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Additional Analytical Results of the US-Based Phase 2b Clinical Trial of Regenerative Cell Medicine SB623 for the Treatment of Chronic Motor Deficit…

Posted: September 15, 2020 at 8:58 am

TOKYO--(BUSINESS WIRE)--SanBio Co., Ltd. (headquarters: Chuo-ku, Tokyo, Representative Director and President: Keita Mori, hereafter SanBio) hereby announces that it has obtained new analytical results from the Phase 2b clinical trial (the trial) of SB623 for the treatment of chronic motor deficit resulting from ischemic stroke the SanBio Group (SanBio Co., Ltd. and its subsidiary SanBio, Inc.) conducted in the US. It also announces that based on the newly obtained results, it has updated its development plans, including in regard to late-stage clinical trials for the ischemic stroke and hemorrhagic stroke programs of SB623 in Japan.

The trial evaluated efficacy and safety of SB623 in 163 patients suffering from chronic motor dysfunction from ischemic stroke. On January 29, 2019, SanBio announced that the trial did not meet its primary endpoint, as it failed to demonstrate statistical significance in the difference in the proportion of patients whose Fugl-Meyer Motor Scale (FMMS) score improved by 10 or more points from the baseline (primary endpoint) between the treatment group that received SB623 and the control group. Since then, the SanBio Group had continued to work on additional analysis of the trial data, and results of the additional analysis are as follows.

In conducting the additional analysis, from the perspective of minimal clinically important difference (MCID, or the minimal change in scores or other metrics that could be interpreted to mean the change in a patient is clinically meaningful) and based on the results of the Phase 2 clinical trial of SB623 for the treatment of chronic motor deficit from traumatic brain injury (TBI; STEMTRA trial), the company reevaluated trial data using composite FMMS. Of the total 163 patients enrolled in the trial, the company specifically looked at 77 patients who had infarct areas smaller than a certain size (47% of all patients enrolled in this trial). The SanBio Group evaluated the proportion of patients that met one or more of the following FMMS score improvement criteria 24 weeks after treatment: 6-point improvement on FMMS score for upper extremity, 4-point improvement on FMMS score for lower extremity, and 9-point improvement on FMMS total score (all from the baseline). Of the 51 patients in the treatment group that received SB623, improvement was seen in 49%, versus in 19% of 26 patients in the control group that received sham surgery, the difference between the two groups being statistically significant (p-value of 0.02). SanBio Group thinks that even compared to the primary endpointthe proportion of patients whose FMMS score improved by 10 or more points over the baseline six months after treatmentthe endpoint using composite FMMS can adequately explain clinical significance of the treatment efficacy. Details of the additional analysis results will be announced at the financial results briefing for institutional investors and the media held on September 15, 2020. The briefing video will be made available to the public on our website on the 16th of September or thereafter.

Based on the above results, the SanBio Group has begun preparations for the next late-stage clinical trials in the ischemic stroke and hemorrhagic stroke programs of SB623. 2021. Specific designs of the clinical trials and the contents of development for those two programs will be announced promptly upon being finalized. To maximize the value of SB623 at an early stage by selecting areas to focus the Groups management resources on, the SanBio Group plans to prioritize the development of the ischemic stroke and hemorrhagic stroke programs in Japan at the same time as it prepares to file for approval of SB623 for the treatment of chronic motor deficit resulting from TBI in Japan by the end of the current fiscal year (ending January 2021). The Group, however, postponed the global Phase 3 clinical trial for the TBI program of SB623 it had planned to commence this fiscal year to the next or subsequent fiscal years.

Many patients suffering from the chronic effects of ischemic stroke are said to be regularly taking drugs to prevent recurrence. However, because there is no drug that can fundamentally cure motor dysfunction, there is high unmet need for therapeutic drugs to restore motor functions for patients in the chronic phase of stroke. The SanBio Group aims to contribute to improving the lives of these patients, as well as of their family members, suffering from motor impairment and difficulties it causes in carrying out their daily lives through SB623.

About SB623

SB623 is an allogeneic mesenchymal stem cell produced by modifying and culturing bone marrow derived from healthy donors. Implantation of SB623 cells into nerve tissues is expected to promote regeneration of damaged nerve cells. Because SB623 is made from allogeneic cells, large-scale production is possible and there is no need for complex cell processing required for treatments using autologous cells, e.g., cell preparation for each patient at medical institutions. Hence, pharmaceutical products made from allogeneic cells, such as SB623, can be provided to many patients in uniform quality.

About SanBio Co., Ltd. and SanBio, Inc.

SanBio Group is engaged in the regenerative cell medicine business, spanning research, development, manufacture, and sales of regenerative cell medicines. The Companys propriety regenerative cell medicine product, SB623, is currently being investigated for the treatment of several conditions including chronic neurological motor deficit resulting from traumatic brain injury and ischemic stroke. The Company is headquartered in Tokyo, Japan and Mountain View, California, and additional information about SanBio Group is available at https://sanbio.com.

