header logo image


Page 133«..1020..132133134135..140150..»

How Diabetes can be a driver for High blood pressure and eventually leads to Hypertension – APN News

May 20th, 2022 1:54 am

Published on May 19, 2022

Hypertension or increased blood pressure may occur in Diabetics because of the impact of Diabetes on the walls of the arteries and the fluid balance. Hypertension may however co-exist as an independent risk factor along with Diabetes Mellitus. In either case, it can significantly increase the chances of developing heart conditions or conditions like stroke as well as the risk of developing other complications like renal or eye related conditions like nephropathy, retinopathy etc.

Consensus guidelines from the Joint National Committee on the Prevention, Detection, Evaluation, and Treatment of High Blood Pressure, the American Diabetes Association (ADA) and the National Kidney Foundation (NKF) recommend a blood pressure goal of less than 130/80 mm Hg in patients with diabetes. Based on the recent survey report conducted by Indus Health Plus, it was found that 26% of the people tested had high blood pressure out of which 13% had systolic blood pressure above 140 mm Hg. The sample size of the report was 21000. Controlling hypertension is the key to reducing cardiovascular risk in patients with diabetes. It is an integral component of a comprehensive care plan that should include optimal management of diabetes and hyperlipidaemia, aspirin therapy, and lifestyle modifications.

How can Diabetes cause hypertension?

In diabetes, the body does not produce enough insulin so it does not work effectively, or they cannot process glucose. Insulin is a hormone that aids the body in converting glucose from food into energy. When a person has insulin issues, glucose cannot enter their cells to provide energy, so it accumulates in the bloodstream instead. In addition to causing widespread damage to tissues and organs, high blood glucose can also interfere with the control of blood pressure. Damage to the blood vessels and kidneys can increase blood pressure, for instance.

How can you prevent or control both Diabetes and Hypertension effectively?

Lifestyle modifications include following appropriate diet, engaging in 30 to 45 minutes of moderate-intensity activity most days of the week, avoiding smoking and alcohol. Appropriate medical treatment needs to be followed with good compliance for controlling the two conditions effectively. Here are some preventive measures that people can take to control these conditions in an effective manner.

Diabetes and hypertension often occur together and have multiple risk factors and causes in common. The risk of developing one condition increases when a person has another. The early detection and treatment of hypertension and diabetes can prevent serious complications. A healthy lifestyle can help manage blood pressure and blood glucose levels.

The article is contributed by Mr. Amol Naikawadi, Joint Managing Director and Preventive Healthcare Specialist, Indus Health Plus

More here:

How Diabetes can be a driver for High blood pressure and eventually leads to Hypertension - APN News

Read More...

Akouos Presents Nonclinical Data Supporting the Planned Clinical Development of AK-OTOF and Strategies for Regulated Gene Expression in the Inner Ear…

May 20th, 2022 1:54 am

Akouos, Inc.

- Nonclinical data demonstrate that a single intracochlear administration of an AAVAnc80 vector led to durable restoration of auditory function and was well tolerated, supporting planned clinical development of AK-OTOF for the treatment of OTOF-mediated hearing loss

- MicroRNA target site (miR-TS)-incorporation in AAV vectors is shown to have potential benefits for de-targeting transgene expression in the inner ear, supporting future development of gene therapies targeting a broad range of inner ear conditions

BOSTON, May 19, 2022 (GLOBE NEWSWIRE) -- Akouos, Inc. (NASDAQ: AKUS), a precision genetic medicine company dedicated to developing potential gene therapies for individuals living with disabling hearing loss worldwide, presented nonclinical data at the American Society of Gene and Cell Therapy (ASGCT) 25th Annual Meeting. The company gave two nonclinical presentations at the meeting: one that supports the planned clinical development of AK-OTOF, a gene therapy intended for the treatment of OTOF-mediated hearing loss; and another that supports the potential use of microRNA target site (miR-TS) in adeno-associated viral (AAV) vectors for regulated gene expression in the inner ear.

We are excited to present these nonclinical data, which highlight our precision genetic medicine platform and the potential of genetic medicines to address a broad range of inner ear conditions, to the gene and cell therapy community. The AK-OTOF nonclinical data demonstrate durable restoration of auditory function and show that the product candidate was systemically and locally well tolerated in two translationally relevant animal species, said Manny Simons, Ph.D., founder, president, and chief executive officer of Akouos. As we continue to progress toward planned IND submissions for AK-OTOF in the first half of 2022 and AK-antiVEGF in 2022, we are encouraged by the growing body of evidence supporting these filings, as well as by our efforts to advance preclinical development of other potential gene therapies for inner ear conditions, such as GJB2-mediated hearing loss, and to develop platform capabilities that can be applied to regenerative medicine approaches in the inner ear.

Story continues

Nonclinical In Vivo Expression, Durability of Effect, Biodistribution/Shedding, and Safety Evaluations Support Clinical Development of AK-OTOF (AAVAnc80-hOTOF Vector) for OTOF-mediated Hearing Loss Presenting Author: Ann E. Hickox, Ph.D.Session Title and Room: Ophthalmic and Auditory Diseases; Salon G

AK-OTOF is an AAV vector-based gene therapy intended for the treatment of patients with otoferlin gene (OTOF)-mediated hearing loss by delivering transgenes encoding OTOF to inner hair cells (IHCs). Following intracochlear delivery, and subsequent co-transduction of IHCs by each component vector, the two transgene products recombine to generate a full-length otoferlin mRNA transcript and subsequently a full-length otoferlin protein. Results from this presentation show:

Intracochlearadministration of AK-OTOF in otoferlin knockout (Otof-/-) mice, or its tagged version (AAVAnc80-FLAG.hOTOF) in non-human primates (NHPs), leads to full-length human otoferlin protein expression only in the target IHCs;human otoferlin expression in IHCs ofOfof-/-mice restores auditory functionas early as two weeks post-administration and restoration was durable through at least six months.

AK-OTOF was systemically and locally well tolerated in both mice and NHPs, and no adverse effects were observed inclinical pathology,oticpathology, systemic histopathology, or auditoryor cochlearfunction.

Limited systemic exposure of AK-OTOF following intracochlear administration was observed,and no otoferlin protein expression was detected in any non-target tissue types evaluated, including those with detectable levels of vector sequences and otoferlin mRNAexpression.

Together, these nonclinical studies further support the planned clinical development of AK-OTOF for the treatment of OTOF-mediated hearing loss.

The digital presentation is located at https://akouos.com/gene-therapy-resources/.

Evaluating miR-Target Sites as a Strategy to Allow AAV Vector-based De-targeting of Gene Expression in the Inner EarPresenting Author: Richard M. Churchill Jr.Poster Board Number: Tu-37

In the development of AAV gene therapy vectors, a goal is to generate safe and effective product candidates that deliver targeted transgene expression. Ubiquitous promoters can drive strong widespread expression in the inner ear in mice and NHPs. This expression can be well tolerated across the inner ear, as is the case for Akouoss first two programs, AK-OTOF and AK-antiVEGF. Addition of selective cis-regulatory elements may be needed for sometransgenes, such asGJB2,where expressionin a portion of nontarget cells is not welltolerated. This nonclinical study explored the potential use of miR-TS incorporation in AAV vectors for de-targeting transgene expression in different cell types of the cochlea. Using an in vitro model, expression of transgene mRNA and protein in the presence or absence of the target sites was evaluated. Akouosidentified multiplemicroRNA target sitesto drivevarious differential expression patterns demonstrating that a combination of AAVAnc80 andmiR-TScan driveexpression in supportingcells, while limiting expression in hair cells incochlear explants. Future work will focus on evaluating miR-TS regulation in vivo and identifying combinations of different miR-TSs to enhance de-targeting in specific cell types where, for example, expression driven by ubiquitous promoters is not well tolerated.

The digital presentation is located at https://akouos.com/gene-therapy-resources/.

About AkouosAkouos is a precision genetic medicine company dedicated to developing gene therapies with the potential to restore, improve, and preserve high-acuity physiologic hearing for individuals living with disabling hearing loss worldwide. Leveraging its precision genetic medicine platform that incorporates a proprietary adeno-associated viral (AAV) vector library and a novel delivery approach, Akouos is focused on developing precision therapies for forms of sensorineural hearing loss. Headquartered in Boston, Akouos was founded in 2016 by leaders in the fields of neurotology, genetics, inner ear drug delivery, and AAV gene therapy.

Forward-Looking StatementsStatements in this press release about future expectations, plans and prospects, as well as any other statements regarding matters that are not historical facts, may constitute forward-looking statements within the meaning of The Private Securities Litigation Reform Act of 1995. These statements include, but are not limited to, statements relating to the initiation, plans, and timing of our future clinical trials and our research and development programs, and the timing of our IND submissions for AK-OTOF and AK-antiVEGF. The words anticipate, believe, continue, could, estimate, expect, intend, may, plan, potential, predict, project, should, target, will, would, and similar expressions are intended to identify forward-looking statements, although not all forward-looking statements contain these identifying words. Actual results may differ materially from those indicated by such forward-looking statements as a result of various important factors, including: our limited operating history; uncertainties inherent in the development of product candidates, including the initiation and completion of nonclinical studies and clinical trials; whether results from nonclinical studies will be predictive of results or success of clinical trials; the timing of and our ability to submit applications for, and obtain and maintain regulatory approvals for, our product candidates; our expectations regarding our regulatory strategy; our ability to fund our operating expenses and capital expenditure requirements with our cash, cash equivalents, and marketable securities; the potential advantages of our product candidates; the rate and degree of market acceptance and clinical utility of our product candidates; our estimates regarding the potential addressable patient population for our product candidates; our commercialization, marketing, and manufacturing capabilities and strategy; our ability to obtain and maintain intellectual property protection for our product candidates; our ability to identify additional products, product candidates, or technologies with significant commercial potential that are consistent with our commercial objectives; the impact of government laws and regulations and any changes in such laws and regulations; risks related to competitive programs; the potential that our internal manufacturing capabilities and/or external manufacturing supply may experience delays; the impact of the COVID-19 pandemic on our business, results of operations, and financial condition; our ability to maintain and establish collaborations or obtain additional funding; and other factors discussed in the Risk Factors section of our Quarterly Report on Form 10-Q for the quarter ended March 31, 2022, which is on file with the Securities and Exchange Commission, and in other filings that Akouos may make with the Securities and Exchange Commission. Any forward-looking statements contained in this press release speak only as of the date hereof, and the Company expressly disclaims any obligation to update any forward-looking statement, whether as a result of new information, future events or otherwise.

Contacts

Media:Katie Engleman, 1ABkatie@1abmedia.com

Investors:Courtney Turiano, Stern Investor Relations Courtney.Turiano@sternir.com

Read more:
Akouos Presents Nonclinical Data Supporting the Planned Clinical Development of AK-OTOF and Strategies for Regulated Gene Expression in the Inner Ear...

Read More...

Money on the Move: SwanBio, Remix, Locus, Mirvie and More – BioSpace

May 20th, 2022 1:54 am

Investors are seeking out biotech companies that create unique technologies to solve problems. Recent money on the move saw funding support for a platform that selectively degrades DNA, software to help read mammograms and a company using corn genetics to develop cancer-targeting viruses.

SwanBio Therapeutics

Founding investors Syncona Limited and Mass General Brigham Ventures led a Series B financing round for SwanBio Therapeutics. Together, they raised $56 million, bringing SwanBios total funds raised to $133 million.

The new money will support the company as it evolves into a fully integrated research and development organization. A main priority is the clinical advancement of SBT101, the first clinical-stage AAV-based gene therapy candidate for the treatment of adrenomyeloneuropathy. The drug received a Fast Track designation and an Orphan Drug designation, and the U.S. Food and Drug Administration cleared an Investigational New Drug Application for the drug earlier in 2022.

In addition to SBT101, the funding will help develop other therapies for monogenic and polygenic disorders.

Locus Biosciences

North Carolina-based Locus Biosciences announced a $35 million financing, which included a Series B equity financing as well as the conversion of an earlier convertible note. The funding included investors such as Artis Ventures, Viking Global Investors, Discovery Innovations and Johnson and Johnson Innovation JJDC, Inc.

The funding will support Locus lead candidate LBP-EC01, a crPhage precision medicine targeting Escherichia coli (E. coli) bacteria. The company plans to advance the drug into a registrational Phase II/III trial. The funding will also support in-house manufacturing capabilities and the expansion of Locuss discovery platform engine.

Remix Therapeutics

A $70 million Series B financing will help Cambridge, Massachusetts-based Remix Therapeutics hone its proprietary technology platform. The platform uses data analytics to identify and reprogram RNA processing to enhance protein function, eliminate protein function or correct dysregulation in order to treat genetic diseases. Remix is collaborating with Janssen Pharmaceutica NV, part of Johnson & Johnsons Janssen Pharmaceutical Companies, to develop small-molecule therapeutics that modulate RNA processing.

The funding was led by existing investors such as Foresite Capital, Arch Venture Partners, Casdin Capital and Atlas Venture, as well as a new investor, Surveyor.

"This financing will support further development of our REMaster platform, which enables the design of molecules that can selectively degrade RNA, enhance RNA expression, induce exon skipping, or rescue genetic lesions, said Peter Smith, Ph.D., co-founder and CEO of Remix. This technology will transform how diseases are treated."

Mirvie

San Francisco-based Mirvie raised $60 million in a Series B round of funding, bringing its financing to a total of $90 million. The funding, led by Decheng Capital, included many venture capital firms, as well as a new investor: Allyson Felix, a seven-time Olympic gold medalist and maternal health advocate. Felix and her daughter survived severe preeclampsia, and now Felix is supporting Mirvies mission of understanding the underlying biology of each pregnancy to improve maternal health. The funding from the Series B will help Mirvie continue developing its RNA platform, which can predict preeclampsia months before patients experience life-threatening complications.

Vyriad, Inc.

In a Series B round of funding, Minnesota-based Vyriad pulled in $29.5 million. This brings the companys total raised funds to over $100 million, thanks to existing investors such as Mayo Clinic, Regeneron Pharmaceuticals and the Southeast Minnesota Capital Fund, as well as new investors such as Mr. Harry Stine of Stine Seed Farms. Stine Seed Farms develops corn and soybean seeds through genetic breeding programs.

I was amazed to learn that Vyriad's approach for developing safe, effective, cancer-targeted oncolytic viruses closely mirrors the Stine Seed model of high throughput screening, selection and commercialization of novel soybean and corn strains," said Dr. Stephen Russell, co-founder and CEO of Vyriad.

Privately held Vyriad will use the funds to advance its pipeline of oncolytic viruses that can be used, either alone or in combination with other therapies, to fight cancer, using the high-throughput genetics model that Stine used to develop agricultural germplasms.

