Anixa Biosciences Announces Japanese Patent on Ovarian Cancer Vaccine

On January 25, 2022 Anixa Biosciences, Inc. (NASDAQ: ANIX), a biotechnology company focused on the treatment and prevention of cancer and infectious diseases, reported that the Japanese Patent Office has issued a Decision to Grant of a patent to Cleveland Clinic titled, "Ovarian Cancer Vaccines (Press release, Anixa Biosciences, JAN 25, 2022, View Source [SID1234606764])." The technology was invented by Drs. Vincent K. Tuohy, Suparna Mazumder and Justin M. Johnson at Cleveland Clinic. Anixa is the worldwide licensee for the vaccine technology. Patents for the technology were issued in the U.S. and Europe in 2021.

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"We’re pleased to announce this additional intellectual property protection of Anixa’s novel ovarian cancer vaccine, which was developed at Cleveland Clinic and is being studied at NCI. This unique technology has the potential to be the first vaccine to prevent ovarian cancer, which remains one of the most devastating and difficult-to-treat cancers," said Dr. Amit Kumar, CEO, President and Chairman of Anixa Biosciences. "If successful, this vaccine could prevent ovarian cancer from ever occurring and spare patients from undergoing chemotherapy and extensive surgical treatments, and potentially save lives. We look forward to continuing our preclinical work in the hope that this vaccine will add to the arsenal needed to target this challenging cancer and ultimately make a difference for many patients."

The ovarian cancer vaccine targets the extracellular domain of anti-Müllerian hormone receptor 2 (AMHR2-ED), which is expressed in the ovaries but disappears as a woman reaches and advances through menopause. Of note, the majority of ovarian cancer diagnoses occur after menopause, and AMHR2-ED is expressed again in the majority of ovarian cancers. By receiving a vaccine such as Anixa’s that targets AMHR2-ED after reaching menopause, ovarian cancer, historically one of the most aggressive gynecological cancers, could be prevented from ever developing.

Preclinical work to advance the vaccine is ongoing through the PREVENT Program at the National Cancer Institute (NCI), which supports preclinical innovative interventions and biomarkers for cancer prevention and interception. Preclinical data published in Cancer Prevention Research in 2017 supports ongoing advancement toward clinical studies.

48Hour Discovery and Fusion Pharmaceuticals to Develop Radiopharmaceuticals for the Treatment of Cancer Tumours

On January 25, 2022 48Hour Discovery and Fusion Pharmaceuticals to Develop Radiopharmaceuticals for the Treatment of Cancer Tumours (Press release, 48Hour Discovery, JAN 25, 2022, View Source [SID1234606763]).

48Hour Discovery Inc. (48HD), a biopharmaceutical company specializing in peptide-derived drug discovery reported that the company has entered into a strategic research collaboration with Fusion Pharmaceuticals. This is 48HD’s first collaboration with a Canadian company. The goal of the collaboration is to discover novel, peptide-based radiopharmaceuticals for the treatment of various solid tumours.

"We are excited to work with a dynamic oncology company like Fusion Pharmaceuticals" said Ratmir Derda, CEO of 48Hour Discovery "In this collaboration, 48Hour Discovery will identify potent ligands for targets selected by Fusion. This project will further validate the potential of our billion-scale molecular libraries and cloud-based discovery pipeline to accelerate the advance of peptide drug candidates in the radiopharmaceutical field."

"Fusion’s versatile platform, supported by our internal research capabilities, allows us to create targeted alpha therapies (TATs) using different classes of targeting molecules, tailoring the approach based upon the disease target," said Fusion Chief Executive Officer John Valliant, Ph.D. "With our antibody, bispecific, and small molecule programs in the clinic or progressing through investigational new drug-enabling studies, we are excited to announce our work with peptides. Partnering with a global leader like 48Hour Discovery in peptide discovery further diversifies our capabilities and assets needed to create differentiated TATs in multiple areas of high unmet medical need."

Notice of Preliminary Results

On January 25, 2022 Redx (AIM: REDX), the clinical-stage biotechnology company focused on discovering and developing novel, small molecule, highly targeted therapeutics for the treatment of cancer and fibrotic disease, reported that it will be releasing its preliminary results for the full year ended 30 September 2021 on 27 January 2022 (Press release, Redx Pharma, JAN 25, 2022, View Source [SID1234606762]).

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A live webcast for analysts and investors will be held at1.00pm GMT (8.00am ET) on 27 January 2022. To join the webcast, please register in advance at https://bit.ly/3IobDLs

A recording of the webcast will be made available on Redx’s website following the results meeting.

