Genprex Strengthens Leadership Team with the Appointment of Two Accomplished Life Science Executives – Yahoo Finance

Seasoned industry professionals underpinned by newly strengthened balance sheet to drive key clinical programs

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 the appointment of Catherine M. Vaczy as Executive Vice President and Chief Strategy Officer and Michael T. Redman as Executive Vice President and Chief Operating Officer. These appointments follow on the heels of the Companys Fast Track Designation for its lead drug candidate, its newly licensed gene therapy for diabetes and capital raise of over $26 million that will support funding its clinical programs. Both executives will play pivotal roles as the Company advances toward the start of new clinical trials later this year and pursues partnerships for the development of its gene therapies.

"We are delighted to welcome Catherine and Michael to our executive leadership team. They join us at an exciting time as we advance our lead drug candidate into key clinical programs in non-small cell lung cancer and pursue partnership opportunities for our oncology platform and newly licensed gene therapy technology for diabetes," said Rodney Varner, Chief Executive Officer of Genprex. "Catherine and Michael each have significant biotechnology company experience that enhances our capabilities and will be instrumental in advancing our programs. Their combined expertise in business development, corporate strategy, manufacturing, clinical trial strategy and operations and regulatory affairs will be of great value as we build Genprex into a leading gene therapy company bringing new treatment options to patients in need. We are fortunate to have raised over $26 million just prior to the current turmoil in the markets, significantly strengthening our balance sheet and well positioning us financially as we execute on our strategic plan."

Ms. Vaczy has more than 20 years of experience as a founder and senior executive of life science companies, serving as a strategic partner and business and legal advisor to senior leadership teams and boards. Most recently, Ms. Vaczy has provided strategic advisory services to early stage biotechnology companies. In 2005, Ms. Vaczy co-founded and served for ten years on the senior leadership team of NeoStem, Inc. (now Caladrius Biosciences), a Nasdaq-listed clinical stage biotechnology company that combined a leading cell and gene therapy process development and manufacturing organization (sold to Hitachi Chemical) with a development pipeline of cell therapy products. Prior to that, she was an early employee and served on the senior leadership team of Nasdaq-listed ImClone Systems Incorporated (sold to Eli Lily and Company), a pioneer in targeted cancer therapy, where she was instrumental in forging important strategic alliances, including a transformative $1 billion co-development deal for the Companys blockbuster drug, Erbitux. Earlier in her career, Ms. Vaczy was a practicing attorney in a nationally recognized law firm representing early stage life science and other technology companies. Ms. Vaczy received a BA degree from Boston College and a JD degree from St. Johns University School of Law.

Mr. Redman brings more than 30 years of experience in the life sciences industry to Genprex. He has held a variety of key executive roles at clinical-stage companies, where he focused on strategic business development and U.S. and worldwide manufacturing and clinical operations. He has been instrumental in the consummation of multiple strategic transactions in the biotechnology and pharmaceutical industries. From 2007-2019, Mr. Redman served as President, Chief Executive Officer and Director of Oncolix, Inc., a publicly traded clinical-stage biopharmaceutical company focused on developing therapies for womens and childrens cancers. During his tenure at Oncolix, he advanced the companys lead drug into human clinical trials, completed the in-licensing of a promising radiopharmaceutical drug for the treatment of bone-related cancers, and took the company public. Prior to that, he was the CEO of Bone Medical, Inc., an Australian-based clinical stage company developing oral peptide products for the treatment of osteoporosis. In 2001, he co-founded Opexa Pharmaceuticals, a company developing immunotherapies for a variety of diseases, and served as its President and CEO until 2005. Mr. Redman also held key management positions with Zonagen (now Repros Therapeutics, which is a part of Allergan), Aronex Pharmaceuticals, Biovail Corporation and American Home Products (acquired by Pfizer). Mr. Redman earned a BA in Biology from the University of Missouri and an MBA from the University of Phoenix.

Story continues

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 serious diseases who currently have limited treatment options. Genprex works with world-class institutions and collaborators to in-license and develop drug candidates to further its pipeline of gene therapies in order to provide novel treatment approaches for patients with cancer and other serious diseases. The Companys lead product candidate, Oncoprex, is being evaluated as a treatment for non-small cell lung cancer (NSCLC). Oncoprex 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. Oncoprex 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 Oncoprex immunogene therapy for NSCLC in combination therapy with osimertinib (AstraZenecas Tagrisso). For more information, please visit the Companys web site at http://www.genprex.com or follow Genprex on Twitter, Facebook and LinkedIn.

Forward-Looking StatementsStatements 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 our possible strategic partnerships and regarding our financial resources. 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 and diabetes; the timing and success of our clinical trials and planned clinical trials of Oncoprex, alone and in combination with targeted therapies and/or immunotherapies, and whether other potential product candidates, including our gene therapy in diabetes advance into clinical trials; our ability to enter into strategic partnerships and the success of those partnerships; the timing and success of obtaining FDA approval of Oncoprex and other potential product candidates; and the extent and duration of the current and future economic challenges we may face. 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.

View source version on businesswire.com: https://www.businesswire.com/news/home/20200323005076/en/

Contacts

Genprex, Inc. (877) 774-GNPX (4679)

Investor Relations GNPX Investor Relations(877) 774-GNPX (4679) ext. #2investors@genprex.com

Media Contact Genprex Media RelationsKalyn Dabbs(877) 774-GNPX (4679) ext. #3media@genprex.com

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Genprex Strengthens Leadership Team with the Appointment of Two Accomplished Life Science Executives - Yahoo Finance

Codexis and Takeda partner on gene therapies for rare diseases – Pharmaceutical Technology

]]> The companies will work together on three initial programmes for gene therapies to treat rare disorders. Credit: PublicDomainPictures from Pixabay.

Takeda Pharmaceutical has signed a strategic collaboration and licence agreement with biotherapeutics developer Codexis to research and create gene therapies for rare disorders.

Codexis will use its CodeEvolver protein engineering platform to construct gene sequences encoding protein variants that could boost efficacy by improving activity, stability and cellular uptake.

Takeda will combine these transgenes and its gene therapy capabilities to develop candidates for treating various rare genetic diseases, including lysosomal storage disorders and blood factor deficiencies.

Codexis president and CEO John Nicols said: Our CodeEvolver platform technology enables the rapid engineering of novel genetic sequences that encode more efficacious proteins. The prospects of these improved sequences for the development of differentiated gene therapies for patients with rare diseases, therefore, holds great promise.

Takedas expertise in developing novel treatments for patients with rare genetic disorders, and its commitment to developing the best possible gene therapies, makes them an ideal partner for our growing Novel Biotherapeutics business unit.

The companies will work together on three initial programmes. Codexis will generate enzyme sequences that could be progressed as gene therapies into pre-clinical development.

Takeda will carry out the pre-clinical and clinical development, as well as commercialisation.

Apart from the three programmes, Takeda could launch up to four programmes for different target indications.

Codexis will obtain an upfront payment, research and development (R&D) fee reimbursement.

The company is also eligible for development and commercial milestone payments, and sales royalties on any commercial product resulting from the partnership.

Earlier this month, Takeda Pharmaceutical announced plans to develop a drug to treat Covid-19. The company will develop a polyclonal hyperimmune globulin (H-IG), referred to as TAK-888.

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Codexis and Takeda partner on gene therapies for rare diseases - Pharmaceutical Technology

Study reveals gene therapy may help in treating cardiac disease – The Siasat Daily

California: In a breakthrough study, researchers have found a potential treatment for life-threatening cardiac diseases by using gene therapy.

Danon disease is a very rare, life-threatening condition where the fundamental biological process of removing and recycling proteins does not work.

This impairment results in dysfunction of the heart, skeletal muscle, neurologic system, eyes, and liver. Most patients die or require heart transplants by the third decade of life.

In the study, which was published in Science Translational Medicine, researchers have identified a novel way to treat Danon disease using gene therapy.

Heart transplant is not always available for patients and does not treat the other organs affected in Danon disease. We knew we needed to find therapies specifically designed to address the underlying cause, said the lead researcher Eric Adler.

Danon disease is a result of mutations in the gene LAMP2. For nearly a decade, Adler and a team of researchers at UC San Diego Health have been working to determine whether gene therapy could provide a new treatment approach.

Gene therapy involves either replacing or repairing a gene that causes a medical problem or adding genes to help the body treat disease. In this case, Adler and the team focused on adding a specially designed gene that restores the LAMP2 function, resulting in improved cardiac and liver function.

We utilised mice that were a model for Danon disease and missing this specific LAMP gene. We applied gene therapy to a group of these mice and compared to mice that did not receive treatment, said Adler.

The mice that received gene therapy expressed positive results in heart, liver and muscle function. The hearts overall function of ejecting blood and relaxing improved, as did the bodys ability to degrade proteins and metabolism.

Danon disease is more common in males, and symptoms begin in early childhood or adolescence.

In many cases, the condition is inherited by a parent, typically the mother. We believe Danon disease is actually more common than we think, but it is often misdiagnosed, said Adler.

By utilising gene therapy, we were able to identify a possible new treatment approach other than a heart transplant. This study is a significant step for patients with Danon disease, Adler added.

Prior studies in Adlers lab have focused on using a patients skin cells to create stem cells. These stem cells were used to create a heart model, allowing researchers to study Danon disease at the cellular level.

The approach has provided new insight into the diseases pathology and led to the idea of using gene therapy. Our work is also proof that using stem cells to model diseases has great potential for helping develop new medicines, said Adler.

The next step, said Adler, is testing in patients with Danon disease. A Phase I clinical trial for safety and efficacy has begun.

This is the first trial using gene therapy to treat a genetic cardiac disorder and three patients are currently being treated, which means were that much closer to finding a cure for this terrible disease, and may be able to use similar methods to treat other diseases, said Adler.

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Study reveals gene therapy may help in treating cardiac disease - The Siasat Daily

TCR therapy an attractive alternative to CAR T for immunotherapy – Drug Target Review

Chimeric antigen receptor (CAR) T-cell therapies have produced encouraging clinical outcomes, demonstrating their therapeutic potential in mitigating tumour development. However, another form of T-cell immunotherapy based on T-cell receptors (TCR) has also shown great potential in this field. Here, Nikki Withers speaks to Miguel Forte who elaborates on the process and explains why he is excited about seeing an idea translate into an industrial proposition.

STIMULATING the natural defences of a persons immune system to kill cancer cells, known as immunotherapy, has become a novel and exciting approach to treat cancer. For example, the role of T cells in cell-mediated immunity has inspired the development of several strategies to genetically modify T cells, such as chimeric antigen receptor (CAR) T-cell therapy, to target cancer cells. In recent years, CAR T-cell therapy has received much attention from researchers and the press alike, and the landmark approval and clinical successes of Novartis Kymriah (the first FDA-approved treatment to include a gene therapy step in the United States) and Gilead/Kite Pharmas Yescarta (the first CAR T-cell therapy for adults living with certain types of non-Hodgkin lymphoma) has prompted a surge of further research. However, this approach which involves isolating cells from a patient, bioengineering them to express CARs that identify and attach to tumour cells and injecting them back into the patient has several limitations, according to Miguel Forte, former CEO of Zelluna Immunotherapy and currently CEO of Bone Therapeutics.

Forte has been working on a T-cell immunotherapy approach that primarily focuses on the T-cell receptors (TCRs). Similar to CAR therapies, TCR therapies modify the patients T lymphocytes ex vivo before being injected back into the patients body. However, they differ in their mechanisms for recognising antigens. CAR T-cell therapy can be compared to a policeman, with a photograph of the criminal, being able to identify them on the street, explained Forte. It is an artificial way of guiding those cells to the cancer when the cancer cells are in suspension. The difficulty with CAR is that it cannot always penetrate and deliver an effect in solid tumours. TCR therapy, which utilises the natural mechanisms that T cells use to recognise the antigen and therefore the cancer, is better suited to penetrate the tumour ie, the policeman is able to go inside the building where a criminal is hiding.