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Additional Analytical Results of the US-Based Phase 2b Clinical Trial of Regenerative Cell Medicine SB623 for the Treatment of Chronic Motor Deficit...

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Alexion and Caelum Biosciences Announce Start of Phase 3 Studies of CAEL-101 in AL Amyloidosis – Business Wire

Posted: September 15, 2020 at 8:58 am

BOSTON & BORDENTOWN, N.J.--(BUSINESS WIRE)--Alexion Pharmaceuticals, Inc. (NASDAQ:ALXN) and Caelum Biosciences today announced the initiation of the Cardiac Amyloid Reaching for Extended Survival (CARES) Phase 3 clinical program to evaluate CAEL-101, a first-in-class amyloid fibril targeted therapy, in combination with standard-of-care (SoC) therapy in AL amyloidosis. The CARES clinical program includes two parallel Phase 3 studies one in patients with Mayo stage IIIa disease and one in patients with Mayo stage IIIb disease and will collectively enroll approximately 370 patients globally. Enrollment is underway in both studies. The primary objective of the clinical program is to assess overall survival.

In AL amyloidosis, misfolded amyloid proteins can build up in many organs throughout the body, including the heart and kidneys, causing significant damage to these organs and impairing their function. While current treatments address the bone marrow disorder that creates the misfolded amyloid proteins, there are no approved therapies for the significant organ damage the disease causes, said John Orloff, M.D., Executive Vice President and Head of Research and Development at Alexion. CAEL-101 has the potential to be the first treatment to target and remove the amyloid deposits from these organs. Data from Phase 1 studies suggest that this treatment approach may improve organ function and long-term survival. We look forward to investigating this further in the Phase 3 clinical program.

AL amyloidosis is particularly devastating when it affects the heart, with median survival in these patients of less than one year following diagnosis, said Michael Spector, President and Chief Executive Officer of Caelum. Long-term survival data from AL amyloidosis patients treated with CAEL-101 in the Phase 1a/1b study showed that 78 percent were still alive after a median follow-up time of more than three years. We recognize the urgent need for new treatments that address the organ damage caused by AL amyloidosis and are working together with the AL amyloidosis community and Alexion to advance the Phase 3 clinical program as quickly as possible.

About the CARES Phase 3 Clinical Program

The CARES clinical program consists of two parallel double-blind, randomized, event-driven global Phase 3 studies, which are evaluating the efficacy and safety of CAEL-101 in AL amyloidosis patients who are newly diagnosed and nave to standard of care (SoC) treatment (cyclophosphamide-bortezomib-dexamethasone (CyBorD) chemotherapy). One study is enrolling approximately 260 patients with Mayo stage IIIa disease and one study is enrolling approximately 110 patients with Mayo stage IIIb disease. The studies will be conducted at approximately 70 sites across North America, the United Kingdom, Europe, Israel, Japan, and Australia.

In each study, participants are being randomized in a 2:1 ratio to receive either CAEL-101 plus SoC or placebo plus SoC once weekly for four weeks. This will be followed by a maintenance dose administered every two weeks until the last patient enrolled completes at least 50 weeks of treatment. Patients will continue follow-up visits every 12 weeks.

The primary study objectives are overall survival and the safety and tolerability of CAEL-101. Key secondary objectives will assess functional improvement in the six-minute walk test (6MWT), quality of life measures (Kansas City Cardiomyopathy Questionnaire Overall Score & Short Form 36 version 2 Physical Component Score) and cardiac improvement (Global Longitudinal Strain, or GLS).

Phase 2 Study Results

The Phase 2 open-label dose escalation study was conducted to investigate higher doses of CAEL-101 than had been evaluated in Phase 1 studies with a primary objective to identify the best dose to advance into Phase 3 development. The study evaluated the safety and tolerability of CAEL-101 in 13 AL amyloidosis patients at three study sites who received up to 1000 mg/m2 of CAEL-101 (two times the Phase 1 dose) administered in combination with SoC treatment. The study met its primary objectives, supporting the safety and tolerability of CAEL-101 and the selection of the 1000 mg/m2 dose for the Phase 3 study.

Phase 1a/1b Long-Term Follow-Up Results Presented at ISA 2020

As previously reported, the Phase 1a/1b study of CAEL-101 was the first clinical trial to demonstrate improvement in cardiac function via GLS after treatment with an amyloid fibril targeted therapy in AL amyloidosis patients with amyloid cardiac involvement. New long-term follow-up data from the Phase 1a/1b study will be presented at the virtual International Symposium on Amyloidosis (ISA), September 14 to 18, 2020, in the poster titled, Long term follow-up of patients with AL amyloidosis treated on a phase 1 study of Anti-Amyloid Monoclonal Antibody CAEL-101 (Abstract #342, Divaya Bhutani, M.D., et. al, Columbia University Medical Center). These data demonstrate 78 percent survival (15/19) at a median follow-up of more than three years (37 months) in AL amyloidosis patients treated with CAEL-101 as well as durable organ response among evaluable patients, further supporting the advancement of CAEL-101 into Phase 3 development.

