CAUSAL GENES AND PATHOGENIC MECHANISMS UNDERLYING GASTROINTESTINAL DISEASES
Professor Mauro D’Amato
Professor of Medical Genetics, Department of Medicine and Surgery,
LUM University in Casamassima, Italy &
Ikerbasque Research Professor and Head of the Gastrointestinal Genetics Lab
CIC bioGUNE, Derio, Spain
RESEARCHER PROFILE
Filmed online | January 2025
Mauro D’Amato is Professor of Medical Genetics at the Department of Medicine and Surgery at LUM University in Casamassima – Italy, and Ikerbasque Research Professor and Head of the Gastrointestinal Genetics Lab in CIC bioGUNE, Derio – Spain. His career has developed through an important international trajectory, holding research and academic positions at several institutions including the Wellcome Trust Center for Human Genetics in Oxford – UK, the Karolinska Institutet in Stockholm – Sweden, Biodonostia HRI in San Sebastian – Spain and Monash University in Melbourne – Australia.
Professor D’Amato has more than 25 years research experience in the field of human genetics and complex diseases, with activities most recently geared towards a translational application for therapeutic precision in gastroenterology. His team, the Gastrointestinal Genetics Laboratory, combine leading expertise in genomic, computational and pre-clinical research, and have contributed important breakthroughs linking specific genes and pathogenetic mechanisms to a number of gastrointestinal diseases like inflammatory bowel disease (IBD), microscopic colitis (MC) and irritable bowel syndrome (IBS).
He is also the coordinator of the bellygenes initiative on the genetics of IBS, and biobank-scale research from his lab contributes to multiple scientific consortia and collaborative networks studying the genetic makeup of millions of people across EU, USA and Australasia.
Professor D’Amato has an H-index of 74, has edited 2 books and published extensively in the field of human genetics and gastrointestinal disease; he provides expert feedback to international journals and research funding agencies, and has supervised more than 40 PhD students and postdocs.
https://orcid.org/0000-0003-2743-5197
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Genomics and rationally targeted therapies in Acute Lymphoblastic Leukaemia
Prof Deborah White’s research focus is genomics and rationally targeted therapies in Acute Lymphoblastic Leukaemia (ALL) and Chronic Myeloid Leukaemia (CML) and she holds peer reviewed grants from: The William Lawrence and Blanche Hughes Foundation and the Leukemia Lymphoma Society (USA), the NHMRC, the Leukaemia Foundation Australia (LFA), Channel 7, Cancer Australia, Tour de Cure and the Cancer Council SA (CCSA). Professor White has presented more than 170 papers at scientific meetings, and authored more than 100 scientific publications as well as being an inventor on several international patents.
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Antimicrobial technologies & drug delivery platforms
Dr Aaron Elbourne is an ARC DECRA Fellow, Jack Brockhoff ECR Fellow, and Associate Professor within the School of Science at STEM Hub. A leader in nanomaterials, soft matter science, and interface research, Aaron’s work addresses critical challenges in health and the environment.
With a strong focus on translational research, Aaron’s work bridges the gap between fundamental science and practical applications. His leadership in creating innovative technologies, fostering academic-industry partnerships, and empowering future researchers underscores his commitment to advancing science and creating a meaningful impact.
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Muscle Cell Communication and Repair
Dr. William Roman is a Group Leader at the Australian Regenerative Medicine Institute (ARMI) at Monash University. He obtained his PhD from Paris Descartes University and Freie University of Berlin, focusing on nuclear positioning during skeletal muscle development. Dr. Roman’s research journey has taken him across the globe, including postdoctoral work in Barcelona, tissue engineering in Lisbon, and a brief stint at Stanford University.
At ARMI, Dr. Roman leads innovative research on intercellular communication within muscle organs. His work involves growing human muscles on chips to understand how skeletal muscle cells interact with neurons and tendons. This research aims to develop better models for studying muscle diseases, drug screening, and even applications in cellular agriculture and biorobotics.