It is obviously more costly at the beginning of the development when you are fine tuning your process, compared to when you progress to a larger scale as you approach the market

Of note, this approach targets the TCR- peptide/major histocompatibility complex (MHC) interaction, which enables eradication of tumour cells. Intracellular tumour-related antigens can be presented as peptides in the MHC on the cell surface, which interact with the TCR on antigen-specific T cells to stimulate an anti-tumour response. Imagine you, or the cells, are not just a soldier in an army but a captain that can bring other immune cells into the mix. TCRs and these cells, once they go in, have a direct kill activity and an immunostimulatory activity to other cells to have a more comprehensive effect of killing the tumour cells. Forte concluded that this approach is scientifically appealing and could bring value to a large array of solid tumours.

The benefits of TCR therapies are evident; however, as with all new approaches, it is not without its challenges. The first relates to the manufacturing of these therapies; the process requires extracting patient material, changing it and then returning it to the patient. Unlike drug discovery with small molecules where you have an inert, well-defined, chemically-established component, with biologics you go up a notch in terms of complexity, Forte explained, adding that while small molecules are unidimensional, biologics are three-dimensional and, thus, more complex and challenging to manufacture. You need to remember that your product, the cells, are a living being. It is something that replicates, changes and responds to its environment. This makes it a lot more challenging to characterise and define the right specifications of the product. The initial challenge is to put in place a consistent and reliable manufacturing process.

Generating the necessary pre-clinical data can also prove challenging; studies are easier to conduct in animal models when you are working with chemical entities rather than human cells, according to Forte. Finally, when the product does get to clinic, there are elements of manufacturing, supply and logistics that can prove challenging; however, companies are starting to provide solutions for this. Working in cell and gene therapy we need to apply what we have done with other products, explained Forte. You need to adapt to the complexity and diversity of the product you have in hand. Here, you have a live product. Something that responds. It is similar to having a child; you can modulate it, but you can never fully control the behaviour of something you are shaping.

Bringing a new drug to market, from drug discovery through clinical trials to approval, can be a costly process, especially when developing cell-based therapies. These are more expensive than developing chemistry or biologics, but when biologics started to be developed, they were also very expensive, explained Forte. We are now seeing a reduction of those costs as more companies are developing products and consequently more solutions are surfacing.

Forte was involved in developing his first cell therapy product about 10 years ago. At this time, it was difficult; a lot of solutions you had to build in house. Nowadays, you can import this from solutions already available so you can concentrate on the specificity; for instance, the viral vector for gene editing your cells or the cytokine concentration for the expansion of your cells. He added that as these therapies grow, so too does the competition, resulting in reduced costs. However, the price and return on investment must correlate with benefit. It is obviously more costly at the beginning of the development when you are fine tuning your process, compared to when you progress to a larger scale as you approach the market.

The well-publicised success story of Emily Whitehead a six-year-old leukaemia patient who was one of the first patients to receive CAR T-cell therapy is a prime example of the success of immunotherapy treatments. Even though these patients may need to continue medications, they can live a relatively normal life. The gene- edited cells remain in the individual and continue to control the cancer by restoring the immune systems capabilities, said Forte. He hopes that similar results will be seen with TCR therapies: Hopefully, a significant fraction of patients will have a clinical and biological response that will reduce the tumour bulk, give them a quality life and remain doing so by controlling the cancer for a significant amount of time.

Forte concluded that the possibilities for TCR- based immunotherapies are exciting and hopefully products will be developed that will deliver an immediate and sustained effect in cancer patients.

About the author

MIGUEL FORTE

Miguel is currently the CEO of Bone Therapeutics and visiting Professor at the Lisbon University in Portugal. He also serves as Chief Commercialization Officer and Chair of the Commercialization Committee of the International Society of Cellular Therapy (ISCT) and is Member of Board of Directors of ISCT and ARM. Miguel was CEO of Zelluna Immunotherapy until the end of 2019. Miguel holds a masters degree from the Faculty of Medicine of the University of Lisbon, Portugal, a PhD in Immunology from the University of Birmingham, UK, an accreditation as Specialist in Infectious Diseases and a certificate on Health Economics of Pharmaceuticals and Medical Technologies (HEP). He is Fellow of the Faculty of Pharmaceutical Medicine of the RCP in the UK.

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TCR therapy an attractive alternative to CAR T for immunotherapy - Drug Target Review

Genprex Bolsters Board of Directors, Appoints Three Biotechnology and Healthcare Industry Leaders – Insurance News Net

Board additions will enhance Companys ability to execute on key corporate initiatives

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 the appointment of three new members to its Board of Directors. The new appointments are designed to strengthen the Company as it executes on its key clinical programs, continues to build its pipeline, and evaluates future license or corporate partnership agreements. The new Board members include Brent Longnecker, Chief Executive Officer of Longnecker & Associates, Jose A. Moreno Toscano, Chief Executive Officer of LFB USA Inc, and William R. (Will) Wilson, Jr., Chairman, President and Chief Executive Officer of Wilson Land & Cattle Co.

This strengthening of the Board of Directors closely follows the Company receiving Fast Track Designation from the Food and Drug Administration (FDA) for its lead drug candidate, raising more than $26 million from institutional investors over the last few months, and licensing a new gene therapy drug candidate for diabetes from the University of Pittsburgh. Also, just yesterday, the Company announced that it strengthened its management team by adding two new senior executives, Catherine Vaczy as Executive Vice President and Chief Strategy Officer, and Michael Redman as Executive Vice President and Chief Operating Officer.

We are honored to have Brent, Jose and Will join our Board in what we believe is a transformational time for our Company, said Rodney Varner, Chief Executive Officer of Genprex. Their combined experience in regulatory compliance, business development, clinical trial management, and deal structuring will be invaluable as we continue to our develop gene therapy drug candidates and pursue partnerships for our drug candidates. The addition of these outstanding directors, together with our new senior executive hires and a significantly strengthened balance sheet, puts us in an excellent position to execute our plans.

Brent Longnecker has more than 30 years of experience in corporate governance, executive compensation, and risk management consulting for public, private, and non-profit organizations. Mr. Longnecker built one of the countrys leading privately-held executive compensation and corporate governance consultancies, serving both domestic and international markets. Mr. Longnecker has deep expertise in healthcare, energy, real estate, manufacturing, and financial companies, regularly consulting with boards of directors, CEOs, key executives, and advisors in many major industries. He is a prolific author on the subjects of executive compensation and corporate governance.

Jose A. Moreno Toscano brings to the Company over 20 years of experience in the pharmaceutical and biotechnology industries, building, developing and transforming organizations. Mr. Moreno Toscano has a successful track record of identifying and capitalizing on opportunities to drive exponential revenue growth and market expansion, revitalizing underperforming operations and establishing foundations for successful start-up operations. His experience includes strategic planning, corporate restructuring, business development, M&A, investor relations, and general management.

William R. Wilson, Jr. has more than 40 years of experience as an attorney, with legal experience spanning health care regulation, biotechnology, clinical trial management, nursing home licensing and regulation, physician accreditation, securities, corporate governance, and contractual matters. He previously served as Judge of the 250th District Court of Travis County, Texas, where he presided over civil litigation, as well as Assistant District Attorney for Dallas County, Texas.

About Genprex, Inc.

Genprex, Inc. is a clinical-stage gene therapy company developing potentially life-changing technologies for patients with cancer and other serious diseases. Genprexs technologies are designed to administer disease-fighting genes to provide new treatment options for large patient populations with cancer and other serious diseases who currently have limited treatment options. Genprex works with world-class institutions and collaborators to in-license and develop drug candidates to further its pipeline of gene therapies in order to provide novel treatment approaches for patients with cancer and other serious diseases. The Companys lead product candidate, Oncoprex, is being evaluated as a treatment for non-small cell lung cancer (NSCLC). Oncoprex 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. Oncoprex 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 Oncoprex immunogene therapy for NSCLC in combination therapy with osimertinib (AstraZenecas Tagrisso). 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 our possible commercial partnerships and regarding our financial resources. 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 Oncoprex, alone and in combination with targeted therapies and/or immunotherapies, and whether our other potential product candidates, including our gene therapy in diabetes, advance into clinical trials; our ability to enter into strategic partnerships and the success of those partnerships; the timing and success of obtaining FDA approval of Oncoprex and our other potential product candidates; and the extent and duration of the current and future economic challenges we may face. 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.

View source version on businesswire.com: https://www.businesswire.com/news/home/20200324005120/en/

Genprex, Inc. (877) 774-GNPX (4679) Investor Relations GNPX Investor Relations (877) 774-GNPX (4679) ext. #2 [emailprotected] Media Contact Genprex Media Relations Kalyn Dabbs(877) 774-GNPX (4679) ext. #3 [emailprotected]

Source: Genprex, Inc.

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Genprex Bolsters Board of Directors, Appoints Three Biotechnology and Healthcare Industry Leaders - Insurance News Net

89bio Appoints Healthcare Industry Veteran Steven Altschuler, MD, as Chairman of the Board of Directors – BioSpace

SAN FRANCISCO, March 25, 2020 (GLOBE NEWSWIRE) -- 89bio, Inc. (Nasdaq: ETNB), a clinical-stage biopharmaceutical company focused on the development and commercialization of innovative therapies for the treatment of liver and cardio-metabolic diseases, today announced the appointment of Steven Altschuler, M.D., as chairman of its board of directors. Dr. Altschuler currently serves as managing director of Healthcare Ventures at Ziff Capital Partners. He brings 20 years of experience growing healthcare organizations in business and leadership capacities.

We are very pleased to welcome Steven as chairman of 89bios board of directors, said Greg Grunberg, chair of the nominating and corporate governance committee of 89bios board of directors. By any measure, Steven has distinguished himself throughout his career as an innovator and dynamic leader in the provider and biotechnology industries. We are incredibly fortunate to have him join the team and confident he is going to be a significant contributor to 89bio.

In his role at Ziff Capital Partners, Dr. Altschuler co-leads the firms efforts toward investing in, and facilitating the start-up and development of, companies with potentially transformative technologies that emphasize cellular and molecular approaches to human disease. He previously co-founded Spark Therapeutics to develop and commercialize the preclinical and clinical gene therapy programs advanced at the Childrens Hospital of Philadelphia (CHOP) and other institutions. Dr. Altschuler served as Spark Therapeutics board chair from its founding through its acquisition in 2019, which included leading the company through a successful transition to a public company and the launch of the first gene therapy for an inherited disease approved by the U.S. Food and Drug Administration and European Medicines Agency.

I joined the board of directors because of my enthusiasm for 89bios potentially differentiated fibroblast growth factor 21 (FGF21), BIO89-100, and its commercial potential in non-alcoholic steatohepatitis (NASH) and severe hypertriglyceridemia (SHTG), said Dr. Altschuler. I look forward to working closely with the team and the rest of the board to advance our work in liver and cardio-metabolic diseases.

Trained as a pediatric gastroenterologist, Dr. Altschuler formerly held CEO positions at CHOP, which is one of the nations leading childrens hospitals, and the University of Miami Health System. He is a member of the board of directors of WW (formerly Weight Watchers International), Orchard Therapeutics, AsclepiX Therapeutics, ImVaX and Platelet Biogenesis. He is also an independent trustee of the Brigham and Womens Physician Organization at Mass General Brigham. Dr. Altschuler holds a B.A. in mathematics and an M.D. from Case Western Reserve University.