About CAEL-101

CAEL-101 is a first-in-class monoclonal antibody (mAb) designed to improve organ function by reducing or eliminating amyloid deposits in the tissues and organs of patients with AL amyloidosis. The antibody is designed to bind to misfolded light chain protein and amyloid and shows binding to both kappa and lambda subtypes. In a Phase 1a/1b study, CAEL-101 demonstrated improved organ function, including cardiac and renal function, in 27 patients with relapsed and refractory AL amyloidosis who had previously not had an organ response to standard of care therapy. CAEL-101 has received Orphan Drug Designation from both the U.S. Food and Drug Administration and European Medicine Agency as a therapy for patients with AL amyloidosis.

About AL Amyloidosis

AL amyloidosis is a rare systemic disorder caused by an abnormality of plasma cells in the bone marrow. Misfolded immunoglobulin light chains produced by plasma cells aggregate and form fibrils that deposit in tissues and organs. This deposition can cause widespread and progressive organ damage and high mortality rates, with death most frequently occurring as a result of cardiac failure. Current standard of care includes plasma cell directed chemotherapy and autologous stem cell transplant, but these therapies do not address the organ dysfunction caused by amyloid deposition, and up to 80 percent of patients are ineligible for transplant.

AL amyloidosis is a rare disease but is the most common form of amyloidosis. There are approximately 22,000 patients across the United States, France, Germany, Italy, Spain and the United Kingdom. AL amyloidosis has a one-year mortality rate of 47 percent, 76 percent of which is caused by cardiac amyloidosis.

About Alexion

Alexion is a global biopharmaceutical company focused on serving patients and families affected by rare diseases and devastating conditions through the discovery, development and commercialization of life-changing medicines. As a leader in rare diseases for more than 25 years, Alexion has developed and commercializes two approved complement inhibitors to treat patients with paroxysmal nocturnal hemoglobinuria (PNH) and atypical hemolytic uremic syndrome (aHUS), as well as the first and only approved complement inhibitor to treat anti-acetylcholine receptor (AchR) antibody-positive generalized myasthenia gravis (gMG) and neuromyelitis optica spectrum disorder (NMOSD). Alexion also has two highly innovative enzyme replacement therapies for patients with life-threatening and ultra-rare metabolic disorders, hypophosphatasia (HPP) and lysosomal acid lipase deficiency (LAL-D) as well as the first and only approved Factor Xa inhibitor reversal agent. In addition, the company is developing several mid-to-late-stage therapies, including a copper-binding agent for Wilson disease, an anti-neonatal Fc receptor (FcRn) antibody for rare Immunoglobulin G (IgG)-mediated diseases and an oral Factor D inhibitor as well as several early-stage therapies, including one for light chain (AL) amyloidosis, a second oral Factor D inhibitor and a third complement inhibitor. Alexion focuses its research efforts on novel molecules and targets in the complement cascade and its development efforts on the core therapeutic areas of hematology, nephrology, neurology, metabolic disorders and cardiology. Headquartered in Boston, Massachusetts, Alexion has offices around the globe and serves patients in more than 50 countries. This press release and further information about Alexion can be found at: http://www.alexion.com.

[ALXN-P]

About Caelum Biosciences

Caelum Biosciences, Inc. (Caelum) is a clinical-stage biotechnology company developing treatments for rare and life-threatening diseases. Caelums lead asset, CAEL-101, is a novel antibody for the treatment of patients with amyloid light chain (AL) amyloidosis. In 2019, Caelum entered a collaboration agreement with Alexion under which Alexion acquired a minority equity interest in Caelum and an exclusive option to acquire the remaining equity in the company based on Phase 3 CAEL-101 data. Caelum was founded by Fortress Biotech, Inc. (NASDAQ: FBIO). For more information, visit http://www.caelumbio.com.

