GSK and the University of Oxford launch new Oxford-GSK Institute to harness advanced technology and unravel mechanisms of disease

On December 2, 2021 GlaxoSmithKline plc and the University of Oxford reported a major five-year collaboration to establish the Oxford-GSK Institute of Molecular and Computational Medicine (Press release, GlaxoSmithKline, DEC 2, 2021, View Source [SID1234596388]). The new Institute, which will be based at the University of Oxford, aims to improve the success and speed of research and development of new medicines, building on insights from human genetics and using advanced technologies such as functional genomics and machine learning.

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Genetic evidence has already been shown to double success rates in clinical studies of new treatments, and the digitisation of human biology has the potential to improve drug discovery by more closely linking genes to patients. The new Institute aims to build on this scientific progress and improve how diseases are understood by drawing on recent advances in pathology, including how to measure changes on a cellular, protein, or tissue level.

Backed by £30 million from GSK, the Institute is intended to pioneer further improvements in how new medicines are discovered and developed. For example, scientists from GSK and Oxford will help prioritise those early R&D programmes most likely to succeed and match them to patients most likely to respond.

The Institute will evaluate and integrate new approaches in genetics, proteomics and digital pathology to understand detailed patterns of disease which vary amongst individuals. The initial focus of research will be on neurological diseases, such as Alzheimer’s and Parkinson’s Disease.

Prime Minister Boris Johnson said: "We saw first-hand during the pandemic how the ingenuity and pioneering spirit of UK scientists and the R&D sector saved thousands of lives, with the rapid development and delivery of medicines and vaccines around the world.

"I am delighted to see that GSK and the University of Oxford are today taking further steps to deepen our understanding of some of the most complex diseases, such as Parkinson’s. Together they will harness the power of scientific collaboration to progress cutting-edge technologies and accelerate drug discovery – helping to cement the UK’s role as a life sciences superpower."

Emma Walmsley, Chief Executive Officer, GSK said: "We are delighted to be joining with the University of Oxford in this new collaboration. By combining the strengths of our two scientific organisations and harnessing advanced technologies, the Oxford-GSK Institute exemplifies the UK’s track-record and continued ambition in life sciences. Together, our aim is to improve drug discovery and development to help bring new and better medicines for patients."

Professor Louise Richardson, Vice-Chancellor of the University of Oxford, said: "On behalf of colleagues across Oxford I would like to say how delighted we are by this new initiative with GSK. The Institute will create a unique partnership with staff from the university’s medical school and GSK working side-by-side to research and develop treatments for some of the most difficult to treat diseases. In addition, the Institute, in keeping with our educational mission, will provide training and build capacity in Britain’s academic and bioscience sectors."

The genetic and genomic revolution of the past decade has amassed vast datasets of promising targets for medicine discovery. These datasets can be combined with functional genomics to provide deep understanding of disease at a molecular level.

By harnessing this understanding, as well as the power of machine learning, the Institute will uncover new indicators and predictors of disease and use them to accelerate the most promising areas for drug discovery. This is particularly important for GSK as it prioritises the large number of genetically informed drug targets generated from its collaborations with organisations, such as 23andMe and UK Biobank. The Institute will also aim to provide new measurements to establish proof of concept for potential medicines earlier in the R&D process, by better identifying the most appropriate patients to enrol in clinical trials, thus accelerating drug development timelines.

GSK and Oxford bring complementary capabilities and expertise into the Institute. GSK has leading capabilities in human genetics and functional genomics, and an in-house artificial intelligence and machine learning function, including its AI hub in central London. The University of Oxford has similar expertise but together they will be using patient, molecular information and state-of-the-art platforms to pinpoint the GSK targets that are most likely to succeed and be developed into safe, effective, disease mechanism-based medicines.

Diseases driven by neuro-immunological mechanisms including Alzheimer’s, Parkinson’s, Multiple Sclerosis (MS), Frontal Temporal Dementia, Amyotrophic Lateral Sclerosis (ALS) and Pain will be within the initial scope of the Institute. GSK has a rich pipeline of genetically informed targets and clinical projects in these areas.

The Institute will recruit a number of new research groups, in addition to drawing upon existing expertise from both GSK and Oxford. Five GSK/Oxford fellowships will be provided for early to mid-career researchers to establish themselves as Principal Investigators researching areas aligned with the Institute’s aims and objectives.

The Institute will have its base in the Nuffield Department of Medicine, and be closely associated with colleagues from across departments, including the University’s Wellcome Centre for Human Genetics and Big Data Institute. GSK and Oxford are in active discussions regarding the nature of the first projects which are anticipated to start in the second half of 2022 and will use the latest laboratory and data science platforms and approaches. A completely new way of collaborating will be established where research teams will have both GSK and University members, including secondments between both institutions.

The Directors of the Institute will be Professor John Todd, Director of the Wellcome Centre for Human Genetics and Dr Tony Wood, SVP, Medicinal Science and Technology at GSK.

