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Milwaukee-Area Family Invests $10 Million in Genomic Sciences and Precision Medicine Research – PR Newswire

Posted: May 15, 2022 at 1:56 am

Medical College of Wisconsin Research CenterRenamed in Mellowes Family Honor

MILWAUKEE, May 12, 2022 /PRNewswire/ -- The Medical College of Wisconsin (MCW) has dedicated its Genomic Sciences and Precision Medicine Center as the Linda T. and John A. Mellowes Center for Genomic Sciences and Precision Medicine in honor of the couple's $10 million gift to support new research and for MCW faculty studying the potential the human genome has to treat a wide variety of diseases.

The gift is the largest philanthropic investment in the genomic sciences received by MCW, and establishes three new endowed chairs in precision oncology, precision medicine, and bioinformatics and data analytics. Additionally, an endowed innovation and discovery fund will support the center's strategic research objectives.

"John and I are thrilled to make this gift, which we see as an investment in the future of medicine," said Linda Mellowes. "We feel confident that the work of the center will attract intellectual talent to our region and lead to medical breakthroughs and new treatments for patients and families."

"We are deeply grateful to Linda and John for their generosity and for the trust this gift represents in our work as researchers and clinicians," said Raul Urrutia, MD, director of the Mellowes Center and the Warren P. Knowles Chair of Genomics and Precision Medicine. "As we seek to transform how patients are diagnosed and treated, we are proud to have them as partners."

Razelle Kurzrock, MD, FACP, associate director of clinical research for the MCW Cancer Center and associate director of precision oncology at the Mellowes Center has been appointed as the inaugural holder of the Linda T. and John A. Mellowes Endowed Chair of Precision Oncology to advance her research in cancer, including rare cancers.

MCW and its clinical partners, Froedtert Hospital and Children's Wisconsin have a strong record of achievements in the genomic sciences, dating back to the Human Genome Project and the 1999 founding of the MCW Human and Molecular Genetics Center. In 2010, MCW became the first institution in the world to deploy genetic sequencing to diagnose and recommend a treatment for a rare pediatric disease.

SOURCE Medical College of Wisconsin

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Five to receive honorary degrees at Washington University’s 161st Commencement – The Source – Washington University in St. Louis – Washington…

Posted: May 15, 2022 at 1:56 am

Washington University in St. Louis will award five honorary degrees during its 161st Commencement May 20.

During the ceremony, which will begin at 9 a.m. on Francis Olympic Field, the university also will bestow academic degrees on approximately 3,800 members of the Class of 2022.

Mae Jemison, MD, the first woman of color to become a NASA astronaut and to travel into space, founder of two companies and creator of an international science camp to increase science literacy, will deliver the Commencement address and receive an honorary doctor of science degree.

The other honorary degree recipients and their degrees are:

Sotomayor will not be on campus for the Commencement ceremony. A recording of the justice being presented her honorary degree while she visited the university last month will be shown during the ceremony. She spoke before a crowd of more than 3,000 students, faculty and staff during a question-and-answer session April 5 in the Field House.

At age 16, Jemison entered Stanford University, where she earned a bachelor of science degree in chemical engineering and fulfilled the requirements for a bachelor of arts in African and Afro-American studies in 1977.

She then attended medical school at Cornell University and earned a doctor of medicine degree in 1981. During medical school, she volunteered in Kenya and at a Cambodian refugee camp in Thailand. After completing a medical internship, she volunteered with the Peace Corps as a medical officer in Liberia and Sierra Leone from 1983 until 1985 before working as a general practice physician in Los Angeles.

Pursuing a dream since childhood, she applied for and was admitted into NASAs astronaut training program in 1987, eventually becoming the first woman of color astronaut.

She was a science mission specialist for NASAs space shuttle Endeavour, STS-47 Spacelab, in September 1992. During the eight-day flight that orbited the Earth 127 times, she performed experiments in material science, life sciences and human adaptation to weightlessness and was a co-investigator on a bone cell research experiment.

After leaving NASA in 1993, she started the Jemison Group Inc., a technology consulting firm integrating critical socio-cultural issues into the design of engineering and science projects.

Jemison now leads 100 Year Starship (100YSS), a bold, far-reaching nonprofit initiative to assure the capabilities exist for human travel to another star within the next 100 years.

In 1994, she founded the Dorothy Jemison Foundation for Excellence, which focuses on building critical thinking skills, experiential teaching methods and science literacy. Through the foundation, she launched an international science camp, The Earth We Share, to engage youth in hands-on, interdisciplinary STEM education.

Washington University has welcomed Jemison to campus on two other occasions. In 2005, she delivered an Assembly Series lecture, Exploring the Frontiers of Science and Human Potential, and in 2015, she participated in Engineers Week, sponsored by the McKelvey School of Engineering.

A world-renowned scientist, Kobilka is known for his discoveries related to G-protein-coupled receptors, key proteins that govern many aspects of hormonal communication between cells in the body. Along with Robert Lefkowitz, MD, of Duke University, Kobilka received the Nobel Prize in chemistry in 2012 for these discoveries.

Kobilka earned a bachelor of science degree in biology and chemistry, summa cum laude, from the University of Minnesota, Duluth, in 1977. He earned his medical degree from Yale University School of Medicine in 1981 and completed his residency in internal medicine at Washington University School of Medicine and what was then Barnes Hospital.

In 1984, Kobilka joined Lefkowitzs lab at Duke as a postdoctoral fellow. There, he conducted the early part of the work that would lead to recognition by the Nobel committee. Kobilka and his colleagues cloned the gene responsible for coding the receptor for the hormone adrenaline. The research helped identify an entire family of receptors called G-protein-coupled receptors. About half of all medications in use today act through this type of receptor.

Kobilkas lab at Stanford has focused on understanding the structure and function of G-protein-coupled receptors at the molecular level. In particular, his lab is known for its work defining and imaging high-resolution 3D crystal structures of this type of receptor using X-ray crystallography.

He also has shown the structure of these receptors when they are bound to the hormone on the outside of the cell and when they are activating the G protein inside the cell. His detailed structural analyses could lead to more precise medications that only activate the specific desired receptor, reducing unwanted side effects.

President Barack Obama nominated Sotomayor on May 26, 2009, to serve as an associate justice of the Supreme Court of the United States.

When she was sworn in Aug. 8, 2009, she became the first Latina justice and the third woman to serve on the Supreme Court.

Sotomayor was born in the Bronx, New York, to Puerto Rican parents. She graduated as valedictorian from Cardinal Spellman High School in New York City. She earned a bachelor of arts degree in 1976 from Princeton University, graduating summa cum laude and as a member of Phi Beta. In 1979, she earned a JD from Yale Law School, where she served as an editor of the Yale Law Journal.