Steven is an accomplished business leader who has led and served on the boards of numerous biotechnology companies, said Rohan Palekar, CEO of 89bio. We look forward to drawing upon his strategic, operational and clinical expertise as we continue to grow the organization and work towards developing differentiated medicines for patients with liver and cardio-metabolic diseases.

About 89bio89bio is a clinical-stage biopharmaceutical company focused on the development and commercialization of innovative therapies for the treatment of liver and cardio-metabolic diseases. The companys lead product candidate, BIO89-100, is being developed for the treatment of NASH. The company also intends to develop BIO89-100 for the treatment of SHTG. BIO89-100 is a specifically engineered glycoPEGylated analog of FGF21 that is currently in a proof of concept Phase 1b/2a clinical trial in patients with NASH or NAFLD and a high risk of NASH. 89bio is headquartered in San Francisco with operations in Herzliya, Israel. Visit 89bio.com for more information.

Forward-Looking Statements Certain statements in this press release may constitute "forward-looking statements" within the meaning of the federal securities laws, including, but not limited to, 89bios expectations regarding plans for its clinical programs and clinical studies. Words such as may, might, will, objective, intend, should, could, can, would, expect, believe, design, estimate, predict, potential, develop, plan or the negative of these terms, and similar expressions, or statements regarding intent, belief, or current expectations, are forward-looking statements. While 89bio believes these forward-looking statements are reasonable, undue reliance should not be placed on any such forward-looking statements, which are based on information available to us on the date of this release. These forward-looking statements are based upon current estimates and assumptions and are subject to various risks and uncertainties (including, without limitation, those set forth in 89bios filings with the U.S. Securities and Exchange Commission (SEC)), many of which are beyond 89bios control and subject to change. Actual results could be materially different. 89bio expressly disclaims any obligation to update or alter any statements whether as a result of new information, future events or otherwise, except as required by law.

Investor Contact:Ryan MartinsChief Financial Officerinvestors@89bio.com

Media Contact:Lori RosenLDR Communications917-553-6808lori@ldrcommunications.com

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89bio Appoints Healthcare Industry Veteran Steven Altschuler, MD, as Chairman of the Board of Directors - BioSpace

Serial child rapist sentenced to up to 126 years in jail; new gene therapy from UPMC could cure diabetes: Tod – PennLive

Listen to the latest episode at this link, or on your favorite app including Alexa, Apple, Google, Spotify and Stitcher. Episodes are available every morning on PennLive. Subscribe/Follow and rate the podcast via your favorite app.

A serial child rapist is going behind bars for life after being sentenced to up to 126 years in jail. Meanwhile, a couple is being charged with arson and insurance fraud after allegedly setting fire to their newspaper business. In Pittsburgh, a UPMC researchers new gene therapy could cure diabetes. Also, with Easter on the horizon, Cadbury is on the hunt for a different kind of bunny -- and one Pennsylvania llama is throwing its hat in the race.

Those are the stories we are covering in the latest episode of Today in Pa, a daily weekday podcast from PennLive.com and hosted by Julia Hatmaker. Today in Pa is dedicated to sharing the most important and interesting stories in the state.

Todays episode refers to the following articles:

Special thanks to Apple Podcast listener wildbill95 for leaving Today in Pa. a review. Heres what they wrote:

Great start to the day! Julia provides the most-needed details on the days news, and makes a great way to begin the morning. Just as important, Julia gives us the lede to stories we now know to look for the in-depth article on the website.

Thanks, Julia, for giving us a boost on a ho-hum morning!"

If you enjoy Today in Pa, consider leaving us a review on Apple Podcasts or on Amazon. Reviews help others find the show and, besides, we like to know what you think of the program.

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Serial child rapist sentenced to up to 126 years in jail; new gene therapy from UPMC could cure diabetes: Tod - PennLive

Cancer Gene Therapy Market Boosting the Growth Worldwide: Cancer Gene Therapy Market Dynamics and Trends, Efficiencies Forecast 2025 – Daily Science

In this new business intelligence Cancer Gene Therapy market report, PMR serves a platter of market forecast, structure, potential, and socioeconomic impacts associated with the global Cancer Gene Therapy market. With Porters Five Forces and DROT analyses, the research study incorporates a comprehensive evaluation of the positive and negative factors, as well as the opportunities regarding the Cancer Gene Therapy market.

With having published myriads of Cancer Gene Therapy market reports, PMR imparts its stalwartness to clients existing all over the globe. Our dedicated team of experts deliver reports with accurate data extracted from trusted sources. We ride the wave of digitalization facilitate clients with the changing trends in various industries, regions and consumers. As customer satisfaction is our top priority, our analysts are available 24/7 to provide tailored business solutions to the clients.

Request Sample Report @ https://www.persistencemarketresearch.co/samples/2988

The Cancer Gene Therapy market report has been fragmented into important regions that showcase worthwhile growth to the vendors Region 1 (Country 1, Country 2), region 2 (Country 1, Country 2) and region 3 (Country 1, Country 2). Each geographic segment has been assessed based on supply-demand status, distribution, and pricing. Further, the study provides information about the local distributors with which the Cancer Gene Therapy market players could create collaborations in a bid to sustain production footprint.

Some of the major companies operating in the global cancer gene therapy market are Cell Genesys, Advantagene, GenVec, BioCancell, Celgene and Epeius Biotechnologies. Other leading players in cancer gene therapy market include Introgen Therapeutics, ZIOPHARM Oncology, MultiVir and Shenzhen SiBiono GeneTech

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To support companies in overcoming complex business challenges, we follow a multi-disciplinary approach. At PMR, we unite various data streams from multi-dimensional sources. By deploying real-time data collection, big data, and customer experience analytics, we deliver business intelligence for organizations of all sizes.

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Cancer Gene Therapy Market Boosting the Growth Worldwide: Cancer Gene Therapy Market Dynamics and Trends, Efficiencies Forecast 2025 - Daily Science

Visiongain Report Looks at Opportunities Within the $23bn Cell Therapy Technologies Market – Yahoo Finance

Cell Therapy Technologies Market Forecast 2020-2030

LONDON, March 25, 2020 /PRNewswire/ -- Consumables, Equipment, System & Software, Cell Processing, Cell Processing Equipment, Single Use Equipment, Cell Preservation, Distribution, Handling, Process Monitoring & Quality Control, Human Cells, Animal Cells, Life Sciences & Research Companies, Research Institutes

Visiongain estimates that the global cell therapy technologies market will grow at a CAGR of 15% in the first half of the forecast period. In 2020, North America is estimated to hold 38% of the global cell therapy technologies market.

How this report will benefit you

Read on to discover how you can exploit the future business opportunities emerging in this sector.

In this brand new201-page reportyou will receive104 tables and 110 figures all unavailable elsewhere.

The 201-page Visiongain report provides clear detailed insight into the cell therapy technologies market. Discover the key drivers and challenges affecting the market.

By ordering and reading our brand-new report today you stay better informed and ready to act.

To request sample pages from this report please contact Sara Peerun at sara.peerun@visiongain.com or refer to our website: https://www.visiongain.com/report/cell-therapy-technologies-market-forecast-2020-2030/#download_sampe_div

Report Scope

Global Cell Therapy Technologies Marketfrom2020-2030

Forecast of the Global Cell Therapy Technologies Market byType of Product: Consumables Equipment:Cell Processing Equipment, Single Use Equipment, Other Equipment System & Software

Forecast of the Global Cell Therapy Technologies byProcess Type: Cell processing Cell preservation, distribution and handling Process monitoring and quality control

Forecast of the Global Cell Therapy Technologies byCell Type: Human cells:Stem cells, Differentiated cells Animal cells

Forecast of the Global Cell Therapy Technologies byEnd User: Life Sciences and Research Companies Research Institutes

This report provides individual revenue forecasts to 2030 for thesenational markets: The US Canada Mexico UK Germany France Italy Spain Japan China India South Korea Singapore Malaysia Russia Brazil Argentina UAE South Africa Nigeria Mexico

Our study discusses the selectedleading companiesthat are the major players in the respiratory inhalers market: GE Healthcare Lonza Group Merck KGaA Terumo Bct, Inc. Thermo Fisher Scientific, Inc. & Other Companies

For the leading companies, we feature product portfolios, business segment breakdowns, recent developments & key expansion strategies etc.

This report discussesfactors that drive and restrainthis market. As well asopportunitiesandchallengesfaced by this market.

This report discusses thePorter's Five Forces Analysisof the Cell Therapy Technologies Market.

Key questions answered by this report: How is the Cell Therapy Technologies Market evolving? What is driving and restraining factors of the Cell Therapy Technologies Market? What are the market shares of each segment of the overall Cell Therapy Technologies Market in 2020? How will each Cell Therapy Technologies submarket segment grow over the forecast period and how much revenue will these submarkets account for in 2030? How will the market shares for each Cell Therapy Technologies submarket develop from 2021 to 2030? What will be the main driver for the overall market from 2021 to 2030? Will leading national Cell Therapy Technologies Markets broadly follow the macroeconomic dynamics, or will individual national markets outperform others? How will the market shares of the national markets change by 2030 and which geographical region will lead the market in 2030? Who are the leading players and what are their prospects over the forecast period? How will the industry evolve during the period between 2020 and 2030?

Story continues

To request a report overview of this report please contact Sara Peerun at sara.peerun@visiongain.com or refer to our website: https://www.visiongain.com/report/cell-therapy-technologies-market-forecast-2020-2030/

Did you know that we also offer a report add-on service? Email sara.peerun@visiongain.comto discuss any customized research needs you may have.

Companies covered in the report include:

Affymetrix, Inc.AkouosAllCellsApplikon Biotechnology Inc.ATLATL CentreAutolus LimitedBeckman Coulter, Inc.Becton, Dickinson and CompanyBioengineering AGBiological IndustriesBioWa, IncBrammer BioC.R. Bard, Inc.CaridianBCT, IncCell and Gene Therapy Asia Technology CentreCentre for Process Innovation (CPI)CMC Biologics (Asahi Glass Co.)Cobra BiologicsCocoon PlatformCryoportDanaher CorporationDiNAQOR AGEMD Performance MaterialsEMD SeronoEppendorf AGEuropean Molecular Biology Laboratory (EMBL)Finesse Solutions, Inc.Flexsafe RM TXFloDesign SonicsFlowJo, LLCFood and Drug Administration (FDA)Gamida CellG-CON ManufacturingGE healthcareGenScriptInfors HTIntegrated DNA Technologies, Inc.LaVision BioTecLonza Group, GE HealthcareMassachusetts Eye and Ear (MEE)Meissner Filtration Products, Inc.Merck KGaAMerck SeronoMesoblastMilliporeSigmaMiltenyi BiotecNova BiomedicalPall Corporation (Pall)Patheon N.V.Penn State UniversityPharmaCell B.VSartorius AGSartorius Stedim BiotechScinogySelecta Biosciences, IncSiemensSolaris BiotechStafa Cellular TherapyStafaCTStemcell TechnologiesTerumo Bct, Inc. (A Subsidiary of Terumo Corporation)Thermo Fisher Scientific, Inc.Tillotts Pharma AGTranstem LabUniCAR TherapyWorld Courier

To see a report overview please e-mail Sara Peerun on sara.peerun@visiongain.com

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Visiongain Report Looks at Opportunities Within the $23bn Cell Therapy Technologies Market - Yahoo Finance

Gene Therapies: Overcoming the Biggest Hurdles in… – Labiotech.eu

By 2024, the gene therapy market is expected to reach an estimated worth of $13B (11.6B). With several therapies approved and hundreds of clinical trials underway, the sector is booming. However, its sudden and fast growth and the complexity of the therapy itself have resulted in a number of hurdles that need to be overcome.