Cynosure

Cynosures lead investor, Clayton, Dubilier & Rice, pledged $60 million in funding to help the company continue innovating and bringing medical aesthetics technologies to market. Cynosure has seen explosive growth recently, with sales growing over 45% in 2021 and over 30% year-over-year in the first quarter of 2022.

"Medical aesthetics is a large market with strong macro tailwinds that have only gotten stronger across the globe since our initial investment," said Derek Strum, a partner at Clayton, Dubilier & Rice. "We believe Cynosure is well-positioned to build on its momentum and capture both organic and inorganic growth opportunities."

Genascence

After a seed round of financing in 2019, clinical-stage biotech company Genascence closed a $10.5 million Series A financing. Pacira BioSciences, a leading non-opioid pain management company, led the funding with support from Polymerase Capital, the University of Florida Research Foundation and DeepWork Capital. The goal of the funding is to advance the companys gene therapies for musculoskeletal diseases. One of the priorities is to advance GNSC-001, the company's lead program in osteoarthritis. GNSC-001 is a genetic medicine called a recombinant adeno-associated vector and it has an inhibitor of interleukin-1, a key mediator in the pathogenesis of osteoarthritis.

Tubulis

Germany-based Tubulis completed a Series B financing worth 60 million (USD $63 million). The funding, led by Andera Partners, also involved new investors Evotec and Fund+. Tubulis develops antibody-drug conjugates (ADCs), and with the funding, the company hopes to advance its proprietary pipeline of ADCs towards clinical evaluation. Tubulis also plans to introduce programs addressing a range of solid tumor indications.

This funding emphasizes that Tubulis is uniquely positioned to consolidate the findings of the last 20 years in the ADC field and translate this understanding into meaningful therapeutic benefits for patients, said Dominik Schumacher, Ph.D., CEO and co-founder of Tubulis.

OMass Therapeutics

Several new investors joined OMass Therapeutics Series B financing to raise $100 million in total. Investors such as Sanofi Ventures, Northpond Ventures and GV joined veteran backers Oxford Science Enterprises, Oxford University and Syncona to gather funding for OMasss portfolio of highly validated target ecosystem medicines for membrane- and complex-bound proteins. Specifically, the funding will help the company develop an antagonist of the MC2 receptor to help treat congenital adrenal hyperplasia.

Curebase

San Francisco-based Curebase gathered $40 million in a Series B round of funding. Industry Ventures led the round, along with existing investors GGV Capital, Bold Capital and Xfund and new investors such as Acrew Capital, Positive Sum and World Innovation Lab. The round also included an investment from Gilead Sciences.

Since 2017, Curebase has raised $59 million to achieve its mission of democratizing access to clinical studies. The Series B funding will specifically go toward developing an end-to-end clinical trial execution model, furthering its eClinical software platform, honing its virtual and hybrid site capacities and enriching its capabilities for interventional drug sponsors and global studies.

InxMed

China-based InxMed completed a $15 million Series B+ financing. Funded by Hyfinity Investments, the financing will help the company accelerate clinical trials in China and the United States of its highly selective adenosine triphosphate competitive FAK inhibitor called IN10018.

IN10018 received a Fast Track Designation from the FDA in August 2021. With the Series B+ funds, InxMed will actively explore global partnership opportunities to accelerate more value inflections of IN10018 and other programs.

Aspen Neuroscience

Private autologous cell therapy company Aspen Neuroscience closed a Series B funding worth $147.5 million. GV, LYFE Capital and Revelation Partners co-led the round, along with support from new investors as well as some Series A and seed funding teams. Together, they have now raised more than $220 million for Aspen.

The goal of the funding is to support a patient Screening Cohort study and a Phase I/II post-IND submission study for ANPD001, which is designed to help treat Parkinsons disease.

Domain Therapeutics

Domain Therapeutics closed a $42 million Series A financing. Co-led by Panacea Venture, CTI Life Sciences and 3B Future Health Fund, the round also included several new investors and one existing investor, Seventure Partners.

Domain is a biopharmaceutical company developing new drug candidates targeting G Protein-Coupled Receptors (GPCRs), a class of drug targets. The funding will support the company as it clinically develops its EP4R antagonist, DT-9081, as well as advances two other CPCR programs and progresses its pipeline for first-in-class assets targeting GPCRs.

Invetx

In an oversubscribed Series B round of financing, Invetx raised $60.5 million. F-Prime Capital, Novo Holdings, GV and Eight Roads co-led the round with support from existing investors such as Anterra Capital and Casdin Capital.

Invetx, which develops protein-based therapeutics for animal health, will use the funds to advance its pipeline of monoclonal antibody products for chronic and serious diseases in dogs and cats.

With the support of several top-tier investors in this latest financing, Invetx is well-capitalized to continue advancing its novel veterinary products towards approval and commercialization, said Invetx CEO Juergen Horn, PhD.

Therapixel

When Therapixel closed its Series B financing, it had raised 15 M (USD$15.76 million). The funding was led by Crdit Mutuel Innovation and CapHorn along with support from existing investors such as Omnes, IT-Translation, M-Capital and Rgion Sud Investissement. With the investors financial backing, Therapixel will expand its presence in the U.S. and launch more features for its MammoScreen AI software for reading mammography.

Read the original here:
Money on the Move: SwanBio, Remix, Locus, Mirvie and More - BioSpace

Read More...

DiNAQOR Opens DiNAMIQS Subsidiary to Partner with Gene Therapy Companies Bringing New Treatments to Patients – PR Newswire

May 20th, 2022 1:54 am

DiNAQOR DiNAMIQS offers comprehensive range of biomanufacturing services,GMP-compatible process development, quality control and analytical development

ZURICH-SCHLIEREN, Switzerland, May 16, 2022 /PRNewswire/ --DiNAQOR announced today the launch of DiNAQOR DiNAMIQS, a biomanufacturing subsidiary, that will accelerate development timelines and reduce costs and risk for genetic medicine companies bringing new treatments to market.

DiNAQOR DiNAMIQS is based in the company's state-of-the-art, 1,200-square-meter (13,000 square feet) manufacturing facility in Bio-Technopark Schlieren-Zrich, the leading center for biotechnology companies in Central Europe. DiNAQOR's Chief Technology Officer, Eduard Ayuso, will serve as the CEO of DiNAQOR DiNAMIQS.

"We look forward to partnering with the world's leading gene therapy companies," said Johannes Holzmeister, M.D., Chairman and CEO of DiNAQOR."There are always challenges in the development process, and DiNAQOR DiNAMIQS is ideally suited to meet and overcome them. Manufacturing viral vectors at meaningful bioreactor scale and using GMP-compatible processes for preclinical studies will improve quality and safety while accelerating development timelines for genetic medicines."

DiNAQOR DiNAMIQS provides a comprehensive range of manufacturing services, process development, quality control and analytics solutions to support and accelerate gene therapy projects.

The DiNAMIQS platform employs innovative upstream and downstream processes and provides high-quality recombinant adeno-associated viral (AAV) vector manufacturing suitable for both in vitro and in vivo R&D applications up to 50L scale. Aligned with GMP regulations, the manufacturing protocol provides researchers with high quality vectors and minimal changes as projects progress toward clinical applications. DiNAMIQS is currently building a state-of-the-art GMP-compliant 2,400-square-meter (26,000 square feet) facility that can produce viral vectors at 500L scale.

DiNAQOR DiNAMIQS is also pioneering customizable, GMP-compatible process development that accelerates research and development efforts and is guided by a diagnostic procedure to determine relevant bioprocessing solutions. DiNAMIQS' process development expertise includes biomass expansion in bioreactor, large-scale transfection, harvest and clarification, ultrafiltration/diafiltration, affinity chromatography capture, ion exchange chromatography, preparative ultracentrifugation, desalting, dynamic dialysis, formulation, sterile filtration, automation assisted fill and finish.

Genetic medicinecompanies partnering with DiNAQOR DiNAMIQS will also use analytics that yield critical insights on viral vector potency, identity, and purity. DiNAMIQS in-house capabilities include digital PCR-based methods for titer quantification, ELISA, purity analyses, TCID50 infectivity assays and testing for bacterial endotoxins.

"Our state-of-the-art facility and stellar viral vector manufacturing team are prepared to help gene therapy developers bring their therapies efficiently to the clinic. I intend to bring my learnings from 20 years' experience in the field to our partners and provide them with high quality vectors. DiNAMIQS will shorten the time to market by closing the gaps between research grade vector supply, process development and GMP manufacturing," said Eduard Ayuso, CEO of DiNAQOR DiNAMIQS.

"Additionally, many promising gene therapy programs slow down when the costs associated with scaling up their manufacturing begin to mount. Our biomanufacturing expertise will enable these projects to move forward in a cost-effective way -- and do so quickly."

To learn more about DiNAQOR DiNAMIQS, visit http://www.dinamiqs.com.

About DiNAQORDiNAQOR is a life sciences platform company that is pioneering proprietary human-based tissue drug development and technology to enable organ-specific delivery of gene therapies and other therapeutics. The company is headquartered in Zurich-Schlieren, Switzerland, with additional presence in London, England; Hamburg, Germany; and Laguna Hills, California. For more information visit http://www.dinaqor.com.

Contact:KWM CommunicationsKellie Walsh914-315-6072[emailprotected]

SOURCE DiNAQOR

Excerpt from:
DiNAQOR Opens DiNAMIQS Subsidiary to Partner with Gene Therapy Companies Bringing New Treatments to Patients - PR Newswire

Read More...

LogicBio Therapeutics to Present at HC Wainwright Global Investment Conference – PR Newswire

May 20th, 2022 1:54 am

LEXINGTON, Mass., May 17, 2022 /PRNewswire/ -- LogicBio Therapeutics, Inc.(Nasdaq: LOGC), a clinical-stage genetic medicine company, today announced that president and chief executive officer,Frederic Chereau, will present a company overview at the H.C. Wainwright Global Investment Conferencebeing heldMay 23-26, 2022. The pre-recorded presentation will be available for on-demand viewing beginning at7:00 a.m. ETonTuesday, May 24, 2022.

A webcast of the presentation will be made available on the Investors section of the company's website athttps://investor.logicbio.com/. The webcast replay will be available for approximately 30 days.

AboutLogicBio Therapeutics

LogicBio Therapeuticsis a clinical-stage genetic medicine company pioneering genome editing and gene delivery platforms to address rare and serious diseases from infancy through adulthood. The company's genome editing platform, GeneRide, is a new approach to precise gene insertion harnessing a cell's natural DNA repair process potentially leading to durable therapeutic protein expression levels. The company's gene delivery platform, sAAVy, is an adeno-associated virus (AAV) capsid engineering platform designed to optimize gene delivery for treatments in a broad range of indications and tissues. The company's proprietary system, mAAVRx, aims to overcome some of the current limitations of AAV manufacturing by optimizing the transfection process to improve yields and product quality. The company is based inLexington, MA.For more information, visitwww.logicbio.com, which does not form a part of this release.

Investor Contacts: Stephen Jasper Gilmartin Group 858-525-2047 [emailprotected]

Media Contacts: Adam Daley Berry & Company Public Relations W:212-253-8881 C: 614-580-2048 [emailprotected]

SOURCE LogicBio Therapeutics, Inc.

Read the original post:
LogicBio Therapeutics to Present at HC Wainwright Global Investment Conference - PR Newswire

Read More...

Brain tumor growth may be halted with breast cancer drug – Medical News Today

May 20th, 2022 1:54 am

Sequencing the genome of cancer tumours is often used to help identify the type of cancer a person has and the best treatment for it.

Although cancer genomics has been used for a few years now, scientists are still learning about the best way to use genomic information to grade and categorize cancers.

One area that has received little attention until now is the methylation status of the cancer genome around specific genes. Methylation refers to the presence or absence of a methyl group on a base molecule within a gene that can affect whether or not a gene is expressed. This control of genetic expression is referred to as epigenetics.

Levels of expression of certain genes can also be affected by copy number variants (CNVs). CNVs arise because some sections of DNA are repeated, and the number of repeats varies between individuals due to deletions or duplications of DNA.

This leaves some people with many copies of a particular DNA sequence, whilst others have far fewer. These variations between individuals can be normal and harmless however, they can also underpin disease.

A type of brain cancer called meningioma is known for the diversity of CNVs that occur between the genomes of different tumors. CNVs can also affect methylation, which further affects gene expression.

In a study by researchers at Northwestern University in Evanston, IL, the scientists decided to look at both the level of methylation in the meningioma genomes and the number of repeats in different CNVs. They included certain genes in the cancer genome known to control growth and repair to see if this provided any insight into outcomes.

The findings are published in the journal Nature Genetics.

Using genomic data from 565 tumors taken from two cohorts of patients who had been followed up for 56 years, researchers profiled the DNA methylation of the cancer genomes. They then analyzed this alongside the presence of DNA repeats at certain points in the genome and also looked at the RNA present in the tumors to determine which genes had and hadnt been expressed.

They found that looking at the number of repeats within certain genes alone did not predict patient outcomes accurately, but looking at the number of repeats of genes alongside the level of methylation revealed three different grades of tumor.

Just over one-third of the tumors in the cohort were designated merlin intact meningiomas, where patients had the best outcomes. These tumors did not involve abnormal numbers of repeats on the gene that codes for a protein called merlin, which acts as a tumor suppressor. There was also normal methylation around this gene, allowing it to be expressed normally.

Conversely, 38% had immune-enriched meningiomas where patients had intermediate outcomes. These tumors were characterized by loss of the gene that codes for merlin and downregulation of other tumor-suppressing genes due to methylation.

This allowed them to overcome normal responses from the immune system.

A further 28% had hypermitotic meningiomas where the patient not only had fewer repeats of the gene that codes for merlin but a number of other gene repeats that caused either increased growth or decreased tumor suppression.

They also had methylation that allowed the increased expression of a gene known to promote cell growth. These patients had the least favorable outcomes.

Using this information, the researchers then tested the drug abemaciclib, a cancer drug already used for breast cancer, on tumor cells in cell lines, organoids, and xenografts in mice.

Results from these experiments indicated the drug could be used to treat individuals who had been identified as having either immune-enriched tumors or hypermitotic tumors.

Previously trials have failed to identify drugs that could reliably treat meningioma, but the identification of a biomarker could help identify patients who could benefit from certain treatments, said lead study author Dr. Stephen Magill.

Dr. Magill is an assistant professor of neurological surgery at Northwestern University Feinberg School of Medicine. He told Medical News Today in an interview: Some of our findings are really raising the possibility that the more we know about the biology, [the more] we can then say: this isnt just a meningioma, you have a hypermitotic meningioma.

So we can really use that as a biomarker to stratify who would go into a clinical trial.

