the Biomedical Advanced Research and Development Authority, and U.S. Food and Drug Administration. Learn more about the RADx initiative and its programs:https://www.nih.gov/radx.

About HHS, ASPR, and BARDA: HHS works to enhance and protect the health and well-being of all Americans, providing for effective health and human services and fostering advances in medicine, public health, and social services. The mission of ASPR is to save lives and protect Americans from 21st century health security threats. Within ASPR, BARDA invests in the innovation, advanced research and development, acquisition, and manufacturing of medical countermeasures vaccines, drugs, therapeutics, diagnostic tools, and non-pharmaceutical products needed to combat health security threats. To date, 55 BARDA-supported products have achieved FDA approval, licensure or clearance. For more on BARDAs portfolio for COVID-19 diagnostics, vaccines and treatments and about partnering with BARDA, visit medicalcountermeasures.gov. To learn more about federal support for the all-of-America COVID-19 response, visit coronavirus.gov.

About the National Institute of Biomedical Imaging and Bioengineering (NIBIB):NIBIBs mission is to improve health by leading the development and accelerating the application of biomedical technologies. The Institute is committed to integrating the physical and engineering sciences with the life sciences to advance basic research and medical care. NIBIB supports emerging technology research and development within its internal laboratories and through grants, collaborations, and training. More information is available at the NIBIB website:https://www.nibib.nih.gov.

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

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‘Bioengineers capture the beauty and quirkiness of biology in their art’ – Voxy

The imaginations and technical skills of researchers at the Auckland Bioengineering Institute (ABI) have been unleashed, and are now on show in the Art of Bio Eng exhibition as part of Artweek 2020.

The exhibiton will be on show on the ground floor of the Auckland Public Library 10-18 October and includes 20 works of art.

The works explore the interconnections between art, biology and engineering, and showcases the level and type of research undertaken at the ABI.

Art of Bio Eng includes many intriguing and revealing images: the cell structure of bamboo skewers from a weirdly distorted perspective; the patterns made by EEG waveforms propagated by deeper brain structure; a high-res scan of a bladder in which the tissue resembles the head of a camel.

This is the second time the ABI has held the competition for researchers to show their artistic side. The winning entrants will be announced on October 14 and will be judged by Associate Professor Peter Shand, head of Elam School of Fine Arts, Kate Harsant (Elam alumna and ABI executive assistant) and Arron Hynds, Director of Research Development at Hynds Smarter Water.

Associate Professor Peng Du is also on the judging panel. He organised the first Art of Bio Eng in 2015, and he notes that this years competition has attracted entrants from a wider selection of subject areas.

"It really shows that the field is growing and is more interconnected than ever before." The competition is a way to change the misperception that engineers, or STEM subjects are boring and "all about theories and equations", he says.

"As a biomedical engineer, I study the same natural aspects of the living body that are celebrated by athletes and artists throughout the ages. With advances in technologies, we are now able to visualise a world that would otherwise be closed off to our imaginations and investigations." Reuben Keeling, senior communications adviser at the ABI, helped organise the event this year and was both surprised and thrilled by the number of entries. Art of Bio Eng is a unique way to show off what the ABI does, he says.

"I dont think many people know about the Institute or the life-changing research ABI researchers are doing, so we challenged our researchers to take a different perspective on their projects, to create something artistic and get peoples attention. There are some really stunning pieces in this collection - who knew bioengineers could be so creative?"

You can view all the entrants and vote for your favourite in the People Choice on the 2020 Art of Bio Eng website.

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'Bioengineers capture the beauty and quirkiness of biology in their art' - Voxy

Two Penn Med professors win total of $8 million in grants from National Institutes of Health – The Daily Pennsylvanian

The Perelman School of Medicine's Brian Litt (left) and Gregory Corder (right) were awarded Directors Awards from the National Institutes of Health.

The National Institutes of Health awarded its Director's Awards, which include a combined $8 million in research grants to two professors at Penns Perelman School of Medicine.

Brian Litt, a professor of neurology, neurosurgery, and bioengineering, and Gregory Corder, an assistant professor of neuroscience and psychiatry, are two of this year's 85 recipients, Penn Medicine News reported.

The awards are part of the NIH Common Fund's "High-Risk, High Reward Research Program," which aims to "fuel research endeavors that are more open-ended and could have a broader effect on scientific understanding than traditional research." Corder was awarded the New Innovator Award, receiving $2.4 million to investigate the mechanisms of chronic pain, and Litt was awarded the Pioneer Award for $5.6 million which will support his novel neurodevice research.

Litt is working to develop autonomous neurodevices, or "implanted machines that can question, record, and combine learning algorithms based on neurological signals and feedback to act and alter human behavior on the fly," Penn Medicine News reported.

For patients with epilepsy, the devices would predict and prevent seizures. In Parkinson's patients, implants would communicate with patients to improve mobility, reduce tremors, and enhance responsiveness.

Corder plans to use the grant to "identify which parts of the brain are important for pain perception and which circuits impact pain relief from opioids," Penn Medicine News reported.

In the wake of widespread opioid addiction that has increased over the past decade, this research can pave the way for effective pain-relief treatment without the addictive properties of opioids.

We currently have a limited understanding of the neural pathways in the brain that contribute to pain, which has been a significant barrier for treating pain efficiently, without negative side effects," Corder told Penn Medicine News. "But, if we can identify and understand these circuits, we can then try to rewrite the neural code of pain.

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Two Penn Med professors win total of $8 million in grants from National Institutes of Health - The Daily Pennsylvanian

Rigaku to Lead Development of New Soft X-ray Phase-Based Microscope for Biomedical Applications – PR Web

The goal of the new project is to deliver an intensity-modulated phase-based soft X-ray microscopy system for non-destructive synchrotron-quality imaging of biological samples.

THE WOODLANDS, Texas (PRWEB) October 06, 2020

Rigaku Corporation, a global leader in X-ray analytical instrumentation, will lead a consortium of scientific and academic research institutions in the development a new soft X-ray phase-based microscope for biomedical applications. Rigaku, University College London, Creatv MicroTech, Argonne National Laboratory and Sloan Kettering Institute for Cancer Research have been granted funds by the National Institute of Biomedical Imaging and Bioengineering (NIBIB) to develop an intensity-modulated phase-based soft X-ray microscope.

Microscopy is a cornerstone of both biomedical research and clinical practice. There are, however, imaging needs that are not satisfied by light, electron or X-ray methods. While optical light is satisfactory for thin tissue slices, it is not suitable for obtaining quality 3D images of thick tissue. X-rays can penetrate thick tissue, but X-ray microscope imaging systems that are available commercially are not optimal for soft tissue imaging. Additionally, the resolution of current micro-computed tomography (CT) machines is insufficient for cancer grading and scoring.

The goal of the new project is to deliver an intensity-modulated phase-based soft X-ray microscopy system for non-destructive synchrotron-quality imaging of biological samples. The system will provide 3D, quantitative and multimodal images with shorter acquisition times than from currently available systems, and resolution comparable to that of visible light microscopes, rendering high-contrast images of cell composition. In the last year of the project, the microscope will be installed at Memorial Sloan Kettering Cancer Center and tested on a range of relevant samples in order to evaluate its potential both as a clinical and as a research tool.

About Rigaku

Since its inception in Japan in 1951, Rigaku has been at the forefront of analytical and industrial instrumentation technology. Rigaku and its subsidiaries form a global group focused on general-purpose analytical instrumentation and the life sciences. With hundreds of major innovations to their credit, Rigaku companies are world leaders in X-ray spectrometry, diffraction, and optics, as well as small molecule and protein crystallography and semiconductor metrology. Today, Rigaku employs over 1,400 people in the manufacturing and support of its analytical equipment, which is used in more than 90 countries around the world supporting research, development, and quality assurance activities. Throughout the world, Rigaku continuously promotes partnerships, dialog, and innovation within the global scientific and industrial communities.

For further information, contact:

Joseph D. Ferrara, Ph.D.,CSO, Rigaku Americas Corporationtel: +1 281-362-2300 Joseph.Ferrara@rigaku.com

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InnoVision Awards recognize innovation in the Palmetto State – Upstate Business Journal

The InnoVision Awards program announced on Sept. 25 its finalists for this years awards recognizing innovation in South Carolina.

The awards began in 1999 with the mission to highlight, promote and foster innovation in the Upstate, said Amy Robichaud, board chair of the InnoVision Awards.Around 10 years ago, the awards expanded to cover all of South Carolina.

The categories for the awards, Robichaud said, are meant to encompass businesses of all sizes and stages, community organizations and educational institutions.New to this years categories were ones recognizing innovation around confronting COVID-19 that included technology research, technology application and community service.

We thought that we would possibly get some entries related to COVID-19 this year, but it was a very special circumstance, said Robichaud. A lot of companies and organizations were being extremely innovative, pivoting, responding to community needs we thought that it would be a good thing to highlight that with a special category to showcase and celebrate the innovators in South Carolina who really stepped up to the challenge during this crisis.

In the weeks leading up to the winners being announced at a Nov. 17, ceremony, each Tuesday at 4 p.m. InnoVision will host a series of online gatherings to celebrate the finalists. Those began Sept. 29 and will run until Oct. 20. You can sign up for the virtual events at innovisionawards.org.

Aravis Biotech Greenville, SC

Blinktbi Charleston, SC

Techtronic Industries Power Equipment Anderson, SC

Know2 Gaffney, SC

StartME Spartanburg Spartanburg, SC

Union County Library System Union, SC

Agulus Inc. Greenville, SC

Clemson Universitys Composite Center Greenville, SC

Delta Bravo Artificial Intelligence Rock Hill, SC

Clemson Universitys Foam Recycling Center

Sonoco Products Company Hartsville, SC

tForm, Inc. Williamston, SC

Oversight, Inc. Greenville, SC

Stand Yourself Up LLC Anderson, SC

Verifyii Intelligent Identification Greenville, SC

IT-oLogy Columbia, SC

Spartanburg Community College Spartanburg, SC

VR Mondi Clemson, SC

Blue Eye Soft Corp Greer, SC

Hoowaki LLC Greenville, SC

LANCR Health Technologies

Clemson Autonomous Systems Team (Clemson University Mechanical Engineering) Clemson, SC

Negative Pressure Chamber Project (Clemson University Bioengineering) Clemson, SC

Covid Microbead Screening Project (Clemson University Chemistry) Clemson, SC

Covid Biomarker Detection Test Project (Clemson University Bioengineering) Clemson, SC

SaveMAPS Clemson, SC

United Way of the Piedmont Spartanburg, SC

Clemson Universitys Watt Family Innovation Center Clemson, SC

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InnoVision Awards recognize innovation in the Palmetto State - Upstate Business Journal

Crop Biotechnology, physiology and translational genomics to feed and fuel the world – Newswise

Newswise October 6, 2020 Accelerated crop improvement is needed to meet both global population growth and climate change generated stresses on crops. TheCrop Biotechnology, physiology and translational genomics to feed and fuel the worldsymposium at theTranslating Visionary Science to Practice ASA, CSSA, SSSA International Annual Meetingwill address these topics.