Especially during manufacturing, researchers face challenges at different stages, including process development, safety testing, vector characterization, and when it comes to regulatory guidelines. One of the key issues is the highly compressed timeline researchers have to work with. Instead of the average eight to ten years that it takes to develop a drug, gene therapies are usually developed within three to five years.

Another challenge resulting from the rapid growth of the sector is the increasing demand for plasmids. As the key building blocks for the development of viral vectors, plasmids are needed for gene therapy development. Currently, the industry is struggling to meet the demand for plasmids, forcing companies to think outside the box. This bottleneck has resulted in the development of nonviral vector solutions, which we will see more of in the future.

But compressed timelines and viral vector bottlenecks are not the whole story. This infographic discusses the challenges at various stages of gene therapy manufacturing; what you can do to ace the manufacturing process; and what we can expect in the future.

We developed this infographic in collaboration with Merck. With decades of experience, Merck has already developed three gene therapy products through to commercialization; tested over 10,000 cell and gene therapy samples in one year; and has over 500 batches of different viruses to ensure a smooth manufacturing process.

Author: Larissa Warneck, Science Journalist at Labiotech.eu

Design: Elena Resko

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Gene Therapies: Overcoming the Biggest Hurdles in... - Labiotech.eu

Almost 400 cell and gene therapies in US pipeline, finds report – European Pharmaceutical Review

New research has found that there are 362 cell and gene therapies in clinical pipelines in the US, an increase from 2018.

A new report from Americas Biopharmaceutical Companies has revealed that there are 362 cell and gene therapies in development in the US. Roughly a third of the therapies, 132, are potential treatments for rare diseases.

The research also highlights that the rate of R&D in this field is growing, as in 2018, a Pharmaceutical Research and Manufacturers of America (PhRMA) report on the cell and gene therapy pipeline found 289 therapies in clinical development in the US.

There are currently nine cell or gene therapy products approved by the US Food and Drug Administration (FDA).

Cell and gene therapies represent two overlapping fields of biomedical research with similar aims, which target DNA or RNA inside or outside the body. Gene therapies use genetic material, or DNA, to alter a patients cells and treat an inherited or acquired disease, whereas cell therapy is the infusion or transplantation of whole cells into a patient for the treatment of an inherited or acquired disease.

According to the report, the novel cell and gene therapies range from early to late stages of clinical development and are focused on a variety of diseases and conditions from cancer, genetic disorders and neurologic conditions.

Some of the cell and gene therapies in the pipeline include:

Another finding highlighted by the report is the 60 RNA therapeutics in development. Whilst not a kind of cell or gene therapy,RNA interference (RNAi) and antisense RNA use a genes DNA sequence to turn it off or modify the gene expression. So, these treatments can potentially inhibit the mechanism of disease-causing proteins.

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Almost 400 cell and gene therapies in US pipeline, finds report - European Pharmaceutical Review

Homology Medicines Announces Peer-Reviewed Publication of HMI-102 Investigational Gene Therapy Demonstrating Restoration of Normal Metabolic Pathway…

- Data Package Supported Initiation of Ongoing pheNIX Clinical Trial forAdults with PKU -

BEDFORD, Mass., March 16, 2020 (GLOBE NEWSWIRE) -- Homology Medicines, Inc. (Nasdaq: FIXX), a genetic medicines company, announced today the peer-reviewed publication of preclinical data that supports Homologys HMI-102 investigational gene therapy program for the treatment of adults with phenylketonuria (PKU). HMI-102 is currently being evaluated in the pheNIX Phase 1/2 clinical trial, and the Company plans to provide an update on the trial when selecting the dose for the expansion part, which is currently anticipated in mid-2020.

The published data shows that a single administration of HMI-102 (AAVHSC15-PAH) produced a sustained reduction in phenylalanine (Phe), the key biomarker in the diagnosis and management of PKU, for the lifespan of the established murine model for PKU. The data also demonstrated a concomitant increase in tyrosine (Tyr), a metabolite of Phe and precursor to neurotransmitters, indicating enzymatic activity. Additionally, brain levels of Phe, 5-HIAA (downstream serotonin metabolite) and coat color were normalized, further indicating restoration of the Phe metabolic pathway.

We developed a robust preclinical data package for our investigational HMI-102 gene therapy, which supported the initiation of our ongoing Phase 1/2 pheNIX clinical trial for adults with PKU, stated Albert Seymour, Ph.D., Chief Scientific Officer of Homology Medicines. These published data demonstrated that a single dose of HMI-102 was able to restore the normal biochemical pathway in the established PKU model on normal protein diet. Initial data from the pheNIX trial suggests that the increased PAH enzymatic activity after administration of HMI-102 seen in the preclinical model was also observed in the clinical study.

Key data in the publication include:

The publication, Sustained Correction of a Murine Model of Phenylketonuria Following a Single Intravenous Administration of AAVHSC15-PAH, was peer-reviewed and published in the journal Molecular Therapy: Methods & Clinical Development. For more information, please visit http://www.homologymedicines.com/publications.

About the Phase 1/2 pheNIX Clinical Trial in Phenylketonuria (PKU)The pheNIX trial is the first gene therapy clinical trial ever conducted for people with PKU. pheNIX is designed to evaluate the safety and efficacy of a single intravenous administration of HMI-102 in adult patients with PKU aged 18-55. The study design allows for expansion of the number of patients in any dose cohort pending review by the Data Monitoring Committee and the Homology Internal Data Review Team. A decision to expand would trigger the addition of the randomized, concurrently controlled Part B of the trial, which has the potential to be converted to a registrational trial. The primary efficacy endpoint of the expansion part is incidence of sustained plasma Phe concentration 360 mol/L as demonstrated by two measurements 360 mol/L between 16 and 24 weeks.

About Homology Medicines, Inc. Homology Medicines, Inc. is a genetic medicines company dedicated to transforming the lives of patients suffering from rare genetic diseases with significant unmet medical needs by curing the underlying cause of the disease. Homologys proprietary platform is designed to utilize its human hematopoietic stem cell-derived adeno-associated virus vectors (AAVHSCs) to precisely and efficiently deliver genetic medicinesin vivoeither through a gene therapy or nuclease-free gene editing modality across a broad range of genetic disorders. Homology has a management team with a successful track record of discovering, developing and commercializing therapeutics with a particular focus on rare diseases, and intellectual property covering its suite of 15 AAVHSCs. Homology believes that its compelling preclinical data, scientific expertise, product development strategy, manufacturing capabilities and intellectual property position it as a leader in the development of genetic medicines. For more information, please visitwww.homologymedicines.com.

Forward-Looking Statements This press release contains forward-looking statements within the meaning of the Private Securities Litigation Reform Act of 1995. All statements contained in this press release that do not relate to matters of historical fact should be considered forward-looking statements, including without limitation statements regarding our expectations surrounding the potential, safety, efficacy, and regulatory and clinical progress of our product candidates; plans and timing for the release of clinical data from the Phase 1/2 pheNIX trial, including the Part B expansion; plans and timing for the release of clinical data; our beliefs regarding our manufacturing capabilities; advancing our novel platform and pipeline; our goal of delivering potential cures to patients; beliefs about preclinical data; our position as a leader in the development of genetic medicines; the sufficiency of our cash, cash equivalents and short-term investments; and our participation in upcoming presentations and conferences. These statements are neither promises nor guarantees, but involve known and unknown risks, uncertainties and other important factors that may cause our actual results, performance or achievements to be materially different from any future results, performance or achievements expressed or implied by the forward-looking statements, including, but not limited to, the following: we have and expect to continue to incur significant losses; our need for additional funding, which may not be available; failure to identify additional product candidates and develop or commercialize marketable products; the early stage of our development efforts; potential unforeseen events during clinical trials could cause delays or other adverse consequences; risks relating to the capabilities and potential expansion of our manufacturing facility; risks relating to the regulatory approval process; our product candidates may cause serious adverse side effects; inability to maintain our collaborations, or the failure of these collaborations; our reliance on third parties; failure to obtain U.S. or international marketing approval; ongoing regulatory obligations; effects of significant competition; unfavorable pricing regulations, third-party reimbursement practices or healthcare reform initiatives; product liability lawsuits; failure to attract, retain and motivate qualified personnel; the possibility of system failures or security breaches; risks relating to intellectual property and significant costs as a result of operating as a public company. These and other important factors discussed under the caption Risk Factors in our Annual Report on Form 10-K for the year ended December 31, 2019and our other filings with theSECcould cause actual results to differ materially from those indicated by the forward-looking statements made in this press release. Any such forward-looking statements represent managements estimates as of the date of this press release. While we may elect to update such forward-looking statements at some point in the future, we disclaim any obligation to do so, even if subsequent events cause our views to change.

Company Contacts:Theresa McNeelyChief Communications Officer and Patient Advocatetmcneely@homologymedicines.com781-301-7277

Media Contact:Cara MayfieldSenior Director, Patient Advocacy and Corporate Communicationscmayfield@homologymedicines.com781-691-3510

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Homology Medicines Announces Peer-Reviewed Publication of HMI-102 Investigational Gene Therapy Demonstrating Restoration of Normal Metabolic Pathway...

Gene therapy giving Flames executive Snow hope in ALS fight – NHL.com

He swipes once. Twice. Three times.

The lidocaine goes in, to freeze the skin. Then the needle.

Slowly, precisely, Rasquinha removes spinal fluid through the lumbar puncture, commonly known as a spinal tap. He then gives him the injection that Snow and his wife, Kelsie, believe is saving his life.

They believe because they want to, because they have to, and because -- against every single odd, against every single thing you've ever heard regarding amyotrophic lateral sclerosis, or ALS -- it just might be working.

Snow, a 38-year-old assistant general manager for the Calgary Flames, was diagnosed with ALS on June 17. It was not a surprise. His family has been ravaged by the familial form of the disease, with his father, two uncles and a cousin having died from ALS caused by the SOD1 genetic mutation.

ALS affects motor neurons, the cells that control muscle movement. As ALS progresses, the motor neurons die, the muscles become weaker, and eventually movement slows or becomes impossible.

It's what Snow saw happen in his right hand, how he began to suspect that the disease had come for him too. But almost immediately after his diagnosis, which usually carries a life expectancy of between six and 18 months, Snow enrolled in a phase 3 clinical trial at Sunnybrook Health Sciences Centre in Toronto for those with the SOD1 mutation, which affects 2 percent of ALS patients.

In this, he was lucky, both that it was available and that he qualified.

He has made the trip to Toronto with Kelsie every four weeks since then, though initially there was a two-in-three chance that every trip brought him an injection of tofersen, a drug that doctors and researchers hoped could slow the progression of the disease.

For the first six months of the trial, two-thirds of the study participants are given the actual drug. One-third are given a placebo.

He does not know for sure whether he was in the group given the medication or the placebo. The Snows believe he was one of the lucky ones, one of those given tofersen. They believe because they, remarkably, have not seen a progression of the disease since he entered the trial. He still does not have use of his right hand. He has use of everything else, all the things they feared might slip away from him in the weeks and months after they confirmed the diagnosis.

The injection takes two minutes, two minutes of silent meditation for Snow. He thinks about his mom, Linda, who committed suicide in 2012. "Because," as he says, "she'd be really happy and really sad if she were here. One of the things I got from her was a real joy for life. She always was happy that I was that way. So, I think about her and how I get to move on because of this." He thinks about his dad, Bob, who died of ALS in 2018, and his uncles and his cousin.

He wishes they had had the opportunity for these two minutes. For that two-in-three chance.

"I move through those thoughts fairly quickly," he says. "I usually say a prayer or two. For them. Probably in part for myself."