Cancer researcher professor Noam Shomron from the Sackler Faculty of Medicine from Tel Aviv University, Israel, who was not involved in the research told Medical News Today:

I think its a wonderful study, because its so comprehensive, and it spans molecular and clinical findings and structural variations and methylation which is epigenetics [and something that] doesnt often take center stage.

See more here:
Brain tumor growth may be halted with breast cancer drug - Medical News Today

Read More...

Genascence Announces Data From Phase 1 Clinical Trial on GNSC-001, Company’s Lead Program in Osteoarthritis, Presented at American Society of Gene…

May 20th, 2022 1:54 am

Additional safety data, including 12-month follow-up on all subjects, demonstrated GNSC-001 is safe and well tolerated

Injection of GNSC-001 was associated with increased synovial concentrations of IL-1Ra and improved pain and function scores

Osteoarthritis affects more than 30 million Americans, and is leading cause of disability

PALO ALTO, Calif., May 17, 2022 /PRNewswire/ -- Genascence Corporation ("Genascence"), a clinical-stage biotechnology company revolutionizing the treatment of prevalent musculoskeletal diseases with gene therapy, today announced that additional safety data from the Phase 1 clinical trial of GNSC-001 for the treatment of osteoarthritis (OA), including 12-month follow-up on all subjects, demonstrated that it was safe and well tolerated. These data will be delivered in a poster presentation today at the American Society of Gene & Cell Therapy's (ASGCT) 25th Annual Meeting being held virtually and in-person May 16-19, 2022, in Washington, D.C.

Genascence Corporation (PRNewsfoto/Genascence)

GNSC-001 is the company's lead program in OA. GNSC-001 is a genetic medicine a recombinant adeno-associated vector (AAV) carrying a coding sequence for interleukin-1 receptor antagonist (IL-1Ra), a potent inhibitor of interleukin-1 (IL-1) signaling. IL-1 is considered one of the key mediators involved in the pathogenesis of OA, causing inflammation as well as cartilage destruction. GNSC-001 is designed to offer long-term, sustained inhibition of IL-1 following a single injection into the affected joint.

"Osteoarthritis is incapacitating, causing years of pain and disability for people living with the disease. Further, patients have limited treatment options, and nothing is currently available that is able to slow down progression of OA," said Thomas Chalberg, Ph.D., founder and CEO of Genascence. "We are excited by these findings as they demonstrate the initial safety of GNSC-001 and provide encouraging data to pursue GNSC-001 as a novel treatment for OA patients. We look forward to advancing the clinical program for GNSC-001 so that we can deliver transformative results for patients suffering from this disabling disease."

Story continues

Title: A Phase I Trial of Osteoarthritis Gene Therapy (NCT02790723)Date: May 17, 2022 5:30-6:30 PM ETSession: Gene and Cell Therapy Trials in ProgressAbstract Number: 799Location: Walter E. Washington Convention Center, Hall DPresenter: Christopher H. Evans, Ph.D.

In this investigator-sponsored Phase 1 single-arm, open-label, dose-escalation clinical trial of GNSC-001, a total of nine subjects with knee OA were enrolled and monitored for one year. Three subjects were treated in each of three cohorts, receiving either 1x1011 vg, 1x1012 vg, or 1x1013 vg GNSC-001 delivered by intra-articular injection. The primary endpoint is safety and tolerability. Additional measures include levels of circulating viral genomes, immune response to the vector, blood and urine analysis, and physical examination. Although the study was not powered for efficacy and had no control group, patients reported pain via VAS (0-10) and pain and function via WOMAC. Knee joints were imaged by X-ray and MRI upon study entry and after one year.

Results showed that intra-articular injection of GNSC-001 produced no severe adverse events; blood chemistries and hematologies remained normal during the 12-month follow-up period with no evidence of neutropenia. There were no vector-related adverse events in eight of the nine subjects; one subject experienced a mild/moderate knee effusion following injection which resolved with ice and rest. Clinical trial participants developed various degrees of anti-AAV neutralizing antibodies after injection of GNSC-001, as seen in preclinical studies. Small amounts of viral genomes were found in peripheral blood, beginning one day after injection and clearing within four weeks. Injection of GNSC-001 was associated with increased concentrations of IL-1Ra in synovial fluid, which remained elevated after 12 months of follow up. Pain and function scores improved following injection of GNSC-001.

"These additional data from the Phase 1 trial of GNSC-001 in patients with osteoarthritis showed that it safe and well tolerated including after one year," said Dr. Evans. "These results are encouraging as we believe this therapy has the potential to reduce structural disease progression in osteoarthritis patients."

The study was supported by funding from the U.S. Department of Defense Peer Reviewed Medical Research Program (PRMRP). More information is available at https://clinicaltrials.gov/ct2/show/NCT02790723.

Abstracts can be accessed via the conference website at annualmeeting.asgct.org.

About Osteoarthritis (OA) of the Knee

Osteoarthritis (OA), or degenerative joint disease, is the leading cause of disability. It is characterized by destruction of cartilage and structural changes in bone within the joint, which contribute to pain and loss of joint function. Osteoarthritis affects more than 30 million Americans and is increasing as a result of the aging population and increasing prevalence of obesity. Osteoarthritis represents a major economic burden, owing to direct medical costs and loss of productivity. Each year, millions of patients are treated for knee OA with NSAIDs, opioids, and steroid injections into the knee to manage their knee pain. There are no currently available therapies known to alter or slow down OA progression.

About Genascence Corporation

Genascence, a clinical-stage biotechnology company revolutionizing the treatment of prevalent musculoskeletal diseases with gene therapy, is developing life-changing treatments for highly prevalent conditions affecting millions of people. The company was founded in 2017 with technology licensed from three leading U.S. research institutions: Mayo Clinic, University of Florida, and NYU Langone Health. Headquartered in Palo Alto, California, Genascence's founders and leadership team have deep experience in the design, development, and manufacturing of successful gene therapies and biological medicines. For more information, please visit http://www.genascence.com.

Cision

View original content to download multimedia:https://www.prnewswire.com/news-releases/genascence-announces-data-from-phase-1-clinical-trial-on-gnsc-001-companys-lead-program-in-osteoarthritis-presented-at-american-society-of-gene--cell-therapy-25th-annual-meeting-301548456.html

SOURCE Genascence

See the rest here:
Genascence Announces Data From Phase 1 Clinical Trial on GNSC-001, Company's Lead Program in Osteoarthritis, Presented at American Society of Gene...

Read More...

Encoded Therapeutics Presents Nonclinical Data Showing Genomic Medicine Platform Yields Selective Expression to Optimize Gene Therapy Performance at…

May 20th, 2022 1:54 am

Multiple adaptable DNA sequence-encoded human genetic elements are modality-agnostic and can be combined to customize expression profiles to optimize therapeutic approaches in and beyond the brain

SOUTH SAN FRANCISCO, Calif., May 18, 2022--(BUSINESS WIRE)--Encoded Therapeutics announced nonclinical data being presented today at the American Society for Cell and Gene Therapy 25th Annual Meeting showing how its proprietary human genomic regulatory element (RE) engineering platform has been used to develop cell-selective expression vectors for targeted gene therapy. The company efficiently discovered a spectrum of sequence-encoded genetic elements, including enhancers, promoters and UTR elements, that drive selective expression profiles in mice. These REs function within the size constraints and episomal architecture of adeno-associated viruses (AAVs) and are compatible with multiple capsids and gene delivery systems.

"By combining human genomic regulatory elements to customize expression profiles and minimize off-target effects, we aim to improve the safety and efficacy of gene therapies for a broad range of monogenic and non-monogenic diseases in the future," said Encoded CEO Kartik Ramamoorthi, Ph.D. "Our regulatory elements engineering approach increases cell-selective expression, reducing toxicity concerns in tissues like the liver. The data were sharing today at ASGCT are exemplary of the Encoded platforms ability to achieve appropriately targeted transgene expression across many other central nervous system (CNS) cell types, like dorsal root ganglia (DRG) neurons, as well as non-CNS cell types."

Using Encoded's genomic medicine platform, researchers applied both expression-based functional screening and computational modeling to simultaneously test thousands of genomic elements in vivo. They uncovered sequence elements that selectively decrease liver expression while maintaining CNS expression in mice. Additionally, the research team constructed predictive models to rapidly and iteratively continue to improve the discovery rate and distribution of activity profiles, resulting in further reduction of liver expression in mice, with unchanged expression in the brain.

Story continues

Click here for the abstract of Encodeds ASGCT presentation, "Optimized Human Regulatory Sequences Achieve Targeted Expression in CNS and Decreased Liver Expression in Mice."

About Encoded Therapeutics

Encoded Therapeutics is creating one-time, disease-modifying gene therapies for pediatric central nervous system (CNS) disorders with its cell-selective targeting and regulation platform. The Encoded approach offers unprecedented gene specificity and cell selectivity to unlock novel opportunities by targeting a range of disease mechanisms. Encodeds technology is compatible with any delivery system to control where and when therapeutic transgenes are expressed, thereby shaping the functionality of target cells and holding broader therapeutic potential beyond CNS disorders. For more information, please visit http://www.encoded.com, and follow us on LinkedIn, Twitter @EncodedTx and YouTube.

View source version on businesswire.com: https://www.businesswire.com/news/home/20220518005469/en/

Contacts

Lynnea Olivarezlolivarez@encoded.com 956-330-1917

See the original post:
Encoded Therapeutics Presents Nonclinical Data Showing Genomic Medicine Platform Yields Selective Expression to Optimize Gene Therapy Performance at...

Read More...

California, Other States to Cover Rapid WGS of Newborns Under Medicaid, but Questions of Access Loom – GenomeWeb

May 20th, 2022 1:54 am

NEW YORK California, the nation's most populous state, recently began coveringrapid diagnostic whole-genome sequencing (rWGS) for sick infants under Medicaid. The decision, in theory, should make the test more widely available, leading to faster diagnoses, better medical decisions, and lower healthcare costs in many cases.

On Jan. 1, a provision of a state budget bill from 2021 kicked in, expanding Medi-Cal benefits to include rWGS for beneficiaries under 12 months old who are receiving inpatient hospital services in an intensive care unit.

California is one of at least five states that now proclaim to cover that form of diagnostic testing as part of their health programs for low-income residents, expanding access to tens even hundreds of thousands of babies. Michigan was the first to do so in September of last year, while Oregon and Maryland joined California in offering coverage beginning Jan. 1 and Minnesota startedcoverage April 4. The states are following private payor Blue Shield of California, which has covered rWGS for critically ill newborns since June 2020.

Support for this policy from state governments comes as studies are providing more evidence that rWGS can improve medical care often abbreviating the so-called diagnostic odyssey and can even save money. Data from SeqFirst, a study of rWGS with broad inclusion criteria, have echoed the diagnostic yield of around 40 percent seen in Project Baby Bear, a pilot study funded by the state of California. In addition, cost analyses of providing rWGS to children older than one year suggest there are savings to be found in those cases, too.

"Genomic sequencing should more often be the first DNA test that is sent [out], and rapid WGS should be the standard of care when a child is hospitalized," said Erica Sanford Kobayashi, a pediatrician at Cedars-Sinai in Los Angeles who worked on Project Baby Bear while at Rady Children's Hospital in San Diego. And the faster, the better: Results should ideally be delivered within three days, she said, with no cost savings associated with 14-day turnaround.

Whether children will actually receive this diagnostic testing remains to be seen. "Anecdotally, [NICU doctors] are having a hard time ordering these tests," said Paul Kruszka, chief medical officer at GeneDx, a genetic testing company recently acquired by Sema4 that offers rWGS services, and an investigator on the SeqFirst study. Many doctors without clinical genetics training are simply not comfortable doing so, he said, noting that identifying patients, managing consent, and interpreting and delivering results are key challenges.

Moreover, byzantine medical billing rules mean that hospitals in California and potentially elsewhere may not be able to access the funding theoretically available for rWGS in the NICU under Medicaid.

California led the way in studying the potential benefits of sequencing the genomes of inexplicably ill newborns when it launched Project Baby Bear in 2018, providing $2 million for a pilot study in collaboration with Rady Children's Hospital and several other sites. Other states, including Michigan and Florida with Projects Baby Deer and Manatee, respectively, have run their own pilot programs.

Baby Bear showed that sequencing the genomes of 178 parent-child trios resulted in 76 infants receiving diagnoses 35 of them rare conditions that occur in less than one in a million births. Of those, 55 saw a change in treatment or management, resulting in a combined 513 fewer hospital days, 11 fewer major surgeries, and a reduced testing burden that alone saved an estimated $300,000. Other costs were reduced by approximately $2.5 million, mostly attributable to shorter hospital stays, according to Sanford Kobayashi.

In a study of cost-effectiveness of rWGS published in January in Frontiers in Pediatrics, she wrote that trio sequencing costs approximately $7,500, including interpretation. However, the figure is "an average of total costs from previous cases sequenced at Rady," the authors noted.

Rady provides rWGS testing for itself and about 80 other hospitals, charging around $8,000 to $9,000 for sequencing and interpretation. "We have a bespoke, extremely rapid test," said Stephen Kingsmore, director of the Rady Children's Institute of Genomic Medicine and a champion for rWGS in pediatrics. "It can be done for less, but it's the difference between a Rolls-Royce and a Ford Fiesta."

Other state "baby animal" programs saw comparable results. Baby Manatee, led by Nicklaus Children's Hospital in Miami in collaboration with Rady Children's, enrolled and sequenced the genomes of 50 patients, leading to 20 diagnoses (diagnostic yield of 40 percent) and a change in care for 19 patients, or 38 percent. The estimated savings were more than $3.8 million a $2.9 million return on investment, according to the final report.

For the 89 children in the Baby Deer study, 35 received a diagnosis (39 percent yield) with 24 (27 percent) receiving a change in management. At least 95 hospital days were avoided, contributing to total savings of $252,938.

In general, across 12 studies looking at the impact of rWGS on care of critically ill newborns, the diagnostic rate was 35 percent, with up to 77 percent of those patients receiving a change in management, Sanford Kobayashi said at a presentation in February at the Molecular Tri-Con meeting in San Diego.

The specific Medicaid benefits available for rapid diagnostic genome sequencing in infants and the ordering criteria vary by state. For example, in Michigan, rWGS requires prior authorization and isn't covered when the patient has an infection, trauma, or a confirmed pre- or postnatal genetic diagnosis, among other reasons. The state covers $6,278 in costs for rWGS testing specifically from Rady Children's, or $4,165 for the more general procedure of WGS billed under current procedural terminology (CPT) code 81425, "Genome (e.g., unexplained constitutional or heritable disorder or syndrome); sequence analysis" and $2,243 for CPT 81426, the code for comparator genomes, such as the parents. The state also covers genetic counseling. For fiscal year 2019, Medicaid covered approximately 46 percent of the 109,000 total births in Michigan.

