RESEARCHER PROFILE
Dr Alex Cole (Filmed May 2024)
Research Officer
Centre for Biomedical AI,
Centenary Institute,
Sydney, Australia
Ovarian cancer, one of the deadliest cancers affecting women worldwide, is a challenging disease to treat. High rates of chemotherapy resistance hinder treatment success and patient survival.
Dr Alex Cole, from the Centenary Institute’s Centre for Biomedical AI, is now leading the research focused on developing a new treatment to counteract a protein called follistatin (FST), known for making ovarian cancer cells resistant to chemotherapy.
By employing cutting-edge molecular biology and directed evolution techniques, the project aims to create nanobodies—small, precise molecules—that can block FST. If successful, these nanobodies could enhance the effectiveness of chemotherapy and improve ovarian cancer treatment rates.
“We know that chemotherapy triggers increased FST production in the body, which aids cancer cells in resisting treatment,” said Dr Cole.
“Our nanobodies, derived from antibodies and engineered to target and neutralise FST, could potentially make cancer cells vulnerable to chemotherapy again.”
Dr Cole emphasised the critical importance of developing innovative therapies like FST nanobody therapy to improve patient outcomes.
“Chemotherapy is initially highly effective in treating ovarian cancer in women. However, in over 70% of cases the cancer will reoccur, often having developed resistance to chemotherapy, rendering it ineffective,” he said.
The grant, received through Cancer Australia’s Priority-driven Collaborative Cancer Research Scheme (PdCCRS) is co-funded by Cancer Australia and the Ovarian Cancer Research Foundation
Dr Cole received his PhD from the University of Sydney in 2017 (Kolling Institute) where he studied the role of epigenetic histone modifications on ovarian cancer. Alex continued his ovarian cancer research investigating the role of quiescence on cancer stem cells during Postdocs at the University of Michigan and the University of Pittsburgh. During this time, he received the Ann and Sol Schreiber Mentored Investigator Award from the Ovarian Cancer Research Fund Alliance, which led to the discovery that follistatin is secreted in response to chemotherapy where it actively promotes chemoresistance.
In 2020, he joined the Directed Evolution Lab at the Centenary Institute under Associate Professor Daniel Hesselson, where he worked to develop the novel viral directed evolution platform PROTEUS (Protein Evolution Using Selection). In 2023, Alex received a Tour de Cure grant which allowed for the validation of PROTEUS for nanobody evolution.
-
Next Generation Condom Contraception, Dr Simon Cook
Dr. Simon Cook, Co-Founder and Executive Director of Operations at Eudaemon Technologies, has had a diverse and impactful career journey. Beginning with a background in biotechnology from the University of Wollongong, his focus on bacterial pathogenesis during his PhD led him to study Group A Strep and the streptokinase protein.
Subsequently, Dr. Cook ventured into a unique project funded by the Bill and Melinda Gates Foundation, where he became involved in the development of a next-generation condom to address existing issues such as feel, odour, and taste.
-
Exercise therapy for metabolic dysfunction-associated steatotic liver disease
Dr Shelley Keating is a Senior Lecturer in Clinical Exercise Physiology and Accredited Exercise Physiologist from the School of Human Movement and Nutrition Sciences at the University of Queensland. With a strong grounding in exercise metabolism and body composition, Dr Keating’s research centres on the utility of exercise as a therapy for obesity and related cardiometabolic conditions, notably metabolic dysfunction-associated steatotic liver disease (MASLD).
-
Next-generation NK cell-based immunotherapies for hard-to-treat cancers
Associate Professor Fernando Guimaraes is an internationally recognised leader in cancer immunotherapy and natural killer (NK) cell biology. Based at The University of Queensland, he leads innovative research focused on developing next-generation NK cell-based immunotherapies for hard-to-treat cancers, including sarcomas and neuroblastoma.