The meeting is being held virtually, Nov. 9-13, 2020 and is hosted by the American Society of Agronomy, Crop Science Society of America and Soil Science Society of America. Media are invited; preregistration is required.

The presentations are:

Presentations may be watched asynchronously, and there will be a scheduled Q&A time to speak with presenters during the meeting. Presentations will be available for online viewing for 90 days after the meeting for all registrants. For more information about theTranslating Visionary Science to Practice 2020meeting,visithttps://www.acsmeetings.org/.

Media are invited to attend the conference. Pre-registration by Nov. 2, 2020 is required. Visithttps://www.acsmeetings.org/mediafor registration information.

To speak with one of the scientists, contact Susan V. Fisk, 608-273-8091,sfisk@sciencesocieties.orgto arrange an interview.

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NIH to support 85 new grants featuring high-risk, high-reward research – National Institutes of Health

News Release

Tuesday, October 6, 2020

The 2020 Directors Awards will feature highly innovative biomedical research by investigators at all career stages.

The National Institutes of Health has awarded 85 grants through its High-Risk, High-Reward Research (HRHR) Program that will fund highly innovative and unusually impactful biomedical or behavioral research proposed by extraordinarily creative scientists. Examples of supported research include understanding the role of neighborhoods on urban substance abuse, brain-machine interfaces that allow learning by both brain and machine, engineering multi-organs in a dish, and exploiting latent immune pathways to treat disease. The 85 awards total approximately $251 million over five years, pending available funds.

The High-Risk, High-Reward Research program catalyzes scientific discovery by supporting research proposals that, due to their inherent risk, may struggle in the traditional peer-review process despite their transformative potential. Program applicants are encouraged to think outside the box and to pursue trailblazing ideas in any area of research relevant to the NIHs mission to advance knowledge and enhance health.

The breadth of innovative science put forth by the 2020 cohort of early career and seasoned investigators is impressive and inspiring," said NIH Director Francis S. Collins, M.D., Ph.D. I am confident that their work will propel biomedical and behavioral research and lead to improvements in human health.

The High-Risk, High-Reward Research Program is part of the NIH Common Fund, which oversees programs that pursue major opportunities and gaps throughout the research enterprise that are of great importance to NIH and require collaboration across the agency to succeed. The High-Risk, High-Reward Research program manages the following four awards, including two awards aimed specifically to support researchers in the early stages of their careers:

NIH issued10 Pioneer awards,53 New Innovator awards,nine Transformative Research awards, and 13 Early Independence awards for 2020. Funding for the awards comes from the NIH Common Fund; Eunice Kennedy Shriver National Institute of Child Health and Human Development; National Cancer Institute; National Human Genome Research Institute; National Institute of Biomedical Imaging and Bioengineering; National Institute of Dental and Craniofacial Research; National Institute of General Medical Sciences; National Institute of Mental Health; National Institute of Neurological Disorders and Stroke; and National Institute on Aging.

About the NIH Common Fund: The NIH Common Fund encourages collaboration and supports a series of exceptionally high-impact, trans-NIH programs. Common Fund programs are managed by the Office of Strategic Coordination in the Division of Program Coordination, Planning, and Strategic Initiatives in the NIH Office of the Director in partnership with the NIH Institutes, Centers, and Offices. More information is available at the Common Fund website:https://commonfund.nih.gov.

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

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Admissions at SCTIMST in Thiruvananthapuram: Apply by October 15 – Mathrubhumi English

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Admissions at SCTIMST in Thiruvananthapuram: Apply by October 15 - Mathrubhumi English

Global and Asia Pacific L Citrulline Market to Witness Huge Growth by 2027 Best Companies included in report Nutra Green Biotechnology, Kyowa, Wuhan…

Global Coronavirus pandemic has impacted all industries across the globe, L Citrulline market being no exception. As Global economy heads towards major recession post 2009 crisis, Cognitive Market Research has published a recent study which meticulously studies impact of this crisis on Global L Citrulline market and suggests possible measures to curtail them. This press release is a snapshot of research study and further information can be gathered by accessing complete report. To Contact Research Advisor Mail us @ [emailprotected] or call us on +1-312-376-8303.

The global L Citrulline market research report is anticipated to rise at a considerable rate during forecast period, between 2020 and 2027. The global L Citrulline market report study provides intelligence studies ensuring relevant and fact-based research which help clients understand the significance and impact of market dynamics. This research report covers the current status and future prospects for the global L Citrulline market. Report offers the detailed L Citrulline market overview, development, and segment by type, application and region. In addition, L Citrulline market research report introduces the market competition overview among the major companies and companies profiles.

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Some of the key players operating in this market include Nutra Green Biotechnology, Kyowa, Wuhan Soleado Technology, Zhaoqing City Dingkang Pharmaceutical, Ansun Bioengineering, Shanghai Join Ray Biotechnology, MH2 Biochemical, Premium Ingredient, Ningbo Yore Chemipharma . Manufacturers are facing continued downward pressure on demand, production and revenues as the COVID-19 pandemic strengthens. Manufacturing in the Euro-area experienced a substantial deterioration in its business cycle as the impact of COVID-19 hit both the demand and supply sides of the technology industry.

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The business is particularly defenseless given that the greater part of its workforce is utilized on location employments that are impossible remotely. Also, given the idea of the business, manufacturers should be creating social distancing in workplaces that are typically worker-dense (e.g., manufacturing plants, warehouses, material movements and logistics, etc.). Furthermore, manufacturers should be prepared for major supply chain disruptions. This will influence the OEMs, however will likewise wave all through flexibly chain, influencing manufactures by driving reduced demand for materials and parts.

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Market Segmentation, by regions:The analysis and forecast of the global L Citrulline market research report is based on the regional basis. The report is emphasizes on the major regions. These various regions consists the detailed information regarding current trends and forecast analysis which could help the global L Citrulline market in the long period.North America (U.S., Canada, Mexico)South America (Cuba, Brazil, Argentina, and many others.)Europe (Germany, U.K., France, Italy, Russia, Spain, etc.)Asia (China, India, Russia, and many other Asian nations.)Pacific region(Indonesia, Japan, and many other Pacific nations.)Middle East & Africa (Saudi Arabia, South Africa, and many others.)

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Global and Asia Pacific L Citrulline Market to Witness Huge Growth by 2027 Best Companies included in report Nutra Green Biotechnology, Kyowa, Wuhan...

2020 Ducati Multistrada V4 to come with front and rear radar – public presentation on November fourth – Paul Tan’s Automotive News

Now in its fourth generation, the 2020 Ducati Multistrada V4 has entered the production line at Ducatis works in Borgo Panigale, Italy and is scheduled for its public unveiling this November fourth. Aside from the use of the Desmosedici Stradale V-four engine, also seen in the Panigale V4 and Streetfighter V4, the Multistrada V4 will be the first production motorcycle to use front and rear radar.

The radar system, developed in conjunction with the Department of Electronics, Information and Bioengineering of the Politecnico di Milano University, is part of Ducatis Advanced Rider Assistance Systems (ARAS) that enhances rider safety. The system features front- and rear-facing radars and each has a weight of 190 grammes, measuring 70 x 60 x 20 mm, or about the size of a box of cigarettes.

The front radar is linked to the Multistrada V4s Adaptive Cruise Control (ACC) and controls braking and acceleration to automatically adjust distance to the vehicle in front. Available with four preset distances, the system is operable between 30 to 160 km/h.

Based on systems currently used in four-wheeled vehicles, the ACC system has been modified to suit the requirements of motorcycles, notably in terms of acceleration and deceleration. These parameters are limited to ensure the rider can maintain constant control of the Multistrada V4 in any situation.

For the rear of the Multistrada V4, the rear radar monitors the bikes blind spot, notably to the rear and the outside viewing angles of the rear-view mirrors. The system already the rider to the presence of vehicles in the blind spot as well as vehicles approaching from behind at high speed.

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2020 Ducati Multistrada V4 to come with front and rear radar - public presentation on November fourth - Paul Tan's Automotive News

Vanderbilt researchers develop publicly available COVID-19 animal susceptibility prediction tool; suggests increased risk to horses – Vanderbilt…

A Vanderbilt team of experts in virology, genetics, structural biology, chemistry, physiology, medicine, immunology and pharmacology have together developed technology to understand and predict animal susceptibility to SARS-CoV-2, the scientific name for the strain of coronavirus causing COVID-19. providing evidence that horses and camels may be at increased risk of the virus. The group has also released a publicly available tool to enable people to understand the likelihood of other animals susceptibility.

The article, Predicting susceptibility to SARS-CoV-2 infection based on structural differences in ACE2 across species, was published in the Federation of American Societies for Experimental Biology (FASEB) Journal on Oct. 5.

The investigators applied a combination of sophisticated genetic sequence alignment and structural analysis of ACE2, the receptor protein for SARS-CoV-2, to a variety of known susceptible and non-susceptible species. Through the analysis they identified five particular amino acid sites within the protein that distinguish virus susceptibility or resistance, and using these sites developed an algorithm to predict susceptibility of unknown species. The algorithm has been made public on a website where people can upload the aligned ACE2 sequence of animals with unknown susceptibility to generate a COVID-19 susceptibility score.

Jacquelyn Brown, a staff scientist at the Vanderbilt Institute for Integrative Biosystems Research and Education, initiated the project. When I first learned that COVID-19 had crossed the species barrier into cats and dogs, I became worried about other animals that might act as reservoirs for the disease or be at risk, explained Brown, an avid equestrian who practices medieval mounted archery. Since MERS infects camels, I was concerned about what would happen if my horse could get it?! Horses have massive lungs and a sensitive respiratory system, and we humans often touch their noses and mouths.

206,000 horses live on horse farms and properties in Tennessee and 3.2 million of the states 10 million farm acres are devoted to the horse industry. Brown proposed a collaborative research project on the topic to Gordon A. Cain University Professor John Wikswo, who holds appointments in physics, biomedical engineering, and molecular physiology and biophysics.

As the director of VIIBRE, an institute established to foster and enhance interdisciplinary research in the biophysical sciences, bioengineering and medicine at Vanderbilt, Wikswo immediately assembled a trans-institutional team spanning Vanderbilt schools and colleges and Vanderbilt University Medical Center. I speak each disciplines language well enough to make the necessary connections, Wikswo said. This proved to be an outstanding group brought together by their interests and skills that produced an important result in very short order.

The project gave meaning to each researcher, at a time when we all were searching for ways to contribute to fighting COVID-19, noted Wenbiao Chen.