Forward-Looking Statement

This press release contains forward-looking statements that involve risks and uncertainties relating to future events and the future performance of Alexion and Caelum, including statements related to: the safety and efficacy CAEL-101 as a treatment for AL amyloidosis; CAEL-101 has the potential to be the first treatment to target and remove the amyloid deposits from the heart, kidney and other organs; data from the Phase 1 studies suggest that the treatment approach may improve organ function and long-term survival and enrollment of the Phase 3 trials. Forward-looking statements are subject to factors that may cause Alexion's and Caelums results and plans to differ materially from those expected by these forward looking statements, including for example: the anticipated safety profile and the benefits of the CAEL-101 may not be realized (and the results of the clinical trials may not be indicative of future results); the inability to enroll and complete the Phase 3 trial; results of clinical trials may not be sufficient to satisfy regulatory authorities; results in clinical trials may not be indicative of results from later stage or larger clinical trials (or in broader patient populations); the possibility that results of clinical trials are not predictive of safety and efficacy and potency of our products (or we fail to adequately operate or manage our clinical trials) which could cause us to discontinue sales of the product (or halt trials, delay or prevent us from making regulatory approval filings or result in denial of approval of our product candidates); the severity of the impact of the COVID-19 pandemic on Alexions or Caelums business, including on commercial and clinical development programs; unexpected delays in clinical trials; unexpected concerns regarding products and product candidates that may arise from additional data or analysis obtained during clinical trials or obtained once used by patients following product approval; future product improvements may not be realized due to expense or feasibility or other factors; delays (expected or unexpected) in the time it takes regulatory agencies to review and make determinations on applications for the marketing approval of our products; inability to timely submit (or failure to submit) future applications for regulatory approval for our products and product candidates; inability to timely initiate (or failure to initiate) and complete future clinical trials due to safety issues, IRB decisions, CMC-related issues, expense or unfavorable results from earlier trials (among other reasons); future competition from biosimilars and novel products; decisions of regulatory authorities regarding the adequacy of our research, marketing approval or material limitations on the marketing of our products; delays or failure of product candidates to obtain regulatory approval; delays or the inability to launch product candidates due to regulatory restrictions, anticipated expense or other matters; interruptions or failures in the manufacture and supply of our products and our product candidates; failure to satisfactorily address matters raised by regulatory agencies regarding our products and product candidates; uncertainty of long-term success in developing, licensing or acquiring other product candidates or additional indications for existing products; the adequacy of our pharmacovigilance and drug safety reporting processes; failure to protect and enforce our data, intellectual property and proprietary rights and the risks and uncertainties relating to intellectual property claims, lawsuits and challenges against us; the risk that third party payors (including governmental agencies) will not reimburse for the use of our products at acceptable rates or at all; delay of collection or reduction in reimbursement due to adverse economic conditions or changes in government and private insurer regulations and approaches to reimbursement; adverse impacts on supply chain, clinical trials, manufacturing operations, financial results, liquidity, hospitals, pharmacies and health care systems from natural disasters and global pandemics, including COVID-19 and a variety of other risks set forth from time to time in Alexion's filings with the SEC, including but not limited to the risks discussed in Alexion's Quarterly Report on Form 10-Q for the period ended June 30, 2020 and in their other filings with the SEC. Alexion disclaims any obligation to update any of these forward-looking statements to reflect events or circumstances after the date hereof, except when a duty arises under law.

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Alexion and Caelum Biosciences Announce Start of Phase 3 Studies of CAEL-101 in AL Amyloidosis - Business Wire

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Stem Cells Offer Hope of Treatment for COVID-19 Patients with Acute Respiratory Distress Syndrome (ARDS) – HospiMedica

Posted: September 15, 2020 at 8:57 am

Image: Mesenchymal stromal cells (MSC) (Photo courtesy of UCSF)

There is currently no drug to treat ARDS, which has a mortality rate of 27% for mild cases and 45% for the most severe cases. An early study on COVID-19 patients with ARDS found that only about 25% survive, though that percentage may be as high as 40%. The clinical trial is testing the effects of infusions of stem cells drawn from bone marrow in the hopes of finding a therapy for the deadly syndrome. Patients in a randomized double blind clinical trial are being given mesenchymal stem cells (MSCs) or placebo to test the effectiveness of the therapy. The trial hopes to repair the severe and often fatal lung damage in people suffering from ARDS.

MSCs are stromal cells found in bone marrow, play a key role in how human bodies make and repair skeletal tissues - things like bone and cartilage and support the cells in the bone marrow that produce red and white blood cells. Once researchers discovered that MSCs could modulate inflammation when transplanted into other people, they began exploring them as potential therapies for a range of diseases and traumas.

ARDS can be caused by trauma, bacterial infection, or a viral infection like COVID-19. In an earlier trial, the team had showed that MSCs are safe to use, and that they have promising benefits in treating patients with ARDS. In the current Phase 2 double blind clinical trial, the researchers are enrolling 120 ARDS patients who are adult ICU patients on ventilators with excess fluid in their lungs, and no sign of heart failure as a primary cause of the respiratory failure. Based on these outcomes and further studies on MSCs, the researchers view them as a possible route for cell-based therapy. Much like cancer treatment is not a single approach but instead different therapies tailored to the type of cancer cells, the use of something like MSCs could be perhaps tailored exactly to whatever specific kind of syndrome of respiratory failure.

Its a very interesting possible therapy, said Michael Matthay, MD, professor of medicine at the UCSF School of Medicine. Were really in the early phases of understanding these cell-based therapies.

Related Links:University of California San Francisco

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Stem Cells Offer Hope of Treatment for COVID-19 Patients with Acute Respiratory Distress Syndrome (ARDS) - HospiMedica

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Seeing the eye like never before | Newsroom – UW Medicine Newsroom

Posted: September 15, 2020 at 8:57 am

While there is no cure for blindness and macular degeneration, scientists have accelerated the process to find a cure by visualizing the inner workings of the eye and its diseases at the cellular level.

In an effort led by UW Medicine, researchers successfully modified the standard process of optical coherence tomography (OCT) to detect minute changes in response to light in individual photoreceptors in the living eye.

The results were published Sept. 9 in Science Advances.