****

The Snows have already been at Sunnybrook for hours at this point, Feb. 20 marking their 11th visit to this hospital, his 10th lumbar puncture. At 9:15 a.m., the driver picks them up at their hotel for the 20-minute ride. When they walk in the doors at the hospital, a massive campus that looks like a small airport, Snow is on edge.

They find their way down to Room UG21, where Snow will undergo a battery of tests, all of them designed to determine whether the progress of the disease has slowed, whether it has stopped, whether it has -- God forbid -- picked up again.

They start with a detailed neurological assessment.

"Have you experienced any changes to your health since you were last here?"

"No."

"Have you noticed any difference in your speech?"

"No."

They test knowledge next, the year, the season, the province, the city. A series of words that never changes from visit to visit: apple, penny, table. He counts backward from 100 by seven.

These are the hardest weeks, when the anxiety sweeps up and the visit looms closer and the fear that "no change" might have turned into "some change" pierces the bubble they have formed around themselves.

"My bad hand, I don't have any expectations for it being better," Snow says. "It's more the opposite, that I'm always kind of concerned about and testing the good parts. The other hand, in particular. Living without one hand is not difficult. Living without two hands is difficult.

"It's testing my good hand, and then I overtire it. And then I convince myself something is wrong."

This is when Kelsie can sense his perpetual optimism faltering.

"None of the physical aspects of any of that, the lidocaine, the needle itself, I couldn't care less about those things," Snow says. "It's just the emotional anguish that you can put yourself through, with wondering, am I a little bit different? And if I'm a little bit different, what does that mean?

"Because that's totally unknown. But then you worry, that could be a slippery slope."

He does a breathing test, to determine lung capacity, and one to test muscle strength. That is the one that gives him the most anxiety, because they are testing his hand and his strength, and that is where the disease started to eat at him.

"This is our 10th time doing most of these tests," Snow says.

"And there has not been any changes," research coordinator Jahan Mookshah says.

"Those are our favorite words," Kelsie says.

Kelsie bends down and ties her husband's shoes. The testing is over, for the moment.

****

There is no blood test for ALS. It's only diagnosed by process of elimination, a factor that often can be problematic, as the disease progresses while the patient is still waiting for answers. Snow was told June 10 by an EMG technician in Calgary that it was likely ALS, a diagnosis that was confirmed a week later by Dr. Michael Benatar at the University of Miami.

It was the last answer they wanted in the world. It was a death sentence.

They crumbled, seeing an unknown present, a future robbed.

"I don't know how we did it," Snow said. "We did our days, and then we cried."

Back in Calgary, fellow assistant general manager Craig Conroy got the news on the phone from Snow, while looking at Snow's kids, Cohen and Willa, now 8 and 5, who were staying at his house while their parents were in Miami. As Conroy said, "That just breaks your heart."

But there was some good news.

Snow had the best-case scenario: a family history and a mutation of the SOD1 gene. He had pressed the issue with doctors, over and over again, after starting to feel the weakness in his right hand while lifting weights during the Stanley Cup Playoffs in April, even as he wanted to believe it was a pinched ulnar nerve, desperate for any answer but this. For Snow, that meant it was only a matter of months between the onset of symptoms and the diagnosis, as opposed to 1 1/2 to 2 years, which is the average.

Which was why when the Snows talked to Benatar on June 17, it was like being flattened and lifted up in the same moment. They confirmed Snow had ALS. They also learned there was a trial, with openings for those with a fast-progressing form of the disease, like him. There was something they could do. There was a place they could go. There was a medicine he could take, produced by Biogen, a company whose corporate headquarters are on Binney Street in Cambridge, Massachusetts, the exact street where Snow lived when he moved there to work at The Boston Globe, another career and another lifetime ago.

There was -- maybe, possibly -- hope. An impossibility in this world.

"It's just like someone believably telling you you're going to die, then telling you you might not die," Kelsie said. "You can't describe that in a more dramatic way than that. You feel like you got your life back. You've got a chance. Just a chance, right?"

Most of the time ALS is sporadic -- that is, not inherited. But in 5 to 10 percent of cases, there is a familial link, an altered gene that has folded. When Kelsie researched trials in the immediate aftermath of the diagnosis, she realized that the studies that were furthest along happened to be for SOD1, Snow's mutation, the second-leading cause of familial ALS.

They would head to Toronto every month, their kids left with a rotating selection of friends, off to get the injection that might -- or might not -- include the liquid hope that his future rested on.

They had six months in which he could have been receiving either the drug or the placebo, until last month, when they were finally assured he would be getting the medication from this point on.

They told their kids that they would have to have a summer to last a lifetime.

"Because we felt like it was maybe going to have to," Kelsie said.

They jammed in everything, all the bike rides and ice cream and pictures, the trip to Merrymeeting Lake in New Hampshire, Snow's family cabin. They jammed happiness in every moment, the tears reserved for private times, for when they couldn't hold it in any longer, wiped away when the kids approached. She wondered if he would make it to February and, if he did, whether he would want to hang around once he got there. She told him to just stay the way he was. They put one foot in front of the other and, still, they don't know exactly how.

By October, they had started to feel differently. Hopeful.

Snow got back on the ice, courtesy of a Flames equipment manager, who sewed his glove into a fist, enabling him to grip a hockey stick. He shot a puck. It rang off the crossbar. Kelsie took a video. It was evident to her that the disease had not progressed, not robbed him of any more strength.

That moment, that month, changed them.

"I felt like that was probably the first moment where I could really breathe," she said.

They went public on Dec. 18, and it ricocheted around the hockey community. Kelsie wrote a letter detailing their diagnosis and their hope, something she has continued to chronicle on her blog, kelsiesnowwrites.com, and recently, in a story that ran in Sports Illustrated.

It has become a piece of her every day, every thought, something that still fells her at a moment's notice. When she is asked if there's been a day that she hasn't thought about ALS since the diagnosis, tears start to flow down her face.

"These three letters are a part of my life forever," Kelsie says. "I sure wish they weren't. But I know that a lot of good things will come to us as a result of this. And I've seen a lot of good in a lot of people because of this.

"There's so much beauty in grief, and there's so much beauty in sadness and tragedy. Because you get to see the best in people. And that's not a small thing. But I wish I didn't have a byline in Sports Illustrated. I don't want a byline in Sports Illustrated. I don't want to be telling this story. But if this is what I'm here for, then I'm OK with that. It's not small. I know that. I know that being there for somebody you love is significant. It's enough for me."

She swipes at the tears, running her fingers underneath her eyes. She sniffles.

"This is because I know you, too," Kelsie says, starting to laugh amidst the tears. "That's the problem."

****

It has been 15 years since I met Kelsie and Chris, back when she was still Kelsie Smith and he was still a baseball writer. The summer of 2005 was one of those summers that's only possible when you are young and there is no responsibility, no ties, no worry. When a White Russian just before the bar closes seems like a good idea, and a shut-off car in a parking lot is the right place to bare a soul, for a friend to reveal she just might be falling in love.

As Kelsie texted me recently, "Honestly, best summer of my life."

They were too young, realistically, for it to work. She was 21. He was 23. They met in a bar, the White Horse Tavern, down the street from the apartment that Snow would buy in Allston, Massachusetts, and that I would later buy from him and live in for the next decade.

He was the Boston Red Sox beat writer at the Globe, she was an intern in the Globe's sports department out of the University of Kansas, and I would be hired into the sports staff that summer as a general assignment reporter.

They got engaged the next summer, and married in December 2007, on a frigid, 9-degree day in St. Paul, Minnesota, where they moved after he was hired as the director of hockey operations for the Minnesota Wild, an unorthodox move that would launch him on a career in hockey and give me a chance to succeed him on the Red Sox beat at the Globe.

She covered the Minnesota Twins for the St. Paul Pioneer Press. We spent spring trainings together in Fort Myers, Florida.

It's hard to think about that day in 2007, so many years ago now, when they promised a lifetime to each other. Because, as Kelsie said, "That I have extra months is not lost on me. I know that I've been already given a gift. It's just that I want what we all thought we were getting when we got married. That we are going to grow old together."

Kelsie has always trusted in Snow, something she has never been shy about expressing. She's always believed he would do what he said, that he would succeed despite all the odds: That he would make the unheard-of jump from baseball reporter to NHL front office member; that he would figure it out after the Wild let him go; that they could find their way on one income (first hers, then his) in a new city, in a new country with a new baby.

And he did. They did.

"It was always like, Chris will figure this out," she said. "And that's probably an unfair amount of pressure that I put on him, but I just believed in him. I've always believed in him that much."

She still does, even in a battle that, up to this point, has been unwinnable.

****

At 1 p.m., after a pizza lunch, it's time to head back to UG21 for the lumbar puncture. Snow laughs about the diet he has been instructed to stick to -- high protein, high fat, high carb -- because losing weight is a marker of the disease. It's one thing he doesn't mind.

This session, too, starts with some tests. Of reflexes. Hands. Ankles. Feet. Jaw.

"This might hurt," Rasquinha says. "Sorry."

Rasquinha flips his hands over, examines them, tells Snow to relax. This is not Snow's forte.

Snow acknowledges yet again that he cannot do anything with his right hand. That went in June, and the atrophy has set in up to his elbow. Kelsie -- or, if he's at work with the Flames, one of his colleagues -- makes sure to cut his food for him, if needed; they tie his skates and his shoes. "Tight, but not too tight," as she puts it.

Testing done, it's time for the lumbar puncture. Snow is now on the open-label extension of the trial. After this visit, he is assured that the fluid sent into his spine will be tofersen. This is a comfort, even as they believe he has been receiving the medication all along.

"All right," Snow says, "let's rock and roll."

The risks are read out, the warnings given, as they always are. The Snows know this nearly by heart. Rasquinha snaps on sterile green gloves and a baby blue face mask. The lidocaine goes in. "Mosquito bite," Rasquinha calls it. "A little burn. Sorry."

Lorne Zinman enters the room. He is part of the reason for their hope, a man who oozes sunshine as he talks, despite having devoted his life to a disease that to this point has claimed every one of its victims.

"This is exciting," says Zinman, the director of the ALS/Neuromuscular Clinic at Sunnybrook and an associate professor of neurology at the University of Toronto. "This is gene therapy for ALS. I've been talking about this for, like, two decades. The fact that it's a reality and we could be helping people like Chris, it's just the happiest thing. I always say -- apology to my children -- the happiest day of my life will be when we finally have something for this disease, because I've seen too many people go through it."

It is easy for Zinman to be joyful these days. He, like all those who work with ALS, has spent years and years in the darkness, and he somehow just might see a little light emerging, a speck that grows bigger with every day that Snow, and potentially others, are stable.

"It's been decades and decades of, really, failure after failure in ALS," Zinman said. "When I give lectures, I put up a slide and I call it the graveyard of failed trials. And it's just failure after failure. The big turning point came when we found the first gene for ALS in the early '90s."

Researchers put the gene into mice, and the mice started to show signs of disease. They thought a cure would come soon after. They were wrong.

Things started to turn when advances in gene therapy led the focus to shift. They knew SOD1 made a protein, and that the protein misfolded, leading to the killing of motor neurons that led to ALS. That became their target.

On Feb. 3, Kelsie posted a video to Twitter showing Snow lifting his right hand at his wrist. It was something he hadn't been able to do since the disease took hold. They don't know what it means, and they try not to read too much into it, but the idea of stability, let alone improvement, sometimes seems like a dream they do not want to end.

And that is what makes Zinman so excited.

"We don't usually see that in ALS trials," he said. "The objective is to slow things down, not to make things improved. It's really exciting when you hear something like that, where I'm actually able to do something that I couldn't do before. You always have to take it with a grain of salt it's just really exciting when you hear something like that."

