Professor Claudine Bonder is an expert in vascular biology with 15 years experience having trained both in Australia and overseas. She currently heads the Vascular Biology and Cell Trafficking Laboratory at the Centre for Cancer Biology in Adelaide. During her career, Claudine has been awarded the prestigious Early Career Research Award from the Australian Academy of Sciences in 2005, a SA Young Tall Poppy in 2010, was an ASMR Leading Light finalist in 2013 and won the Women in Innovation (emerging innovator) in 2016.
Current areas of interest:
Vasculogenic mimicry in cancer progression: For solid tumours to grow they require access to the blood supply for the provision of oxygen and nutrients. Highly vascularised tumours correlate... Read more
About me
Professor Claudine Bonder is an expert in vascular biology with 15 years experience having trained both in Australia and overseas. She currently heads the Vascular Biology and Cell Trafficking Laboratory at the Centre for Cancer Biology in Adelaide. During her career, Claudine has been awarded the prestigious Early Career Research Award from the Australian Academy of Sciences in 2005, a SA Young Tall Poppy in 2010, was an ASMR Leading Light finalist in 2013 and won the Women in Innovation (emerging innovator) in 2016.
Current areas of interest:
Vasculogenic mimicry in cancer progression: For solid tumours to grow they require access to the blood supply for the provision of oxygen and nutrients. Highly vascularised tumours correlate directly with poor survival for patients with e.g. melanoma and breast cancer. Tumour vascularisation can occur via a number of processes including angiogenesis (the proliferation of existing blood vessel endothelial cells (ECs), which form the inner monolayer of blood vessels) as well as an EC-independent manner known as vasculogenic mimicry (VM, wherein vascular-like channels are formed by the cancer cells themselves). Our work in melanoma and breast cancer has identified key growth factors and adhesion molecules which underpin VM and are now of interest in terms of developing new treatment opportunities for cancer sufferers.
Endothelial progenitor cells (EPCs) in disease: With a focus on how the vasculature contributes to health and disease, we have a strong programme on endothelial progenitor cells (the precursors of cells which form the inner lining of all blood vessels). Having recently identified a suite of novel surface expressed proteins by EPCs we are have begun to unravel how EPCs contribute to health and disease. For example, in Type 1 Diabetes, pancreatic islet transplantation is the only current cure, but success is limited by death of insulin producing beta cells post-transplantation. EPCs have the potential to improve islet engraftment and production of insulin. Our work understanding the critical cross-talk between the vasculature and beta islet cells together with smart surface materials will advance our ability to cure diabetes.
Revolutionising vascular devices: Vascular occlusions are a major contributor to cardiovascular disease (CVD) and are a leading cause of death worldwide. Overcoming these blockages requires insertion of stents or artificial vascular grafts to maintain vessel diameter and has become a multi-billion dollar industry. Despite recent advances in device technology and post-operative care, clotting and scarring remain a significant health concern which can be life-threatening. Unfortunately, more often than not, anti-clotting medications are required long term and/or more surgical intervention is required. As part of the Cell Therapy Manufacturing Co-operative Research Centre, our team is testing an innovative concept that modified stents (first coated with a patented anti-adhesive surface (patent application PCT/2016/901008) and then topped with our novel peptides to specifically capture EPCs/ECs (patent US13/882806) will provide the rapid revascularisation of implanted devices long sought by surgeons to treat vascular occlusions with minimal intervention and medication.
About me
Australian Vascular Biology Society (AVBS)
Australasian Society for Immunology (ASI)
North American Vascular Biology Organisation (NAVBO)
American Association of Immunologists (AAI)
Australian Society for Medical Research (ASMR)
Australian and New Zealand Microcirculation Society (ANZMS)
About me
Doctor of Philosophy Flinders University of South Australia
1990-1993 B.Sc. (Hons.), University of Adelaide, SA.
1998-2001 PhD, Flinders University, Adelaide, SA.
2001-2004 Post-doctoral fellow with Dr P Kubes, Calgary, Canada.
2005-2007 Post-doctoral fellow with Prof J Gamble, IMVS, Adelaide, SA.
Our expertise in blood vessels, and the endothelial cells which form their inner lining, allows us to critically interrogate diseases such as cancer, cardiovascular disease and diabetes. Our ultimate aim is to understand the fundamental biology of the vasculature so that new treatment opportunities for the most debilitating and deadly diseases can be produced to save thousands of lives every year, worldwide.
Research
Excludes commercial-in-confidence projects.