She thereafter served as an assistant district attorney in the New York County District Attorneys Office from 19791984. She then litigated international commercial matters in New York City at Pavia & Harcourt, where she was an associate and then partner from 19841992. Sotomayor served on multiple New York City boards that included affordable housing for low-income homeowners, civil rights issues, and public funding for political candidates.

In 1991, President George H.W. Bush nominated her to the U.S. District Court, Southern District of New York. Between 1992 and 1998, she presided over roughly 450 cases at the U.S. District Court.

In 1997, she was nominated by President Bill Clinton to the U.S. Court of Appeals for the Second Circuit, where she served from 19982009. While serving as a federal judge, she lectured at Columbia Law School and was an adjunct professor at New York University Law School.

The first case she heard after assuming the role of associate justice of the Supreme Court was Citizens United v. Federal Election Commission, where she dissented from the majority, which held in favor of the rights of corporations in campaign finance.

During her time on the Supreme Court, Sotomayor has become known for her concerns for the rights of defendants; dissenting on issues of race, ethnicity and gender; and calls for criminal justice reform.

Andy Taylor joined Enterprise Holdings Inc., the privately held business founded in 1957 by his father, Jack Taylor, at the age of 16. He began his career by washing cars during summer and holiday vacations and learning the business from the ground up.

Enterprise Holdings owns the Enterprise Rent-A-Car, Alamo Rent A Car and National Car Rental brands, which include nearly 10,000 neighborhood and airport locations. The company has franchisee locations in more than 90 countries and territories. Enterprise Holdings is the largest car rental company in the world and the only investment-grade company in the U.S. car rental industry.

After earning his bachelor of science degree in business administration from the University of Denver in 1970, Taylor opted to gain some initial experience outside of the family business and began working for RLM Leasing, a Ford Motor Co. affiliate in San Francisco.

He returned to Enterprise three years later. Enterprise had a fleet of 5,000 cars. In 1976, he became the general manager of Enterprise Rent-A-Cars St. Louis regional operations, was promoted to president and chief operating officer in 1980, chief executive officer in 1991, chairman in 2001 and executive chairman in 2013.

Andy and his wife, Barbara Taylor, are generous supporters of Washington University and other St. Louis institutions. In 2017, they gave $10 million to establish the Taylor Family Scholarship Challenge, which lifted Washington Universitys Leading Together campaigns total for scholarships above $500 million, a record amount.

Altogether, the Taylor family and Enterprise Holdings have given $70 million for the Enterprise Holdings Scholars program, which is the universitys largest scholarship fund.

Last month, the Taylor Geospatial Institute was launched in St. Louis. The institute brings together eight leading Midwest research institutions, including Washington University, to collaborate on research into geospatial technology. Taylor, who provided funding through a legacy investment, said, It is my hope that this institute will cement St. Louis as the worlds true center for geospatial excellence.

Barbara Taylors commitments to the St. Louis community include her long involvement with the Saint Louis Art Museum, for which she is an honorary trustee. She has served as the museums Friends Board president, a museum trustee and vice president and president of the art museums Board of Commissioners a position appointed by the St. Louis County executive.

The first woman to hold the presidents office, she played a key role in the museums expansion, culminating in the opening of the new East Building in 2013.

Barbara Taylor serves on the board and executive committee of Forest Park Forever and has served as a trustee for Webster University, Mary Institute and Saint Louis Country Day School, the Junior League of St. Louis and the St. Louis Childrens Hospital Friends Board.

Barbara and her husband, Andy Taylor, have provided leadership and support to a broad range of St. Louis institutions. In addition to helping fund scholarships, Barbara and Andy Taylor and the Crawford Taylor Foundation committed $20 million to the Department of Psychiatry at Washington University School of Medicine in 2012 to fund the Taylor Family Institute for Innovative Psychiatric Research. In 2019, the Taylors committed an additional $10 million to the Taylor Family Institute, which is designed to advance the science underlying the diagnosis and treatment of psychiatric illnesses.

In 2016, Andy and Barbara Taylor gave $21 million to the Saint Louis Art Museum to endow the museums directorship, which is named for Barbara. They previously provided $15 million for a new wing and sculpture garden at the museum.

In 2009, the Taylors received the Jane and Whitney Harris St. Louis Community Service Award, which is given annually to a couple dedicated to improving the St. Louis region through service, generosity and leadership. In 2018, the Taylors were recognized with Washington Universitys Robert S. Brookings Award for their dedication to the university.

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UBC Medicine researchers awarded over $2.5 million from Canada’s Stem Cell Network – UBC Faculty of Medicine

Posted: May 15, 2022 at 1:56 am

By Digital Comms | May 12, 2022

Researchers from UBCs faculty of medicine have been awarded over $2.5 million from Canadas Stem Cell Network (SCN) to advance six regenerative medicine research projects and clinical trials.

The funding is part of a $19.5 million investment by SCN in 32 projects across Canada. The investment is the largest in SCNs history, made possible through increased funding by the Government of Canada in 2021. Stem cells have traditionally fuelled the field of regenerative medicine which is focused on regrowing, repairing or replacing damaged or diseased cells, organs and tissues.

The largest of the UBC-led projects funded by SCN will receive $1M to conduct research and a clinical trial for one of the worlds first genetically engineered cell replacement therapies for type 1 diabetes. The project aims to support the development of a potential functional cure for type 1 diabetes.

The six projects led by UBC faculty of medicine researchers are:

Dr. Nika Shakiba, assistant professor, school of biomedical engineering

Project: Elucidating the competitive advantage of aberrant pluripotent stem cells in suspension bioprocesses

$300,000 Early Career Researcher Jump-Start Awards

Dr. Carl de Boer, assistant professor, school of biomedical engineering

Project: Decoding human cis-regulatory logic in development to treat disease

$300,000 Early Career Researcher Jump-Start Awards

Dr. Sheila Teves, assistant professor, department of biochemistry and molecular biology

Project: Transcription regulation of hiPSC-derived cardiomyocytes during maturation and hypertrophic cardiomyopathy

$300,000 Early Career Researcher Jump-Start Awards

Dr. Pamela Hoodless, professor, department of medical genetics, school of biomedical engineering

Project: Pathways of cell identity in human liver organoids

$250,000 Impact Awards

Dr. David Thompson, clinical assistant professor, department of medicine

Project: Clinical trial of the first gene-edited cell replacement therapy for type 1 diabetes

$1,000,000 Clinical Trial Awards

Dr. Michael Underhill, professor, department of cellular and physiological sciences

Project: Novel therapeutic strategies to promote liver regeneration

$399,200 Fueling Biotechnology Partnerships

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Computer Modeling is at the Heart of Willy Wriggers’ Research – Old Dominion University

Posted: May 15, 2022 at 1:56 am

May 13, 2022 By Sherry DiBari

As a young man, Willy Wriggers was fascinated by optical instruments.