New study published in Translational Medicine highlights cell avidity’s power as a functional biomarker for improved CAR-T design in preventing tumor escape

On January 25, 2022 LUMICKS, a next generation life science tools company, reported that research findings from a consortium, led by researchers at Cancer Center Amsterdam, Amsterdam University Medical Centers, published in Science Translational Medicine, detailed a novel design strategy for preventing tumor escape through improved chimeric antigen receptor (CAR) T cell therapy for common blood cancers (Press release, LUMICKS, JAN 25, 2022, View Source;utm_medium=rss&utm_campaign=new-study-published-by-group-of-maria-themeli-cell-aviditys-power-as-a-functional-biomarker-for-improved-car-t-design-in-preventing-tumor-relapse [SID1234606761]).

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Using both cell avidity measurements, as provided by LUMICKS’ z-Movi Cell Avidity Analyzer, and traditional immuno-assays, the researchers successfully demonstrated that co-expression of costimulatory receptors (CCR) along with an FDA approved BCMA and CD19 CAR can improve both durability of potential treatments as well as sensitivity to recognize and lyse various variants of multiple myeloma and acute lymphoblastic leukemia with low antigen density. This innovative dual-targeting approach provides an exciting new avenue for next-generation therapies that may overcome many common problems of current approved therapies, including high rates of relapse. The study was published in the December 2021 issue of Science Translational Medicine.

In the study profiled, the researchers set out to characterize the dual targeting system through co-expression of high-affinity engagement of co-stimulatory molecules with a BCMA CAR. Using LUMICKS’ z-Movi Analyzer, the researchers were able to determine that dual targeting with CD38-binding CCR enhanced the cytotoxicity of BCMA-CAR-T cells by increasing their binding avidity. This increasing activity improved the overall sensitivity of these cells as compared to other approved therapies. The measurement of cell avidity’s power as a functional biomarker provided strong support for the mechanism of action underlying these results and a rational basis for ongoing efforts to improve next-generation CARs for enhanced therapeutic efficacy.

"The z-Movi platform’s distinct ability to measure and quantify avidity provides a powerful tool for immuno-oncologists," said Maria Themeli, M.D., Ph.D. Assistant Professor at Amsterdam UMC and corresponding author of the study. "The instrument provided an essential piece of evidence in our investigation, giving us critical insight into how these engineered cells work and what is ultimately responsible for their changes in behavior with this new dual-targeting strategy. Understanding mechanism of action is fundamentally important for any effective drug development study."

The LUMICKS z-Movi platform provides the unique ability to measure the avidity of hundreds of cells in parallel using an intuitive and convenient workflow based on the application of acoustic force. The strength of interaction between single targeting (first generation) and double-targeting T cells and MM1.S target cells was measured in the study. Statistically robust differences in avidity were measured between the two CAR designs, demonstrating the underlying cause of the enhanced cytotoxicity of the dual targeting system.

"This innovative new work, highlighting LUMICKS’ z-Movi as a critical tool to enable CAR-T developers to precisely understand fundamental principles of therapy design, is both exciting and important," said Andrea Candelli, Ph.D., Chief Scientific Officer and co-founder of LUMICKS. "This is the first step in our mission to demonstrate and validate the power of cell avidity as the biomarker for immuno-oncology research and development."

Evotec enters iPSC-based drug discovery partnership with Boehringer Ingelheim in ophthalmology

On January 25, 2022 Evotec reported that the Company has entered a target and drug discovery partnership with Boehringer Ingelheim, focusing on induced pluripotent stem cell ("iPSC")-based disease modelling for ophthalmologic disorders (Press release, Evotec, JAN 25, 2022, View Source [SID1234606760]). Millions of people are affected by vision-related diseases worldwide, and there is a high unmet need for novel therapeutic solutions.

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Through phenotypic screening of human iPSC-derived cells, supported by Evotec’s PanOmics platform, Evotec will identify small molecules able to modulate disease phenotypes, and then validate the underlying promising targets for potential therapeutic interventions. Boehringer Ingelheim will then continue with the discovery and development of potential therapeutic candidates. Besides an undisclosed upfront and FTE-based research payment, Evotec will continue to benefit from the successful further development of the candidates in the form of milestones and layered royalties.

Dr Cord Dohrmann, Chief Scientific Officer of Evotec, commented: "We are excited to utilise our unique iPSC- and PanOmics-based approaches to ophthalmologic diseases in this new partnership with Boehringer Ingelheim. Phenotypic screening approaches have a long history of delivering highly effective drugs based on novel molecular mechanisms. Phenotypic screens based on human iPSC-derived disease models combined with our unbiased PanOmics readouts are more likely to deliver disease relevant drugs than any other cell-based screening approach."