Maryland also requires prior authorization and reimburses $3,999.80 for CPT 81425 and $2,154.40 for CPT 81426, according to data provided by Illumina. In 2020, the state had 68,554 newborns, of which nearly 40 percent were covered by Medicaid.

Minnesota requires an evaluation by a medical geneticist "or other physician subspecialist with expertise in the conditions or genetic disorder for which the testing is being considered," a spokesperson for the state's Department of Human Services said in an email.

Oregon, which already covered whole-exome sequencing under Medicaid for children under 18, may also cover rWGS for children over the age of 1 "if, based on individual consideration by the plan, the test will benefit the patient in terms of growth, development, or ability to participate in school," Philip Schmidt, a spokesperson for the Oregon Health Authority, said in an email. Data provided by the state showed that the Oregon Health Plan covered 53 WES tests during 2020. No data were available yet on rWGS coverage.

While California budget acts are only law for one year, the coverage expansion was included in a budget trailer bill, according to Nannette Miranda, director of communications for Assemblymember Phil Ting, D-San Francisco, chair of the budget committee. "Trailer bills become permanent law, just like regular bills," she said. Rady Children's hired lobbyist John Valencia to help get rWGS covered, she noted. The state's 2021-2022 budget provided $6 million to cover such testing, although it is not clear how much, if any, has been used. The state estimates that Medi-Cal covers around four in 10 children, and in 2020, the state had approximately 420,000 births.

In both Oregon and Maryland, San Diego-based Illumina helped precipitate the coverage decisions. Minutes from a Nov. 18, 2021, virtual meeting of Oregon's Health Evidence Review Commission, which makes coverage policy decisions for new treatments or procedures for the Oregon Health Plan, noted that "recently, Illumina contacted HERC staff to request a review of coverage of WGS." HERC had last considered the test in 2014. Illumina Senior Medical Director for the Americas John Fox, a veteran of Project Baby Deer, also testified at the meeting.

"Both Illumina and many supportive providers wrote the state [of Maryland] asking them to expand coverage for this important innovation," Illumina Senior Director of Communications Adi Raval said in an email. "We are grateful to the state for its action in a year of significant evolution, with COVID and other issues demanding their limited time."

Illumina's market access teams are pushing to get rWGS covered in other states, including Iowa and Ohio, as well as in other countries. "What we found is, if Illumina does not take the lead, it's very hard to accelerate adoption in the marketplace," said Ammar Qadan, Illumina VP of global market access.

Aside from the state-funded studies, other results are supporting the expanded use of sequencing in newborn care. At the American College of Medical Genetics and Genomics annual meeting in March, researchers from the SeqFirst study which received donated sequencing reagents from Illumina presented data suggesting that more than half of the 125 study participants received an abnormal result that led to an explanatory, or at least partially explanatory, diagnosis.

"Two-thirds were suspected of having a genetic disorder, but one-third were not," said Mike Bamshad, chief of genetic medicine in the pediatrics department at the University of Washington and Seattle Children's Hospital, and principal investigator on SeqFirst. Of that one-third, nearly all (93 percent) saw a change in management.

The premise of the SeqFirst study is to improve access to precision genetic diagnostics. There are only a few reasons not to do sequencing, GeneDx's Kruszka suggested. For the study, children are only excluded if their illness can be explained by infection, trauma, or prematurity.

The researchers had hypothesized that by expanding enrollment, the diagnostic yield would drop, potentially by as much as 50 percent. "So we were impressed that our explanatory rate remained up around 50 percent," Bamshad said.

"These are results that scream to me 'we need to look at a much larger population of kids,'" he said. "Clearly, this strategy does exactly what it's intended to do."

SeqFirst, through GeneDx, was able to deliver verbal results in an average of five days, Kruszka said. But according to Sanford Kobayashi, results need to come back more quickly to yield the full benefit of testing.

"Project Baby Bear showed that savings are influenced by test turnaround time," she said. The best outcomes come when results are back in three days or less, she added. "If you want to have the biggest impact, it does have to be that fast."

While ultra-rapid sequencing in the NICU may yield the most medical and economic benefits, "diagnosis is beneficial at any stage in life," Sanford Kobayashi said. Her new research is focused on using rWGS in the pediatric intensive care unit, which admits older children.

"All the kids born 10 years ago with maybe long QT syndrome or cardiomyopathy, they're still showing up to the PICU," she said. "Until we catch up and start sequencing everybody earlier, there are still going to be years where it would be useful to apply it to older children."

In the cost-effectiveness study published in January, Sanford Kobayashi's team assessed the cost of sequencing in the pediatric, rather than neonatal, ICU. Of the 38 participants, 17 received a diagnosis from WGS and seven had a change in management, allowing the team to model costs for them. While such cost modeling for rare disease is hard, because there are not always good data to compare to, the team used a so-called "Delphi consensus method" that compared the children to a counterfactual trajectory a hypothetical scenario in which rWGS was not ordered. Each trajectory was sent to 10 different pediatric institutions for review. "In doing that, we found that we saved about $185,000 in hospital costs," she said, again mostly due to shorter stays. Sequencing the trios cost about $240,000, resulting in net spending of about $55,000. Moreover, the study found that WGS added a total of about 12 quality-adjusted life years (QALY), an advanced metric that seeks to quantify the value of medical procedures beyond the simpler calculation of extended survival. "We were spending about $4,500 per QALY, which is super reasonable," she said, adding that spending $50,000 to get just one QALY is considered cost effective.

Still, most of the benefits of rWGS in older children are concentrated in a small number of cases. One of the children in the study was a 9-month-old who had been admitted to the PICU "without a good reason." Imaging showed a brain bleed and WGS detected a factor 13 deficiency, a hemophilia-like rare disease that is very unlikely to be tested for. Later, the child fell off a couch and was given extra factor 13 as part of the treatment, preventing another brain bleed.

"The moral of the story is that there are going to be times we dont make a diagnosis and it doesn't save any money," Sanford Kobayashi said. "But often enough, you're going to make a big enough impact that it makes up for those other times."

When asked why Oregon's HERC decided not to cover rWGS for children over 1, even though it covers WES for them, a spokesperson said, "the Commission decided that this group of patients (severely ill hospitalized infants) would have the clearest benefit from this service, because it would be most likely to affect treatment planning for this group."

"If the evidence for WGS for older, less severely ill children develops in the future, the HERC will consider expanding coverage beyond the group that is currently covered," she said.

While states are saying they'll cover this testing, there's still no guarantee that the children who need it will have it ordered for them. "Eventually, most big children's hospitals will do their own WGS," Sanford Kobayashi said. "But it's a big lift. The equipment is expensive, and people who can do the analysis are expensive."

Also, most doctors are not experts in genetic medicine. "We're not training a whole lot of medical geneticists," Kruszka said. "There are fewer than 60 residency slots per year and only half are being filled."

Even in the best-case scenario, where a patient is in the NICU, often the ordering physician will not have expertise in genetics. Those doctors continue to express discomfort ordering a test that requires consent and the results of which need to be explained and put into context, Kruszka said. And that doesn't even begin to address ordering the test outside of ICUs.

The good news is that when doctors see the power of rWGS up close, they're easily sold. "When neonatologists start using the technology, they love it," Kruszka said.

"Intensivists are eager to see us scale up," Bamshad added. "In the end, we're making their workflows much easier. And the changes in [patient] management are sometimes profound. They're now concerned theyve been missing things all along."

The SeqFirst researchers suggested that relying on clinical geneticists will only hinder access and are now considering ways to help nonexperts, possibly with handheld devices that help navigate the explanation and consenting process.

"Interpreting the result is key," Bamshad said. "That is probably done most effectively face to face with a genetics provider. To be honest, we probably still don't have the workforce to do that." At Seattle Children's, wait times to be admitted to the genetics clinic can be a year, even two; the hospital also has nearly two dozen genetic counselors to help interpret results. "That's a luxury that doesn't exist in most places," he said. "Eventually, we'll have to get to a point where return of this information is facilitated by technology and interpretation is done by nonspecialists."

Expanding the practice area for genetic counselors may be part of the answer. Michiganis in the process of licensing genetic counselors as independent clinicians, which could happen this year, Bob Wheaton, the spokesperson for the Michigan Department of Health and Human Services, said in an email. "Once this occurs, Medicaid will begin enrolling these practitioners and will allow direct reimbursement of genetic counseling services."

At the federal level, there are two avenues that could lead to increased coverage for rWGS in newborns under Medicaid. Last year, USSens.Susan Collins, R-Maine, Mark Kelly, D-Ariz.,and Bob Menendez, D-N.J.,introduced the "Ending the Diagnostic Odyssey Act," which would have the federal government pay 75 percent of the cost of rWGS, with states picking up the rest.

The 21st CenturyCures 2.0 bill, introduced last November by US Rep. Diana DeGette, D-Colo.,also could lead to funding of "demonstration projects" in up to 15 states.

But unless the mechanisms by which Medicaid pays for inpatient care are addressed, hospitals are unlikely to facilitate ordering of rWGS in the NICU.

States reimburse for hospital stays with diagnostics-related group (DRG) payments, essentially a lump sum for a particular type of hospital stay. "As a genetics physician, that puts us in a tough spot," said Caleb Bupp, a physician at Helen DeVos Children's Hospital in Grand Rapids, Michigan, and a leader of Project Baby Deer. "The cost of genetic testing eats up how much the hospital gets reimbursed," he said, potentially resulting in a net loss. "My perspective is, [rWGS] only works if payment happens separately. That's the elephant in the room."

In Michigan, the state created a DRG "carve-out," a pipeline to directly fund rWGS testing in the NICU, which takes the onus for the cost of testing off hospitals. Getting that carve-out, however, was only possible due to trust that the various parties, including the state health department, had built up after years of dialogue, Bupp said. "You have to call it out as something you problem-solve for," he said.

California does not have a DRG carve-out, Kingsmore said, and Minnesota has not made one, either. "The performing lab outside the hospital would submit for the test," the DHS spokesperson said. Whether Oregon and Maryland have carve-outs is not clear state health departments did not immediately respond to follow-up questions about payment mechanisms.

States that have not addressed payment for rWGS "are stealing from themselves by disincentivizing doctors from ordering this test," Kingsmore said. "It's really bizarre; they're saying 'no' to something that would save them money."

Rady has scheduled meetings with the California Department of Health Care Services to address payment mechanisms, but any celebration about establishing rWGS coverage would be premature.

"We have additional work to do," Kingsmore said. "Without such payment, uptake will be essentially zero."

Link:
California, Other States to Cover Rapid WGS of Newborns Under Medicaid, but Questions of Access Loom - GenomeWeb

Read More...

Researchers Identify Role of ‘Sonic the Hedgehog’ Gene in Bone Repair – BioSpace

May 20th, 2022 1:54 am

Dominik Magdziak Photography/Getty Images

The technological revolution that followed the Human Genome project is arguably the greatest thing to happen to medicine since penicillin. Since the project, new ways are developed daily to deeply investigate what is already known, including genetic mechanisms.

Immersed in one of these investigations is Ph.D. candidate Maxwell Serowoky working within the University of South Carolinas Stem Cell laboratory of Francesca Mariani, Ph.D. Serowoky observed an increase in Sonic Hedgehog (Shh) gene activity during rib bone recovery, expanding the genes function beyond the known role of embryogenesis. The findings were published this week in NPJ Regenerative Medicine.

The research team ran with Serowokys observation. After finding the increase in Shh expression, hypothesis testing with mouse models began. A 3 mm rib bone resection procedure was performed on the subjects. Over the course of 28 days post-resection, the researchers observed the progression of cartilage callus formation over the bone gap. This callus indicates bone recovery and regrowth, a trait seen in humans and mice. Over time, this cartilage converts to bone.

During the resection procedures, Shh activity was observed, quantified and compared to non-injured mice. The non-injured mice expressed Shh at low levels in only the bone marrow. In the experimentally injured mice, Shh was seen at high levels in mesenchymal cells near the resection on day three. The increase in Shh was also seen in neighboring skeletal muscle tissues and periosteal tissues. The increased expression levels peaked and waned at five days post-resection. Five days of Shh upregulation is hypothesized to be directly linked to the formation of the cartilage callus.

Additional data was collected as the researchers harvested and analyzed the rib tissue surrounding the resected region. Here, it was determined that the number of mesenchymal cells that were expressing high levels of Shh reached approximately 94% on day five. Shh expression was seen at lower levels in tissues slightly farther from the surgical site but remained detectable.

The researchers were able to examine the progression of healing through Safranin-O staining and H&E staining, ideal processes for examining tissues and cartilage. After staining, the regions were measured to determine the progression of healing between day 7 and day 28. This data was used alongside Shh expression quantification to support the overall conclusion: Shh upregulation is required for the formation of the cartridge callus that goes on to regenerate bone after injuries.

When scientists identified the Sonic Hedgehog gene, named after a hedgehog variation, much like the Indian hedgehog and moonrat hedgehog genes discovered prior, they couldnt have understood the importance of the video-game namesake. The initial observation of Shh in fruit flies revealed the genes role in embryogenesis, but over forty years elapsed before the genes capabilities were expounded upon. In 2018, stimulation of the Shh pathway was seen to trigger hair regrowth. Abnormal activity of the pathway may play a role in tumor cell aggression, according to St. Jude Childrens Hospital in 2016. What could the next forty years hold?

Read more from the original source:
Researchers Identify Role of 'Sonic the Hedgehog' Gene in Bone Repair - BioSpace

Read More...

Targeting the Uneven Burden of Kidney Disease on Black Americans – The New York Times

May 20th, 2022 1:54 am

I was all for it, Malcolm said. So was Martin.

When they were tested, the brothers learned they had the variants and that the variants, not lupus, most likely were damaging their kidneys. They hardly knew how to react.

I am still trying to grapple with it, Malcolm said.

But Dr. Olabisi was not surprised. Researchers think the variants cause kidney disease only when there is a secondary factor. A leading candidate is the bodys own antiviral response, interferon, which is produced in abundance in people with lupus.

High levels of interferon also occur in people with untreated H.I.V. As happens in people with Covid-19, they can suffer an unusual and catastrophic collapse of their kidneys if they have the variants. Other viral infections, including some that may go unnoticed, can elicit surges of interferon that could set off the APOL1 variants. Interferon is also used as a drug to treat some diseases including cancer and was tested as a treatment for Covid patients.

For now, there is little Malcolm and Martin can do except take medications to control their lupus.

Martin said he understands all that, but hes glad he learned he has the variants. Now, he knows what he might be facing.

Im the kind of person who likes to plan, he said. It does make a difference.

While Dr. Olabisi is waiting to start his study, a drug company, Vertex, has forged ahead with its own research. But there was no agreement on how APOL1 variants caused kidney disease, so it was not clear what a drug was supposed to block.