The work could not have been achieved without the collaboration of many researchers. The multidisciplinary approach revealed how much information can be wrung from the same basic information, noted Wenbiao Chen, the papers co-corresponding author and associate professor of molecular physiology and biophysics. We found potential targets by sequence comparison but wouldnt have been able to interpret our findings without structural information. The project gave meaning to each researcher, at a time when we all were searching for ways to contribute to fighting COVID-19.

Understanding the animals we should more closely scrutinize based on their susceptibility to COVID-19 can help us protect people, pets, wildlife, livestock and our food sources, said Matthew Alexander, assistant professor of medicine. The algorithm the team developed is particular to SARS-CoV-2 because it focuses on its particular receptor binding protein ACE2, but the approach is broadly applicable to predicting susceptibility to other viruses or during future outbreaks.

There is also the opportunity to investigate if the identified five sites on ACE2 that most distinguish susceptible from non-susceptible species can be used as targets to develop drugs that inhibit these sites specifically. I hope that our results will inspire future research on both rational drug design and closer examination of at-risk species, said Meena Madhur, the papers co-corresponding author, associate professor of medicine and associate director of the Vanderbilt Institute for Infection, Immunology and Inflammation at VUMC.

Of note, the work and collaboration were conducted remotely, with an analysis of publicly available data. This experimental approach of using extensive and rapidly accumulating publicly available data in new ways allowed us to efficiently answer a timely question without having to generate new datasets. The collaboration was fun and rewarding, and we were able to answer an important question that none of us could have solved alone, Alexander, the papers co-first author said. Wikswo pointed out that while the source data was public, the project required massive calculations of how different versions of the virus would bind to each animals ACE2.

Members of the collaborative project also include Distinguished Research Professor of Chemistry Jens Meiler, Clara Schoeder, co-first author and postdoctoral scholar, , Charles Duncan Smart, graduate student in molecular physiology and biophysics, Chris Moth, computational chemist in the biological sciences department, and Tony Capra, research associate professor of biological sciences.

The work was supported by National Institutes of Health grants F32HL144048-01, DK117147, UH3TR002097 and U01TR002383, U19AI117905, U01AI150739, and R01AI141661, R35GM127087, and DP2HL137166 and American Heart Association grants 20PRE35080177 and EIA34480023

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Vanderbilt researchers develop publicly available COVID-19 animal susceptibility prediction tool; suggests increased risk to horses - Vanderbilt...

AI tool could predict how drugs will react in the body – Futurity: Research News

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A new deep learning-based tool called Metabolic Translator may soon give researchers a better handle on how drugs in development will perform in the human body.

When you take a medication, you want to know precisely what it does. Pharmaceutical companies go through extensive testing to ensure that you do.

Metabolic Translator, a computational tool that predicts metabolites, the products of interactions between small molecules like drugs and enzymes could help improve the process.

The new tool takes advantage of deep-learning methods and the availability of massive reaction datasets to give developers a broad picture of what a drug will do. The method is unconstrained by rules that companies use to determine metabolic reactions, opening a path to new discoveries.

When youre trying to determine if a compound is a potential drug, you have to check for toxicity, says Lydia Kavraki, a professor of computer science, a professor of bioengineering, mechanical engineering, and electrical and computer engineering, and director of Rices Ken Kennedy Institute, as well ascoauthor of the new paper in Chemical Science.

You want to confirm that it does what it should, but you also want to know what else might happen, she says.

The researchers trained Metabolite Translator to predict metabolites through any enzyme, but measured its success against the existing rules-based methods that are focused on the enzymes in the liver. These enzymes are responsible for detoxifying and eliminating xenobiotics, like drugs, pesticides, and pollutants. However, metabolites can form through other enzymes as well.

Our bodies are networks of chemical reactions, says graduate student and lead author Eleni Litsa. They have enzymes that act upon chemicals and may break or form bonds that change their structures into something that could be toxic, or cause other complications. Existing methodologies focus on the liver because most xenobiotic compounds are metabolized there. With our work, were trying to capture human metabolism in general.

The safety of a drug does not depend only on the drug itself but also on the metabolites that can be formed when the drug is processed in the body, Litsa says.

The rise of machine learning architectures that operate on structured data, such as chemical molecules, make the work possible, she says.

Transformer was introduced in 2017 as a sequence translation method that has found wide use in language translation and is based on SMILES (for simplified molecular-input line-entry system), a notation method that uses plain text rather than diagrams to represent chemical molecules.

What were doing is exactly the same as translating a language, like English to German, Litsa says.

Due to the lack of experimental data, the lab used transfer learning to develop Metabolite Translator. They first pre-trained a Transformer model on 900,000 known chemical reactions and then fine-tuned it with data on human metabolic transformations.

The researchers compared Metabolite Translator results with those from several other predictive techniques by analyzing known SMILES sequences of 65 drugs and 179 metabolizing enzymes.

Though they trained Metabolite Translator on a general dataset not specific to drugs, it performed as well as commonly used rule-based methods that have been specifically developed for drugs. But it also identified enzymes not commonly involved in drug metabolism and not found by existing methods.

We have a system that can predict equally well with rule-based systems, and we didnt put any rules in our system that require manual work and expert knowledge, Kavraki says. Using a machine learning-based method, we are training a system to understand human metabolism without the need for explicitly encoding this knowledge in the form of rules. This work would not have been possible two years ago.

Rice University and the Cancer Prevention and Research Institute of Texas supported the research.

Source: Rice University

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AI tool could predict how drugs will react in the body - Futurity: Research News

Better Vaccines Are in Our Blood: Using Red Blood Cells to Generate Targeted Immune Responses – SciTechDaily

Nanoparticles coated in an antigen stick to red blood cells strongly enough to resist being sheared off in the lungs, allowing them to reach the spleen and be passed off to immune cells, initiating an antigen-specific immune response. Credit: Wyss Institute at Harvard University

New platform technology uses red blood cells to generate targeted immune responses in mice.

Red blood cells do more than shuttle oxygen from our lungs to our organs: they also help the body fight off infections by capturing pathogens on their surfaces, neutralizing them, and presenting them to immune cells in the spleen and liver. Now, a team of researchers from Harvards Wyss Institute for Biologically Inspired Engineering and John A. Paulson School of Engineering and Applied Sciences (SEAS) has harnessed this innate ability to build a platform technology that uses red blood cells to deliver antigens to antigen-presenting cells (APCs) in the spleen, generating an immune response. This approach successfully slowed the growth of cancerous tumors in mice, and could also be used as a biocompatible adjuvant for a variety of vaccines. The technology, called Erythrocyte-Driven Immune Targeting (EDIT), is reported in Proceedings of the National Academy of Sciences (PNAS).

The spleen is one of the best organs in the body to target when generating an immune response, because it is one of the few organs where red and white blood cells naturally interact, said senior author Samir Mitragotri, Ph.D., a Wyss Core Faculty member who is also the Hiller Professor of Bioengineering and Hansjrg Wyss Professor of Biologically Inspired Engineering at SEAS. Red blood cells innate ability to transfer attached pathogens to immune cells has only recently been discovered, and this study unlocks the door to an exciting array of future developments in the field of using human cells for disease treatment and prevention.

Using red blood cells as delivery vehicles for drugs is not a new idea, but the vast majority of existing technologies target the lungs, because their dense network of capillaries causes cargoes to shear off of red blood cells as they squeeze through the tiny vessels. Mitragotris research team first needed to figure out how to get antigens to stick to red blood cells strongly enough to resist shearing off and reach the spleen.

They coated polystyrene nanoparticles with ovalbumin, an antigenic protein known to cause a mild immune response, then incubated them with mouse red blood cells. The ratio of 300 nanoparticles per blood cell resulted in the greatest number of nanoparticles bound to the cells, retention of about 80% of the nanoparticles when the cells were exposed to the shear stress found in lung capillaries, and moderate expression of a lipid molecule called phosphatidyl serine (PS) on the cells membranes.

A high level of PS on red blood cells is essentially an eat me signal that causes them to be digested by the spleen when they are stressed or damaged, which we wanted to avoid. We hoped that a lower amount of PS would instead temporarily signal check me out to the spleens APCs, which would then take up the red blood cells antigen-coated nanoparticles without the cells themselves getting destroyed, said Anvay Ukidve, a graduate student in the Mitragotri lab and co-first author of the paper.

To test that hypothesis, the team injected red blood cells coated with their nanoparticles into mice, then tracked where they accumulated in their bodies. 20 minutes after injection, more than 99% of the nanoparticles had been cleared from the animals blood, and more nanoparticles were present in their spleens than their lungs. The higher nanoparticle accumulation in the spleen persisted for up to 24 hours and the number of EDIT red blood cells in the circulation remained unchanged, showing that the red blood cells had successfully delivered their cargoes to the spleen without being destroyed.

Having confirmed that their nanoparticles were successfully delivered to the spleen in vivo, the researchers next evaluated whether the antigens on the nanoparticles surfaces induced an immune response. Mice were injected with EDIT once a week for three weeks, and then their spleen cells were analyzed. Treated mice displayed 8-fold and 2.2-fold more T cells displaying the delivered ovalbumin antigen than mice that were given free nanoparticles or were untreated, respectively. Mice treated with EDIT also produced more antibodies against ovalbumin in their blood than either of the other groups of mice.

Red blood cells could be used as a safe alternative to foreign adjuvants to increase vaccine efficacy and speed vaccine creation. Zongmin Zhao

To see if these EDIT-induced immune responses could potentially prevent or treat disease, the team repeated their three-week prophylactic injection of EDIT into mice, then inoculated them with lymphoma cells that expressed ovalbumin on their surfaces. The mice that received EDIT had about three-fold slower tumor growth compared with the control group and the group that received free nanoparticles, and had lower numbers of viable cancerous cells. This outcome significantly increased the window of time during which the tumor could be treated before the mice succumbed to the disease.

EDIT essentially is an adjuvant-free vaccine platform. Part of the reason why vaccine development today takes so long is that foreign adjuvants delivered along with an antigen have to go through a full clinical safety trial for each new vaccine, said Zongmin Zhao, Ph.D., a Postdoctoral Fellow in the Mitragotri lab and co-first author of the paper. Red blood cells have been safely transfused into patients for centuries, and their ability to enhance immune responses could make them a safe alternative to foreign adjuvants, increasing the efficacy of vaccines and speed of vaccine creation.

The team is continuing to work on understanding exactly how an immune response that is specific to the antigen presented by EDIT is generated by the spleens APCs, and plans to test it with other antigens beyond ovalbumin. They hope to use this additional insight to drive their pursuit of the optimal clinical setting(s) for the technology.

The human body is a treasure trove of elegant solutions to healthcare problems, and while medicine has come a long way in understanding those mechanisms, we are still in the early stages of being able to harness them to improve the length and quality of human life. This research is an exciting step forward toward that goal, and could dramatically change how immune responses are modulated in patients, said the Wyss Institutes Founding Director Donald Ingber, M.D., Ph.D., who is also theJudah Folkman Professor of Vascular Biologyat Harvard Medical School and Boston Childrens Hospital, and Professor of Bioengineering at SEAS.