Clarity and Cardinal Health enter into Agreement for Targeted Copper Theranostics

On December 2, 2021 Clarity Pharmaceuticals (ASX: CU6) ("Clarity"), a clinical-stage radiopharmaceutical company developing next-generation products to address the growing needs in oncology, and Cardinal Health (NYSE: CAH), reported that the companies have entered into an agreement covering Clarity’s Targeted Copper Theranostics (TCT) platform (Press release, Clarity Pharmaceuticals, DEC 2, 2021, View Source [SID1234596385]).

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Cardinal Health will provide cGMP product manufacturing of ready-to-use TCT for Clarity’s U.S.-based clinical trials from its Center for Theranostics Advancement in Indianapolis, Indiana. TCT are investigational radiopharmaceuticals that pair copper-64 (64Cu) and copper-67 (67Cu) for diagnosis and therapy.

With more than 40 years of experience in the radiopharmaceutical industry, Cardinal Health provides radiopharmaceutical development support, manufacturing, preparation, commercialization, and business and practice management solutions across the care delivery continuum from origin to patient administration. Its Center for Theranostics Advancement is helping shape the future of precision medicine by providing radiopharmaceutical innovators the solutions they need at every stage of the product lifecycle.

Clarity’s Executive Chairman, Dr Alan Taylor, said, "We are pleased to have further strengthened and expanded our U.S. manufacturing capabilities, ensuring seamless product supply for our clinical trials, including those in cancer indications with large patient populations. Cardinal Health has an intricate understanding of the supply chain requirements for copper-based products and the capability to mass-produce these products.

"This is a testament to Clarity’s pairing of copper isotopes fitting into the ‘goldilocks zone’ of half-lives when considering biological half-life of the targeting moieties, centralized manufacture, and broad distribution. The half-life of copper-64 is nearly identical to that of iodine-123, for which Cardinal Health has an established and robust distribution system across the U.S. For the therapeutic isotope copper-67, centralized distribution is well proven in an isotope of comparable half-life, yttrium-90, or the much shorter half-life of samarium-153."

Cardinal Health Nuclear & Precision Health Solutions President Mike Pintek, said, "We are excited to be working together with Clarity on the manufacturing and pharmacy dispensing of the TCT platform of investigational products. The 64Cu and 67Cu isotope pairing holds great promise for the field of radiopharmaceuticals as they are ideally suited for central manufacturing of cGMP ready-to-use products; they will fit easily within our broad distribution network. We are very pleased to enter this agreement and hope it will be another avenue for us to help improve access to next-generation radiopharmaceuticals for diagnosis and treatment of a range of cancers."

Dr Alan Taylor said, "Clarity’s TCT platform is clearly differentiated in the radiopharmaceutical field as all products, once approved by the FDA, can be provided as ready-to-use to patients in any location in the U.S. from a single manufacturing site. The manufacturing agreement with Cardinal Health, in addition to the recent manufacturing agreement signed with Evergreen Theragnostics and other partners, will enable Clarity to create redundancies in the supply of our products – ensuring that we can provide a reliable, seamless supply of TCT that is unique for a company in the radiopharmaceutical field. This agreement further enables Clarity to continue to pursue our ultimate goal of improving treatment of children and adults with cancer."

This announcement has been authorized for release by the Executive Chairman of Clarity Pharmaceuticals.

Astellas and Dyno Therapeutics Announce Research Collaboration to Develop Next-Generation AAV Gene Therapy Vectors for Skeletal and Cardiac Muscle

On December 1, 2021 Astellas Pharma Inc. (TSE: 4503, President and CEO: Kenji Yasukawa, Ph.D., "Astellas") and Dyno Therapeutics, Inc. (President and CEO: Eric Kelsic, Ph.D., "Dyno") reported an option and license agreement was signed on November 23 to develop next-generation adeno-associated virus (AAV) vectors for gene therapy directed to skeletal and cardiac muscle using Dyno’s CapsidMap platform (Press release, Astellas, DEC 2, 2021, View Source [SID1234596344]).

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Dyno’s CapsidMap platform represents a transformative approach applying in vivo experimental data and machine learning to create novel AAV capsids – the cell-targeting protein shells of viral vectors – designed to optimize tissue targeting and immune-evading properties, in addition to improving packaging capacity and manufacturability. Unlike traditional approaches, CapsidMap is uniquely well-suited to simultaneously optimize capsids for delivery across multiple organs, with the goal of enabling more effective whole-body treatment for many diseases.

With the establishment of the Astellas Gene Therapies Center of Excellence following the 2020 acquisition of Audentes Therapeutics Inc., Astellas is a leader in genetic medicines, working alongside its world-renowned partners to build a portfolio of potentially life-changing gene therapies. This research collaboration combines Dyno’s AI-powered AAV vector engineering capabilities with Astellas Gene Therapies global leadership in AAV-based pipeline assets.