Childhood gifts of a microscope and a telescope led to a love of science, especially astronomy and biology.

"I started studying water in dirt puddles outside and was interested in bacteria and also looking at the stars," he said. "I learned all the star constellations when I was 8 or 9."

In high school, Wriggers was active in his high school's astronomy club, edited the club's magazine, "Rosa Ursina," and led tours and presentations on the cosmos.

"That experience became sort of a blueprint for what I did later as a scientist and educator," he said.

Today, his focus is on life at a molecular level.

Wriggers, the Frank Batten Chair of Mechanical Aerospace Engineering and Bioengineering at Old Dominion University, develops 3D computer modeling techniques to help scientists refine and reconstruct electron microscopy (EM) images.

Wriggers has collaborated with Jing He, a professor in ODU's Department of Computer Science, since 2015. His contribution is the application and understanding of deep learning in the computational environment.

The work will "help biological electron microscopists bridge a broad range of resolution levels from atomic to living organism-level," Wriggers said.

Those images can help scientists explain biomolecular structures - complex assemblies made up of nucleic acids and proteins.

"Trying to understand these structures at the atomic detail helps you understand the function of the biological machine - you understand how muscle works at the atomic level, you know how the metabolism of ATP (adenosine triphosphate, the "fuel" of all living things) drives complex cellular processes," Wriggers explained in a recent interview. "How that is actually done with proteins is really fascinating."

Wriggers and He specialize in modeling actin filaments - a fibrous, gel-like material inside a cell or inside muscle that is responsible for cell movements and muscle contraction.

"We are one of only five or six researchers in the world doing this kind of work," he said.

Electron microscopy utilizes a beam of accelerated electrons to view molecular structures - something not possible with a traditional light microscope.

However, in order not to destroy the sample, the electron dose must be very low. This results in a low-resolution image lacking complete detail.

Before computer modeling, scientists would superimpose a model of the complete structure on the EM image by hand - a process that was time-consuming and not reproducible.

Twenty-five years ago - as advances in computing were just beginning - Wriggers saw a potential solution. "I thought to myself, 'Why isn't anyone trying to use computers to do this automatically?'"

In response, Wriggers developed Situs, a software package that could dock the low-resolution EM images to computer-generated 3D models. The program helped fill in missing artifacts caused by deficiencies in electron microscopes and to refine what Wriggers calls "noisy" imaging.

"It put me on the map almost 25 years ago, and essentially drove my entire academic career," he said.

An Introduction to Computers

Wriggers' grew up in Ingolstadt, Germany, headquarters of the Audi car company.

His father and grandfather both worked there, and Wriggers, like many teenagers, worked there in the summers.

That experience would lead to a lifelong love for cars and machinery.

In college, Wriggers gravitated toward physics and emerging computer technologies.

"People were just starting with computers, and I realized that computers could play a big role in physics," he said.

In 1992, he left Germany for a yearlong exchange program at the University of Illinois at Urbana-Champaign."The reason why I'm still here is because I didn't exchange back," he said with a laugh.

For Wriggers, it was an exciting time to be at Illinois. The physics department was just one floor down from the research and development arm of the National Center for Supercomputing Applications (NCSA) and they were in the process of developing Mosaic, the first commercially available internet browser, and the CAVE, a virtual-reality environment.

"It was really like the center of the universe to be at the Beckman Institute during that time," he said.

Wriggers was one of the first researchers to implement virtual reality for 3D biological structures. It was innovative research for someone whose first experience with a computer was at age 21.

His dissertation focused on the first simulation of newly discovered motor proteins. It was all based on application - other people wrote the software - something Wriggers would eventually do as well.

Wriggers developed Situs as a post-doctoral student at University of California, San Diego and then as an assistant professor at The Scripps Research Institute on the same campus.

Finding a Home at ODU

When he was 32, he received a $1.2 million National Institute of Health grant. The funding has ensured that Wriggers' work would continue - from California to the University of Texas Health Science Center at Houston, the Weill Medical College of Cornell University and now at ODU. The grant has been renewed continuously since 2001.

"Wriggers' work is a model of the quality of research that weaves engineering and medicine here at Old Dominion University and at the College of Engineering," said Khan Iftekharuddin, interim dean of the Batten College of Engineering and Technology. "We value his contributions as a researcher, professor and friend."

Wriggers left academia for a few years to participate in the development of the Anton supercomputer at D.E. Shaw Research in New York City. The privately funded team achieved the first millisecond-length molecular dynamics simulation in 2010, which was a major breakthrough in biomolecular modeling.

Later, when he was looking for a university to renew his own NIH-funded project and lab, biomachina.org, life led him to ODU.

"When I got this offer, I thought, 'Wow, they really believe in me,'" he said. "I'm really super grateful to ODU for enabling me to continue my independent research."

Wriggers also welcomed the multidisciplinary opportunities at ODU - including the opportunity to work with ODU Motorsports.

"I used to ride a motorcycle. I used to fly glider planes," he said. "I liked everything that moved."

"Coming here and seeing that there was an active motorsports lab in this building," he said, "I was really fascinated by that."

As an adviser, Wriggers worked with the students to install sensors on the cars and measure the vehicle's parameters and dynamics. "We used that to improve lap times and better understand the performance of the vehicles," he said.

For Wriggers' next project, the sky's the limit.

"I hope to find time to go back to an aerospace or optical astronomy project where I can apply our computational tools," he said. "I think that would be really exciting.

"One of the great benefits of ODU is that there are no limits here in terms of what I can do."

Away from Campus

Wriggers lives at Chic's Beach in Virginia Beach with his wife Hilary and two sons. The family plays various instruments. In his free time, you may find Wriggers and his sons performing at open mics and on the local blues jam circuit at venues like Froggies or Jerry's Indian River.

A professor in the Biological Sciences Department at ODU, Gaff offered insight on staying safe, diagnosing tick-borne diseases and the impact climate change is having on tick populations. (More)

The Strome College of Business professor was among those recognized at the Faculty and Administrative Service Recognition Luncheon. (More)

Peter Schulman, who was named an Eminent Scholar, and Helen Crompton, who won the A. Rufus Tonelson Award, were among the honorees. (More)

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Curative Biotechnology, Inc. Appoints Cary Sucoff to Board of Directors – GlobeNewswire

Posted: May 15, 2022 at 1:55 am

Appointment of Independent Director Adds to Financial Expertise on Board

Boca Raton, FL, May 12, 2022 (GLOBE NEWSWIRE) -- Curative Biotechnology Inc. (OTC: CUBT) (Curative Biotech or the Company), a development-stage biomedical company focused on novel treatments for rare diseases and conditions, announced today that Cary Sucoff has joined its Board of Directors as an independent director. With over 35 years of legal and securities industry experience, Cary Sucoffhas participated in the financing of over one hundred public and private companies and is currently on the boards of, or an advisor to, six healthcare and biotechnology companies.Mr. Sucoff is an expert in legal, compliance, corporate strategy, and capital markets and has chaired or sat on audit, compensation, nominating/governance, and special committees.