Reference: Erythrocyte-driven immunization via biomimicry of their natural antigen-presenting function by Anvay Ukidve, Zongmin Zhao, Alexandra Fehnel, Vinu Krishnan, Daniel C. Pan, Yongsheng Gao, Abhirup Mandal, Vladimir Muzykantov and Samir Mitragotri, 14 July 2020, Proceedings of the National Academy of Sciences.DOI: 10.1073/pnas.2002880117

Additional authors of the paper include Vinu Krishnan, Daniel C. Pan, Yongsheng Gao, and Abhirup Mandal from the Wyss Institute and SEAS; Alexandra Fehnel from SEAS, and Vladimir Muzykantov from the Perelman School of Medicine at the University of Pennsylvania. This research was supported by the Wyss Institute at Harvard University and the National Institutes of Health under grant # 1R01HL143806-01.

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Better Vaccines Are in Our Blood: Using Red Blood Cells to Generate Targeted Immune Responses - SciTechDaily

Hesperidin Market size was US$ 81 million and it is expected to reach US$ 125.2 million by the end of 2026, with a CAGR of 6.3% – The Daily Chronicle

LOS ANGELES, United States: QY Research has recently published a research report titled, Global Hesperidin Market Size, Manufacturers, Supply Chain, Sales Channel and Clients, 2020-2026. This report has been prepared by experienced and knowledgeable market analysts and researchers. It is a phenomenal compilation of important studies that explore the competitive landscape, segmentation, geographical expansion, and revenue, production, and consumption growth of the global Hesperidin market. Players can use the accurate market facts and figures and statistical studies provided in the report to understand the current and future growth of the global Hesperidin market.

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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 Hesperidin market.

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TOC

1 Study Coverage1.1 Hesperidin Product Introduction1.2 Market by Type1.2.1 Global Hesperidin Market Size Growth Rate by Type1.2.2 90%-92% Type1.2.3 93%-98% Type1.2.4 Others1.3 Market by Application1.3.1 Global Hesperidin Market Size Growth Rate by Application1.3.2 Pharmaceutical Intermediates1.3.3 Food Industry1.4 Study Objectives1.5 Years Considered 2 Executive Summary2.1 Global Hesperidin Market Size Estimates and Forecasts2.1.1 Global Hesperidin Revenue 2015-20262.1.2 Global Hesperidin Sales 2015-20262.2 Hesperidin Market Size by Region: 2020 Versus 20262.3 Hesperidin Sales by Region (2015-2026)2.3.1 Global Hesperidin Sales by Region: 2015-20202.3.2 Global Hesperidin Sales Forecast by Region (2021-2026)2.3.3 Global Hesperidin Sales Market Share by Region (2015-2026)2.4 Hesperidin Market Estimates and Projections by Region (2021-2026)2.4.1 Global Hesperidin Revenue by Region: 2015-20202.4.2 Global Hesperidin Revenue Forecast by Region (2021-2026)2.4.3 Global Hesperidin Revenue Market Share by Region (2015-2026) 3 Global Hesperidin by Manufacturers3.1 Global Top Hesperidin Manufacturers by Sales3.1.1 Global Hesperidin Sales by Manufacturer (2015-2020)3.1.2 Global Hesperidin Sales Market Share by Manufacturer (2015-2019)3.2 Global Top Hesperidin Manufacturers by Revenue3.2.1 Global Hesperidin Revenue by Manufacturer (2015-2020)3.2.2 Global Hesperidin Revenue Share by Manufacturer (2015-2020)3.3 Global Hesperidin Price by Manufacturer (2015-2020)3.4 Competitive Landscape3.4.1 Key Hesperidin Manufacturers Covered: Ranking by Revenue3.4.2 Global Hesperidin Market Concentration Ratio (CR5 and HHI) & (2015-2020)3.4.3 Global Hesperidin Market Share by Company Type (Tier 1, Tier 2 and Tier 3)3.5 Global Hesperidin Manufacturing Base Distribution, Product Type3.5.1 Hesperidin Manufacturers Manufacturing Base Distribution, Headquarters3.5.2 Manufacturers Hesperidin Product Type3.5.3 Date of International Manufacturers Enter into Hesperidin Market3.6 Manufacturers Mergers & Acquisitions, Expansion Plans 4 Company Profiles4.1 Zhejiang Conler Pharmaceutical4.1.1 Zhejiang Conler Pharmaceutical Corporation Information4.1.2 Zhejiang Conler Pharmaceutical Description, Business Overview4.1.3 Zhejiang Conler Pharmaceutical Hesperidin Products Offered4.1.4 Zhejiang Conler Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.1.5 Zhejiang Conler Pharmaceutical Hesperidin Revenue by Product4.1.6 Zhejiang Conler Pharmaceutical Hesperidin Revenue by Application4.1.7 Zhejiang Conler Pharmaceutical Hesperidin Revenue by Geographic Area4.1.8 Zhejiang Conler Pharmaceutical Hesperidin Revenue by Sales Channel4.1.9 Zhejiang Conler Pharmaceutical Recent Development4.2 Chengdu Okay4.2.1 Chengdu Okay Corporation Information4.2.2 Chengdu Okay Description, Business Overview4.2.3 Chengdu Okay Hesperidin Products Offered4.2.4 Chengdu Okay Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.2.5 Chengdu Okay Hesperidin Revenue by Product4.2.6 Chengdu Okay Hesperidin Revenue by Application4.2.7 Chengdu Okay Hesperidin Revenue by Geographic Area4.2.8 Chengdu Okay Hesperidin Revenue by Sales Channel4.2.9 Chengdu Okay Recent Development4.3 Sichuan Deebio Pharmaceutical4.3.1 Sichuan Deebio Pharmaceutical Corporation Information4.3.2 Sichuan Deebio Pharmaceutical Description, Business Overview4.3.3 Sichuan Deebio Pharmaceutical Hesperidin Products Offered4.3.4 Sichuan Deebio Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.3.5 Sichuan Deebio Pharmaceutical Hesperidin Revenue by Product4.3.6 Sichuan Deebio Pharmaceutical Hesperidin Revenue by Application4.3.7 Sichuan Deebio Pharmaceutical Hesperidin Revenue by Geographic Area4.3.8 Sichuan Deebio Pharmaceutical Hesperidin Revenue by Sales Channel4.3.9 Sichuan Deebio Pharmaceutical Recent Development4.4 Hunan Kang Biotech4.4.1 Hunan Kang Biotech Corporation Information4.4.2 Hunan Kang Biotech Description, Business Overview4.4.3 Hunan Kang Biotech Hesperidin Products Offered4.4.4 Hunan Kang Biotech Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.4.5 Hunan Kang Biotech Hesperidin Revenue by Product4.4.6 Hunan Kang Biotech Hesperidin Revenue by Application4.4.7 Hunan Kang Biotech Hesperidin Revenue by Geographic Area4.4.8 Hunan Kang Biotech Hesperidin Revenue by Sales Channel4.4.9 Hunan Kang Biotech Recent Development4.5 Sichuan Xieli Pharmaceutical4.5.1 Sichuan Xieli Pharmaceutical Corporation Information4.5.2 Sichuan Xieli Pharmaceutical Description, Business Overview4.5.3 Sichuan Xieli Pharmaceutical Hesperidin Products Offered4.5.4 Sichuan Xieli Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.5.5 Sichuan Xieli Pharmaceutical Hesperidin Revenue by Product4.5.6 Sichuan Xieli Pharmaceutical Hesperidin Revenue by Application4.5.7 Sichuan Xieli Pharmaceutical Hesperidin Revenue by Geographic Area4.5.8 Sichuan Xieli Pharmaceutical Hesperidin Revenue by Sales Channel4.5.9 Sichuan Xieli Pharmaceutical Recent Development4.6 Shaanxi Huifeng Pharmaceutical4.6.1 Shaanxi Huifeng Pharmaceutical Corporation Information4.6.2 Shaanxi Huifeng Pharmaceutical Description, Business Overview4.6.3 Shaanxi Huifeng Pharmaceutical Hesperidin Products Offered4.6.4 Shaanxi Huifeng Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.6.5 Shaanxi Huifeng Pharmaceutical Hesperidin Revenue by Product4.6.6 Shaanxi Huifeng Pharmaceutical Hesperidin Revenue by Application4.6.7 Shaanxi Huifeng Pharmaceutical Hesperidin Revenue by Geographic Area4.6.8 Shaanxi Huifeng Pharmaceutical Recent Development4.7 SANREN Bio-Technology4.7.1 SANREN Bio-Technology Corporation Information4.7.2 SANREN Bio-Technology Description, Business Overview4.7.3 SANREN Bio-Technology Hesperidin Products Offered4.7.4 SANREN Bio-Technology Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.7.5 SANREN Bio-Technology Hesperidin Revenue by Product4.7.6 SANREN Bio-Technology Hesperidin Revenue by Application4.7.7 SANREN Bio-Technology Hesperidin Revenue by Geographic Area4.7.8 SANREN Bio-Technology Recent Development4.8 Chengdu Shuxi Pharmaceutical4.8.1 Chengdu Shuxi Pharmaceutical Corporation Information4.8.2 Chengdu Shuxi Pharmaceutical Description, Business Overview4.8.3 Chengdu Shuxi Pharmaceutical Hesperidin Products Offered4.8.4 Chengdu Shuxi Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.8.5 Chengdu Shuxi Pharmaceutical Hesperidin Revenue by Product4.8.6 Chengdu Shuxi Pharmaceutical Hesperidin Revenue by Application4.8.7 Chengdu Shuxi Pharmaceutical Hesperidin Revenue by Geographic Area4.8.8 Chengdu Shuxi Pharmaceutical Recent Development4.9 Hunan Yuantong Pharmaceutical4.9.1 Hunan Yuantong Pharmaceutical Corporation Information4.9.2 Hunan Yuantong Pharmaceutical Description, Business Overview4.9.3 Hunan Yuantong Pharmaceutical Hesperidin Products Offered4.9.4 Hunan Yuantong Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.9.5 Hunan Yuantong Pharmaceutical Hesperidin Revenue by Product4.9.6 Hunan Yuantong Pharmaceutical Hesperidin Revenue by Application4.9.7 Hunan Yuantong Pharmaceutical Hesperidin Revenue by Geographic Area4.9.8 Hunan Yuantong Pharmaceutical Recent Development4.10 Chengdu Yazhong Bio-pharmaceutical4.10.1 Chengdu Yazhong Bio-pharmaceutical Corporation Information4.10.2 Chengdu Yazhong Bio-pharmaceutical Description, Business Overview4.10.3 Chengdu Yazhong Bio-pharmaceutical Hesperidin Products Offered4.10.4 Chengdu Yazhong Bio-pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.10.5 Chengdu Yazhong Bio-pharmaceutical Hesperidin Revenue by Product4.10.6 Chengdu Yazhong Bio-pharmaceutical Hesperidin Revenue by Application4.10.7 Chengdu Yazhong Bio-pharmaceutical Hesperidin Revenue by Geographic Area4.10.8 Chengdu Yazhong Bio-pharmaceutical Recent Development4.11 Chengdu Runde Pharmaceutical4.11.1 Chengdu Runde Pharmaceutical Corporation Information4.11.2 Chengdu Runde Pharmaceutical Description, Business Overview4.11.3 Chengdu Runde Pharmaceutical Hesperidin Products Offered4.11.4 Chengdu Runde Pharmaceutical Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.11.5 Chengdu Runde Pharmaceutical Hesperidin Revenue by Product4.11.6 Chengdu Runde Pharmaceutical Hesperidin Revenue by Application4.11.7 Chengdu Runde Pharmaceutical Hesperidin Revenue by Geographic Area4.11.8 Chengdu Runde Pharmaceutical Recent Development4.12 Quzhou Tiansheng Plant Extract4.12.1 Quzhou Tiansheng Plant Extract Corporation Information4.12.2 Quzhou Tiansheng Plant Extract Description, Business Overview4.12.3 Quzhou Tiansheng Plant Extract Hesperidin Products Offered4.12.4 Quzhou Tiansheng Plant Extract Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.12.5 Quzhou Tiansheng Plant Extract Hesperidin Revenue by Product4.12.6 Quzhou Tiansheng Plant Extract Hesperidin Revenue by Application4.12.7 Quzhou Tiansheng Plant Extract Hesperidin Revenue by Geographic Area4.12.8 Quzhou Tiansheng Plant Extract Recent Development4.13 Chengdu Hawk Bio-Engineering4.13.1 Chengdu Hawk Bio-Engineering Corporation Information4.13.2 Chengdu Hawk Bio-Engineering Description, Business Overview4.13.3 Chengdu Hawk Bio-Engineering Hesperidin Products Offered4.13.4 Chengdu Hawk Bio-Engineering Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.13.5 Chengdu Hawk Bio-Engineering Hesperidin Revenue by Product4.13.6 Chengdu Hawk Bio-Engineering Hesperidin Revenue by Application4.13.7 Chengdu Hawk Bio-Engineering Hesperidin Revenue by Geographic Area4.13.8 Chengdu Hawk Bio-Engineering Recent Development4.14 Chongqing Zhuliu Bioengineering4.14.1 Chongqing Zhuliu Bioengineering Corporation Information4.14.2 Chongqing Zhuliu Bioengineering Description, Business Overview4.14.3 Chongqing Zhuliu Bioengineering Hesperidin Products Offered4.14.4 Chongqing Zhuliu Bioengineering Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.14.5 Chongqing Zhuliu Bioengineering Hesperidin Revenue by Product4.14.6 Chongqing Zhuliu Bioengineering Hesperidin Revenue by Application4.14.7 Chongqing Zhuliu Bioengineering Hesperidin Revenue by Geographic Area4.14.8 Chongqing Zhuliu Bioengineering Recent Development4.15 Hunan Kingti Bio-Tech4.15.1 Hunan Kingti Bio-Tech Corporation Information4.15.2 Hunan Kingti Bio-Tech Description, Business Overview4.15.3 Hunan Kingti Bio-Tech Hesperidin Products Offered4.15.4 Hunan Kingti Bio-Tech Hesperidin Sales, Revenue and Gross Margin (2015-2020)4.15.5 Hunan Kingti Bio-Tech Hesperidin Revenue by Product4.15.6 Hunan Kingti Bio-Tech Hesperidin Revenue by Application4.15.7 Hunan Kingti Bio-Tech Hesperidin Revenue by Geographic Area4.15.8 Hunan Kingti Bio-Tech Recent Development 5 Breakdown Data by Type5.1 Global Hesperidin Sales by Type (2015-2026)5.1.1 Global Hesperidin Sales by Type (2015-2020)5.1.2 Global Hesperidin Sales Forecast by Type (2021-2026)5.1.3 Global Hesperidin Sales Market Share by Type (2015-2026)5.2 Global Hesperidin Revenue Forecast by Type (2015-2026)5.2.1 Global Hesperidin Revenue by Type (2015-2020)5.2.2 Global Hesperidin Revenue Forecast by Type (2021-2026)5.2.3 Global Hesperidin Revenue Market Share by Type (2015-2026)5.3 Hesperidin Average Selling Price (ASP) by Type (2015-2026) 6 Breakdown Data by Application6.1 Global Hesperidin Sales by Application (2015-2026)6.1.1 Global Hesperidin Sales by Application (2015-2020)6.1.2 Global Hesperidin Sales Forecast by Application (2021-2026)6.1.3 Global Hesperidin Sales Market Share by Application (2015-2026)6.2 Global Hesperidin Revenue Forecast by Application (2015-2026)6.2.1 Global Hesperidin Revenue by Application (2015-2020)6.2.2 Global Hesperidin Revenue Forecast by Application (2021-2026)6.2.3 Global Hesperidin Revenue Market Share by Application (2015-2026)6.3 Hesperidin Average Selling Price (ASP) by Application (2015-2026) 7 North America7.1 North America Hesperidin Market Size YoY Growth 2015-20267.2 North America Hesperidin Market Facts & Figures by Country7.2.1 North America Hesperidin Sales by Country (2015-2026)7.2.2 North America Hesperidin Revenue by Country (2015-2026)7.3 North America Hesperidin Sales by Type7.4 North America Hesperidin Sales by Application 8 Asia-Pacific8.1 Asia-Pacific Hesperidin Market Size YoY Growth 2015-20268.2 Asia-Pacific Hesperidin Market Facts & Figures by Region8.2.1 Asia-Pacific Hesperidin Sales by Region (2015-2026)8.2.2 Asia-Pacific Hesperidin Revenue by Region (2015-2026)8.3 Asia-Pacific Hesperidin Sales by Type8.4 Asia-Pacific Hesperidin Sales by Application 9 Europe9.1 Europe Hesperidin Market Size YoY Growth 2015-20269.2 Europe Hesperidin Market Facts & Figures by Country9.2.1 Europe Hesperidin Sales by Country (2015-2026)9.2.2 Europe Hesperidin Revenue by Country (2015-2026)9.3 Europe Hesperidin Sales by Type9.4 Europe Hesperidin Sales by Application 10 Latin America10.1 Latin America Hesperidin Market Size YoY Growth 2015-202610.2 Latin America Hesperidin Market Facts & Figures by Country10.2.1 Latin America Hesperidin Sales by Country (2015-2026)10.2.2 Latin America Hesperidin Revenue by Country (2015-2026)10.3 Latin America Hesperidin Sales by Type10.4 Latin America Hesperidin Sales by Application 11 Middle East and Africa11.1 Middle East and Africa Hesperidin Market Size YoY Growth 2015-202611.2 Middle East and Africa Hesperidin Market Facts & Figures by Country11.2.1 Middle East and Africa Hesperidin Sales by Country (2015-2026)11.2.2 Middle East and Africa Hesperidin Revenue by Country (2015-2026)11.3 Middle East and Africa Hesperidin Sales by Type11.4 Middle East and Africa Hesperidin Sales by Application 12 Supply Chain and Sales Channel Analysis12.1 Hesperidin Supply Chain Analysis12.2 Hesperidin Key Raw Materials and Upstream Suppliers12.3 Hesperidin Clients Analysis12.4 Hesperidin Sales Channel and Sales Model Analysis12.4.1 Hesperidin Distribution Channel Analysis: Indirect Sales VS Direct Sales12.4.2 Hesperidin Distribution Channel Analysis: Online Sales VS Offline Sales12.4.3 Hesperidin Distributors 13 Market Dynamics13.1 Hesperidin Market Drivers13.2 Hesperidin Market Opportunities13.3 Hesperidin Market Challenges13.4 Hesperidin Market Restraints13.5 Porters Five Forces Analysis 14 Research Findings and Conclusion 15 Appendix15.1 Research Methodology15.1.1 Methodology/Research Approach15.1.2 Data Source15.2 Author Details15.3 Disclaimer

