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By Heather Hobbs


BRINGING YOU THE LATEST NEWS & EVENTS FROM THE SCIENCE INDUSTRY


AI reveals deeper understanding of heart genetics and cardiac traits


Alex Frangi (Credit: University of Manchester)


Scientists at the University of Manchester, collaborators from the University of Leeds (UK), the National Scientifi c and Technical Research Council (Santa Fe, Argentina) and IBM Research (Almaden, CA), have used AI to analyse over 50,000 three-dimensional Magnetic Resonance images of the heart from the UK Biobank’s stored data, gaining insights into heart genetics and structure.


The study revealed 49 novel genetic locations showing an association with morphological cardiac traits with high statistical signifi cance, as well as 25 additional loci with suggestive evidence, suggesting potential of new targeted therapies for those at risk of heart disease.


The research, funded by the Royal Academy of Engineering (RAEng), The Royal Society, the British Heart Foundation (BHF) and the Argentinean National Scientifi c and Technical Research Council (CONICET), was led by Professor Alejandro Frangi FREng, Director of Manchester’s Christabel Pankhurst Institute for Health Technology Research and Innovation. “This is an achievement which once would have seemed like science fi ction, but we show that it is completely possible to use AI to understand the genetic underpinning of the left ventricle, just by looking at three-


dimensional images of the heart. This study used AI not only to delineate the cardiac chambers from three-dimensional medical images at pace, but also to unveil novel genetic loci associated with various cardiovascular deep phenotypes.”


“This research exemplifi es the power of multidisciplinary teams and international collaborations, bolstered by UK Biobank’s valuable data. By marrying genetic data with cardiac imaging through advanced machine learning, we’ve gained novel insights into the factors shaping cardiovascular health,” he added.


Early career scientist PhD candidate Rodrigo Bonazzola, supervised jointly by Professor Frangi, Dr Enzo Ferrante (CONICET) and Dr Tanveer Syeda-Mahmood(IBM Fellow and Chief Scientist at IBM Research, was the study’s lead author: “Our research reveals genes that harbour mutations known to be detrimental to other organisms, yet the impact of common variations within these genes on cardiac structure across the human population had not been previously documented.


For instance, the STRN gene, recognised for its harmful variants leading to dilated cardiomyopathy in dogs, exhibits a common variant in humans that seems to induce a subtle but detectable change in mitral orientation.”


The study was published in Nature Machine Intelligence. More information online ilmt.co/PL/Looy


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Combination therapy shown to shrink tumours Bassam Janji


A collaborative team effort led by the Tumor Immunotherapy and Microenvironment (TIME) group at the Luxembourg Institute of Health, along with Sprint Bioscience and Karolinska Institutet (Sweden) has discovered a promising new approach for cancer treatment. This strategy focuses on unlocking the full potential of STING agonists, a new class of drugs designed to boost the body’s immune system to fi ght cancer.


Cancer cells can employ various


strategies to evade the body’s natural defences, rendering existing immunotherapies ineffective. Previous research work by the TIME group and Sprint Bioscience showed how inhibiting a specifi c protein (Vps34) involved in this immune evasion could enhance the effectiveness of existing cancer immunotherapy based on checkpoint blockades. Building upon this success, the latest study explores the exciting synergy between Vps34 inhibitors and STING agonists.


STING agonists work by stimulating a pivotal protein known as STING, to trigger a robust response against cancer cells, mobilising and empowering diverse immune cells, including T cells, natural killer cells and dendritic cells.


The new research demonstrated that combining a Vps34 inhibitor with a STING agonist results in a potent double attack on tumours. This combination signifi cantly shrinks tumours and improves survival rates in preclinical studies, offering a potential paradigm shift in cancer treatment.


“This research offers a new hope for overcoming the several disappointments encountered in past clinical trials with STING agonists. By enhancing the STING pathway and circumventing cancer’s immune evasion strategies, we have the potential to develop durable and powerful new immunotherapies,” said Dr Bassam Janji, Head of the TIME group.


The full study was published in Molecular Oncology. More information online: ilmt.co/PL/DZ6m


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