"Through our efforts in gene therapy and the Astellas Gene Therapies Center of Excellence, Astellas strives to identify, develop and deliver transformative gene-based therapies for patients with genetic diseases who currently have few or no effective treatment options. Our principal focus is on developing adeno-associated virus delivered therapies for the treatment of well-defined serious diseases," said Naoki Okamura, Chief Strategy Officer and Chief Financial Officer, Chief Business Officer at Astellas. "We are dedicated to delivering novel approaches and utilizing new technologies that can deliver transformational value for patients."

"We are so happy to be partnering with Astellas, a world leader in developing gene therapies. Dyno and Astellas each bring unique strengths to this collaboration, together enabling more rapid creation of new therapies for patients with great unmet need," said Dyno’s CEO and co-founder Eric D. Kelsic, Ph.D. "This partnership demonstrates the flexibility of Dyno’s platform to precisely design the delivery properties of gene therapy vectors towards multi-organ and disease-specific profiles, applying the scientific insights we are rapidly learning across all our partnered and internal vector engineering programs using CapsidMap."

Under the terms of the agreement, Dyno will design novel AAV capsids with improved functional properties for gene therapy, while Astellas will be responsible for conducting preclinical, clinical and commercialization activities, including manufacturing, of gene therapy product candidates using the novel capsids. Dyno will receive an $18 million upfront payment and be eligible to receive additional payments during the research phase of the collaboration as well as clinical and sales milestone payments and royalties for any resulting products. The aggregate potential value of future milestone and royalty payments to Dyno exceeds $235 million per product and over $1.6 billion in total value.

ZetaMet™ (Zeta-BC-003) Receives Breakthrough Device Designation from U.S. Food and Drug Administration (FDA) for Treatment of Metastatic Bone Cancers

On December 1, 2021 Zetagen Therapeutics, a private, clinical-stage, biopharmaceutical company dedicated to driving breakthrough innovation in the treatment of metastatic bone cancers and osteologic interventions, reported it has received Breakthrough Device designation from the Centers for Devices and Radiological Health (CDRH) of the U.S. Food and Drug Administration (FDA) for its ZetaMet (Zeta-BC-003) technology (Press release, Zetagen Therapeutics, DEC 1, 2021, View Source [SID1234643705]). Previously known as ZetaFuse, ZetaMet (Zeta-BC-003) is a synthetic, small-molecule, inductive biologic technology being developed to target and resolve metastatic bone lesions while inhibiting future tumor growth and regenerating bone.

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"We are pleased to receive this important designation from the Agency and look forward to partnering with them," said Joe C. Loy, CEO of Zetagen Therapeutics. "Our researchers have discovered an entirely new pathway for an established molecule which, if proven successful in human clinical trials, could create a new treatment paradigm for the hundreds of thousands of patients living with cancers that involve metastatic bone lesions."

ZetaMet (Zeta-BC-003) works through a mechanism of action (MOA) which is a novel and patented molecular pathway. The small molecule, precisely-dosed, delivered to the affected area through a proprietary drug-eluting carrier, stimulates stem cells, activating cells to grow healthy bone known as "osteoblasts", and inhibits cells associated with bone degradation called "osteoclasts". The combination technology has, thus far, in preclinical studies, demonstrated its ability to resolve existing metastatic bone lesions, inhibit pain and stimulate targeted bone regeneration.

Bone metastases are common among cancer patients and occur when cells from the primary cancerous tumor relocate to the bone. When these cancers relocate, they can cause changes to the bone, damaging it in a process called osteolysis. Osteolysis can cause small holes within the bone, weakening it and increasing the risk of breakage. These holes are called "lytic lesions." Among cancers which metastasize to bone, Breast and Prostate are most prevalent, amounting to approximately 70-percent of cases.[1]

ZetaMet (Zeta-BC-003) has successfully passed its preclinical trials and is being prepared for its first human clinical trial in early 2022.

Accropeutics Bioscience inks over $50M series B round

On December 1, 2021 Accro Bioscience (Suzhou) Limited ("Accropeutics Bioscience"), a China-based leadingbiotechnology company, reported that the company has recently raised over $50 million in an oversubscribed Series B round (Press release, Accro Bioscience, DEC 1, 2021, View Source [SID1234632773]). The financing was led by HongtaiAplus with participation from South China Venture Capital, Shenzhen Capital Group, Suzhou Oriza Holdings, and others.

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"Accropeutics Bioscience will leverage the funds to advance clinical development, pre-clinical research and international partnerships," said Dr. Xiaohu Zhang, co-founder and CEO of Accropeutics Bioscience, "We are very pleased with the support and confidence of our current and new investors."

"We appreciate the R&D and execution capabilities of the team, and look forward to the continuous breakthroughs of Accropeutics Bioscience in the future," said Morningside.

"We are optimistic about the development of Accropeutics Bioscience," said HongtaiAplus, "We are delighted to lead this round of financing and look forward to the in-depth cooperation with Accropeutics Bioscience in the future."