About Cary Sucoff

Since 2011, Mr. Sucoff has owned and operated Equity Source Partners LLC, an advisory and consulting firm. Currently, Mr. Sucoff serves on the following Boards of Directors:

Contrafect Corp. - engaged in Phase 3 development of new treatments for infectious diseases utilizing proprietary antibody and lysin technology (Audit; Nom/Gov; Pricing).

IMAC Holdings - provides movement and orthopedic therapies and minimally invasive procedures performed through regenerative and rehabilitative medical treatments delivered in private clinics and facilities inside Walmart stores. (Audit; Nom/Gov; Comp).

Galimedix Therapeutics, Inc. - technology licensed from Tel Aviv University for potentially revolutionary treatments for Glaucoma and Dry Age-related Macular Degeneration (Audit; Nom/Gov).

First Wave Technologies, Inc. - new and innovative medical device technologies focused on anesthesia and ventilator technology (M&A).

In addition, Mr. Sucoff currently serves as an advisor to:

Sapience Therapeutics, Inc. - a Phase 1/2 Biotech company focusing on Glioblastoma.

LB Pharmaceuticals - a NY-based biotech company developing a Phase 2 novel drug to treat schizophrenia.

Kinetic Power Systems - an energy developer and manufacturer of long duration flywheel energy storage systems or mechanical batteries.

Mr. Sucoff, a former New York City prosecutor, is the Past President of New England Law/Boston (Boston, Ma.) and is the senior member of its Board of Trustees where he has served for over 30 years. He has been Chairman of the Endowment Committee for over 10 years and sits on the Finance Committee. Mr. Sucoff received a B.A. from SUNY Binghamton (1974) and a J.D. from New England School of Law (1977) where he was the Managing Editor of the Law Review and graduated Magna Cum Laude. Mr. Sucoff has been a member of the Bar of the State of New York (now retired) since 1978.

Future Curative Biotechnology Press Releases and Updates

Interested investors and shareholders can be notified of future Press releases and Industry Updates by e-mailingir@curativebiotech.com

About Curative Biotechnology, Inc.http://curativebiotech.com

Curative Biotechnology, Inc. (Curative Biotech) is a development stage biomedical company focused on novel therapies for rare diseases. The Company is focused on identifying, acquiring and developing disease modifying therapeutic drug candidates with a concentration on rare disease indications. Curative Biotech has ongoing programs in three different therapeutic areas: infectious disease, neuro oncology and degenerative eye disease. The Companys pipeline includes IMT504, CURB906 and Metformin Reformulation. IMT504 is a novel immune therapy to treat rabies and an adjuvant for vaccines. CURB906 is a fully humanized CD56 monoclonal antibody carrying a cytotoxic drug conjugate directly to the tumor cancer site to kill the tumor by inhibiting tumor growth and migration of the tumor. Metformin Reformulation is targeting the treatment of intermediate and late-stage Age-Related Macular Degeneration (AMD) disease.

Forward-Looking Statements

This press release contains forward-looking statements within the meaning of Section 27A of the Securities Act of 1933, as amended, and Section 21E of the Securities Exchange Act of 1934. CUBT is not yet generating revenues. Although forward-looking statements in this release reflect the good faith judgment of management, forward-lookingstatements are inherently subjected to known, unknown risks and uncertainties that may cause actualresults to be materially different from those discussed in these forward-looking statements, including butnot limited our ability to generate sufficient market acceptance for our products and services, our ability to generate sufficient operating cashflow, and general economic conditions. Readers are urged to carefully review and consider the various disclosures made by us in our reports filed with OTC Markets from time to time which attempt to advise interested parties of the risks and factors that may affect our business, financialcondition, results of operation and cash flows. If one or more of these risks or uncertainties materialize, or if the underlying assumptions prove incorrect, our actual results may vary materially from those expected or projected. Readers are urged not to place undue reliance on these forward-looking statements, which speak only as of the date of this release. We assume no obligation to update any forward-looking statements in order to reflect any event or circumstance that may arise after the date of this release.

Contact:

Steve ChizzikInvestor RelationsCurative Biotech (CUBT)201-454-5845ir@curativebiotech.com

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Head-To-Head Comparison: Nautilus Biotechnology (NAUT) and Its Peers – Defense World

Posted: May 15, 2022 at 1:55 am

Nautilus Biotechnology (NASDAQ:NAUT Get Rating) is one of 42 public companies in the Analytical instruments industry, but how does it compare to its rivals? We will compare Nautilus Biotechnology to similar companies based on the strength of its dividends, analyst recommendations, risk, earnings, institutional ownership, valuation and profitability.

Insider and Institutional Ownership

47.9% of Nautilus Biotechnology shares are owned by institutional investors. Comparatively, 60.0% of shares of all Analytical instruments companies are owned by institutional investors. 13.4% of shares of all Analytical instruments companies are owned by company insiders. Strong institutional ownership is an indication that hedge funds, endowments and large money managers believe a company is poised for long-term growth.

This table compares Nautilus Biotechnology and its rivals net margins, return on equity and return on assets.

Analyst Ratings

This is a breakdown of recent recommendations for Nautilus Biotechnology and its rivals, as provided by MarketBeat.

Nautilus Biotechnology currently has a consensus price target of $8.67, suggesting a potential upside of 131.73%. As a group, Analytical instruments companies have a potential upside of 35.16%. Given Nautilus Biotechnologys stronger consensus rating and higher probable upside, research analysts plainly believe Nautilus Biotechnology is more favorable than its rivals.

Valuation & Earnings

This table compares Nautilus Biotechnology and its rivals gross revenue, earnings per share (EPS) and valuation.

Nautilus Biotechnologys rivals have higher revenue and earnings than Nautilus Biotechnology. Nautilus Biotechnology is trading at a higher price-to-earnings ratio than its rivals, indicating that it is currently more expensive than other companies in its industry.

Summary

Nautilus Biotechnology rivals beat Nautilus Biotechnology on 8 of the 12 factors compared.