If you dont understand the mechanism, that means you cant measure effects in a lab, said Dr. David Altshuler, chief scientific officer at Vertex. And if you cant measure effects in the lab, that means you cant correct them.

It was known how the APOL1 protein protected against sleeping sickness it punched holes in the disease-causing trypanosomes, making them swell with fluid and burst.

Link:
Targeting the Uneven Burden of Kidney Disease on Black Americans - The New York Times

Read More...

ASC Therapeutics, U Mass Medical School, and the Clinic for Special Children Announce Podium Presentation of Safety and Efficacy in Murine and Bovine…

May 20th, 2022 1:54 am

MILPITAS, Calif.--(BUSINESS WIRE)--ASC Therapeutics in partnership with the University of Massachusetts Medical School (UMMS) and the Clinic for Special Children (CSC), will present safety and efficacy results of a dual-function gene replacement vector therapy in murine and bovine models of classic Maple Syrup Urine Disease (MSUD) as a podium presentation on Tuesday, May 17 (Room 201, 3:45 PM 4:00 PM ET, abstract number: 461) at the 25th Annual Meeting of The American Society of Gene and Cell Therapy (ASGCT) held May 16-19, 2022 in Washington D.C.

The research group at UMMS, led by Guangping Gao, PhD, director of the Horae Gene Therapy Center at UMMS, and Dan Wang, PhD, assistant professor of RNA therapeutics, developed murine and bovine models for MSUD with collaborating clinical expert, Dr. Kevin Strauss, MD, from the Clinic for Special Children.

Three animal models were generated to test safety and efficacy: two murine models representing two common genetic forms of MSUD and a newborn calf naturally homozygous for a mutation that causes MSUD. All animals exhibited severe biochemical abnormalities hours after birth and die within 10 days if left untreated.

The partnership designed a dual-function AAV9 gene replacement vector that was administered via intravenous (IV) injection. Surviving mice grew and behaved similar to normal littermates and had normal or nearly normal biochemical markers with unrestricted diet for 16 weeks.

As compared to MSUD patients, MSUD calves exhibit a similar phenotype and are closely matched for size and metabolic rate. Without treatment they exhibit cerebral edema by day of life 3 and die soon after. In October 2021, a MSUD calf was born and developed biochemical signs of MSUD shortly after birth. The calf was administered the AAV9 gene therapy vector at 40 hours of life. Following AAV therapy, biomarker measurements indicated a significant restoration of the missing enzymatic activity. At 70 days after treatment, the calf was transitioned to a normal unrestricted diet and continues to thrive 100 days post-infusion with stable biochemical markers.

These data provide early demonstration of the safety and efficacy of the MSUD AAV9 gene therapy replacement vector as a one-time treatment for the most common and severe forms of MSUD.

The MSUD gene therapy development leverages the combined AAV gene therapy expertise at UMass Chan Medical School, such as AAV vector design, rodent and large animal modeling, large-scale vector production, and in vivo pre-clinical testing, Drs. Gao and Wang commented.

Dr. Kevin Strauss, MD, Medical Director at the Clinic for Special Children in Pennsylvania, a collaborating clinical expert, added, An innovative collaboration between the Clinic for Special Children and UMMS Horae Gene Therapy Center has allowed us to thoughtfully streamline the process of developing AAV gene replacement vectors. Within just three years of project inception, we have safely corrected an otherwise fatal MSUD phenotype in both mice and a newborn calf using a novel dual-function BCKDHA-BCKDHB vector, which has the potential to address 70-80% of reported MSUD cases in humans. The newborn calf with MSUD may represent the largest non-human experimental animal ever treated with AAV-mediated gene replacement. The calf provides unique insights that can directly inform the design of a clinical trial, which we hope to pursue through an alliance with ASC Therapeutics.

Dr Ruhong Jiang, CEO at ASC Therapeutics, said, The significant progress achieved through our research collaboration with Professors Gao, Wang and Strauss underlines the intrinsic value of bringing together teams from academia and industry that are highly specialized in complex gene therapies.

About Maple Syrup Urine Disease

Maple syrup urine disease (MSUD) is a rare genetic disorder affecting degradation of the branched-chain amino acids (BCAA) leucine, isoleucine, and valine and their ketoacid derivatives. MSUD is caused by biallelic mutations in one of three genes that encode subunits of the branched-chain ketoacid dehydrogenase complex (BCKDC), namely BCKDHA, BCKDHB, and DBT. Dietary BCAA restriction is the mainstay of treatment but has insufficient efficacy, and affords no protection against episodic and life-threatening encephalopathic crises. Severe (classic) MSUD is fatal without treatment. MSUD affects approximately 1 per 185,000 births worldwide.

About ASC Therapeutics

ASC Therapeutics is a biopharmaceutical company pioneering the development of gene replacement therapies, in-vivo gene editing and allogeneic cell therapies for hematological, metabolic, and other rare diseases. Led by a management team of industry veterans with significant global experience in gene and cell therapy, ASC Therapeutics is developing multiple therapeutic programs based on four technology platforms: 1) In-vivo gene therapy of inherited blood clotting disorders, initially focusing on ASC618, a second generation gene replacement treatment for hemophilia A; 2) In-vivo gene therapy in metabolic disorders, initially focusing on Maple Syrup Urine Disease; 3) In-vivo gene editing, initially focusing on ASC518 for hemophilia A; and 4) Allogeneic cell therapy, initially focusing on a Decidua Stromal Cell-based therapy for steroid-refractory acute Graft-versus-Host Disease. To learn more please visit https://www.asctherapeutics.com/.

About the Clinic for Special Children

The Clinic for Special Children (CSC) is a non-profit organization located in Strasburg, PA, which provides primary care and advanced laboratory services to those who live with genetic or other complex medical disorders. Founded in 1989, the organization provides services to over 1,200 individuals and is recognized as a world-leader in translational and precision medicine. The organization is primarily supported through community fundraising events and donations. For more information, please visit http://www.ClinicforSpecialChildren.org

About the University of Massachusetts Medical School

The University of Massachusetts Medical School (UMMS), one of five campuses of the University system, is comprised of the School of Medicine, the Graduate School of Biomedical Sciences, the Graduate School of Nursing, a thriving research enterprise and an innovative public service initiative, Commonwealth Medicine. Its mission is to advance the health of the people of the Commonwealth through pioneering education, research, public service and health care delivery with its clinical partner, UMass Memorial Health Care. In doing so, it has built a reputation as a world-class research institution and as a leader in primary care education. For more information, please visit https://umassmed.edu/

Continue reading here:
ASC Therapeutics, U Mass Medical School, and the Clinic for Special Children Announce Podium Presentation of Safety and Efficacy in Murine and Bovine...

Read More...

Fly Researchers Find Another Layer to the Code of Life – Duke Today

May 20th, 2022 1:54 am

DURHAM, N.C. -- A new examination of the way different tissues read information from genes has discovered that the brain and testes appear to be extraordinarily open to the use of many different kinds of code to produce a given protein.

In fact, the testes of both fruit flies and humans seem to be enriched in protein products of these rarely-used pieces of genetic code. The researchers say the use of rare pieces of code may be another layer of control in the genome that could be essential to fertility and evolutionary innovation.

A decade after solving the structure of DNA as a double helix of the bases A,C, T and G, Francis Crick went on to decode the intermediate step by which three of these letters are translated into a codon, the recipe for a single amino acid, the building block of protein.

What was striking at the time and still somewhat puzzling is that this layer of lifes code used 61 different three-letter codons to produce just 20 amino acids, meaning many codons were being used to describe the same thing.

Were taught in our biology classes that when you change from one version of the codon to the other, and it doesn't change the amino acid, that's called a silent mutation. And that implies that it doesn't matter, said Don Fox, an associate professor of pharmacology and cancer biology in the Duke School of Medicine.

Yet when researchers have sequenced all these different organisms, they found a hierarchy, Fox said. Some codons are really frequent and some are really rare. And that distribution of codons can vary from one kind of tissue in an organism to another.

Fox wondered if the rarities play a role in how, say, a liver cell does liver things and how a bone cell does bone things.

Fox and his team, headed by PhD student Scott Allen, wanted to zoom in on the rare codons, using their preferred model Drosophila melanogaster, the laboratory fruit fly. A growing body of work has shown that dissimilar tissues have varying codon bias that is, different frequencies of synonymous codons occurring in different tissues. Rare codons are known to slow down and even stop protein production and genes with a lot of these rare codons make a lot less protein, Fox said.

Fox was collaborating with colleague Christopher Counter, the George Barth Geller Distinguished Professor of Pharmacology at Duke to understand a gene called KRAS, which is known to be a bad actor in pancreatic cancer especially, and which carries a lot of rare codons. Why, they wondered, would a cancer mutation have slowed down protein production, when normally a cancerous mutation makes more of something.

It turns out, the way KRAS is designed, it should be very hard to make any of it, Fox said.

Foxs team developed a new way of analyzing tissue-specific codon usage to look at where and how rare codons can be used in the fruit fly, which has perhaps the best-known genome in science. They ran a series of experiments to vary which codons were included in the KRAS gene and found that rare codons had a dramatic effect on how KRAS controls signaling between cells.

I realized from this cancer collaboration that we could take similar approaches and apply them to my primary research question, which is how tissues know what they are, Fox said.

In further experiments, they found that testes in flies -- and in humans -- are more tolerant of a high diversity of codons, but fly ovaries are not. The fly brain was also more tolerant of diverse codons. The work appeared May 6 in the open access journal eLife.

One particular gene with a high number of rare codons, RpL10Aa, is evolutionarily newer and helps to build the ribosome, the protein-assembly machinery in the cell. Fox said it appears that this genes rare codons serve to limit its activity to just the more tolerant testes, and that, in turn, may be something critical to fertility.

The way the testes seem to permit almost any gene being expressed, perhaps that makes it a breeding ground, if you will, for new genes, Fox said. The testes seems to be a place where younger genes tend to first be expressed. So we think it's sort of this more permissive tissue, and it lets new genes take hold.

What we think were seeing is that rare codons are a way to limit the activity of this evolutionarily young gene to the testes, Fox said. That would make rare codons yet another layer of control and fine-tuning in the genes.

The editors of eLife said the work breaks new ground in identifying codon usage as a basis for tissue-specific gene expression in animals.

This research was supported by the American Cancer Society, (RSG-128945) the National Science Foundation, and the National Institutes of Health (R01-CA94184, P01-CA203657, R35-GM140844, R01-HL111527)

CITATION: "Distinct Responses to Rare Codons in Select Drosophila Tissues," Scott R Allen, Rebeccah K Stewart, Michael Rogers, Ivan Jimenez Ruiz, Erez Cohen, Alain Laederach, Christopher M Counter, Jessica K Sawyer, Donald T Fox. eLife, May 6, 2022. DOI: 10.7554/eLife.76893 https://elifesciences.org/articles/76893

Read more here:
Fly Researchers Find Another Layer to the Code of Life - Duke Today

Read More...

UC Davis Looks to Expand Genetic Breast Cancer Risk Education, Outreach for Hispanic Women – Precision Oncology News

May 20th, 2022 1:54 am

NEW YORK A program at the UC Davis Comprehensive Cancer Center is educating Hispanic and Latina women in California about their genetic risk for breast cancer and the importance of genomic profiling for family members.

Through an effort called Tu Historia Cuenta, which translates to "your story matters," UC Davis has discussed breast cancer genetic risks with 1,000 Hispanic women and Latinas, according to Laura Fejerman, leader of the program and codirector of the cancer center's Women's Cancer Care and Research Program (WeCARE). Encouraged by the interest in the educational sessions offered by Tu Historia Cuenta, Fejerman and her colleagues now want to expand the program's reach and make it easier for women with a family history of breast cancer to get genetic counseling and testing.

For now, the program administers a survey to the women who attend the educational sessions and, based on their answers, identifies those who might benefit from genomic profiling. Session attendees are asked to fill out the survey by their community health educator, called promotores in Spanish. The surveys are scrubbed of identifying information and shared with the researchers, who flag the women who have a family history of cancer and should receive genomic testing.

The promotores then reach out to the high-risk women about getting tested for mutations in genes such as BRCA1/2 that confer a higher risk of breast, ovarian, and other cancers. The promotores continue to follow up with these high-risk women every three months.

In this way, the researchers and promotores have identified 62 high-risk women and recommended they undergo further screening, which is consistent with the rate of pathogenic variants seen among Hispanic and Latina breast cancer patients in the population, according to Fejerman, who also codirects the Latinos United for Cancer Health Advancement initiative at UC Davis. Research that Fejerman coauthored this year found that about 7 percent of Latinas with breast cancer harbor pathogenic variants in ATM, BARD1, BRCA1, BRCA2, CHEK2, PALB2, PTEN, RAD51C, and TP53.

Additionally, Fejerman and colleagues from the University of Texas, National Institute on Minority Health and Health Disparities, University of California, and University of Southern California published research this month that shed more light on the types of breast tumors Hispanic and Latina women tend to develop. They found, for example, that Hispanic and Latina women have higher rates of aggressive breast cancer like HER2-positive and triple-negative disease. Hispanic women with Indigenous American ancestry in particular are more likely to have HER2-positive tumors, their research showed. However, compared to their white and Black counterparts, Hispanic and Latina women are at lower risk of developing breast cancer overall.

Tu Historia Cuenta design

Fejerman and her colleagues started planning the Tu Historia Cuenta program in 2020. They developed two sets of educational materials, in partnership with nonprofit The Latino Cancer Institute: one set for training promotores on hereditary breast cancer risk and another set that is the basis of hour-long education sessions that the promotores host with Latina and Hispanic women at community-based education sessions.

To be part of the program, promotores do not need formal health education training, but they must attend the eight-hour workshop the researchers have developed about breast cancer, genetic risk, and genetic counseling. After completing the workshop, promotores go out into the community to conduct hour-long sessions about hereditary breast cancer risk and genetic screening.

According to Fejerman, the promotores' training and community education sessions have largely taken place online due to the COVID-19 pandemic. The educational sessions include an eight-minute video showing the journey of a fictional patient who goes to her doctor after finding a lump in her breast and undergoes medical exams and genomic profiling to discover she carries a BRCA1 mutation. The session attendees also hear a presentation about breast cancer and receive a brochure that explains breast cancer and hereditary cancer risks and provides resources for additional information. The information is presented in plain language for an audience with low health literacy, and all sessions and materials are in Spanish.

After the session, the attendees receive a questionnaire to complete that asks about their sociodemographic status; general cancer screening history, such as a mammogram or cervical cancer screening; prior exposure to genetic testing, like prenatal screening or previous cancer risk assessment; and their family history of breast cancer.