He envisions a day when a patient like Snow or one of his family members could find out he has the SOD1 mutation, that they could start him on the drugs in the pre-symptomatic phase, as a preventative, similar to the way that doctors have been able to use PrEP to keep HIV from taking hold, or the way that doctors use vaccines to prevent diseases.

"We're diagnosing ALS about five to six times a week, and three to four of our patients die every week," Zinman said. "I've been doing this for 15 years now. I see the faces of these patients, not just them, their family members and what they went through, so to be able to offer someone something like this -- research is hope."

When Zinman and I exited the room, I later learned, Snow grew emotional. He cried. It was joy and relief and release. He had finished another session at Sunnybrook. There had been no change. He soon would be assured of getting more of the medicine that has given him more, where before, he expected there would be less and less.

Because these two minutes, every four weeks, might just be saving him.

"The first few times he was dosed I had full-on panic attacks," Kelsie said. "It was all about the fact that I didn't know what [he was getting]. They'd come in and they'd put this little Ziploc baggie on the desk in there and it had this syringe in it. I remember noticing right away that it was 15 milliliters of this clear fluid. And that was every ounce of hope I had in my life."

****

The appointment over for the month, Snow walks down the corridor, a drab, shabby, beige hallway. It is hardly inspiring, with its fluorescent lights and well-trod flooring. But Snow is nearly bouncing. This is the best he feels all month, his hopes confirmed, the medication, he assumes, flowing through his body.

"Every time I walk this hallway, it's a good feeling," he says. "Because you picture yourself being wheeled."

But he can walk. He can breathe. He can do his job, almost the same way he always has, with a few simple modifications. He wears a suit without a tie these days, because he cannot tie one and, really, who needs it? He has not yet transitioned to slip-on shoes, perhaps out of stubbornness.

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Gene therapy giving Flames executive Snow hope in ALS fight - NHL.com

Gene Therapy Reverses Heart Failure in Mouse Model – Technology Networks

Barth syndromeis a rare metabolic disease caused by mutation of a gene calledtafazzinorTAZ. It can cause life-threatening heart failure and also weakens the skeletal muscles, undercuts the immune response, and impairs overall growth. Because Barth syndrome is X-linked, it almost always occurs in boys. There is no cure or specific treatment.

In 2014, to get a better understanding of the disease,William Pu, MD, and colleagues at Boston Childrens Hospital collaborated with the Wyss Institute to create a beatingheart on a chip model of Barth syndrome. The model used heart-muscle cells with theTAZmutation, derived from patients own skin cells.It showedthatTAZis truly at the heart of cardiac dysfunction: the heart muscle cells did not assemble normally, mitochondria inside the cells were disorganized, and heart tissue contracted weakly. Adding a healthyTAZgene normalized these features, suggesting that gene replacement therapy could be a viable treatment.

But to fully capture Barth syndrome and its whole-body effects, Pu and colleagues needed an animal model. The animal model was a hurdle in the field for a long time, says Pu, director of Basic and Translational Cardiovascular Research at Boston Childrens and a member of the Harvard Stem Cell Institute. Efforts to make a mouse model using traditional methods had been unsuccessful.

As described in the journalCirculation Research, most mice with the whole-bodyTAZdeletion died before birth, apparently because of skeletal muscle weakness. But some survived, and these mice developed progressive cardiomyopathy, in which the heart muscle enlarges and loses pumping capacity. Their hearts also showed scarring, and, similar to human patients with dilatedcardiomyopathy, the hearts left ventricle was dilated and thin-walled.

Mice lackingTAZjust in their cardiac tissue, which all survived to birth, showed the same features. Electron microscopy showed heart muscle tissue to be poorly organized, as were the mitochondria within the cells.

Pu, Wang, and colleagues then used gene therapy to replaceTAZ, injecting an engineered virus under the skin (in newborn mice) or intravenously (in older mice). Treated mice with whole-bodyTAZdeletions were able to survive to adulthood.TAZgene therapy also prevented cardiac dysfunction and scarring when given to newborn mice, and reversed established cardiac dysfunction in older mice whether the mice had whole-body or heart-onlyTAZdeletions.

Thats where the challenge will lie in translating the results to humans. Simply scaling up the dose of gene therapy wont work: In large animals like us, large doses risk a dangerous inflammatory immune response. Giving multiple doses of gene therapy wont work either.

The problem is that neutralizing antibodies to the virus develop after the first dose, says Pu. Getting enough of the muscle cells corrected in humans may be a challenge.

Another challenge is maintaining populations of gene-corrected cells. While levels of the correctedTAZgene remained fairly stable in the hearts of the treated mice, they gradually declined in skeletal muscles.

The biggest takeaway was that the gene therapy was highly effective, says Pu. We have some things to think about to maximize the percentage of muscle cell transduction, and to make sure the gene therapy is durable, particularly in skeletal muscle."

Reference: Wang et al. (2020).AAV Gene Therapy Prevents and Reverses Heart Failure in A Murine Knockout Model of Barth Syndrome.Circulation Research.https://www.ahajournals.org/doi/abs/10.1161/CIRCRESAHA.119.315956.

This article has been republished from the following materials. Note: material may have been edited for length and content. For further information, please contact the cited source.

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Gene Therapy Reverses Heart Failure in Mouse Model - Technology Networks

UAE’s first gene therapy improves eyesight of two Emirati sisters – Gulf News

Alia (2nd from left) and her father (left) with Dr Arif Khan (3rd from left), paediatric ophthalmologist and ocular geneticist at Cleveland Clinic Abu Dhabi, and other hospital doctors at a press conference in Abu Dhabi. Alia and her sister, Hessa, were the first to receive gene therapy in the UAE. Picture by Samihah Zaman, Image Credit:

Abu Dhabi: Two Emirati sisters from Abu Dhabi have become the first to receive gene therapy in the UAE, it was announced in the capital today.

The therapy was conducted with the aim of saving the vision of Alia, 13, and Hessa, 11, who suffered from retinal damage due to a defective gene.

The vision-saving surgery was performed at Cleveland Clinic Abu Dhabi in January (2020), and doctors said at a press conference that they are hopeful it will slowly improve the vision of both patients.

"The prospect of slowly losing one's vision from an untreatable condition is traumatic for both children and their parents. This genetic therapy means we can now replace the faulty gene in the eye, saving and even improving the vision of an individual who would otherwise have eventual irreversible blindness," said Dr Arif Khan, paediatric ophthalmologist and ocular geneticist at the hospital.

Only centre in region with procedure

Cleveland Clinic Abu Dhabi is only one of 10 centres worldwide, and the only one in the region, that is qualified to offer this procedure - the first gene therapy that was approved by the Food and Drug Administration in the United States, doctors said. But its availability opens the doors for more gene therapies to be offered to treat conditions as varied as diabetes and spinal muscular atrophy, they added.

Weve travelled abroad multiple times to find some treatment for our daughters, and this procedure has been a godsend. It has only been a month since the therapy however, and we are hoping for much more improvement to their vision over time, Fatima, the girls mother, told Gulf News.

The procedure

Alia and Hessa were born with RPE65-related retinal dystrophy, a genetic dystrophy in which the RPE65 protein is lacking because a child inherits two copies of the defective RPE65 from both parents. It is a recessive disease and therefore rare, and known to affect one in 200,000 people worldwide. But the condition is also more common in the region because of the limited genetic pool and cultural preferences for consanguineous marriages.

Patients with the condition face gradual damage to their retinas, the photosensitive layer at the back of the eye, and could eventually end up with irreversible blindness.

The gene therapy to treat the condition uses a vector - a bioengineered non-pathogenic virus to deliver normal copies of the RPE65 gene to the eye.

The procedure takes only about an hour, but it is very delicate. The retina can be considered an offshoot of the brain because its cells are very thin, like brain tissue. We use advanced microscopes to create openings in the white of the eye, then use a specialized canula to reach under the retina and inject the vector into the specific area, which can be as small as one-tenth of a millimeter, explained Dr Emad Abboud, chief of the department of the posterior segment at the hospitals Eye Institute.

Post-surgical recovery takes only about a week, but outcomes take a while to become obvious.

As Dr Khan explained, the main benefits for patients receiving the therapy is an improvement of vision in low-light conditions, and an improvement of the visual field.

Vision is a complex sense, involving photosensitivity, visual field, visual acuity, colour sensitivity, motion sensitivity, and the ability to navigate. But [at the least], this therapy prevents the progressive deterioration of the retina, he explained.

What the family said

My handwriting has definitely gotten better, Alia told Gulf News when asked about how the therapy has helped.

I cant tell what else will get better but I already feel that this has been life-changing, she added.

According to Fatima, she noticed her daughters had visual impairment when they were as young as two months old.

The doctor pointed out to me that they were not focusing or making eye contact. So we were aware of the condition. It definitely made life very challenging, especially as their development was delayed, the mother explained.

Alia and Hessa both crawled and walked late, and have needed assistance getting around. While they kept pace with their peers at school, it took Hercualean efforts from both girls, their parents, shadow teachers and at-home tutors, and required the use of Braille and visual aid resources.

Fatima and her husband, Mubarak, kept looking for treatments for both girls, travelling to Germany, India and Spain.

In 2016, we visited the Cleveland Clinic Abu Dhabi, and it was then that we heard of this revolutionary treatment. It was still not approved by the FDA, but we kept dreaming, she said.

It has been a month since the surgery and the doctors said they are more photosensitive now and that this is a good sign. Of course, as a mother, I would love for them to eventually have complete vision, Fatima added.

What is the therapy?

The UAE Ministry of Health and Prevention (MoHAP) approved the gene therapy for RPE65-related retinal dystrophy, Luxturna, in June 2019.

In a statement released at the time, the MoHAP said its registration of Luxturna was only the third global registration of the drug at the health authority level, and was aimed at paving the way for future gene-based therapies for complex conditions.

The United States Food and Drug Administration only approved Luxturna, developed by gene therapy developer, Spark Therapeutics, and the Childrens Hospital of Philadelphia, in late 2017.

The gene therapy to treat the condition uses a vector - a bioengineered non-pathogenic virus to deliver normal copies of the RPE65 gene to the eye with the defective gene.

While the Cleveland Clinic Abu Dhabi did not provide the cost of treatment, international media reports put it at $425,000 (Dh1.56 million) per eye.

Benefits of gene therapy

Dr Khan said at the press conference that us familiar with a few more families with the RPE65-related retinal disorder.

Over time, gene therapy could be used to treat many conditions. The eye is uniquely suited for these therapies because it is a self-contained organ. But at least five other genetic therapies are in development, some at the human trial level, he explained.

Consider gene delivery to be like providing a protein factory to the body. So for instance, some diabetic patients require regular insulin injections. If a gene could be engineered to make insulin, and it could be delivered to the patient, he wouldnt need these regular injections, Dr Khan added.