About Nautilus Biotechnology (Get Rating)

Nautilus Biotechnology, Inc., a development stage life sciences company, engages in creating a platform technology for quantifying and unlocking the complexity of the proteome. It develops Nautilus Platform, a proteomics platform that includes end-to-end solution comprised of instruments, consumables, and software analysis. The company was founded in 2016 and is headquartered in Seattle, Washington.

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The Rise of Sino-Russian Biotech Cooperation – Foreign Policy Research Institute

Posted: May 15, 2022 at 1:55 am

The Peoples Republic of Chinas emergence as a global power is rooted in the rapid development of a sovereign innovation infrastructure, one that allows China to compete in high-technology races with the United States. Chinas build-up of its innovation infrastructure is complemented by another process: an intensifying cooperation with the Russian Federation in security, trade, energy supplies, artificial intelligence, 5G, space research, and biotechnology. Moscow and Beijing have a complicated history of interactions. Previously, China and the Soviet Union were isolated from the world market of technology, and after the Sino-Soviet relationship worsened, they were also isolated from each other. However, today, in light of deteriorating relations with the United States, strategic alignment emerges. The U.S. and the European Unions decoupling from business with China and imposing economic sanctions on Russia push the two countries to examine the potential of their strategic cooperation more closely.[1]

China and Russia are very different in terms of their innovation performance. China has an ascending trajectory and has already advanced to self-sufficient manufacturing of sophisticated intermediate goods.[2] It is well integrated into global innovation networks, while Russia is not. Since the break-up of the Soviet Union, Russia has been sliding down a descending trajectory.[3] It became a natural resource exporter heavily dependent on imports of foreign technology.

Regardless of these differences, Beijing and Moscow are actively developing a joint innovation infrastructure. The two countries declared 2020 and 2021 the Cross Years of Russian and Chinese scientific, technical, and innovation cooperation.[4] China demonstrated its ability in launching and managing large-scale projects and leads in Sino-Russian partnerships. Most of the infrastructure projects take place under the auspices of the Belt and Road Initiative.[5] For example, one of its institutes is Russia-China Investment Fund, a private equity fund established jointly by the Russian Direct Investment Fund and China Investment Corporation, which equally committed USD 2 billion.[6]

Lomonosov Moscow State University (left) and Tsinghua University Campus (right). (Adobe Stock)

The purpose of building this type of infrastructure is to accelerate Sino-Russian partnerships in science and technology and facilitate technology transfer. In 2020, the two countries announced the construction of the first Sino-Russian Innovation Complex, a joint venture of Tus-Holdings, Russian Direct Investment Fund, Tsinghua University, and Lomonosov Moscow State University. The purpose of this Innovation Complex is to prepare for future joint research and development centers, university labs for basic research, and science parks. This project followed the establishment in 2016 of the first Sino-Russian university founded by Beijing Institute of Technology, Shenzhen Municipal Peoples Government, and Lomonosov Moscow State University.[7] The new universitys mission is to to nurture talents for the Belt and Road Initiative.[8] Few joint research centers, for instance, in computational mathematics and cybernetics, were launched, and there are plans to open other centers in chemistry and materials, biology, and space science.[9]

In addition, the Russia-China Investment Fund, in partnership with Tus-Holdings, supports the construction of the Sino-Russian High-Tech Innovation Park at the Skolkovo Innovation Centre. According to the press release, Tus-Holdings is considering the possibility to create a network of innovation facilities in Russia by building new technology parks in other areas of the country.[10] Another science and technology park within Lomonosov Moscow State University is anticipated and is expected to become a platform for innovative cooperation between scientific and technological workers and scientific and technological enterprises of the two countries.[11]

These projects are recent, and at the moment, it is unclear whether they would be successful in spurring actual innovation in the near future. What is clear, though, is that their proliferation in the last few years signals the commitment to closer and long-term integration of the Russian and Chinese innovation systems. Such integration is incremental and might take decades. In the words of Tus-Holdings Chairman Jiwu Wang, the companys vision is an ecosystem of innovative cooperation in science and technology between China and Russia . . . and deepening economic integration between the two countries [emphasis added].[12]

(sputnikvaccine.com)

Chinese-Russian technological alignment has been particularly apparent in the sector of biotechnology. Broadly, biotechnology refers to the manipulation of living organisms or their compounds to produce new products or services. Biotechnology is perceived to be a key strategic technology for industrial growth and is distinguished from other technological sectors for its capacity to alter the means of production across a variety of industrial sectors.[13] Examples of the sectors include pharmaceuticals, agriculture, and food processing, and extend to dual-use technologies.

Biotechnology is a strategic sector for China. The Made in China 2025 Initiative sets the goal of manufacturing high-tech products, including innovative medicines.[14] The plan introduced targets for Chinese pharmaceutical firms to advance in biotechnology innovation and increase exports.[15] About half of all industrial parks in China focus on the development of pharmaceuticals.[16] By 2018, China established 111 biotechnology science parks.[17] Although China still lags behind the U.S. in biotechnology innovation, analysts concede that it is rapidly progressing and closing this gap.[18] So far, Chinas efforts have concentrated on creating the necessary infrastructure for biotechnology development.

In turn, Russia has rich natural resources, but over 80% of biotech products are imported, and Russias share in the global market of biotech products is below 0.1%.[19] Russian biotech is a sector that experienced massive brain drain after the break-up of the Soviet Union, with many scientists leaving for Western countries and Israel.[20] The persistent challenge for the Russian biotechnology industry, including the biopharmaceutical industry, is its critical dependency on imports. Between 1992 and 2014, the production of substances (active pharmaceutical ingredients) decreased by a factor of 20.[21] According to the Ministry of Industrial Policy of Russia, in 2015, the country imported 95% of active pharmaceutical ingredients required to produce finished pharmaceuticals.[22] In 2018, the share of foreign medicines on the Russian market constituted 70.2% by value and 39.4% by volume. In 2019, foreign medicines generated USD 19.6 billion in income, which was about 70% of the Russian pharmaceutical market.[23] By some accounts, this sum is larger than what Russia earns from its arms export.[24] Pharmaceutical imports exceed exports by 14 times.[25] By all formal indicators in life-science research and biotechnology, such as gross domestic product (GDP) expenditure on R&D, patents, and journal publications, Russia lags behind the United States, China, France, South Korea, Japan, Germany, and India.[26]

Yet, Russia sees biotechnology as a priority area for its future.[27] The first post-Soviet strategic document in this area was enacted in 2012 and entitled the State Coordination Program for the Development of Biotechnology in the Russian Federation until 2020 (BIO 2020). Around USD 18 million was invested in the development of biotechnology, with 22% directed to biomedicine and biopharmaceuticals research.[28] The results of the program are considered limited, except for some improvement in vaccine and monoclonal antibodies research.[29] The state programs in the pharmaceutical industry appear to be more specific and thus more practical.