"The rationale for the program was that Hispanic Latinas are doing genetic testing at lower rates than non-Hispanic white women. They're about four times less likely to get genetic testing," Fejerman said. "We felt like this was a group where there is a lack of information and lack of understanding of what it means to carry a mutation that increases your risk."

After the first three classes, Fejerman and her colleagues published a study detailing the participants' demographics, insurance status, family history of cancer, and knowledge of cancer and genetics. Of 33 session attendees, 30 percent had no insurance and only 12 percent said they were fluent in English, highlighting some key barriers to healthcare access in this community.

In this study, 15 percent said they had a family history of ovarian cancer and 21 percent said they had at least three members on the same side of the family with breast, prostate, or pancreatic cancer.

The researchers also administered a knowledge assessment questionnaire before the educational sessions, which the attendees filled out. Based on their answers, 47 percent of participants (7 participants) were not able to correctly answer a multiple-choice question to define what a gene is, and 27 percent (4 participants) answered incorrectly, or didn't know, whether genetic tests could be performed with either a blood or saliva test. The participants took the same test after the session and the number of incorrect or don't know answers dropped to 7 percent (1 participant) for the same questions about genes and genetic testing.

While the program has reached more than 1,000 Hispanic and Latina women to date, there are still barriers to receiving genetic counseling after the education program. The promotores follow up regularly with session participants who said in the survey that they have a family history of cancer, but beyond that the onus is on the patient to reach out to their doctor or find a clinic and set up an appointment.

"The promotores call regularly to check in [with the high-risk women], but most of them are now asking for help to access services," Fejerman said. "We thought many of them would have some sort of clinic where they can go and talk to a doctor about their strong family history of cancer, based on what they learned from participating in the program, but that hasn't happened for most of them. That follow through is hard. Now, I'm writing grants now to include genetic counseling and testing as part of the program."

Barriers remain

The next iteration of the Tu Historia Cuenta may make it even easier for high-risk Hispanic and Latina women to access genetic counseling to assess their family risk for breast cancer. The program is currently funded through the University of California, San Francisco Mount Zion Funds and the California Breast Cancer Research Program, but Fejerman hopes to secure more funding this year to continue the education effort and potentially expand the program.

She is exploring grants that could potentially support the integration of a clinical trial within the program, through which eligible women could get genetic testing, and reaching out to nonprofits that provide support for cancer screening in underserved populations. Fejerman is also looking for support among her colleagues at the UC Davis Womens Cancer Care and Research Program in expanding the program.

Lack of insurance coverage is a major barrier to healthcare access in the Hispanic community. Many have no insurance or rely on Medicaid, which may not cover genetic testing. The language barrier presents challenges, as well. While many clinics have some Spanish speakers, Fejerman noted that there are far fewer genetic counselors who are bilingual and speak Spanish.

"There were people in the classes who already knew they had mutations, but they still felt like they needed a class to understand," Fejerman said. "They saw the opportunity to take the class in Spanish, and they took it. That means this person had gone through breast cancer or had gone through testing and still didn't feel like they understood it."

This population may also not know their family's history with cancer because they came to the US from other countries, where close relatives still reside. In the study conducted on participants of the first three educational sessions, none of the surveyed individuals were born in the US, and these women had lived in the US for an average of 17 years.

That presents several challenges, Fejerman said. Families may lose touch after many years apart in different countries, and someone may not know if their grandmothers or aunts also had breast cancer. The distance also affects the utility of cascade testing. If a Latina in the US is found to carry a BRCA1/2 mutation, she may be able to get more regular screening, but a family member in Mexico may not have the same access, Fejerman said.

"If you're an immigrant, sometimes you lose contact with family or you may only have a phone call every once in a while," Fejerman explained. "You probably don't want to use that short time to ask family members about cancer."

Fejerman noted that programs to educate Hispanic and Latina women work best when paired with other efforts to improve access, like assistance navigating the healthcare system and more robust efforts to include Hispanic and Latino patients in clinical research.

"When precision medicine became more common, that's when we started thinking that Latinos were going to be left behind in the conversations about precision medicine because of the lack of awareness and knowledge on genetics," Fejerman said. "They wouldn't be able to make informed decisions about cancer care because they were already behind on regular prevention information like mammograms or colonoscopies, and then we added the complexity of genetics and genomics."

Read the original:
UC Davis Looks to Expand Genetic Breast Cancer Risk Education, Outreach for Hispanic Women - Precision Oncology News

Read More...

CANbridge-UMass Chan Medical School Gene Therapy Research Presented at the American Society of Gene and Cell Therapy (ASGCT) Annual Meeting – Business…

May 20th, 2022 1:54 am

BEIJING & CAMBRIDGE, Mass.--(BUSINESS WIRE)--CANbridge Pharmaceuticals Inc. (HKEX:1228), a leading China-based global biopharmaceutical company committed to the research, development and commercialization of transformative rare disease and rare oncology therapies, announced the presentation of the initial data from its gene therapy research agreement with the Horae Gene Therapy Center, at the UMass Chan Medical School, at the ASGCT 25th Annual Meeting, in Washington DC, today.

In work led by Jun Xie Ph.D., in the lab of Guangping Gao, Ph.D., researchers concluded that a novel second-generation scAAV9 gene therapy, expressing co-hSMN1 from an endogenous hSMN1 promoter, demonstrated superior potency, efficacy and safety in mice with spinal muscular atrophy (SMA), compared to the benchmark vector, scAAV9-CMVen/CB-hSMN1, which is similar to the vector used in the gene therapy approved by the US Food and Drug Administration for the treatment of SMA.

The novel second-generation gene therapy showed superior efficacy to the benchmark vector in SMA mice along several endpoints, including extended lifespan, restored muscle function and better neuromuscular junction innervation, without the liver toxicity shown in the benchmark-treated animals. Specifically, the second-generation gene therapy significantly extended the lifespan of SMA mice in a dose-dependent manner, with all doses showing improved survival, compared to both the benchmark gene therapy vector high dose and to untreated SMA mice. The second-generation gene therapy also restored muscle function in SMA mice significantly better than the benchmark vector. This was observed in both the righting test, in which second-generation gene therapy-treated SMA mice were able to right themselves faster than the benchmark vector-treated mice, and in the grid test, in which they demonstrated better muscle function. In addition, the second-generation vector restored the innervation of the neuromuscular junctions in SMA mice to close to that of wild-type mice, and significantly better than in SMA mice treated with the benchmark vector.

Finally, SMA mice treated with the second-generation gene therapy showed higher SMN1 expression in the central nervous system and lower peripheral tissue than the benchmark vector-treated mice, in a pattern that was similar to that of healthy carrier mice. Furthermore, the benchmark vector produced liver damage in four out of seven SMA mice, eight days post-injection, compared to no liver toxicity in mice treated with the second-generation gene therapy vector, or in healthy carrier mice, suggesting that the second-generation gene therapy has the potential to reduce liver toxicity and overcome current therapeutic limitations.

This is the first data to be presented from the gene therapy research collaboration between CANbridge and the Gao Lab at the Horae Gene Therapy Center.

What differentiates our novel second-generation gene therapy vector from the benchmark vector is the genetic engineering of a codon-optimized SMN1 transgene under the control of the endogenous SMN1 promoter, which enables highly efficient and regulated gene expression across tissues, with the potential to improve both efficacy and safety, while at a lower dose than is currently used in patients, said Yunxiang Zhu, Ph.D., Vice President, Head of Global Research, CANbridge Pharmaceuticals, and a study author. These data encourage us to support the continued development of this second-generation vector as a potential best-in-class gene therapy for SMA.

We are seeking to develop a next-generation gene therapy for SMA that leverages the advances in gene therapy that have occurred since the first gene therapy was developed, over a decade ago, said Guangping Gao, Ph.D., Co-Director, Li Weibo Institute for Rare Diseases Research, Director, the Horae Gene Therapy Center and Viral Vector Core, Professor of Microbiology and Physiological Systems and Penelope Booth Rockwell Professor in Biomedical Research at UMass Chan Medical School, and a lead study author. Dr. Gao is also a former ASCGT president.

Presentation Details:

Title: Endogenous Human SMN1 Promoter-driven Gene Replacement Improves the Efficacy and Safety of AAV9-mediated Gene Therapy for Spinal Muscular Atrophy in Mice

Poster #: M-144

Category: Neurologic Diseases: AAV Vectors- Preclinical and Proof-of-Concept Studies

Category: Neurologic Diseases I

Session Date and Time: Monday, May 16, 5:30-6:30 PM EDT

Authors: Qing Xie, Hong Ma, Xiupeng Chen, Yunxiang Zhu, Yijie Ma, Leila Jalinous, Qin Su, Phillip Tai, Guangping Gao, Jun Xie

Abstracts are available on the ASGCT website: https://annualmeeting.asgct.org/abstracts

About the Horae Gene Therapy Center at UMass Chan Medical School

The faculty of the Horae Gene Therapy Center is dedicated to developing therapeutic approaches for rare inherited disease for which there is no cure. We utilize state of the art technologies to either genetically modulate mutated genes that produce disease-causing proteins or introduce a healthy copy of a gene if the mutation results in a non-functional protein.

The Horae Gene Therapy Center faculty is interdisciplinary, including members from the departments of Pediatrics, Microbiology & Physiological Systems, Biochemistry & Molecular Pharmacology, Neurology, Medicine and Ophthalmology. Physicians and PhDs work together to address the medical needs of rare diseases, such as Alpha 1-Antitrypsin Deficiency, Canavan Disease, Tay-Sachs and Sandhoff diseases, Retinitis Pigmentosa, Cystic fibrosis, Lou Gehrig's disease, TNNT1 nemaline myopathy, Rett syndrome, N-Gly 1 deficiency, Pitt-Hopkins syndrome, Marple Syrup Urine Disease, Sialidosis, GM3 synthase deficiency, Huntington's disease, ALS and others. More common diseases such as cardiac arrhythmia and hypercholesterolemia are also investigated. The hope is to treat a wide spectrum of diseases by various gene therapeutic approaches. Additionally, the University of Massachusetts Chan Medical School conducts clinical trials on site and some of these trials are conducted by the investigators at the Gene Therapy center.

About CANbridge Pharmaceuticals Inc.

CANbridge Pharmaceuticals Inc. (HKEX:1228) is a China-based global biopharmaceutical company committed to the research, development and commercialization of transformative therapies for rare disease and rare oncology. CANbridge has a differentiated drug portfolio, with three approved drugs and a pipeline of 11 assets, targeting prevalent rare disease and rare oncology indications that have unmet needs and significant market potential. These include Hunter syndrome and other lysosomal storage disorders, complement-mediated disorders, hemophilia A, metabolic disorders, rare cholestatic liver diseases and neuromuscular diseases, as well as glioblastoma multiforme. CANbridge is also building next-generation gene therapy development capability through a combination of collaboration with world-leading researchers and biotech companies and internal capacity. CANbridge global partners include: Apogenix, GC Pharma, Mirum, Wuxi Biologics, Privus, the UMass Chan Medical School and LogicBio.

For more on CANbridge Pharmaceuticals Inc., please go to: http://www.canbridgepharma.com.

Forward-Looking Statements

The forward-looking statements made in this article relate only to the events or information as of the date on which the statements are made in this article. Except as required by law, we undertake no obligation to update or revise publicly any forward-looking statements, whether as a result of new information, future events or otherwise, after the data on which the statements are made or to reflect the occurrence of unanticipated events. You should read this article completely and with the understanding that our actual future results or performance may be materially different from what we expect. In this article, statements of, or references to, our intentions or those of any of our Directors or our Company are made as of the date of this article. Any of these intentions may alter in light of future development.

Read more:
CANbridge-UMass Chan Medical School Gene Therapy Research Presented at the American Society of Gene and Cell Therapy (ASGCT) Annual Meeting - Business...

Read More...

Omicron BA.4 and BA.5: What to know about the new variants – Medical News Today

May 20th, 2022 1:54 am

Despite what many of us might like to believe, COVID-19 has not gone away. South Africa recently identified two new subvariants of Omicron designated BA.4 and BA.5. These subvariants have now spread to several other countries, including the United Kingdom and the United States. Should we be concerned about them? Medical News Today assessed the evidence and spoke to experts in the U.S. and the U.K. to find out.

Alpha, Beta, Gamma, Delta, Omicron the list of SARS-CoV-2 variants continues to expand. And no sooner have we got used to one variant than another appears.

Latest on the list are the Omicron subvariants BA.4 and BA.5, which were identified recently in South Africa, one of the few countries that are still sequencing large numbers of COVID-19 tests.

South Africa has seen a rapid increase in positive tests for COVID-19, and authorities believe that BA.4 and BA.5 are responsible. The National Institute of Clinical Diseases in South Africa reports that BA.4 and BA.5 are Omicron viruses with a new combination of mutations.

Scientists in this country first detected BA.4 on January 10, 2022, and it has since spread throughout South Africa, now making up 35% of positive tests. BA.5 was identified on February 25, and now accounts for 20% of cases in several South African regions.

Both subvariants are similar to Omicron BA.2, which is currently dominant in the U.K., continental Europe, and the U.S.

BA.4 and BA.5 have identical mutations on their spike protein the part of the virus that attaches to receptors on human cells that differentiate them from BA.2. Each subvariant has its own different mutations in other areas of the virus.

We have learned that the [COVID-19-causing variants] are more mutable than we initially thought. Periodically we get major new variants thats a big shift. But we also get little, what we call drift variants. You can think of them as members of the same family [] theyre like cousins.

Prof. William Schaffner, professor of infectious diseases at the Vanderbilt University School of Medicine in Nashville, TN

So far, BA.4 and BA.5 have been identified in several countries in addition to South Africa. According to a report from the U.K. Health Security Agency (UKHSA), with data up to April 22, BA.4 was present in Austria, the U.K., the U.S., Denmark, Belgium, Israel, Germany, Italy, Canada, France, the Netherlands, Australia, Switzerland, and Botswana.

On the same date, health authorities had identified BA.5 in Portugal, Germany, the U.K., the U.S., Denmark, France, Austria, Belgium, Hong Kong, Australia, Canada, Israel, Norway, Pakistan, Spain, and Switzerland.

Few countries are sequencing large numbers of positive tests, despite the Director-General of the World Health Organization (WHO) stating on May 4 that testing and sequencing remain absolutely critical.

In many countries were essentially blind to how the virus is mutating. We dont know whats coming next.

Dr. Tedros Adhanom Ghebreyesus, WHO Director-General

He is not alone in his concern about the lack of sequencing. Prof. Christina Pagel, professor of operational research at University College London (UCL) and director of the UCL Clinical Operational Research Unit, told Medical News Today that [w]e are opening ourselves up to a serious new wave particularly in winter that we would not be able to spot in time.