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Hesperidin Market size was US$ 81 million and it is expected to reach US$ 125.2 million by the end of 2026, with a CAGR of 6.3% - The Daily Chronicle

Virtual Rehabilitation System Market Size, Sales, Profit Margin, Key Competencies, Restraints Throughout The Forecasted Period 2020-2026|VRHealth,…

LOS ANGELES, United States:The report titledGlobal Virtual Rehabilitation System Marketis one of the most comprehensive and important additions to QY Researchs archive of market research studies. It offers detailed research and analysis of key aspects of the global Virtual Rehabilitation System market. The market analysts authoring this report have provided in-depth information on leading growth drivers, restraints, challenges, trends, and opportunities to offer a complete analysis of the global Virtual Rehabilitation System market. Market participants can use the analysis on market dynamics to plan effective growth strategies and prepare for future challenges beforehand. Each trend of the global Virtual Rehabilitation System market is carefully analyzed and researched about by the market analysts.The market analysts and researchers have done extensive analysis of the global Virtual Rehabilitation System market with the help of research methodologies such as PESTLE and Porters Five Forces analysis. They have provided accurate and reliable market data and useful recommendations with an aim to help the players gain an insight into the overall present and future market scenario. The Virtual Rehabilitation System report comprises in-depth study of the potential segments including product type, application, and end user and their contribution to the overall market size.

Get Full PDF Sample Copy of Report: (Including Full TOC, List of Tables & Figures, Chart)https://www.qyresearch.com/sample-form/form/1664008/global-virtual-rehabilitation-system-market

In addition, market revenues based on region and country are provided in the Virtual Rehabilitation System report. The authors of the report have also shed light on the common business tactics adopted by players. The leading players of the global Virtual Rehabilitation System market and their complete profiles are included in the report. Besides that, investment opportunities, recommendations, and trends that are trending at present in the global Virtual Rehabilitation System market are mapped by the report. With the help of this report, the key players of the global Virtual Rehabilitation System market will be able to make sound decisions and plan their strategies accordingly to stay ahead of the curve.

Competitive landscape is a critical aspect every key player needs to be familiar with. The report throws light on the competitive scenario of the global Virtual Rehabilitation System market to know the competition at both the domestic and global levels. Market experts have also offered the outline of every leading player of the global Virtual Rehabilitation System market, considering the key aspects such as areas of operation, production, and product portfolio. Additionally, companies in the report are studied based on the key factors such as company size, market share, market growth, revenue, production volume, and profits.