For example, the State Program for the Development of the Pharmaceutical and Medical Industry until 2020 (PHARMA 2020), published in 2014, attempted to reduce Russias dependency on foreign medical technologies. Sanctions put added pressure on import substitution in this area.[30] As a result of this program, 50 new industrial sites were built, 130 new medicines entered the market (9 of which were classified as innovative), and 8 scientific-research centers of pre-clinical development were built or reconstructed.[31] In addition, PHARMA 2020 launched several biopharmaceutical projects, including those of Biocad and Generium,[32] some of the largest producers of the Sputnik V vaccine.[33]

Moscow approved PHARMA 2030 in December 2021. The main difference between PHARMA 2020 and PHARMA 2030 is a call for an upgrade from import substitution to an innovative model of production. In nine years, Russia aims to double the production of local medicines and medical equipment and increase their export. The program foresees investment in infrastructure to allow for deepening cooperation between production, science, and education.[34]

According to data from the Eurasian Economic Commission, Russias innovative companies include few active players: Generium, ChemRar, Biocad, and Pharmapark.[35] ChemRar, a high-tech center in the Moscow region, hosts a handful companies benefiting from its infrastructure and scientific-research institute. One of the objectives of the center is conducting R&D for its partners especially around innovative antibiotics. In 2020, ChemRar, with the help of the Russian Direct Investment Fund (RDIF), developed a specific medicine for anti-coronavirus treatment, Avifavir, which is currently supplied to 15 countries.[36] Avifavir is based on a known substance Favipiravir, originally developed in Japan to treat influenza, but ChemRar conducted clinical trials to confirm its effectiveness in treating COVID-19 specifically. Pharmapark, another Moscow-based company, is Russias top producer of the active pharmaceutical ingredient interferon alfa-2b and covers 80% of local demand of Russian producers of finished pharmaceuticals. Some of these companies are becoming instrumental in Sino-Russian biotech partnership.

When it comes to breakthroughs, what is notable about the Russian biopharma industry is the persistent Soviet legacy of production being subordinated to research institutes. By estimates, about 30 universities, mostly in Moscow and Saint Petersburg, have programs in biotechnology, and about 50 institutes of the Russian Academy of Science conduct biology research.[37] Consider the Russian COVID-19 vaccines as an example. The Sputnik V vaccine came out from the Gamaleya Institute, a state-owned research institute, not from industry. The Novosibirsk-based state-owned scientific center, Vektor State Research Center of Virology and Biotechnology, developed the EpiVacCorona vaccine.[38] Similarly, state-owned Chumakov Scientific Center for Research and Development of Immune-and-Biological Products of Russian Academy of Sciences developed the KoviVac vaccine.[39]

(sputnikvaccine.com)

Arguably, Russias weak point is not in the development of biopharmaceutical innovation but in scaling-up of production. In the biotechnology sector, innovative projects are financially supported through Russian development institutes, such as Skolkovo, Russian Venture Company, and Rusnano.[40] Often, their resources only suffice for the development stage but not for substantially increasing production. For the latter, the Russian Foreign Direct Investment Fund plays a bigger role, but it would be limited without help from its international partners. This is where Chinas resources find a good application.

Notwithstanding the respective limitations of national biotech industries, Russia and Chinas cooperation has recently intensified and involved the use of the joint innovation infrastructure projects mentioned above. For example, Russian company Biocad,[41] together with Chinese manufacturer Shanghai Pharmaceuticals Holding (SPH), created a joint venture, SPH Biocad, based in China. SPH Biocad will commercialize Biocads portfolio of medicines (e.g., oncology and autoimmune treatment) in the Chinese market.[42] The joint venture received USD 400 million in funding, in which SPH holds 50.1% and Biocad 49.9%.[43] The long-term plan is to turn the joint venture from a generic producer into an innovative player.[44]

Another example of the use of the joint innovation infrastructure to advance biopharmaceutical cooperation is the Russia-China Investment Fund. In 2020, it invested in the creation of the Russian pharmaceutical holding Binnopharm Group.[45] In the same year, Binnopharm Group joined a group of companies involved in the production of the Sputnik V vaccine. With consolidated assets, Binnopharm Group became one of the top three largest pharmaceutical manufacturers in Russia and now owns the portfolio of over 450 registered medicines, the most among Russian companies.[46] Binnopharm Group plans to establish a new R&D center in Krasnogorsk (Moscow region) by integrating R&D centers of the enterprises that were merged and invest USD 33 million in the development of 100 new medicines by 2025.[47] The impact on biopharmaceutical innovation of this merger is yet to be seen. Evidently though, China has been behind the major projects aiming to help Russia create and improve the necessary infrastructure for the development of biopharmaceuticals industry. Infrastructure for innovation-based industries, such as biotechnology, is a key pillar, and Chinas kind of investment in Russia is aimed to develop and upgrade the necessary innovation capabilities.

In addition to joint investments, China and Russia have launched bilateral research projects. The countries agreed to establish a joint laboratory for research on COVID-19. The National Fund of Natural Sciences of China and the Russian Fund of Fundamental Research will supervise the project.[48] In a similar vein, the Russian Vektor State Research Centre of Virology and Biotechnology have cooperated with the Ministry of Science and Technology of China on projects related to the human avian influenza (bird flu).[49] The exchange of vaccine technology and declarations to combine efforts in coronavirus research accelerated the formation of the institutional links between the Chinese and Russian innovation systems, especially in the biotechnology sector. It signals the countries commitment to an enduring innovation partnership.[50]

The processes addressed in this paper have been unfolding before the war in Ukraine. Western decoupling from China and Russia has been pushing the two countries towards deepening their cooperation. The accelerating Sino-Russian innovation cooperation projects confirm this assumption. While it can be premature to assess the levels of joint biopharmaceutical innovation, the implications of Chinas engagement with the Russian biotech are not trivial. The nature of this engagement goes beyond investment projects, aiming to strengthen the institutional links between research organizations, manufacturers, and sovereign funds of the two nations. After February 24, 2022, Western sanctions and companies fleeing Russia will force Moscow to seek deeper cooperation with China in high-tech sectors. Russian biotech is not a self-sufficient industry and requires international partnerships to develop. But Russia is now limited in who it can partner with. Given the past trajectory of joint innovation partnership, naturally, China is now Russias ultimate bet when it comes to biotechnology development. Russian biotech future is in Chinas hands. There are not currently signs that China will change its favorable position towards Russia; hence, Sino-Russian innovation partnerships will likely intensify.

[1] Samuel Bendett and Elsa Kania, A New Sino-Russian High-Tech Partnership, Australian Strategic Policy Institute, October 2019, https://www.aspi.org.au/report/new-sino-russian-high-tech-partnership.