We have now accelerated the life cycle of vision restoration, said lead author Vimal Prabhu Pandiyan, a ophthalmology researcherat the University of Washington School of Medicine.

The study was fundedin partby the National Eye Institutes Audacious Goals Initiative, which embraces bold ideas in helping people to see better.

The OCT modifications outlined in the study will help researchers who want to test therapiessuch as stem cells or gene therapy to treat retinal disease. They now have the tools to zoom in on the retina to evaluate whether the therapy is working.

Corresponding author Ramkumar Sabesan, a UW assistant research professor of ophthalmology, said the only wayto objectively measure the eye currently is to look at a wide retinal area. Sabesan said researchers currently can attach electrodes on the cornea but it captures a large area with around 1 million cells. Now they are talking about nanometers, or one billionth of a meter a small fraction of the size of a cell, providing orders of magnitude improvement.

Since photoreceptors are the primary cells affected in retinal generation and the target cells of many treatments, noninvasive visualization of their physiology at high resolution is invaluable, the researchers wrote.

Cone photoreceptors are the building blocks of sight, capturinglight and funneling information to the other retinal neurons. They are a key ingredient in how we process images and patterns of light falling on the retina.

Optical coherence tomography has been around since the 1990s. In this study, researchers used OCT with adaptive optics, line-scanning and phase-resolved acquisition to deliver the concept of Thomas Youngs interference to the human eye. With the ability to zoom in on the retina at high speeds, they found that cone photoreceptors deform at the scale of nanometers when they first capture light and begin the process of seeing.

As Sabesan explained: You can imagine a picture that looks visually and structurally normal. But when we interrogate the inner working of the retina at a cellular scale, we may detect a dysfunction sooner than what other modalities can do. A doctor then can prescribe medication to intervene early or follow the time-course of its repair via gene therapy or stem cell therapy in the future.

We will now have a way to see if these therapies are acting in the way they should, Sabesan said.

The study also involved researchers at Stanford University, University of California,Berkeley, and University of California, Riverside.

The study was funded by NIH grants U01EY025501, EY027941, EY029710, EY025501, and P30EY001730; Research to Prevent Blindness Career Development Award; Foundation Fighting Blindness; Murdock Charitable Trust; Burroughs Welcome Fund Careers at the Scientific Interfaces; and Unrestricted grant from the Research to Prevent Blindness.

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David Shavelle, MD, Named Medical Director of Adult Cardiology for the MemorialCare Heart & Vascular Institute at Long Beach Medical Center -…

Posted: September 15, 2020 at 8:57 am

The MemorialCare Heart & Vascular Institute at Long Beach Medical Centeris expanding its leadership team with accomplishedSouthern Californiacardiologist,David Shavelle, M.D., being named medical director of adult cardiology. Dr. Shavelle is bringing his extensive leadership experience in cardiology to this new role that will provide leadership and strategic direction for adult cardiology programs, as well as oversight for the interventional catheterization laboratories.

Dr. Shavelle, a Millikan High School (Long Beach, Calif.) graduate, is returning toLong Beachwith more than 20 years of cardiology practice, research leadership, and teaching experience. He joins Long Beach Medical Center from KeckMedical Center at the University of Southern California, where he served as the Director of Interventional Cardiology while leading a multitude of clinical research trials, including several focused on implanted devices for heart failure. He plans on increasing the availability ofclinical research trialsfor cardiology patients at Long Beach Medical Center.

The MemorialCare Heart & Vascular Institute has a rich history of research and pioneering new treatment techniques, says Ike Mmeje, chief operating officer, Long Beach Medical Center.

Dr. Shavelles passion for research makes him a perfect fit to continue that legacy and find the next cutting-edge treatment for our cardiology patients.

MemorialCare Heart & Vascular Institute facilities are among the most comprehensive centers for diagnosis, treatment and rehabilitation of cardiac disease, providing groundbreaking care for complex heart conditions, including myocardial infarction, heart failure, arrhythmias and peripheral vascular disease. In addition to his hopes to expand research opportunities, Dr. Shavelle plans on expanding the programs for heart failure and structural heart disease.

I am excited to join the MemorialCare Heart & Vascular Institute at Long Beach Medical Center, says Dr. Shavelle. My dad was a physician here, and many of my mentors and fellows are at Long Beach Medical Center. Im looking forward to creating more collaboration among cardiologists, surgeons, residents and the entire team to expand the already comprehensive cardiology care available to the community.

After earning his medical degree from theUniversity of California, Los Angeles(UCLA), Dr. Shavelle completed his internal medicine internship and residency at Harbor-UCLA Medical Center. He completed General Cardiology Fellowship at theUniversity of Washingtonand Interventional Cardiology Fellowship at Harbor-UCLA Medical Center/Good Samaritan Hospital. Dr. Shavelle served as Associate Professor at both the David Geffen School of Medicine atUCLAand the Keck School of Medicine at theUniversity of Southern California. He alsoserveson the editorial boards for theJournal of Cardiovascular Pharmacology and Therapeutics, Current Medical Research and Opinion and Cardiology Clinics.