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UAE's first gene therapy improves eyesight of two Emirati sisters - Gulf News

Construction of a replication-competent retroviral vector for expression of the VSV-G envelope glycoprotein for cancer gene therapy. – Physician’s…

Gibbon ape leukemia virus (GALV) can infect a wide variety of cells but fails to infect most cells derived from laboratory mice. Transduction of human hematopoietic stem cells with GALV retroviral vectors is more efficient than with amphotropic vectors. In this study, a Moloney murine leukemia virus-gibbon ape leukemia virus (MoMLV-GALV) vector was constructed by replacing the natural env gene of the full-length Moloney MLV genome with the GALV env gene. To monitor viral transmission by green fluorescent protein (GFP) expression, internal ribosomal entry site-enhanced GFP (IRES-EGFP) was positioned between the GALV env gene and the 3 untranslated region (3 UTR) to obtain pMoMLV-GALV-EGFP. The MoMLV-GALV-EGFP vector was able to replicate with high titer in TE671 human rhabdomyosarcoma cells and U-87 human glioma cells. To evaluate the potential of the MoMLV-GALV vector as a therapeutic agent, the gene for the fusogenic envelope G glycoprotein of vesicular stomatitis virus (VSV-G) was incorporated into the vector. Infection with the resulting MoMLV-GALV-VSV-G vector resulted in lysis of the U-87 cells due to syncytium formation. Syncytium formation was also observed in the transfected human prostate cancer cell line LNCaP after extended cultivation of cells. In addition, we deleted the GALV env gene from the MoMLV-GALV-VSV-G vector to improve viral genome stability. This MoMLV-VSV-G vector is also replication competent and induces syncytium formation in 293T, HT1080, TE671 and U-87 cells. These results suggest that replication of the MoMLV-GALV-VSV-G vector or MoMLV-VSV-G vector may directly lead to cytotoxicity. Therefore, the vectors developed in this study are potentially useful tools for cancer gene therapy.

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Construction of a replication-competent retroviral vector for expression of the VSV-G envelope glycoprotein for cancer gene therapy. - Physician's...

Week In Review: Nanjing Legend Files To Stage IPO In The U.S. – Seeking Alpha

Deals and Financings

Nanjing Legend Biotech, a subsidiary of GenScript (HK: 1548) (OTC:GNNSF), has filed for an IPO on a US exchange. In 2017, Legend surprised the world when its CAR-T therapy produced a 94% response rate in pretreated multiple myeloma patients. Six months later, Johnson & Johnson (NYSE:JNJ) partnered the treatment in a deal that paid Legend $350 million upfront, plus unspecified milestones and royalties. The CAR-T candidate, JNJ-4528, is now in Phase II trials in the US.

Harbour BioMed (HBM) raised $75 million in a Series B+ round to advance its clinical-stage compounds and portfolio of next-gen biotherapies for cancer and immunological diseases. The company builds its portfolio by in-licensings and via its proprietary Harbour Mice program. Harbour develops drugs for China and US markets, while it has entered partnerships to discover candidates for China companies Innovent (OTCPK:IVBIY) and BeiGene (NASDAQ:BGNE), along with other prominent global biopharmas. The company previously completed an $85 million Series B financing in August 2018. HBM is headquartered in Cambridge, MA, and it conducts R&D in Suzhou and Shanghai.

GenFleet Therapeutics (Shanghai) closed a $57 million Series B financing, co-led by CDH Investments and Shenzhen Capital Group. Founded in 2017, GenFleet is developing novel large and small therapeutic molecules for oncology and immunology targets. The company says its projects are potential first-in-class therapeutics with technical advantages and large markets. It will use the capital for ex-China development and clinical trials of its existing pipelines, plus expanding its immunology platform, working on new projects and building an industrial base.

Arctic Vision of Shanghai in-licensed greater China rights to Xipere, a treatment for macular edema associated with uveitis, from Clearside Bio (NASDAQ:CLSD) in a $35.5 million agreement. Founded last year, Arctic in-licenses breakthrough ophthalmology products for China. Xipere is its first deal. Arctic plans to acquire China rights to 3-5 products and then expand to a combination of global rights and internal discovery for additional drugs. Clearside, which is located in Alpharetta, Georgia, said Xipere is a proprietary suspension of the corticosteroid triamcinolone acetonide.

Exuma Biotech (formerly F1 Oncology), a Florida-Shanghai company developing CAR-T products for solid tumors, closed a $19 million Series B round. The financing included investments from MSD Partners and F1 BioVentures, plus conversion of notes held by individual investors. Exuma's Logic Gated CAR-T products become activated only when the target antigen and the tumor microenvironment are both present, reducing off-tumor side effects. The company has started clinical trials of two candidates. Exuma's Shanghai subsidiary oversees the company's development, manufacturing, and commercial units in Shanghai and Shenzhen.

OBiO Technology (Shanghai) completed a B+ Round of more than $15 million for its viral-based gene therapy CRO services and genetic drug CDMO/CMO services. Founded in 2013, OBiO collaborated with GE Healthcare (NYSE:GE) to establish the first domestic GMP viral production workshop in China and supply CRO/CDMO/CMO services for viral drugs. At the same time, OBiO is incubating gene therapy drugs for cancer therapy with three ADC candidates for oncotherapy that have proprietary IP. The B+ Round investors included GP Capital, Sinowisdom and Efung Capital.

Shanghai OPM Biosciences raised $14 million from China Life Medical Fund to support its CDMO service platform. The company offers serum-free media for cell cultures based on animal cells, as well as a full-range of cell culture development services. It customizes high-quality personalized animal cell culture media to optimize the cell culture process and reduce production costs. OPM has developed a variety of chemically defined CHO/HEK293 cell culture media and nutritional products. The company claims its media improve cell growth and expression.

China Immunotech Biotech of Beijing completed a $6.5 million Series A financing, led by Jianxin Capital with Grower Venture Capital and Huacheng Group participating. Founded in March 2018, China Immunotech is developing TCR-T and CAR-T products that target hematological tumors, solid tumors and virus-related diseases. It has two unique technology platforms, STAR-T and TCR-T. The STAR-T platform uses a proprietary structure of antigen receptor complexes. The company believes the platform provides multi-targeted molecules with better efficacy, fewer side effects and easier development than traditional CAR-T products.

Chengdu's HitGen has signed a licensing agreement to develop a novel class of drugs for Kaken, a Japanese (TK: 4521) specialty pharma. HitGen has already used its large library of small molecule and macrocyclic compounds to identify potential candidates. Few details were released, but Kaken is known to be concentrating its R&D on inflammation/immunology (dermatitis, rheumatoid arthritis and osteoarthritis), pain relief and fungal infections. One year ago, the two companies formed a similar collaboration, presumably for other targets. HitGen will receive an upfront payment and be eligible to receive preclinical and clinical milestones.

Suzhou Ascentage Pharma (HK: 6855) announced approvals for three clinical studies of APG-2575, a novel Bcl-2 inhibitor, two in the US and one in China. APG-2575 is an oral drug designed to treat several hematologic malignancies by blocking Bcl-2 to restore the normal apoptosis process in cancer cells. According to Ascentage, the candidate is the first China-made Bcl-2 inhibitor to start clinical trials. In its Phase I clinical studies, APG-2575 did not exhibit any dose-limiting toxicity or tumor lysis syndrome (which is commonly associated with other Bcl-2 inhibitors).

Denovo Biopharma, a San Diego-Beijing precision medicine company, has discovered a novel genetic biomarker for depression that it intends to use with DB104, a triple dopamine, serotonin and norepinephrine reuptake inhibitor. The company made the discovery using its proprietary biomarker discovery platform. Denovo licensed DB104 from Albany Molecular Research. Bristol-Myers Squibb (NYSE:BMY) returned the candidate to Albany after two Phase IIb clinical trials in treatment-resistant depression. The biomarker is one of four DeNovo biomarkers aimed at psychiatric use.

I-Mab (NASDAQ:IMAB), a Shanghai clinical-stage biopharma, has started to develop TJM2 (TJ003234) to treat cytokine release syndrome in severe cases of COVID-19. TJM2 is an I-Mab-discovered neutralizing antibody that binds human granulocyte-macrophage colony stimulating factor (GM-CSF), an important cytokine that plays a critical role in acute and chronic inflammation. By binding GM-CSF, TJM2 prevents downstream signaling and target cell activation, inhibiting other inflammatory responses. I-Mab intends to start clinical trials in the US and expand to countries especially hard-hit by COVID-19.

Mesoblast (NSDQ: MESO; ASX: MSB), an Australia-based regenerative medicine company, announced plans to start trials of remestemcel-L, its allogeneic mesenchymal stem cell (MSC) product candidate, in patients with acute respiratory distress syndrome (ARDS) caused by COVID-19. The trial will be conducted in the US, Australia, China and Europe. ARDS is the principal cause of death in COVID-19 patients. In a small China trial, allogeneic MSCs cured or significantly improved all seven patients with severe COVID-19 pneumonia.

Ascletis (HK: 1672), a Hangzhou biopharma, reported that an initial group of 11 COVID-19 patients all recovered after being treated with a combination Ganovo and Ritonavir therapy. Ascletis's Ganovo, the first approved direct-acting anti-viral agent developed by a China company, was launched in 2018 to treat hepatitis C. Ritonavir is a generic anti-retroviral that is used in AIDS/HIV combination therapies. The small clinical trial was led by Dr. Hongyi Chen, the director of the Ninth Hospital of Nanchang.

Disclosure: None

Original Post

Editor's Note: The summary bullets for this article were chosen by Seeking Alpha editors.

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Week In Review: Nanjing Legend Files To Stage IPO In The U.S. - Seeking Alpha

Kuur Therapeutics Launches to Develop and Commercialize Off-the-shelf CAR-NKT Cell Therapies Targeting Hematological and Solid Tumors – Business Wire

HOUSTON--(BUSINESS WIRE)--Kuur Therapeutics today announced the launch of its new business in partnership with Baylor College of Medicine and Baylors Center for Cell and Gene Therapy. Houston-based Kuur Therapeutics will advance the work of its predecessor, Cell Medica, to develop anti-cancer therapies using its innovative chimeric antigen receptor natural killer T cell (CAR-NKT) therapy platform.

IP Group, Baylor College of Medicine and Schroeder Adveq are investing to support two phase 1 studies: GINAKIT 2 (autologous CAR-NKT cells in neuroblastoma) and ANCHOR (allogeneic CAR-NKT cells in CD19 malignancy). The ongoing GINAKIT2 study is now enrolling patients at the third dose level and the ANCHOR study IND has recently been approved by the FDA, with first patient treatment expected in 1H 2020. The funding will also support the preclinical development of an allogeneic CAR-NKT product for treatment of hepatocellular carcinoma, ahead of an IND submission anticipated in 1H 2021.

In conjunction with the new investment, Kevin S Boyle, Sr, was named CEO of Kuur, succeeding Chris Nowers. Mr Boyle joined Cell Medica as CFO in February 2018. Kevin previously held senior finance roles at both NASDAQ-listed and private equity backed companies. He is an accomplished capital markets professional, having raised over $2.0 billion in equity and debt capital.

Kuurs novel CAR-NKT platform is a next-generation technology of engineered immune cells with enhanced functions for the treatment of hematological and solid tumors. It utilizes the unique properties of NKT cells, a specialized type of innate lymphocyte, which shares properties with both T and NK cells. This platform, developed in the laboratory of Baylor Principal Investigator Leonid Metelitsa, is exclusively licensed to Kuur by its partner and collaborator, Baylor College of Medicine.

Annalisa Jenkins, Chair of Kuurs Board, said: We are fortunate to have Kevin step up to the role of CEO. He will act as a change agent, leading the company during a crucial period for our clinical trials and working to secure the additional capital required to progress our two lead CAR-NKT products through the clinic.

The Board would also like to thank Chris for his exceptional leadership during a transition period that has resulted in a company on the right path forward for its investors, with a focus on its important collaborations.

Kevin S Boyle, Sr, Kuurs CEO, said: I am excited to lead Kuur Therapeutics at such a pivotal moment. We are making final preparations to take our off-the-shelf program into the clinic and believe the allogeneic approach holds huge promise for unlocking the potential of CAR therapies for large patient populations. Compared with patient-specific autologous CAR products, it is immediately available for treatment and less expensive to manufacture.