Key Players Mentioned in the Global Virtual Rehabilitation System Market Research Report: :, VRHealth, Motek Medical, Virtual Rehab, ACP, BTS Bioengineering, GestureTek Health, CoRehab, CSE Entertainment, Doctor Kinetic, LiteGait, Meden-Inmed, Saebo, Tyromotion

Virtual Rehabilitation System Market Types: , Cloud-based, On Premise

Virtual Rehabilitation System Market Applications:, Hospital, Clinic, Other

The Virtual Rehabilitation System Market report has been segregated based on distinct categories, such as product type, application, end user, and region. Each and every segment is evaluated on the basis of CAGR, share, and growth potential. In the regional analysis, the report highlights the prospective region, which is estimated to generate opportunities in the global Virtual Rehabilitation System market in the forthcoming years. This segmental analysis will surely turn out to be a useful tool for the readers, stakeholders, and market participants to get a complete picture of the global Virtual Rehabilitation System market and its potential to grow in the years to come.

Key questions answered in the report:

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Table of Contents:

1 Market Overview of Virtual Rehabilitation System1.1 Virtual Rehabilitation System Market Overview1.1.1 Virtual Rehabilitation System Product Scope1.1.2 Market Status and Outlook1.2 Global Virtual Rehabilitation System Market Size Overview by Region 2015 VS 2020 VS 20261.3 Global Virtual Rehabilitation System Market Size by Region (2015-2026)1.4 Global Virtual Rehabilitation System Historic Market Size by Region (2015-2020)1.5 Global Virtual Rehabilitation System Market Size Forecast by Region (2021-2026)1.6 Key Regions Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.1 North America Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.2 Europe Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.3 China Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.4 Rest of Asia Pacific Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.5 Latin America Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.6.6 Middle East & Africa Virtual Rehabilitation System Market Size YoY Growth (2015-2026)1.7 Coronavirus Disease 2019 (Covid-19): Virtual Rehabilitation System Industry Impact1.7.1 How the Covid-19 is Affecting the Virtual Rehabilitation System Industry

1.7.1.1 Virtual Rehabilitation System Business Impact Assessment Covid-19

1.7.1.2 Supply Chain Challenges

1.7.1.3 COVID-19s Impact On Crude Oil and Refined Products1.7.2 Market Trends and Virtual Rehabilitation System Potential Opportunities in the COVID-19 Landscape1.7.3 Measures / Proposal against Covid-19

1.7.3.1 Government Measures to Combat Covid-19 Impact

1.7.3.2 Proposal for Virtual Rehabilitation System Players to Combat Covid-19 Impact 2 Virtual Rehabilitation System Market Overview by Type2.1 Global Virtual Rehabilitation System Market Size by Type: 2015 VS 2020 VS 20262.2 Global Virtual Rehabilitation System Historic Market Size by Type (2015-2020)2.3 Global Virtual Rehabilitation System Forecasted Market Size by Type (2021-2026)2.4 Cloud-based2.5 On Premise 3 Virtual Rehabilitation System Market Overview by Type3.1 Global Virtual Rehabilitation System Market Size by Application: 2015 VS 2020 VS 20263.2 Global Virtual Rehabilitation System Historic Market Size by Application (2015-2020)3.3 Global Virtual Rehabilitation System Forecasted Market Size by Application (2021-2026)3.4 Hospital3.5 Clinic3.6 Other 4 Global Virtual Rehabilitation System Competition Analysis by Players4.1 Global Virtual Rehabilitation System Market Size (Million US$) by Players (2015-2020)4.2 Global Top Manufacturers by Company Type (Tier 1, Tier 2 and Tier 3) (based on the Revenue in Virtual Rehabilitation System as of 2019)4.3 Date of Key Manufacturers Enter into Virtual Rehabilitation System Market4.4 Global Top Players Virtual Rehabilitation System Headquarters and Area Served4.5 Key Players Virtual Rehabilitation System Product Solution and Service4.6 Competitive Status4.6.1 Virtual Rehabilitation System Market Concentration Rate4.6.2 Mergers & Acquisitions, Expansion Plans 5 Company (Top Players) Profiles and Key Data5.1 VRHealth5.1.1 VRHealth Profile5.1.2 VRHealth Main Business and Companys Total Revenue5.1.3 VRHealth Products, Services and Solutions5.1.4 VRHealth Revenue (US$ Million) (2015-2020)5.1.5 VRHealth Recent Developments5.2 Motek Medical5.2.1 Motek Medical Profile5.2.2 Motek Medical Main Business and Companys Total Revenue5.2.3 Motek Medical Products, Services and Solutions5.2.4 Motek Medical Revenue (US$ Million) (2015-2020)5.2.5 Motek Medical Recent Developments5.3 Virtual Rehab5.5.1 Virtual Rehab Profile5.3.2 Virtual Rehab Main Business and Companys Total Revenue5.3.3 Virtual Rehab Products, Services and Solutions5.3.4 Virtual Rehab Revenue (US$ Million) (2015-2020)5.3.5 ACP Recent Developments5.4 ACP5.4.1 ACP Profile5.4.2 ACP Main Business and Companys Total Revenue5.4.3 ACP Products, Services and Solutions5.4.4 ACP Revenue (US$ Million) (2015-2020)5.4.5 ACP Recent Developments5.5 BTS Bioengineering5.5.1 BTS Bioengineering Profile5.5.2 BTS Bioengineering Main Business and Companys Total Revenue5.5.3 BTS Bioengineering Products, Services and Solutions5.5.4 BTS Bioengineering Revenue (US$ Million) (2015-2020)5.5.5 BTS Bioengineering Recent Developments5.6 GestureTek Health5.6.1 GestureTek Health Profile5.6.2 GestureTek Health Main Business and Companys Total Revenue5.6.3 GestureTek Health Products, Services and Solutions5.6.4 GestureTek Health Revenue (US$ Million) (2015-2020)5.6.5 GestureTek Health Recent Developments5.7 CoRehab5.7.1 CoRehab Profile5.7.2 CoRehab Main Business and Companys Total Revenue5.7.3 CoRehab Products, Services and Solutions5.7.4 CoRehab Revenue (US$ Million) (2015-2020)5.7.5 CoRehab Recent Developments5.8 CSE Entertainment5.8.1 CSE Entertainment Profile5.8.2 CSE Entertainment Main Business and Companys Total Revenue5.8.3 CSE Entertainment Products, Services and Solutions5.8.4 CSE Entertainment Revenue (US$ Million) (2015-2020)5.8.5 CSE Entertainment Recent Developments5.9 Doctor Kinetic5.9.1 Doctor Kinetic Profile5.9.2 Doctor Kinetic Main Business and Companys Total Revenue5.9.3 Doctor Kinetic Products, Services and Solutions5.9.4 Doctor Kinetic Revenue (US$ Million) (2015-2020)5.9.5 Doctor Kinetic Recent Developments5.10 LiteGait5.10.1 LiteGait Profile5.10.2 LiteGait Main Business and Companys Total Revenue5.10.3 LiteGait Products, Services and Solutions5.10.4 LiteGait Revenue (US$ Million) (2015-2020)5.10.5 LiteGait Recent Developments5.11 Meden-Inmed5.11.1 Meden-Inmed Profile5.11.2 Meden-Inmed Main Business and Companys Total Revenue5.11.3 Meden-Inmed Products, Services and Solutions5.11.4 Meden-Inmed Revenue (US$ Million) (2015-2020)5.11.5 Meden-Inmed Recent Developments5.12 Saebo5.12.1 Saebo Profile5.12.2 Saebo Main Business and Companys Total Revenue5.12.3 Saebo Products, Services and Solutions5.12.4 Saebo Revenue (US$ Million) (2015-2020)5.12.5 Saebo Recent Developments5.13 Tyromotion5.13.1 Tyromotion Profile5.13.2 Tyromotion Main Business and Companys Total Revenue5.13.3 Tyromotion Products, Services and Solutions5.13.4 Tyromotion Revenue (US$ Million) (2015-2020)5.13.5 Tyromotion Recent Developments 6 North America Virtual Rehabilitation System by Players and by Application6.1 North America Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)6.2 North America Virtual Rehabilitation System Market Size by Application (2015-2020) 7 Europe Virtual Rehabilitation System by Players and by Application7.1 Europe Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)7.2 Europe Virtual Rehabilitation System Market Size by Application (2015-2020) 8 China Virtual Rehabilitation System by Players and by Application8.1 China Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)8.2 China Virtual Rehabilitation System Market Size by Application (2015-2020) 9 Rest of Asia Pacific Virtual Rehabilitation System by Players and by Application9.1 Rest of Asia Pacific Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)9.2 Rest of Asia Pacific Virtual Rehabilitation System Market Size by Application (2015-2020) 10 Latin America Virtual Rehabilitation System by Players and by Application10.1 Latin America Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)10.2 Latin America Virtual Rehabilitation System Market Size by Application (2015-2020) 11 Middle East & Africa Virtual Rehabilitation System by Players and by Application11.1 Middle East & Africa Virtual Rehabilitation System Market Size and Market Share by Players (2015-2020)11.2 Middle East & Africa Virtual Rehabilitation System Market Size by Application (2015-2020) 12 Virtual Rehabilitation System Market Dynamics12.1 Industry Trends12.2 Market Drivers12.3 Market Challenges12.4 Porters Five Forces Analysis 13 Research Finding /Conclusion 14 Methodology and Data Source 14.1 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 Disclaimer14.4 Author List

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Virtual Rehabilitation System Market Size, Sales, Profit Margin, Key Competencies, Restraints Throughout The Forecasted Period 2020-2026|VRHealth,...

Genprex to Present at the Alliance for Regenerative Medicine’s Virtual Cell and Gene Meeting on the Mesa – Business Wire

AUSTIN, Texas--(BUSINESS WIRE)--Genprex, Inc. (Genprex or the Company) (NASDAQ: GNPX), a clinical-stage gene therapy company developing potentially life-changing technologies for patients with cancer and diabetes, today announced that it will be presenting at the Alliance for Regenerative Medicines (ARM) virtual Cell and Gene Meeting on the Mesa, taking place October 12-16, 2020. Michael Redman, Executive Vice President and Chief Operating Officer of Genprex, will lead the companys presentation.

The 2020 Cell and Gene Meeting on the Mesa will be delivered in a virtual format over the course of five days where attendees will be able to watch company presentations on-demand, in addition to two live-streaming panels each day. The Cell and Gene Meeting on the Mesa is the sectors foremost annual conference, bringing together senior executives and top decision-makers in the industry to advance cutting-edge research into cures. Tackling the commercialization hurdles facing the cell and gene therapy sector today, this meeting covers a wide range of topics from clinical trial design to alternative payment models to scale-up and supply chain platforms for advanced therapies.

For more information on the conference, or to register, please visit https://www.meetingonthemesa.com.

About Genprex, Inc.