[2] Richard E. Baldwin, The Great Convergence: Information Technology and the New Globalization (Cambridge, Massachusetts: The Belknap Press of Harvard University Press, 2016), p. 294.

[3] For more details, see, Svitlana Lebedenko, Russian Innovation in the Era of Patent Globalization, IIC International Review of Intellectual Property and Competition Law 53, no. 2 (2022): pp. 173-193.

[4] Desheng Cao, China, Russia Enhance Links in Sci-Tech Innovation, China Daily, November 2021, https://www.chinadaily.com.cn/a/202111/27/WS61a16e3ea310cdd39bc77dbd.html.

[5] A long-term project announced by the General Secretary Xi Jinping in 2013 and envisioned to be completed by 2049.

[6] Russia-China Investment Fund, http://rcif.com/. See also: Belt and Road Initiative, BRI Institutions, https://www.beltroad-initiative.com/institutions-and-mechanisms/.

[7] About the University: Brief, Shenzhen MSU-BIT University, https://en.smbu.edu.cn/About_the_University/Brief.htm.

[8] Ibid.

[9] Development Plan, Shenzhen MSU-BIT University, https://en.smbu.edu.cn/info/1035/1258.htm.

[10] Russian Direct Investment Fund, RCIF and Tus-Holdings expand comprehensive cooperation in the technology & innovation sector, September 11, 2018, https://rdif.ru/Eng_fullNews/3412/.

[11] RDIF, RCIF and Tus-Holdings agree to jointly establish innovation center at Lomonosov Moscow State University, April 26, 2019, https://rdif.ru/Eng_fullNews/4050/.

[12] Ibid.

[13] Susan Bartholomew, National Systems of Biotechnology Innovation: Complex Interdependence in the Global System, in Systems of Innovation: Growth, Competitiveness and Employment, ed. Charles Edquist and Maureen McKelvey, I (Cheltenham, UK; Northampton, MA, USA: Edward Elgar Publishing Limited, 2000), pp. 444-445.

[14] Rolf Schmid and Xin Xiong, Biotech in China Innovation, Politics, and Economics (Singapore: Jenny Stanford Publishing, 2021), p. 285.

[15] Adolfo Arranz, Made in China 2025: Beijing Bets on Biotech, South China Morning Post, October 2018, https://multimedia.scmp.com/news/china/article/2167415/china-2025-biotech/index.html?src=social.

[16] Chinas Biotech Parks Leveraging the Ecosystem for Success (Deloitte, May 2021), p. 2, https://www2.deloitte.com/cn/en/pages/life-sciences-and-healthcare/articles/pr-china-biotech-parks-leveraging-the-ecosystem-for-success.html.

[17] Ibid.

[18] For indicators and comparative statistics, see, Robert D. Atkinson, Chinas Biopharmaceutical Strategy: Challenge or Complement to U.S. Industry Competitiveness? (Information Technology and Innovation Foundation, August 2019), https://itif.org/publications/2019/08/12/chinas-biopharmaceutical-strategy-challenge-or-complement-us-industry.

[19] Anna Grebenyuk and Nikolai Ravin, The Long-Term Development of Russian Biotech Sector, Foresight 19, no. 5 (September 2017): pp. 491, 498.

[20] Gigi Kwik Gronvall and Brittany Bland, Life-Science Research and Biosecurity Concerns in the Russian Federation, The Nonproliferation Review, February 2021, pp. 3-4.

[21] Vladimir V. Moiseev, State Policy of Economic Development of Modern Russia (2000-2016) (translation by author) (Moscow: Direkt-Media, 2017), p. 297.

[22] Information on the Results of Analysis of the State and Development of the Biotechnology Industry of Member States of the Eurasian Economic Union Working Materials (Translation by Author), (Moscow: Eurasian Economic Commission, Department of Industrial Policy, 2015), p. 27.

[23] Balakin, Ayginin, and Ivashenko, Russian Pharmaceutical Industry until 2030: Analytic Overview (Translation by Author), p. 38.

[24] Ibid.

[25] Aleksandr V. Evstratov, Main Tendencies and Ways of Development of the Pharmaceutical Market in the Russian Federation (translation by author) (Volgograd: VolgGTU, 2018), p. 18.

[26] Gronvall and Bland, p. 8.

[27] Ibid, p. 4.

[28] Ibid.

[29] Ibid.

[30] Arthur Boyarov, Alina Osmakova, and Vladimir Popov, Bioeconomy in Russia: Today and Tomorrow, New Biotechnology 60 (January 2021), p. 36.

[31] K.V. Balakin, A.A. Ayginin, and A.A. Ivashenko, Russian Pharmaceutical Industry until 2030: Analytic Overview (Translation by Author) (Dolgoprudny: Biopharmaceutical Claster Severnyi, 2021), pp. 42-43.

[32] Boyarov, Osmakova, and Popov, Bioeconomy in Russia, p. 37.

[33] Russian company plans to produce 5-6 mln doses of Sputnik V per month in June-July, Tass, April 6, 2021, https://tass.com/economy/1274415; and The Sputnik V Manufacturer Will Produce 20 Million Doses of Vaccine Per Month (translation by author), Generium, June 5, 2016, https://www.generium.ru/about/press_center/Media_about_us/proizvoditel-sputnika-v-s-iyulya-nachnet-vypuskat-20-mln-doz-vaktsiny-v-mesyats/.

[34] Balakin, Ayginin, and Ivashenko, p. 43.

[35] Information on the Results of Analysis of the State and Development of the Biotechnology Industry of Member States of the Eurasian Economic Union Working Materials (Translation by Author), pp. 28-30.

[36] Russias Avifavir Coronavirus Drug Registered in Indonesia, Russian Direct Investment Fund, March 2021, https://rdif.ru/Eng_fullNews/6644/.

[37] Overview of the Biotechnology Market in Russia and of its Prospects of Development (translation by author) (Frost & Sullivan, 2014), p. 21.

[38] By December 2020, Vektor has also developed a vaccine against HIV and conducted the first phase of clinical trials. Balakin, Ayginin, and Ivashenko, Russian Pharmaceutical Industry until 2030: Analytic Overview (Translation by Author), pp. 41-42.

[39] Pharmaceutical Market of Russia 2020 (Translation by Author) (Moscow: DSM Group, 2020), p. 117.

[40] Overview of the Biotechnology Market in Russia and of its Prospects of Development (translation by author), p. 17.

[41] Biocad is a scientific-production company in the Moscow region with the focus on urology, gynecology, oncology, and neurology products.

[42] Ben Hargreaves, China and Russia Collaborate to Create Biologics Joint Venture, Bio-Pharma Reporter, October 2, 2019, https://www.biopharma-reporter.com/Article/2019/10/02/China-and-Russia-collaborate-to-create-biologics-JV.