The MemorialCare Heart & Vascular Institute delivering nearly 20,000 cardiovascular diagnostic tests and treatments last year continues to push the boundaries of discovery with many firsts. These began 70 years ago when world-renowned cardiologist, researcher and educator, the lateMervyn Ellestad, M.D., co-invented at Long Beach Medical Center the modern-day maximum stress test to detect heart disease. Today, millions of exercise stress tests performed annually save hundreds of thousands of lives globally.

It is amazing how the field of cardiology has grown and how many treatment options are available through minimally invasive techniques, says Dr. Shavelle. Many of these new treatment options have come from research trials, and Im looking forward to expanding the opportunities for patients in theLong Beacharea. The studies we have in the pipeline include trials with stem cells and heart failure devices.

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Global Epigenetics-Based Instruments Market Current Trends And Efficient Techniques, Forecast 2026|QIAGEN; Eisai Co., Ltd.; Novartis AG; Diagenode sa;…

Posted: September 15, 2020 at 8:53 am

Epigenetics-based instruments market is expected to register a substantial CAGR in the forecast period of 2019-2026. The report contains data from the base year of 2018 and the historic year of 2017. This rise in market value can be attributed to the various innovations and advancements of technologies associated with epigenetics.

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Few of the major competitors currently working in the global epigenetics-based instruments market arePacific Biosciences of California, Inc.; 10x Genomics; Illumina, Inc.; Merck KGaA; QIAGEN; Eisai Co., Ltd.; Novartis AG; Diagenode s.a.; Zymo Research; Active Motif, Inc.; Thermo Fisher Scientific Inc.; Agilent Technologies, Inc.; Bio-Rad Laboratories, Inc.; Bio-Techne among others.

Points to pounder

Key Developments in the Market:

Market Drivers

Market Restraints

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Segmentation: Global Epigenetics-Based Instruments Market

By Product

By Technology

By Application

By End-Users

ByGeography

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Global Epigenetics-Based Instruments Market Current Trends And Efficient Techniques, Forecast 2026|QIAGEN; Eisai Co., Ltd.; Novartis AG; Diagenode sa;...

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Epigenetic Therapy in Parents Protects Offspring From Ischemic Injury in Mouse Study – Technology Networks

Posted: September 15, 2020 at 8:53 am

Ischemic retinopathies, including glaucoma and diabetic retinopathy, are major causes of visual morbidity and blindness. New research from Louisiana State University Health Sciences Center in New Orleans shows that an epigenetic therapy reduces retinal injury from acute ischemia, not only in the animals that receive the treatment, but also in their untreated first-generation offspring.In a study published in the journal Investigative Ophthalmology & Visual Science, scientists treated male and female adult mice with one hour of mild-to-moderate systemic hypoxia three times per week for 16 weeks prior to mating.1 When their first-generation offspring reached adulthood, the response of their retina to transient, acute ischemic injury was functionally documented with scotopic electroretinography. Compared to age- and generation-matched controls, the ischemia-induced impairments in the retinas response to light in the mice derived from parents that received the epigenetic hypoxia treatment was reduced by 40-50%.

We knew from our previous work that a single exposure to systemic hypoxia would protect the adult retina from ischemia occurring one to two days thereafter, and that multiple doses over two weeks would extend that window of protection to two months, says senior author Dr Jeff Gidday.2,3 Gidday undertook the present study with the hope of showing that the duration of the induced, injury-resilient phenotype could be extended further, perhaps even into the next generation, if treatments continued for a much longer period of time.

As with most diseases, the pathologic mechanisms involved are diverse; activating innate, counter-responses to these injury mechanisms is the conceptual basis for epigenetics-based therapeutic strategies, like intermittent hypoxia. Gidday and his team contend that systemic hypoxia triggers changes in gene expression, but that the duration of the change is largely proportional to the frequency of this epigenetic stimulus. With prolonged treatment, even germ cells become reprogrammed, resulting in progeny that, as adults, exhibit this same inducible injury-resilient phenotype in the absence of treatment.

"We exposed mice to nonharmful hypoxia to trigger these adaptive changes," says first-author Jarrod Harman, a doctoral student in Dr Gidday's lab. But there are many epigenetic stimuli that might very well cause similar changes in gene expression, including exercise, and other 'positive' stressors. Not all stress is bad for you." These findings represent a converse example of the increase in disease susceptibility and incidence that is fairly well established to occur in progeny derived from parents repeatedly exposed to adverse, harmful stressors. To date, some rodent studies have shown that environmental enrichment can enhance baseline memory metrics in first-generation offspring, but the authors believe this is the first study to demonstrate, in mammals, that changes in the parental environment (in this case, intermittent exposure to whole-body hypoxia) can actually protect progeny against tissue injury.