Although the numbers recorded for both variants are currently low, the actual case numbers are likely to be much higher. Without sequencing of positive tests, the variants that cause COVID-19 cannot be identified.

On May 12, the European Centre for Disease Prevention and Control (ECDC) reclassified BA.4 and BA.5 as variants of concern. This followed a sharp rise in cases in Portugal, where the Portuguese National Institute of Health estimated on May 8 that BA.5 was responsible for around 37% of all positive cases.

The ECDC reports that although there is no evidence yet of increased severity over previous variants, BA.4 and BA.5 do appear to be more transmissible.

The Omicrons are an extraordinarily contagious family. There are some data that say these subvariants are even more contagious. [] Do they have the capacity to produce more severe disease? At the moment, if anything, Omicron seems to be on the milder side.

Prof. William Schaffner

In the U.S., the Centers for Disease Control and Prevention (CDC) have also designated BA.4 and BA.5 as variants of concern.

The U.K. has not yet followed suit. However, the UKHSA published a risk assessment of the two subvariants comparing them with Omicron BA.2. This suggests that the new subvariants may be better at evading the immune system than BA.2, but that the data is insufficient to draw firm conclusions.

In South Africa, which has identified the greatest number of cases, symptoms and severity seem similar to those of disease caused by Omicron BA.2. So far, the number of hospitalizations there has increased only slightly.

Some good news from GAVI the vaccine alliance is that although antibodies from previous Omicron infection do not seem to afford much protection against the new variants, antibodies from vaccination appear to be much more effective.

Prof. Schaffner agreed that vaccines should protect against severe disease from the new variants: These are slightly different mutations of the spike protein are they so different that they cannot be responsive to our vaccines? The answer is no.

However, he is concerned that vaccine fatigue may be having an effect:

Of course, vaccines dont prevent disease vaccination prevents disease. And the issue, at least in [the U.S.], is can we persuade people to come forward yet again to be vaccinated? There is clearly vaccine fatigue out there.

He added that [t]he more people we can vaccinate around the world [the more we can] reduce the chance of these rogue variants popping up.

Prof. Jonathan Stoye, FRS, principal group leader, and international affairs ambassador at the Francis Crick Institute in London, U.K., agreed: It does not seem unreasonable to ask whether a greater emphasis should not be placed on attempting to provide and deliver a vaccine which can be administered to all the worlds unprotected people, particularly those in lower and middle-income countries.

It is likely that BA.4 and BA.5 will spread further, and that they will not be the last new variants.

Prof. Pagel expressed concern that lack of testing and sequencing may mean that variants are not detected early: [I]n England, for instance, we are only really doing PCR tests on hospital admissions [] [and] because admissions are skewed towards older populations, it will take longer for variants to show up if they spread first among children and young people as has been typical so far.

These concerns were echoed by Prof. Schaffner, who said that [w]e require a coordinated international surveillance system, and critical to that is the sequencing of viruses. Number one: To detect these minor subvariants. Its always better to know than not [to] know.

And then, of course, the sequencing is utterly important to pick up that rare event when we would get another rogue strain that could evade the protection of our vaccines, he added.

It is likely that COVID-19, in whatever form, will be with us for some years to come the key question is, can we keep it under control as we try to get life back to normal?

As weve moved from pandemic phase to endemic, how will we cope? Are we going to come to some sort of fraught truce with this virus? We havent figured out how to do that yet.

Prof. William Schaffner

More here:
Omicron BA.4 and BA.5: What to know about the new variants - Medical News Today

Read More...

Krystal Biotech to Present Additional Data on B-VEC from the GEM-3 Phase 3 Study at the Society for Investigative Dermatology Annual Meeting -…

May 20th, 2022 1:54 am

PITTSBURGH, May 19, 2022 (GLOBE NEWSWIRE) -- Krystal Biotech, Inc. (the Company) (NASDAQ: KRYS), the leader in redosable gene therapy, is pleased to present new data entitled GEM-3: phase 3 safety and immunogenicity results of beremagene geperpavec (B-VEC), an investigational, topical gene therapy for dystrophic epidermolysis bullosa (DEB) at the Society for Investigative Dermatology 2022 Annual Meeting, taking place May 18-21 in Portland, Oregon.

Krystal Presentation

GEM-3: phase 3 safety and immunogenicity results of beremagene geperpavec (B-VEC), an investigational, topical gene therapy for dystrophic epidermolysis bullosa (DEB)M. Peter Marinkovich, MD, FAADPoster Session 1Date & Time: Thursday, May 19, 4:30-6:30pm PDT

ePoster Presentation: Session 2, Genetic Disease, Gene Regulation, and Gene TherapyDate & Time: Friday, May 20, 5:54-6:00pm PDT

The poster and ePoster will be available to conference attendees. To register for the conference, please visit SID 2022 Annual Meeting | Society for Investigative Dermatology. The Company will be present at Booth 218 to educate about DEB and the mechanism of the disease. Following the presentation, materials will be available to view online on the Investor section of the Companys website.

About Dystrophic Epidermolysis Bullosa (DEB)DEB is a rare and severe disease that affects the skin and mucosal tissues. It is caused by one or more mutations in a gene calledCOL7A1, which is responsible for the production of the protein type VII collagen (COL7) that forms anchoring fibrils that bind the dermis (inner layer of the skin) to the epidermis (outer layer of the skin). The lack of functional anchoring fibrils in DEB patients leads to extremely fragile skin that blisters and tears from minor friction or trauma. DEB patients suffer from open wounds, which leads to skin infections, fibrosis which can cause fusion of fingers and toes, and ultimately an increased risk of developing an aggressive form of squamous cell carcinoma which, in severe cases, can be fatal.

About B-VECB-VECis an investigational non-invasive, topical, redosable gene therapy designed to deliver two copies of theCOL7A1gene when applied directly to DEB wounds. B-VEC was designed to treat DEB at the molecular level by providing the patients skin cells the template to make normal COL7 protein, thereby addressing the fundamental disease-causing mechanism.

TheU.S. Food and Drug Administration(FDA) and theEuropean Medicines Agency(EMA) have each granted B-VEC an orphan drug designation for the treatment of DEB. The FDA has also granted B-VECfast track designation and rare pediatric designation for the treatment of DEB. In addition, in 2019, the FDA granted Regenerative Medicine Advanced Therapy (RMAT) to B-VEC for the treatment of DEB and the EMA granted PRIority MEdicines ("PRIME") eligibility for B-VECto treat DEB.

About Krystal Biotech, Inc.Krystal Biotech, Inc. (NASDAQ: KRYS) is a pivotal-stage gene therapy company leveraging its proprietary, redosable gene therapy platform and in-house manufacturing capabilities to develop life-changing medicines for patients with serious diseases, including rare diseases in skin, lung, and other areas. For more information please visit http://www.krystalbio.com, and follow @KrystalBiotech on LinkedIn and Twitter.

CONTACTS:Investors and Media:Meg DodgeKrystal Biotechmdodge@krystalbio.com

Source: Krystal Biotech, Inc.

Read the rest here:
Krystal Biotech to Present Additional Data on B-VEC from the GEM-3 Phase 3 Study at the Society for Investigative Dermatology Annual Meeting -...

Read More...

FDA approves Lilly’s Mounjaro (tirzepatide) injection, the first and only GIP and GLP-1 receptor agonist for the treatment of adults with type 2…

May 20th, 2022 1:54 am

Mounjaro delivered superior A1C reductions versus all comparators in phase 3 SURPASS clinical trials

While not indicated for weight loss, Mounjaro led to significantly greater weight reductions versus comparators in a key secondary endpoint

Mounjaro represents the first new class of diabetes medicines introduced in nearly a decade and is expected to be available in the U.S. in the coming weeks

INDIANAPOLIS, May 13, 2022 /PRNewswire/ -- The U.S. Food and Drug Administration (FDA) approved Mounjaro (tirzepatide) injection, Eli Lilly and Company's (NYSE: LLY) new once-weekly GIP (glucose-dependent insulinotropic polypeptide) and GLP-1 (glucagon-like peptide-1) receptor agonist indicated as an adjunct to diet and exercise to improve glycemic control in adults with type 2 diabetes. Mounjaro has not been studied in patients with a history of pancreatitis and is not indicated for use in patients with type 1 diabetes mellitus.

As the first and only FDA-approved GIP and GLP-1 receptor agonist, Mounjaro is a single molecule that activates the body's receptors for GIP and GLP-1, which are natural incretin hormones.1

"Mounjaro delivered superior and consistent A1C reductions against all of the comparators throughout the SURPASS program, which was designed to assess Mounjaro's efficacy and safety in a broad range of adults with type 2 diabetes who could be treated in clinical practice. The approval of Mounjaro is an exciting step forward for people living with type 2 diabetes given the results seen in these clinical trials," said Juan Pablo Fras, M.D., Medical Director, National Research Institute and Investigator in the SURPASS program.

Mounjaro will be available in six doses (2.5 mg, 5 mg, 7.5 mg, 10 mg, 12.5 mg, 15 mg) and will come in Lilly's well-established auto-injector pen with a pre-attached, hidden needle that patients do not need to handle or see.

The approval was based on results from the phase 3 SURPASS program, which included active comparators of injectable semaglutide 1 mg, insulin glargine and insulin degludec. Efficacy was evaluated for Mounjaro5 mg, 10 mg and 15 mg used alone or in combination with commonly prescribed diabetes medications, including metformin, SGLT2 inhibitors, sulfonylureas and insulin glargine. Participants in the SURPASS program achieved average A1C reductions between 1.8% and 2.1% for Mounjaro 5 mg and between 1.7% and 2.4% for both Mounjaro 10 mg and Mounjaro 15 mg. While not indicated for weight loss, mean change in body weight was a key secondary endpoint in all SURPASS studies. Participants treated with Mounjaro lost between 12 lb. (5 mg) and 25 lb. (15 mg) on average.1

Side effects reported in at least 5% of patients treated with Mounjaro include nausea, diarrhea, decreased appetite, vomiting, constipation, indigestion (dyspepsia), and stomach (abdominal) pain. The labeling for Mounjaro contains a Boxed Warning regarding thyroid C-cell tumors. Mounjaro is contraindicated in patients with a personal or family history of medullary thyroid carcinoma or in patients with Multiple Endocrine Neoplasia syndrome type 2.1

"Lilly has a nearly 100-year heritage of advancing care for people living with diabetes never settling for current outcomes. We're not satisfied knowing that half of the more than 30 million Americans living with type 2 diabetes are not reaching their target blood glucose levels," said Mike Mason, president, Lilly Diabetes. "We are thrilled to introduce Mounjaro, which represents the first new class of type 2 diabetes medication introduced in almost a decade and embodies our mission to bring innovative new therapies to the diabetes community."

Mounjaro is expected to be available in the United States in the coming weeks. Lilly is committed to helping people access the medicines they are prescribed and will work with insurers, health systems and providers to help enable patient access to Mounjaro. Lilly plans to offer a Mounjaro savings card for people who qualify. Patients or healthcare professionals with questions about Mounjaro can visit http://www.Mounjaro.com or call The Lilly Answers Center at 1-800-LillyRx (1-800-545-5979).

Tirzepatide is also under regulatory review for the treatment of type 2 diabetes in Europe, Japan and several additional markets. A multimedia gallery is available on Lilly.com.

About the SURPASS clinical trial programThe SURPASS phase 3 global clinical development program for tirzepatide began in late 2018 and included five global registration trials and two regional trials in Japan. These studies ranged from 40 to 52 weeks and evaluated the efficacy and safety of Mounjaro 5 mg, 10 mg and 15 mg as a monotherapy and as an add-on to various standard-of-care medications for type 2 diabetes. The active comparators in the studies were injectable semaglutide 1 mg, insulin glargine and insulin degludec. Collectively, the five global registration trials consistently demonstrated A1C reductions for participants taking Mounjaro across multiple stages of their type 2 diabetes journeys, from an average around five to 13 years of having diabetes.2-8

*p<0.001 for superiority vs. placebo or active comparator, adjusted for multiplicityp<0.05 for superiority vs. semaglutide 1 mg, adjusted for multiplicity

About Mounjaro (tirzepatide) injection1Mounjaro (tirzepatide) injection is FDA-approved as an adjunct to diet and exercise to improve glycemic control in adults with type 2 diabetes mellitus. As the first and only FDA-approved GIP and GLP-1 receptor agonist, Mounjaro is a single molecule that activates the body's receptors for GIP (glucose-dependent insulinotropic polypeptide) and GLP-1 (glucagon-like peptide-1). Mounjaro will be available in six doses (2.5 mg, 5 mg, 7.5 mg, 10 mg, 12.5 mg, 15 mg) and will come in Lilly's well-established auto-injector pen with a pre-attached, hidden needle that patients do not need to handle or see.

PURPOSE AND SAFETY SUMMARY WITH WARNINGSImportant Facts About MounjaroTM (mown-JAHR-OH). It is also known as tirzepatide.

WarningsMounjaro may cause tumors in the thyroid, including thyroid cancer. Watch for possible symptoms, such as a lump or swelling in the neck, hoarseness, trouble swallowing, or shortness of breath. If you have a symptom, tell your healthcare provider.

Mounjaro may cause serious side effects, including:

Inflammation of the pancreas (pancreatitis). Stop using Mounjaro and call your healthcare provider right away if you have severe pain in your stomach area (abdomen) that will not go away, with or without vomiting. You may feel the pain from your abdomen to your back.

Low blood sugar (hypoglycemia). Your risk for getting low blood sugar may be higher if you use Mounjaro with another medicine that can cause low blood sugar, such as a sulfonylurea or insulin. Signs and symptoms of low blood sugar may include dizziness or light-headedness, sweating, confusion or drowsiness, headache, blurred vision, slurred speech, shakiness, fast heartbeat, anxiety, irritability, or mood changes, hunger, weakness and feeling jittery.

Serious allergic reactions. Stop using Mounjaro and get medical help right away if you have any symptoms of a serious allergic reaction, including swelling of your face, lips, tongue or throat, problems breathing or swallowing, severe rash or itching, fainting or feeling dizzy, and very rapid heartbeat.

Kidney problems (kidney failure). In people who have kidney problems, diarrhea, nausea, and vomiting may cause a loss of fluids (dehydration), which may cause kidney problems to get worse. It is important for you to drink fluids to help reduce your chance of dehydration.

Severe stomach problems. Stomach problems, sometimes severe, have been reported in people who use Mounjaro. Tell your healthcare provider if you have stomach problems that are severe or will not go away.

Changes in vision. Tell your healthcare provider if you have changes in vision during treatment with Mounjaro.

Gallbladder problems. Gallbladder problems have happened in some people who use Mounjaro. Tell your healthcare provider right away if you get symptoms of gallbladder problems, which may include pain in your upper stomach (abdomen), fever, yellowing of skin or eyes (jaundice), and clay-colored stools.