[43] Ibid.

[44] Ibid.

[45] The Russian pharmaceutical company Alium was founded in 1994 on the basis of the Research Centre of Applied Microbiology. In 2019, it was acquired by JSC AFK Sistema. In 2020, all the pharmaceutical assets of the JSC AFK Sistema, including Alium, were merged in Binnopharm Group. See, Binnopharm Croup, https://binnopharmgroup.ru/.

[46] Morgan Lewis Advises the Russia-China Investment Fund (RCIF) on Creation of Pharmaceutical Holding, Chambers and Partners, February 2021, https://chambers.com/articles/morgan-lewis-advises-the-russia-china-investment-fund-rcif-on-creation-of-pharmaceutical-holding.

[47] Russias Binnopharm Group Hopes to Launch up to 100 New Drugs in Comin, ThePharmaLetter, September 2021, https://www.thepharmaletter.com/article/russia-s-binnopharm-group-hopes-to-launch-up-to-100-new-drugs-in-coming-years.

[48] Ibid.

[49] International Cooperation (Translation by Author), Russian Centre for Virology and Biotechnology Vektor, http://www.vector.nsc.ru/mejdunarodnoe-sotrudnichestvo/.

[50] See, for instance, a declaration of Xi Jinping on deepening the cooperation with Russia on vaccine development. Xi Eyes Deeper Vaccine Cooperation with Russia, Xinhuanet, August 2021, http://www.news.cn/english/2021-08/25/c_1310148390.htm.

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Assistant Professor (or above) in Biotechnology or Biomedicine job with NATIONAL CHENG KUNG UNIVERSITY | 292647 – Times Higher Education

Posted: May 15, 2022 at 1:55 am

Assistant Professor (or above) in Biotechnology or Biomedicine

Recruiter: Department of Biotechnology and Bioindustry Sciences, National Cheng Kung UniversityAcademic Discipline: Biotechnology or BiomedicineJob Type: Assistant Professor, Associate Professor, or ProfessorExpected Starting Date: February 1st, 2023

Job Description

National Cheng Kung University (NCKU) is a prestigious university in Taiwan with strengths in Engineering, Sciences, Life Sciences, and Social Sciences. NCKU is a renowned academic and research institution that attracts numerous domestic and international talents. This post is offered under the Program on Bilingual Education for Students in College (BEST) of the Ministry of Education to build a more diverse and international environment for NCKUs students and you will be fully dedicated to conducting NCKUs bilingual education policies.

This post offers an exciting opportunity to make a contribution to the development of NCKUs EMI curriculum development and EMI teaching in the area of Biotechnology or Biomedicine. You will conduct bilingual education policies in the area of Biotechnology or Biomedicine, and enhance the quality of the educational environment in related areas in support of the Universitys continuing emphasis on international excellence. Before the end of each academic year, your working performance will be evaluated with consideration for renewing your contract.

Key Responsibilities

Essential Criteria

All applicants are asked to submit:

Please submit the documents mentioned below to the contact address and email PDF files to: fang@mail.ncku.edu.tw.* Regarding letters of recommendation, it is acceptable to only send them to us in paper form.

Submission Deadline:

June 1st, 2022. (Please state "Application for EMI teaching position" in the subject of the letter/ email.) Please note that we would not accept an overdue or incomplete application. We would invite suitable candidates to have an interview, and unsuitable ones documents would not be returned.

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Biotechnology brains flock to regional Australia, but trials still based in metro areas – ABC News

Posted: May 15, 2022 at 1:55 am

James Campbell is pretty proud of the groundbreaking work he is involved in to help patients better battle cancer.

The CEO and managing director of the publicly listed company, Patrys Limited, is helping drive the development of a potential cancer drug that can cross the delicate blood-brain barrier, and help reduce tumour sizes and increase patient survival.

It's just one of the many potentially life-saving ideas and developments that some of Australia's brightest minds will be bringing to Albury for this week'sBioshares Biotech Summit.

While regional Australia is not often the first place people think of when it comes to biotechnology, Dr Campbell, who also sits on the board of Australia's biotechnology industry organisation AusBiotech, said it was where a lot of the action was happening.

"I think regional Australia is really important," he said.

"Biotech is not an industry many people think is amenable for being in the regions, but I think we have seen in the past few years that with the right approach, the right attitude, the right infrastructure and technology, folks can work from pretty much anywhere.

"Why wouldn't you work from regional Australia when we have so many advantages?

"You don't need to be in a capital city to really push some of these technologies along."

While the biotech ideasmay fly thick and fast, thesector is one that also requires a lot of patience.

It takes on average between 10 and 14 years, and a funding injection of about $2.5 billion, for an idea to be delivered to patients.

Much of this development relies on the backing of private investors.

It can take even longer for these treatments to reach patients in regional areas, despite some of the minds behind the groundbreaking developments working from there.

"What I'd say is it's always important for patients to be having that discussion with their doctors: 'Can we please try to get me enrolled in clinical trials?', even if that means trials in the capital cities," Dr Campbell said.

The CEO of Australian pharmaceutical company Amplia, John Lambert, is another leader who will be visiting Albury for the conference.

Dr Lambert's teamis working on an experimental treatment that attacks tumours thathave built up a strong resistance to the immune system and chemotherapy and are difficult to treat, including those in the pancreas and ovaries.

The company's experimental drug aims to disrupt the protective barrier around those tumours and enhance the effectiveness of cancer treatment.

It's another exciting project happening in the biotech sphere and an example of one that could potentially be developed in regional areas if the right infrastructure wasin place.

"A large regional hospital that has access to adequate facilities and a number of patients go there for treatment would be a real magnet," Dr Lambertsaid.

But for now, the majority of the trials that need to be conducted in controlled clinical environments remain in major cities.

"Being from the city, we recognise the inconvenience and disruption that people participating in clinical trials, and for that matter even getting routine treatment for people with serious illness, can encounter," Dr Lambert said.

"The trial our company is about to commence will initiate recruiting people who do live in larger state capitalsbut, as we expand the trial if we see early signs of success, we would hope to push the trial into regional centres, and if the drug is approved it would be available for everyone.

"People in the regions need treatment just as much as everyone else, and they have the additional burden of having to travel often to get that treatment."

Posted9 May 20229 May 2022Mon 9 May 2022 at 5:52am, updated9 May 20229 May 2022Mon 9 May 2022 at 8:04pm

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Global Biotechnology Media, Sera and Reagents Market 2022 Offered In New Research Forecast Through 2028 Queen Anne and Mangolia News – Queen Anne and…

Posted: May 15, 2022 at 1:55 am

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