The researchers also extensively analyzed the injury-resilient retinal phenotype using mass spectrometry to gain insights into the underlying mechanisms of neuroprotection. By comparing the protein profiles between mice derived from treated parents and mice derived from control parents, and then performing bioinformatic analyses of these hundreds of differentially expressed proteins, they identified dozens of biochemical pathways and networks that define the injury-resilient state. This included the reversal of a number of ischemia-induced changes in the expression of proteins and even protein subunits involved in the photoreceptor visual transduction pathway, which is responsible for the electroretinographic response to light that the authors measured as their functional metric of injury resilience. As examples, parental treatment abrogated the ischemia-induced reduction in the expression of rhodopsin by 2.5 fold, and enhanced the expression of the phosphodiesterase 6 -subunit, and several proteins (e.g., guanylate cyclase activator 1A), responsible for generating the dark current. Given the complexity of this intergenerational epigenetic response, using this big-data approach to illuminate the neuroprotective phenotype provides us and others a molecular foundation upon which more targeted, causal experiments can now be logically designed, Harman says.

Overall, the findings add to our understanding of the heritability of disease in this case, the heritability of disease resilience. "The direct inheritance of an induced, beneficial phenotype is what Lamarck famously proposed in 1809, the year Darwin was born," says Gidday. "Here we are, almost 200 years later, finding evidence to support this theory, despite it being largely displaced for the last 150 years by Darwin's Theory of Natural Selection. More than likely, both mechanisms are operative as a way to enhance both short- and long-term reproductive fitness."

References:

1. Harman JC, Guidry JJ, Gidday JM. Intermittent hypoxia promotes functional neuroprotection from retinal ischemia in untreated first-generation offspring: Proteomic mechanistic insights. Invest Ophthalmol Vis Sci (2020). doi:https://doi.org/10.1167/iovs.61.11.15.

2. Zhu Y, Ohlemiller KK, McMahan BK, Gidday JM. Mouse models of retinal ischemic tolerance. Invest Ophthalmol Vis Sci. (2002);43(6):1903-1911.

3. Zhu Y, Zhang Y, Ojwang BA, Brantley MA Jr, Gidday JM. Long-term tolerance to retinal ischemia by repetitive hypoxic preconditioning: role of HIF-1alpha and heme oxygenase-1. Invest Ophthalmol Vis Sci. 2007;48(4):1735-1743. doi:10.1167/iovs.06-1037.

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University of Miami Miller School Researcher Wins NIH Avenir Award to Pursue Innovative Opioid Addiction Research – Newswise

Posted: September 15, 2020 at 8:53 am

Newswise Luis M. Tuesta, Ph.D., assistant professor in the Department of Psychiatry and Behavioral Sciences at the University of Miami Miller School of Medicine, has been awarded the Avenir Award from the National Institute on Drug Abuse, part of the National Institutes of Health, to study the epigenetic mechanisms of microglial activation and their role in shaping the behavioral course of opioid use disorder. The goal is to find new therapeutic targets to prevent opioid relapse and achieve long-term abstinence.

Dr. Tuesta and the Miller School will receive $2.3 million over five years from the NIH. He is one of four researchers in the country to receive the award grant in 2020. Dr. Tuesta joined the Universitys medical faculty in 2019 following a postdoctoral fellowship at Harvard Medical School.

A Prestigious Grant

This is one of the very best and most prestigious grants that a young researcher can receive, said Claes Wahlestedt, M.D., Ph.D., associate dean for therapeutic innovation at the Miller School. As a former chair of the NIH Avenir Award Committee, Dr. Wahlestedt recognizes the distinct honor of receiving this competitive award.

Dr. Tuesta explained his labs novel approach to understanding opioid addiction.

Throughout the history of addiction research, the neuron has usually played the protagonist role, he said. We are now setting our sights on the brains supporting cast of cells and how these can shape drug craving and relapse.

Namely, he and his lab are studying microglia, the resident immune cell of the brain.

Opioids can hijack the very tools that microglia use for sounding the alarm in case of a physical, chemical or biological injury, Dr. Tuesta explained. This artificial state of alarm can lead to neuroinflammation and shape the way we crave for opioids, ultimately leading to relapse. We believe epigenetic regulation in microglia plays a fundamental role in orchestrating this chain of events.

Epigenetics refers to factors that determine how genes are expressed without involving changes in the DNA sequence itself. Dr. Tuestas team will explore how microglial genes become open and closed for business across various phases of opioid addiction, and how specific epigenetic remodelers can contribute to this regulation.

Exploring New Therapeutic Avenues

Results from these studies have the potential not just to broaden our understanding of the epigenetic mechanisms underlying opioid use disorder, but also to push the field of addiction epigenetics beyond the neuron and explore a cell type that could yield exciting and completely different therapeutic avenues for the treatment of this devastating disease.

Ideally, a treatment drug would reverse changes in microglia brought on by opioids and curb the intense craving associated with opioid abstinence and withdrawal. Such an approach could help reduce the likelihood of relapse in recovering individuals.

Ultimately, we want to manipulate the root of the craving with a drug to change the behavioral course of addiction, Dr. Tuesta said.