Leonid S. Metelitsa, BCM Principal Investigator, said: My goal is to make a difference in the lives of cancer patients, especially children, and Im excited to be working with the Kuur team to make this goal a reality. I believe that the NKT-cell platform technology, developed in my laboratory and progressed to first-in-human clinical testing in close collaboration with colleagues at BCM and Texas Childrens Hospital, offers a unique route to next-generation off-the-shelf CAR therapies for a broad range of malignancies.

- ENDS -

Notes to Editors

About Kuur Therapeutics

Kuur Therapeutics, headquartered in Houston, is a clinical-stage biotechnology company focused on transforming the treatment of solid and hematological cancers by developing next generation chimeric antigen receptor-natural killer T cell (CAR-NKT) therapies. Developing a portfolio of primarily allogeneic therapies, the companys revolutionary platform spanning both hematological and solid tumors is being created in partnership with Baylor College of Medicine and Baylors Center for Cell and Gene Therapy.

For further information, please visit http://www.kuurtx.com. Follow Kuur Therapeutics on LinkedIn

About Kuurs CAR-NKT cell technology

One of the challenges with allogeneic therapies is that infusing a patient with donor-derived lymphocytes can induce graft versus host disease (GvHD), a potentially life-threatening condition in which the infused cells recognize the patients tissues as foreign. The NKT cells used in Cell Medicas CAR-NKT platform have an invariant T cell receptor (iTCR) that does not distinguish between self- and non-self tissues, making them unlikely to induce GvHD when given to another person. Kuurs CAR-NKT cells are also engineered to secrete IL-15, to prolong persistence and enhance anti-tumor activity.

Baylor has previously reported evidence of clinical activity and a good safety profile in neuroblastoma patients treated at low dose levels of autologous CAR-NKT cells at the 2019 American Society for Gene and Cell Therapy conference.

About Baylor College of Medicine

Baylor College of Medicine (www.bcm.edu) in Houston is recognized as a premier academic health sciences center and is known for excellence in education, research and patient care. It is the only private medical school in the greater southwest and is ranked 16th among medical schools for research and 5th for primary care by U.S. News & World Report. Baylor is listed 21st among all U.S. medical schools for National Institutes of Health funding and number one in Texas. Located in the Texas Medical Center, Baylor has affiliations with seven teaching hospitals and jointly owns and operates Baylor St. Lukes Medical Center, part of CHI St. Lukes Health. Currently, Baylor trains more than 3,000 medical, graduate, nurse anesthesia, physician assistant and orthotics students, as well as residents and post-doctoral fellows.

Follow Baylor College of Medicine on Facebook (http://www.facebook.com/BaylorCollegeOfMedicine) and Twitter (http://twitter.com/BCMHouston).

About the Baylor College of Medicine Center for Cell and Gene Therapy

The Center for Cell and Gene Therapy at Baylor College of Medicine, Texas Children's Hospital, and Houston Methodist Hospital in Houston, Texas is led by Helen E Heslop, MD, DSc (Hon), Director and Malcolm K Brenner, MD, PhD, Founding Director. The Center for Cell and Gene Therapy provides an infrastructure to rapidly translate novel cell and gene therapy protocols from the laboratory to the clinic. The comprehensive approach of the center brings a wide variety of scientists and clinicians together to develop strategies for the treatment of cancer, HIV and cardiovascular disease. Patient facilities include the adult stem cell transplant unit at Houston Methodist Hospital and the pediatric stem cell transplant unit at Texas Children's Hospital.

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Kuur Therapeutics Launches to Develop and Commercialize Off-the-shelf CAR-NKT Cell Therapies Targeting Hematological and Solid Tumors - Business Wire

Why Soap Works – The New York Times

These more resilient microbes are generally less susceptible to the chemical onslaught of ethanol and soap. But vigorous scrubbing with soap and water can still expunge these microbes from the skin, which is partly why hand-washing is more effective than sanitizer. Alcohol-based sanitizer is a good backup when soap and water are not accessible.

In an age of robotic surgery and gene therapy, it is all the more wondrous that a bit of soap in water, an ancient and fundamentally unaltered recipe, remains one of our most valuable medical interventions. Throughout the course of a day, we pick up all sorts of viruses and microorganisms from the objects and people in the environment. When we absentmindedly touch our eyes, nose and mouth a habit, one study suggests, that recurs as often as every two and a half minutes we offer potentially dangerous microbes a portal to our internal organs.

As a foundation of everyday hygiene, hand-washing was broadly adopted relatively recently. In the 1840s Dr. Ignaz Semmelweis, a Hungarian physician, discovered that if doctors washed their hands, far fewer women died after childbirth. At the time, microbes were not widely recognized as vectors of disease, and many doctors ridiculed the notion that a lack of personal cleanliness could be responsible for their patients deaths. Ostracized by his colleagues, Dr. Semmelweis was eventually committed to an asylum, where he was severely beaten by guards and died from infected wounds.

Florence Nightingale, the English nurse and statistician, also promoted hand-washing in the mid-1800s, but it was not until the 1980s that the Centers for Disease Control and Prevention issued the worlds first nationally endorsed hand hygiene guidelines.

Washing with soap and water is one of the key public health practices that can significantly slow the rate of a pandemic and limit the number of infections, preventing a disastrous overburdening of hospitals and clinics. But the technique works only if everyone washes their hands frequently and thoroughly: Work up a good lather, scrub your palms and the back of your hands, interlace your fingers, rub your fingertips against your palms, and twist a soapy fist around your thumbs.

Or as the Canadian health officer Bonnie Henry said recently, Wash your hands like youve been chopping jalapeos and you need to change your contacts. Even people who are relatively young and healthy should regularly wash their hands, especially during a pandemic, because they can spread the disease to those who are more vulnerable.

Soap is more than a personal protectant; when used properly, it becomes part of a communal safety net. At the molecular level, soap works by breaking things apart, but at the level of society, it helps hold everything together. Remember this the next time you have the impulse to bypass the sink: Other peoples lives are in your hands.

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Why Soap Works - The New York Times

Gene Therapy Is Successfully Treating a Common Form of Inherited Blindness – Singularity Hub

K.L. always knew he might be completely blind before reaching adulthood.

Even as a child he realized something was wrong with his eyes. Although he could see enough to navigate the world in daytime, as soon as the sun set so did his eyesight. Going out with friends was impossible at night. Eventually the world looked as if he was seeing through a large tunnel, focusing on only a tiny fraction at a time.

K.Ls condition didnt have a cure. His family, and he himself, were well aware. I was struggling deeply with what I thought my life would become, he said, but then my mum spotted the trial in a newsletter.

This month, K.L. became one of the first patients to receive a new experimental gene therapy for children with a severe form of inherited vision loss. The treatment, currently not yet named, targets young men who are susceptible to a particularly vicious genetic disorder that gradually destroys the light-sensing portion of their eyes.

Within a month following a single injection, my vision was beginning to return in the treated eye. The sharpness and depth of colors I was slowly beginning to see were so clear and attractive, said K.L.

The trial, a first-in-human case for X-linked Retinitis Pigmentosa (RP), was led by Dr. Robert MacLaren at the University of Oxford but spanned multiple centers including the Bascom Palmer Eye Institute in Miami, which previously championed Luxterna, the first FDA-approved gene therapy for a type of inherited blindness. The results are some of the first targeting a particularly difficult gene prone to mutation in humans. Amazingly, despite some inflammation in early stages, the therapy provided massive improvements in eyesight as early as two weeks following treatment.

Although primarily designed for safety and not to comprehensively study efficacy, the trail still offers hope to 1 in 4,000 people around the world battling gradual, unstoppable vision loss. But it also signals that gene therapy is rapidly coming of age for other neural degenerative problemsperhaps faster than previously anticipated.

It is becoming more apparent to us that novel genetic therapies, when working, lead to a clear improvement in neuronal function, which holds great hope for a variety of other degenerative conditions that have a genetic basis, said MacLaren.

K.L. is one of 80,000 or so people in the US with RP, a genetic condition that slowly eats away at the light-sensing portion of the eyes. RP can be due to one of tens of different mutations in genes that control how light receptors in the eyes develop. RP never had a treatment or a curethe only option for people with the condition is to learn to navigate it without severely disrupting their lives.

In late 2017, everything changed. Luxturna, a gene therapy for inherited RP, was approved by the FDA. The treatment, a synthetic version of a healthy gene, was delivered directly into patients eyesoften young boysto replace a faulty version that eats away at the back of their eyes, the retina.

The retina is a delicate, wispy sheet of tissue that contains elements sensitive to light. In RP, two light-sensing proteins in the retina begin dying out as early as infancy, wiping out a persons peripheral vision and night vision. Most are legally, if not biologically, blind by their early 20s.

Luxturna came as a galvanizing shot to RP sufferers, yet it had severe limitations. A large portion of RP cases are caused by a particularly complex and volatile gene, dubbed RPGR, prone to mutations and other rearrangements. Even as a miracle cure, Luxturna could only tackle a small subset of patients with RPabout 1,000that had a very specific mutation relying on Vitamin A chemical processing.

In other words, for K.L. and other RP suffers, Luxturna offered hope, but not relief.

K.L.s treatment took a direct stab at RPGR, which sits on the X chromosome.

Stay with me. We all know that biological females are generally dubbed XX and males XY. Biological females usually have two copies of the X chromosome, whereas males only have one copy.

This means that biological males are far more susceptible than females to contracting X-linked RP. If anything goes wrong with their single copy, unlike females, they dont have a healthy backup to save the day. Unfortunately, the RPGR gene also happens to be quite temperamental and prone to genetic shifts that cause disease. It makes the gene a terrible test subject in the lab, where it tends to be unstable and difficult to work with.

After years of wrangling in animal models, however, the Oxford team was able to increase its stability and fidelity, so much so that when given to animal models with retinal disease, the stabilized, healthy version was able to restore visual properties.

In their first human trial, 18 patients with confirmed RPGR gene mutations and severe eyesight problems were separated into 6 groups, with each receiving a different dose of the therapy.

Similar to Luxturna, the healthy gene was packaged inside a virus carrier to deliver it into retinal cells in a simple injection surgery. To combat potential side effects of inflammation, which scientists previously found with similar treatments, the patients were given steroid pills to combat inflammation in the eyes.

Only one eye of each patient was treated in an effort to compare to the other, non-treated one. K.L., for example, opted to go for the one with poorer vision, thinking there was nothing to lose.

The speed of my conditions degeneration was unknown, so I had no choice but to apply and do whatever I could to hopefully help others in the future, as well as myself, he said.

Although the three patients receiving low-dose treatment didnt see notable results, others did.

Within a month, said K.L., my visual field exploded and I could see so much more at once than ever before in that eye. Before long, the eye was undoubtedly better than the untreated eye.

The improvements lasted at least six months, and only those who received the highest doses of the virus had minimal signs of inflammation, suggesting that the treatment is relatively safe.

Overall, seven patients gained back significant functionality in their eyesnot just night vision, as with Luxturna, but also their visual fields and clarity. Whats more, in some patients the outer regions of the retina also seemed to kick back into gear, regenerating their functionality even without direct treatment.

We are delighted with the early results of this clinical trial for a degenerative eye disease, said MacLaren. With X-linked RP, the goal is to slow or stop degeneration of the eyes, and despite somewhat inconsistent results between people, the therapy seems overall beneficial.

The results will next be validated in a broader population. Since performing the therapy, the Bascom Palmer team has further treated nine patients using the optimized dose determined from the trial, though outcomes have not yet been published.

For K.L., however, the trial has already revamped his life for the better.

The results have been nothing short of astonishing and life changing for me, I really hope this trial is approved and they can treat what once was my better eye, said K.L.

Image Credit: Free-Photos from Pixabay

Link:

Gene Therapy Is Successfully Treating a Common Form of Inherited Blindness - Singularity Hub