Common side effectsThe most common side effects of Mounjaro include nausea, diarrhea, decreased appetite, vomiting, constipation, indigestion, and stomach (abdominal) pain. These are not all the possible side effects of Mounjaro. Talk to your healthcare provider about any side effect that bothers you or doesn't go away.

Tell your healthcare provider if you have any side effects. You can report side effects at 1-800-FDA-1088 or http://www.fda.gov/medwatch.

Before using

Review these questions with your healthcare provider:

How to take

Learn moreFor more information, call 1-800-LillyRx (1-800-545-5979) or go towww.mounjaro.com.

This information does not take the place of talking with your healthcare provider. Be sure to talk to your healthcare provider about Mounjaro and how to take it. Your healthcare provider is the best person to help you decide if Mounjaro is right for you.

MounjaroTM and its delivery device base are trademarks owned or licensed by Eli Lilly and Company, its subsidiaries, or affiliates.

Please click to access full Prescribing Informationand Medication Guide.

TR CON CBS MAY2022

About LillyLilly unites caring with discovery to create medicines that make life better for people around the world. We've been pioneering life-changing discoveries for nearly 150 years, and today our medicines help more than 47million people across the globe. Harnessing the power of biotechnology, chemistry and genetic medicine, our scientists are urgently advancing new discoveries to solve some of the world's most significant health challenges, redefining diabetes care, treating obesity and curtailing its most devastating long-term effects, advancing the fight against Alzheimer's disease, providing solutions to some of the most debilitating immune system disorders, and transforming the most difficult-to-treat cancers into manageable diseases. With each step toward a healthier world, we're motivated by one thing: making life better for millions more people. That includes delivering innovative clinical trials that reflect the diversity of our world and working to ensure our medicines are accessible and affordable. To learn more, visitLilly.comandLilly.com/newsroomor follow us onFacebook,Instagram, Twitterand LinkedIn. P-LLY

Lilly Cautionary Statement Regarding Forward-Looking Statements

This press release contains forward-looking statements (as that term is defined in the Private Securities Litigation Reform Act of 1995) about Mounjaro (tirzepatide 2.5 mg, 5 mg, 7.5 mg, 10 mg, 12.5 mg and 15 mg) injection as a treatment to improve glycemic control in adults with type 2 diabetes, the timeline for supply of Mounjaro to become available, and certain other milestones and ongoing clinical trials of Mounjaro and reflects Lilly's current beliefs and expectations. However, as with any pharmaceutical product or medical device, there are substantial risks and uncertainties in the process of research, development and commercialization. Among other things, there can be no guarantee thatMounjarowill be commercially successful,that future study results will be consistent with results to date, or that we will meet our anticipated timelines for the commercialization of Mounjaro. For further discussion of these and other risks and uncertainties, see Lilly's most recent Form 10-K and Form 10-Q filings with the United States Securities and Exchange Commission. Except as required by law, Lilly undertakes no duty to update forward-looking statements to reflect events after the date of this release.

References

PP-TR-US-0125 05/2022 Lilly USA, LLC 2022. All rights reserved.

View original content to download multimedia:https://www.prnewswire.com/news-releases/fda-approves-lillys-mounjaro-tirzepatide-injection-the-first-and-only-gip-and-glp-1-receptor-agonist-for-the-treatment-of-adults-with-type-2-diabetes-301547339.html

SOURCE Eli Lilly and Company

The rest is here:
FDA approves Lilly's Mounjaro (tirzepatide) injection, the first and only GIP and GLP-1 receptor agonist for the treatment of adults with type 2...

Read More...

Elucidating the developmental origin of life-sustaining adrenal glands | Penn Today – Penn Today

May 20th, 2022 1:53 am

Sitting atop each kidney and measuring only around two centimeters long, the adrenal glands are tiny but mighty. These glands produce steroid hormones, including those involved in stress response, blood pressure maintenance, and fertility. When their development goes awry, it can cause a life-threatening condition called primary adrenal insufficiency, also known as Addisons disease. Many of the genetics involved in this and other adrenal gland disorders remain unknown.

Research on adrenal glands has often relied on insights made using mouse models. Now, a new study led by the School of Veterinary Medicines Kotaro Sasaki, which examined the developmental origin of the glands in humans and nonhuman primates, finds key developmental differences. This new understanding may inform diagnostics and treatment for Addisons disease and other endocrine system disorders.

The work was published in the journal Science Advances.

While some genetic causes of primary adrenal insufficiency have been identified, the mechanism has remained poorly understood, says Sasaki. Our findings help in identifying genes involved in adrenal development and could lead to new targets for therapeutic intervention.

Sasakis investigations have centered around studied gonadal development, how cells become ovaries or testes, organs that, like the adrenal gland, release hormones. Given this background, the adrenal gland was a natural next focus, especially because it has a shared origin with the gonads. In their recent work, Sasaki and colleagues looked at some of the earliest developmental stages to see how precursor cells and tissues evolve to give rise to the adrenal gland.

Scientists have long known that both the gonads and adrenal gland develop from a tissue known as the coelomic epithelium (CE), which is present at an early stage of embryonic development. In mice, for example, this tissue develops into the adrenogonadal primordium, which later divides to form both the adrenal primordium and the gonadal progenitor. The adrenal primodium goes on to become the adrenal gland, and the gonadal progenitor develops into either ovaries or testes.

Using immunofluorescence and in situ hybridization analyses, in which markers enable scientists to track cells descendants, Sasaki and his team found that primate CE expressed different genes than mouse CE. Whereas mice expressed the WT1, GATA4, and NR5A1 genes within the adrenogonadal primordium, primates did not express GATA4 in a parallel stage of development, a surprise to the researchers.

Whats more, while one portion of the primate CE led to the gonadal precursor, the other developed into the adrenal gland precursors, a division that wasnt present in mice.

It takes place in a way thats totally different from the mouse, says Sasaki. It appears that the portion of the coelomic epithelium that gives rise to the gonads is spatially separated from the part that gives rise to the adrenal gland.

Single-cell sequencing further revealed different patterns of gene expression between the adrenal and gonadal cell lineages, as well as a clear divergence between humans and mice. Some of these differentially expressed genes, Sasaki notes, are likely important in the process of deriving adrenal or gonadal tissues from CE.

Certain genes, Sasaki says, could also be examined in the context of adrenal insufficiency.

Currently, people with Addisons disease are treated with a lifelong steroid replacement therapy, using synthetic hormones to substitute for those that their bodies cant make on their own. Its not a cure and comes with serious side effects, Sasaki says.

In future work, he and colleagues hope to lay the groundwork in the lab to generate the adrenal cortex, employing inducible pluripotent stem cells, cells derived from blood or skin that can be induced to become a variety of different cell types. With such an approach, they could coax the stem cells to follow the normal developmental pathway toward becoming adrenal tissue. While in its early stages, this could enable a cell-based therapy for primary adrenal insufficiency, ideally avoiding some of the drawbacks of hormone replacement therapy.

Were pursuing in vitro studies to continue mapping out a blueprint that could be applicable to humans, Sasaki says.

Kotaro Sasaki is an assistant professor in the Department of Biomedical Sciences at the University of Pennsylvania School of Veterinary Medicine.

Sasakis coauthors were Penn Vets Keren Cheng, Yasunari Seita, Taku Moriwaki, Yuka Sakata, and Young Sun Hwang; Kiwamu Noshiro, Hidemichi Watari, and Takeshi Umazume of Hokkaido University; Toshihiko Torigoe of Sapporo Medical University; Mitinori Saitou of Kyoto University; Hideaki Tsuchiya and Chizuru Iwatani of Shiga University of Medical Science; Masayoshi Hosaka of the Fukuzumi Obstetrics and Gynecology Hospital; and Toshihiro Ohkouchi of Ohkouchi Obstetrics and Gynecology Hospital.

Sasaki was corresponding author and Cheng, Seita, and Moriwaki were co-first authors of the work, which was supported in part by the Japanese Science and Technology Agency (grants JPMJCE1301 and JPMJER1104), Silicon Valley Community Foundation, and Good Ventures Foundation.

The rest is here:
Elucidating the developmental origin of life-sustaining adrenal glands | Penn Today - Penn Today

Read More...

Brent Rutemiller’s Cancer In Early Remission After 42 Weeks of Chemotherapy and Stem Cell Transplant – Swimming World Magazine

May 20th, 2022 1:52 am

Ive known Brent Rutemiller CEO of Swimming World and the International Swimming Hall of Fame for about 20 years, our relationship first developed through business. But when you work closely with someone, there is a great opportunity to develop a friendship and Im glad that I get to call Brent a good friend. So, when he reached out almost a year ago with the news that he was diagnosed with plasma-cell leukemia, it was a tough conversation to say the least.

Yet, something from our early chats stood out. Brent didnt have this woe-is-me mentality. Truthfully, he didnt have time for that attitude, nor did he care to mope. No, Brent was going to beat this thing. How? Those details would come later, and as you will see in his letter below, his fight was not without several pitfalls, moments of doubt and frustration. Through it all, though, Brent remained positive, refused to dwell on any setbacks and was steadfast in the fact that one day he was going to receive excellent news and could be used as motivation for others battling a cancer diagnosis.

Today, Swimming World is thrilled to announce that Brent is in early remission from the cancer which wracked his body. Its an achievement to celebrate, and as I told Brent last week, this wonderful news is his moment atop the podium. He claimed victory. He beat the opposition. He captured gold.

The following letter is Brent Rutemillers detailed announcement of the early-remission news delivered by his doctor regarding his fight against cancer.

I finally got my long-awaited blood test results to see if my stem cell transplant was successful.

It will soon be one year since I was diagnosed with cancer. 90% of my plasma was filled with cancer and my kidneys were failing over Memorial Day Weekend last year. Dr. Google said I had 5 months to live. The first 48 hours, I felt sorry for myself. Then I decided that feeling sorry was a useless emotion. I was going to either win or die, there was no second place. I made the decision that the only thing I can control was my attitude and exercise.

I began walking circles in my hospital room and then progressed to the hospital floor. They put a port in my chest and started giving me chemo three times a week. They flooded me with pills to the point that on some days I was taking over 20 within a 24-hour period. They pounded me with steroids once a week to where I now have cataracts in both eyes and will need surgery.

Photo Courtesy:

With the help of Rob Butcher, I was able to get Dr. Fonseca, head of the Mayo Oncology Department to take me as his patient, but first Mayo had to accept me into their system. With the constant loving support of my wife, Ellen Rutemiller, she navigated the insurance paperwork and maze of hoops to get me admitted into Mayo. I cant tell you the number of times they said, no! to her. She then had to navigate Medicare and our secondary insurance policies while being on hold for hours to get our expenses down considerably. She learned the system and got me the best care and insurance coverage possible. Ellen never gave up fighting for me and never took no for an answer.

For 42 straight weeks, they lit me up with chemo causing night sweats, dizzy spells, loss of appetite, reduced oxygen in my blood and days of no energy. All the time, I tried to walk, hike or swim to push those poisons out of my body and keep moving. I only missed about 20 days of working remotely while leading the International Swimming Hall of Fame through Covid, Induction cancellations, closures, and construction disruptions.

Every week Mayo would draw blood to measure my cells and cancer. There were days when my hemoglobin was so low that I needed transfusions.

Over the holidays, I had a reaction to one of my drugs after developing a full-body skin rash. They took me off that drug and my cancer increased.

Then I got Covid! They stopped Chemo for two weeks and gave me a monoclonal covid shot to help me through the virus. After I recovered, the blood tests showed that the cancer was increasing.

I was discouraged as they decided to get more aggressive in February.

They put me back in the hospital and inlaid a three-port line into my chest that tunneled directly into my heart. They wasted no time and infused me through my new ports with 4 different chemotherapies at one time. They let the medicines drip into my veins for 72 straight hours. Then they started giving me another chemo shot in the stomach.

Chemo Blast

Somehow, I found the strength to get out of bed and walk in circles again. Somedays, I got up to 3 miles with Ivan beside me. (Ivan was the name of the IV pole that I pushed around.)

Rutemillers Army Pin

Every nurse along the way got a Rutemillers Army pin as I told them that I was going to be The first person cured of this dreaded cancer. Some of them said they believed me.

After they discharged me, I lost all my hair, but the Chemo Blast treatment was working. The cancer was receding quickly in my blood, but not fast enough.

We were quickly running out of time, so they decided to proceed with harvesting my stem cells to replace the cancer cells in my marrow. My body cooperated by delivering 11.5 million stem cells over two days of harvesting.

The time came on March 16th, to start the stem cell transplant. They hit me with the highest dose of Chemo to wipe out all my marrow producing cells.

Two days later, on March 18th, they infused me with 5.25 million of my own stem cells to take me back to my factory settings and froze the remaining cells. The treatment wiped out all my childhood vaccinations and any other ones in my life. I had no immune system and had to be isolated at home for 30 days as my marrow regenerated.

After 7 days, I unexpectedly vomited after lunch and then developed a fever. Mayo called in the Infectious Disease Team and identified five different bacteria in my blood. The wired me up to a broad-spectrum of antibiotics that wrecked my gut. I stayed in the hospital for five more days.

My red blood and plasma dropped to a critical point forcing two infusions of each. I went home in pain and finally succumbed to a pain killer for the first time, but for only two days.

10 days later the entire family caught norovirus. It took us all four days to recover from severe Gastrointestinal issues.

Since then, I have been getting stronger. Last week marked the 50th day since my transplant. I am back to pre-cancer exercise having swum 3000 yards this morning and hiking in the mountains on Tuesdays and Thursdays with Glenn Mills my Olympic standard.

The Mayo Doctors usually wait 100 days before testing, but because my cancer is so aggressive, they tested me on day fifty.

I was not expecting good news when I got a text from the doctor saying that they COULD NOT FIND ANY CANCER in my blood It is in the normal range!!! (Note he added three exclamation points.). So, after almost one year of positive prayers from everyone, and positive attitudes cheering me on, and regular exercise, I can say that my cancer is in EARLY REMISSION. We did it!!!

We now have the upper hand. Remission for my cancer can last 2-4 years, or longer. The way I see it, with the support of my lovely wife, and with the expertise of Mayo, guidance from my god (who surely got a few words from my mom who passed away 4 days ago), and the support of Rutemillers Army we will reach the goal of FINDING a cure

Brent Rutemiller CEO, President of International Swimming Hall of Fame

Link:
Brent Rutemiller's Cancer In Early Remission After 42 Weeks of Chemotherapy and Stem Cell Transplant - Swimming World Magazine

Read More...

Page 133«..1020..132133134135..140150..»


2025 © StemCell Therapy is proudly powered by WordPress
Entries (RSS) Comments (RSS) | Violinesth by Patrick