Genprex, Inc. is a clinical-stage gene therapy company developing potentially life-changing technologies for patients with cancer and diabetes. Genprexs technologies are designed to administer disease-fighting genes to provide new treatment options for large patient populations with cancer and diabetes who currently have limited treatment options. Genprex works with world-class institutions and collaborators to develop drug candidates to further its pipeline of gene therapies in order to provide novel treatment approaches. The Companys lead product candidate, GPX-001 (quaratusugene ozeplasmid), is being evaluated as a treatment for non-small cell lung cancer (NSCLC). GPX-001 has a multimodal mechanism of action that has been shown to interrupt cell signaling pathways that cause replication and proliferation of cancer cells; re-establish pathways for apoptosis, or programmed cell death, in cancer cells; and modulate the immune response against cancer cells. GPX-001 has also been shown to block mechanisms that create drug resistance. In January 2020, the U.S. Food and Drug Administration granted Fast Track Designation for GPX-001 for NSCLC in combination therapy with osimertinib (AstraZenecas Tagrisso) for patients with EFGR mutations whose tumors progressed after treatment with osimertinib alone. For more information, please visit the Companys web site at http://www.genprex.com or follow Genprex on Twitter, Facebook and LinkedIn.

Forward-Looking Statements

Statements contained in this press release regarding matters that are not historical facts are "forward-looking statements" within the meaning of the Private Securities Litigation Reform Act of 1995. Because such statements are subject to risks and uncertainties, actual results may differ materially from those expressed or implied by such forward-looking statements. Such statements include, but are not limited to, statements regarding the effect of Genprexs product candidates, alone and in combination with other therapies, on cancer and diabetes, regarding potential, current and planned clinical trials, regarding the Companys future growth and financial status and regarding our commercial partnerships and intellectual property licenses. Risks that contribute to the uncertain nature of the forward-looking statements include the presence and level of the effect of our product candidates, alone and in combination with other therapies, on cancer; the timing and success of our clinical trials and planned clinical trials of GPX-001, alone and in combination with targeted therapies and/or immunotherapies, and whether our other potential product candidates, including GPX-002, our gene therapy in diabetes, advance into clinical trials; the success of our strategic partnerships, including those relating to manufacturing of our product candidates; the timing and success at all of obtaining FDA approval of GPX-001 and our other potential product candidates including whether we receive fast track or similar regulatory designations; costs associated with developing our product candidates and whether patents will ever be issued under patent applications that are the subject of our license agreements. These and other risks and uncertainties are described more fully under the caption Risk Factors and elsewhere in our filings and reports with the United States Securities and Exchange Commission. All forward-looking statements contained in this press release speak only as of the date on which they were made. We undertake no obligation to update such statements to reflect events that occur or circumstances that exist after the date on which they were made.

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Genprex to Present at the Alliance for Regenerative Medicine's Virtual Cell and Gene Meeting on the Mesa - Business Wire

Caladrius Biosciences to Present at the Alliance for Regenerative Medicine’s Virtual Cell and Gene Meeting on the Mesa – GlobeNewswire

BASKING RIDGE, N.J., Oct. 07, 2020 (GLOBE NEWSWIRE) -- Caladrius Biosciences, Inc. (Nasdaq: CLBS) (Caladrius or the Company), a clinical-stage biopharmaceutical company dedicated to the development of cellular therapies designed to reverse, not manage, disease, announced today that its Chief Medical Officer, Douglas W. Losordo, M.D., FACC, FAHA, will present at the Alliance for Regenerative Medicines (ARM) Cell and Gene Meeting on the Mesa, being held virtually on October 12-16, 2020.

The 2020 Cell and Gene Meeting on the Mesa will be delivered in a virtual format over the course of five days where attendees will be able to watch company presentations on-demand, in addition to two live-streaming panels each day. The Cell and Gene Meeting on the Mesa is the sectors foremost annual conference, bringing together senior executives and top decision-makers in the industry to advance cutting-edge research into cures. Tackling the commercialization hurdles facing the cell and gene therapy sector today, this meeting covers a wide range of topics from clinical trial design to alternative payment models to scale-up and supply chain platforms for advanced therapies.

For more information on the conference, or to register, please visithttps://www.meetingonthemesa.com.

About Caladrius Biosciences

Caladrius Biosciences, Inc. is a clinical-stage biopharmaceutical company dedicated to the development of cellular therapies designed to reverse, not manage, disease. We are developing first-in-class cell therapy products based on the notion that our body contains finely tuned mechanisms for self-repair. Our technology leverages and enables these mechanisms in the form of specific cells, using formulations and modes of delivery unique to each medical indication.

The Companys current product candidates include CLBS119, a CD34+ cell therapy product candidate for the repair of lung damage found in patients with severe COVID-19 infection who have experienced respiratory failure, for which the Company plans to initiate a clinical trial in the coming weeks as well as three developmental treatments for ischemic diseases based on its CD34+ cell therapy platform: HONEDRA (formerly CLBS12), recipient of SAKIGAKE designation and eligible for early conditional approval in Japan for the treatment of critical limb ischemia (CLI) based on the results of an ongoing clinical trial; CLBS16, the subject of a recently completed positive Phase 2 clinical trial in the U.S. for the treatment of coronary microvascular dysfunction (CMD); and CLBS14, a Regenerative Medicine Advanced Therapy (RMAT) designated therapy for which the Company has finalized with the U.S. Food and Drug Administration (the FDA) a protocol for a Phase 3 confirmatory trial in subjects with no-option refractory disabling angina (NORDA). For more information on the company, please visit http://www.caladrius.com.

Contact:

Investors:Caladrius Biosciences, Inc.John MendittoVice President, Investor Relations and Corporate CommunicationsPhone:+1-908-842-0084Email:jmenditto@caladrius.com

Media:W2O GroupChristiana PascalePhone: +1-212-257-6722Email:cpascale@w2ogroup.com

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Caladrius Biosciences to Present at the Alliance for Regenerative Medicine's Virtual Cell and Gene Meeting on the Mesa - GlobeNewswire

Pfizer and Sangamo Dose First Participant in Phase 3 Study Evaluating Hemophilia A Gene Therapy Treatment – BioSpace

Oct. 7, 2020 10:45 UTC

NEW YORK & BRISBANE, Calif.--(BUSINESS WIRE)-- Pfizer Inc. (NYSE: PFE) and Sangamo Therapeutics, Inc. (Nasdaq: SGMO), a genomic medicines company, today announced that the first participant has been dosed in the Phase 3 AFFINE study of giroctocogene fitelparvovec (SB-525), an investigational gene therapy for hemophilia A patients.

This press release features multimedia. View the full release here: https://www.businesswire.com/news/home/20201007005049/en/

AFFINE is a global Phase 3, open-label, multicenter, single arm study that will evaluate the efficacy and safety of giroctocogene fitelparvovec in patients with moderately severe to severe hemophilia A. The primary endpoint is impact on annual bleed rate (ABR) through 12 months following treatment with giroctocogene fitelparvovec, compared to ABR on Factor VIII (FVIII) replacement therapy collected in the Phase 3 lead-in study period. Participants will be analyzed throughout the 5-year study period following the single infusion to further assess the durability and efficacy.

The initiation of the pivotal Phase 3 dosing study of giroctocogene fitelparvovec is a significant achievement for Pfizer as we continue our longstanding commitment to improving care for the hemophilia community, said Brenda Cooperstone, Chief Development Officer, Rare Disease, Pfizer Global Product Development. Enrollment in the lead-in study is progressing well and recruitment is on track for Phase 3. Given the Phase 1/2 study findings to date, we believe that giroctocogene fitelparvovec has the potential to sustain factor levels and reduce annual bleed rates, suggesting this one-time gene therapy could potentially transform the standard of care for eligible patients worldwide.

Data from the Phase 3 lead-in study will provide a baseline for patients evaluated in the Phase 3 study. Updated Phase 1/2 data announced at a Pfizer investor event on September 15, 2020 demonstrated that giroctocogene fitelparvovec was generally well tolerated. Each of the five patients in the high dose cohort sustained FVIII activity levels without bleeds or the need for prophylactic factor through up to 85 weeks. Factor VIII activity levels were sustained at a clinically meaningful level, with a geometric mean of ~71% when measured between the weeks of 9 and 52.

We are encouraged that findings from the Phase 1/2 Alta study met two critically important measures for the hemophilia A patient community, showing clinically meaningful factor levels and reduced bleeds, said Bettina M. Cockroft, M.D., M.B.A, Chief Medical Officer of Sangamo. The progress of this program, the most advanced of our gene therapy product candidates, into Phase 3 is an important milestone for Sangamo, as it represents our first asset in a registrational trial.

Per the terms of the collaboration agreement, Sangamo has now earned a $30 million milestone payment. The giroctocogene fitelparvovec collaboration was established in May 2017. Under the terms, Pfizer is now operationally and financially responsible for research, development, manufacturing and commercialization activities for giroctocogene fitelparvovec following the transfer of the Investigational New Drug (IND) from Sangamo to Pfizer in December 2019. Sangamo is eligible to receive total potential milestone payments of up to $300 million for the development and commercialization of giroctocogene fitelparvovec, and up to $175 million for additional hemophilia A gene therapy product candidates that may be developed under the collaboration. Sangamo will, additionally, receive tiered royalties starting in the low teens and up to 20% of annual net sales of giroctocogene fitelparvovec.

About the AFFINE study

The Phase 3 AFFINE (efficAcy and saFety Factor vIii geNe thErapy in hemophilia A patients; NCT04370054) study is an open-label, multicenter, single arm study to evaluate the efficacy and safety of a single infusion of giroctocogene fitelparvovec in more than 60 adult (ages 18-64 years) male participants with moderately severe to severe hemophilia A. Eligible study participants will have completed at least six months of routine FVIII prophylaxis therapy during the lead-in Phase 3 study (NCT03587116) in order to collect pretreatment data for efficacy and selected safety parameters.

The primary endpoint is impact on ABR through 12 months following treatment with giroctocogene fitelparvovec, as compared to ABR on prior FVIII prophylaxis replacement therapy. The secondary endpoint is FVIII activity level after the onset of steady state and through 12 months following infusion of giroctocogene fitelparvovec.

About giroctocogene fitelparvovec

Giroctocogene fitelparvovec (SB-525 or PF-07055480) comprises a recombinant adeno-associated virus serotype 6 vector (AAV6) encoding the complementary deoxyribonucleic acid for B domain deleted human FVIII. The giroctocogene fitelparvovec expression cassette was designed for optimal liver-specific expression of FVIII protein and supports production of high yields of the vector. The giroctocogene fitelparvovec transcriptional cassette incorporates multi-factorial modifications to the liver-specific promoter module, FVIII transgene, synthetic polyadenylation signal and vector backbone sequence.

The U.S. Food and Drug Administration has granted Orphan Drug, Fast Track, and regenerative medicine advanced therapy (RMAT) designations to giroctocogene fitelparvovec, which also received Orphan Medicinal Product designation from the European Medicines Agency. Giroctocogene fitelparvovec is being developed as part of a global collaboration between Sangamo and Pfizer.