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Inherent Biosciences Wins $256K NSF Grant to Predict COVID-19 Infection Severity and Treatment Response – KPVI News 6

Posted: September 15, 2020 at 8:53 am

SALT LAKE CITY, Sept. 9, 2020 /PRNewswire/ --Inherent Biosciences, a biotechnology company headquartered in Salt Lake City, UT, today announced a $255,959 award from the National Science Foundation (NSF) to study epigenetic biomarkers to predict patient response to SARS-CoV2 (COVID-19) infection. The Small Business Innovation Research (SBIR) Phase I project aims to develop an on-site, clinical test to screen incoming patients potentially infected with COVID-19 and prioritize hospital resources and personnel based on a predicted infection severity and treatment response.

The variation in symptoms and outcomes for COVID-19 progression makes it challenging for health care workers to triage patients accurately. The development of a DNA methylation-based test to predict the severity of COVID-19 infection has tremendous potential for managing current and future pandemics.

"NSF is proud to support the technology of the future by thinking beyond incremental developments and funding the most creative, impactful ideas across all markets and areas of science and engineering," said Andrea Belz, Division Director of the Division of Industrial Innovation and Partnerships at NSF. "With the support of our research funds, any deep technology startup or small business can guide basic science into meaningful solutions that address tremendous needs."

Andy Olson, Co-founder and CEO of Inherent Biosciences, remarked: "We're thrilled to announce this award, which will enable us to expand our discovery and commercialization pipeline into the area of infectious disease - a critical area as witnessed by the COVID-19 pandemic we're living through."

The award provides support for Inherent to generate a comprehensive dataset of white blood cell DNA methylation patterns, health history, and clinical data for patients infected with COVID-19. The company then uses artificial intelligence (AI) and machine learning to identify DNA methylation biomarkers predictive of disease severity and treatment response.

Kristin Brogaard, Ph.D., Co-founder and COO of the company, and Principal Investigator for the project added: "Our focus is translating epigenetic discoveries, specifically DNA methylation biomarkers, from research discoveries into commercial products that benefit consumers, patients and health care providers."

Inherent has already translated one epigenetic discovery into a commercial product. The company's first product called "Path" (PathFertility.com) is for couples trying to conceive. Path is marketed directly to consumers as a general wellness sperm DNA test related to maintaining or encouraging a general state of health, specifically male reproductive health.

About Inherent Biosciences- Inherent Biosciences, Inc. is a molecular diagnostics company at the intersection of epigenetics and AI. Inherent believes that guesswork and trial-and-error medicine lead to severe pain and suffering. Inherent's vision is to revolutionize trial and error medicine and restore hope. The company does this by discovering what is inherent in our biology about the unexplained and translating discoveries into personal insights that inform actions. Learn more at http://www.inherentbio.comor connect on LinkedIn.

Contact: Inherent Biosciences, Inc.

Andy Olson, CEO

Phone: (509) 496-1204

Email: andy@inherentbio.com

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Personalized Medicine, Genetic Testing Could Shape the Future of Non-Small Cell Lung Cancer – Curetoday.com

Posted: September 12, 2020 at 9:57 pm

While identifying new genetic targets and developing novel drugs is important for the future of non-small cell lung cancer (NSCLC), more emphasis should be put on improving patient access to existing targeted treatments, according to Dr. Nathan A. Pennell.

In an interview with OncLive, CUREs sister publication, Pennell, an associate professor in thedepartment of medicine and director of the lung cancer medical oncology program at theTaussig Cancer Institute of Cleveland Clinic,spoke about current and emerging treatment options in NSCLC, including immunotherapy combinations and personalized treatments involving T cells.

But when it comes to the future, Pennell said, identifying targetable genetic alterations in patients and treating them with existing drugs should be a key area of focus.

Studies have shown that probably fewer than half of people with targetable genetic alterations in lung cancer are being identified and never receiving treatment for this, Pennell said, and I think before we move on to the next exciting drug or the next exciting marker, we should spend a little time making sure that every patient is identified and gets access to the treatments that we already have.

Transcription:

We've made such tremendous progress over the last decade. And just it seems like every year, new targets are emerging and new drugs are getting approved. And so, the speed with which we're moving from discovery to actually treating people has been staggering, and I hope that continues.

There continue to be very promising emerging biomarkers including KRAS mutations, again, HER2 mutations. There certainly is lots of room for improving the efficacy of immunotherapy, which can be tremendously life changing and potentially even curative in patients with metastatic disease. But unfortunately, it's only really working in a minority of patients and so lots of room to be improved in that.

I think combinations of immunotherapy and perhaps even more personalized immunotherapy, using T-cells that recognize individual patients tumors, may be the future for this, or personalized tumor vaccines.

But honestly, instead of just focusing on discovering new treatments and new targets, I think we should focus more on applying what we already know. So, we have tremendous treatments for patients with specific subgroups of lung cancer, but studies have shown that probably fewer than half of people with targetable genetic alterations in lung cancer are being identified and never receiving treatment for this. And I think before we move on to the next exciting drug or the next exciting marker, we should spend a little time making sure that every patient is identified and gets access to the treatments that we already have.

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