About Hemophilia A

Hemophilia is a genetic hematological rare disease that results in a deficiency of a protein that is required for normal blood clottingclotting factor VIII in hemophilia A. The severity of hemophilia that a person has is determined by the amount of factor in the blood. The lower the amount of the factor, the more likely it is that bleeding will occur which can lead to serious health problems.

Hemophilia A occurs in approximately one in every 5,000-10,000 male births worldwide. For people who live with hemophilia A, there is an increased risk of spontaneous bleeding as well as bleeding following injuries or surgery. It is a lifelong disease that requires constant monitoring and therapy.

About Sangamo Therapeutics

Sangamo Therapeutics is committed to translating ground-breaking science into genomic medicines with the potential to transform patients lives using gene therapy, ex vivo gene-edited cell therapy, and in vivo genome editing and gene regulation. For more information about Sangamo, visit http://www.sangamo.com.

About Pfizer Rare Disease

Rare disease includes some of the most serious of all illnesses and impacts millions of patients worldwide, representing an opportunity to apply our knowledge and expertise to help make a significant impact on addressing unmet medical needs. The Pfizer focus on rare disease builds on more than two decades of experience, a dedicated research unit focusing on rare disease, and a global portfolio of multiple medicines within a number of disease areas of focus, including rare hematologic, neurologic, cardiac and inherited metabolic disorders.

Pfizer Rare Disease combines pioneering science and deep understanding of how diseases work with insights from innovative strategic collaborations with academic researchers, patients, and other companies to deliver transformative treatments and solutions. We innovate every day leveraging our global footprint to accelerate the development and delivery of groundbreaking medicines and the hope of cures.

Click here to learn more about our Rare Disease portfolio and how we empower patients, engage communities in our clinical development programs, and support programs that heighten disease awareness.

Pfizer Inc.: Breakthroughs that change patients lives

At Pfizer, we apply science and our global resources to bring therapies to people that extend and significantly improve their lives. We strive to set the standard for quality, safety and value in the discovery, development and manufacture of health care products, including innovative medicines and vaccines. Every day, Pfizer colleagues work across developed and emerging markets to advance wellness, prevention, treatments and cures that challenge the most feared diseases of our time. Consistent with our responsibility as one of the world's premier innovative biopharmaceutical companies, we collaborate with health care providers, governments and local communities to support and expand access to reliable, affordable health care around the world. For more than 150 years, we have worked to make a difference for all who rely on us. We routinely post information that may be important to investors on our website at http://www.pfizer.com. In addition, to learn more, please visit us on http://www.pfizer.com and follow us on Twitter at @Pfizer and @Pfizer_News, LinkedIn, YouTube and like us on Facebook at Facebook.com/Pfizer.

SANGAMO DISCLOSURE NOTICE:

This press release contains forward-looking statements regarding Sangamo's current expectations. These forward-looking statements include, without limitation, statements relating to the potential to develop, obtain regulatory approvals for and commercialize SB-525 as a safe and effective therapy to treat hemophilia A, the potential long-term durability of SB-525 therapy, anticipated plans and timelines for conducting phase 3 clinical trials and sharing additional clinical data, the potential for Sangamo to earn milestone payments and royalties under its collaboration with Pfizer and the timing of such payments and royalties and other statements that are not historical fact. These statements are not guarantees of future performance and are subject to risks and uncertainties that are difficult to predict. Sangamos actual results may differ materially and adversely from those expressed. There can be no assurance that Sangamo will earn any additional milestone or royalty payments under the Pfizer collaboration. Factors that could cause actual results to differ include, but are not limited to, risks and uncertainties related to: the evolving COVID-19 pandemic and its impact on the global business environment, healthcare systems and the business and operations of Sangamo and Pfizer; the research and development process; the uncertain timing and unpredictable results of clinical trials, including whether final clinical trial data will validate the safety and efficacy of SB-525; the unpredictable regulatory approval process for product candidates across multiple regulatory authorities; the manufacturing of products and product candidates; the commercialization of approved products; the potential for technological developments that obviate technologies used by Sangamo and Pfizer in SB-525; the potential for Pfizer to terminate the SB-525 program or to breach or terminate its collaboration agreement with Sangamo; and the potential for Sangamo for fail to realize its expected benefits of its collaboration with Pfizer. These risks and uncertainties are described more fully in Sangamo's filings with the U.S. Securities and Exchange Commission, including its most recent Quarterly Report on Form 10-Q for the quarter ended June 30, 2020 and Annual Report on Form 10-K for the year ended December 31, 2019. The information contained in this release is as of October 7, 2020, and Sangamo undertakes no duty to update forward-looking statements contained in this release except as required by applicable laws.

PFIZER DISCLOSURE NOTICE:

The information contained in this release is as of October 7, 2020. Pfizer assumes no obligation to update forward-looking statements contained in this release as the result of new information or future events or developments.

This release contains forward-looking information about an investigational hemophilia A therapy, giroctocogene fitelparvovec (SB-525, or PF-07055480), including its potential benefits, that involves substantial risks and uncertainties that could cause actual results to differ materially from those expressed or implied by such statements. Risks and uncertainties include, among other things, the uncertainties inherent in research and development, including the ability to meet anticipated clinical endpoints, commencement and/or completion dates for our clinical trials, regulatory submission dates, regulatory approval dates and/or launch dates, as well as the possibility of unfavorable new clinical data and further analyses of existing clinical data; risks associated with interim data; the risk that clinical trial data are subject to differing interpretations and assessments by regulatory authorities; whether regulatory authorities will be satisfied with the design of and results from our clinical studies; whether and when drug applications for any potential indications for giroctocogene fitelparvovec may be filed in any jurisdictions; whether and when regulatory authorities in any jurisdictions may approve any such applications, which will depend on myriad factors, including making a determination as to whether the product's benefits outweigh its known risks and determination of the product's efficacy and, if approved, whether giroctocogene fitelparvovec will be commercially successful; decisions by regulatory authorities impacting labeling, manufacturing processes, safety and/or other matters that could affect the availability or commercial potential of giroctocogene fitelparvovec; uncertainties regarding the impact of COVID-19 on Pfizers business, operations and financial results; and competitive developments.

A further description of risks and uncertainties can be found in Pfizer's Annual Report on Form 10-K for the fiscal year ended December 31, 2019 and in its subsequent reports on Form 10-Q, including in the sections thereof captioned "Risk Factors" and "Forward-Looking Information and Factors That May Affect Future Results", as well as in its subsequent reports on Form 8-K, all of which are filed with the U.S. Securities and Exchange Commission and available at http://www.sec.gov and http://www.pfizer.com.

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Pfizer and Sangamo Dose First Participant in Phase 3 Study Evaluating Hemophilia A Gene Therapy Treatment - BioSpace

The global regenerative medicine market is projected to reach USD 17.9 billion by 2025 from USD 8.5 billion in 2020, at a CAGR of 15.9% -…

New York, Oct. 08, 2020 (GLOBE NEWSWIRE) -- Reportlinker.com announces the release of the report "Regenerative Medicine Market by Product, Application, Geography - Global Forecast to 2025" - https://www.reportlinker.com/p04700208/?utm_source=GNW However, the high cost of cell and gene therapies and ethical concerns related to the use of embryonic stem cells in research and development are expected to restrain the growth of this market during the forecast period.The cell therapies segment accounted for the highest growth rate in the regenerative medicine market, by product, during the forecast periodBased on products, the regenerative medicine market is segmented into tissue-engineered products, cell therapies, gene therapies, and progenitor and stem cell therapies.The cell therapies segment accounted for the highest growth rate in the regenerative medicine market in 2019.

The increasing adoption of tissue-engineered products for the treatment of chronic wounds and musculoskeletal disorders and the rising funding for the R&D of regenerative medicine products and therapies are the major factors driving the growth of this segment.

Oncology segment accounted for highest CAGRBased on applications, the regenerative medicine market is segmented into musculoskeletal disorders, wound care, oncology, ocular disorders, dental, and other applications.In 2019, the oncology segment accounted for the highest growth rate.

This can be attributed to the rising prevalence of orthopedic diseases, growing geriatric population, increasing number of stem cell research projects, growing number of clinical researches/trials, and the rich pipeline of stem cell products for the treatment of musculoskeletal disorders.

Europe: The fastest-growing region regenerative medicine marketThe global regenerative medicine market is segmented into North America, Europe, the Asia Pacific, and Rest of the World.The North America region is projected to grow at the highest CAGR during the forecast period in 2019.

The growth in the North American regenerative medicine market can be attributed to rising stem cell banking, tissue engineering, and drug discovery in the region; expansion of the healthcare sector; and the high adoption of stem cell therapy and cell immunotherapies for the treatment of cancer and chronic diseases.

The primary interviews conducted for this report can be categorized as follows: By Company Type: Tier 1 - 20%, Tier 2 - 45%, and Tier 3 - 35% By Designation: C-level - 30%, D-level - 20%, and Others - 50% By Region: North America - 36%, Europe - 25%, Asia Pacific - 27%, and Rest of the World 12%

Lits of companies Profiled in the Report: 3M (US) Allergan plc (Ireland) Amgen, Inc. (US) Aspect Biosystems (Canada) bluebird bio (US) Kite Pharma (US) Integra LifeSciences Holdings Corporation (US) MEDIPOST Co., Ltd. (South Korea) Medtronic plc (Ireland) Anterogen Co., Ltd. (South Korea) MiMedx Group (US) Misonix (US) Novartis AG (Switzerland) Organogenesis Inc. (US) Orthocell Limited (Australia) Corestem, Inc. (South Korea) Spark Therapeutics (US) APAC Biotech (India) Shenzhen Sibiono GeneTech Co., Ltd. (China) Smith & Nephew plc (UK) Stryker Corporation (US) Takeda Pharmaceutical Company Limited (Japan) Tego Science (South Korea) Vericel Corporation (US) Zimmer Biomet (US)

Research Coverage:This report provides a detailed picture of the global regenerative medicine market.It aims at estimating the size and future growth potential of the market across different segments, such as product, application, and region.

The report also includes an in-depth competitive analysis of the key market players, along with their company profiles, recent developments, and key market strategies.

Key Benefits of Buying the Report:The report will help market leaders/new entrants by providing them with the closest approximations of the revenue numbers for the overall regenerative medicine market and its subsegments.It will also help stakeholders better understand the competitive landscape and gain more insights to position their business better and make suitable go-to-market strategies.

This report will enable stakeholders to understand the pulse of the market and provide them with information on the key market drivers, restraints, opportunities, and trends.

Read the full report: https://www.reportlinker.com/p04700208/?utm_source=GNW

About ReportlinkerReportLinker is an award-winning market research solution. Reportlinker finds and organizes the latest industry data so you get all the market research you need - instantly, in one place.

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The global regenerative medicine market is projected to reach USD 17.9 billion by 2025 from USD 8.5 billion in 2020, at a CAGR of 15.9% -...