Exploiting blood vessels as conduits for the entry of therapeutic CAR-T cells into brain tumours, Neurosurgical Research Foundation, 02/10/2023 - 31/10/2025
CRC-P: Internal Testing and assessment of CAR-T cells using in vitro methods and in vivo animal tumour models, UniSA-Internal, 29/02/2020 - 30/06/2025
MTA_ATCC - Spatial proteomics to define tumour microenvironments , Unknown, 11/10/2022 - 11/10/2024
Desmoglein-2; an unsuspected regulator of melanoma, NHMRC - Project Grant, 01/01/2019 - 31/12/2022
Investigating a novel adhesion molecule in pancreatic cancer, PanKind, The Australian Pancreatic Cancer Foundation, 01/01/2022 - 31/10/2022
Engineered cell and exosome therapy for pulmonary vascular disease, NHMRC - Project Grant, 01/01/2018 - 31/12/2021
Targeting the IL-3/IL-3 receptor axis to prevent breast cancer progression., CA-Priority-driven Collaborative Cancer Research Scheme, 01/05/2016 - 31/03/2020
Desmoglein-2: A novel lifeline to treat diabetes, NHMRC - Project Grant, 01/01/2016 - 31/12/2019
Checkpoint blockade immunotherapy in melanoma: getting tumour-killing T cells to their site of action, Royal Adelaide Hospital, 01/01/2016 - 31/03/2017
Validation of a novel therapeutic target in multiple myeloma, Royal Adelaide Hospital, 01/01/2016 - 31/03/2017
Research
Research outputs for the last seven years are shown below. Some long-standing staff members may have older outputs included. To see earlier years visit ORCID or Scopus
Open access indicates that an output is open access.
Year | Output |
---|---|
2020 |
Open access
40
36
8
|
2020 |
Open access
20
16
3
|
2017 |
Open access
6
6
6
|
2017 |
Open access
24
24
3
|
2016 |
Open access
32
32
|
Year | Output |
---|---|
2024 |
Open access
1
1
2
|
2024 |
Open access
1
|
2024 |
Open access
1
197
|
2024 |
Open access
1
1
4
|
2023 |
Open access
10
11
6
|
2023 |
Open access
6
6
45
|
2023 |
Open access
2
|
2023 |
Open access
1
1
4
|
2022 |
Open access
19
|
2022 |
1
1
|
2022 |
Open access
11
11
13
|
2022 |
Open access
3
3
7
|
2022 |
Open access
14
13
5
|
2021 |
Open access
14
12
10
|
2021 |
Open access
13
11
8
|
2021 |
Open access
18
17
4
|
2021 |
Open access
|
2020 |
11
10
5
|
2020 |
Open access
8
7
11
|
2020 |
Open access
46
41
4
|
2020 |
Open access
40
36
8
|
2020 |
Open access
20
16
3
|
2020 |
Open access
10
10
1
|
2019 |
Open access
2
2
|
2019 |
Open access
4
|
2019 |
Open access
26
23
5
|
2019 |
Open access
19
18
5
|
2019 |
Open access
17
17
5
|
2019 |
Open access
9
8
6
|
2018 |
Open access
30
30
2
|
2018 |
Open access
34
27
14
|
2018 |
Open access
15
14
4
|
2018 |
Open access
28
29
6
|
2017 |
23
21
1
|
2017 |
5
5
1
|
2017 |
Open access
4
4
1
|
2017 |
Open access
22
21
68
|
2017 |
38
33
1
|
2017 |
Open access
6
6
6
|
2017 |
Open access
24
24
3
|
2016 |
Open access
|
2016 |
7
6
|
2016 |
Open access
8
7
3
|
2016 |
Open access
32
32
|
2016 |
Open access
34
33
2
|
2016 |
10
10
|
2016 |
Open access
51
48
|
2016 |
Open access
16
16
460
|
2016 |
Open access
14
13
11
|
2016 |
Open access
40
40
1
|
2015 |
Open access
19
18
2
|
2015 |
Open access
28
26
|
2015 |
Open access
81
77
3
|
2015 |
Open access
16
15
4
|
2015 |
Open access
76
73
1
|
2015 |
Open access
28
26
40
|
2015 |
Open access
62
59
|
2014 |
Open access
21
20
|
2014 |
Open access
3
|
2014 |
Open access
82
77
|
2014 |
Open access
29
27
6
|
2013 |
5
5
|
2013 |
38
36
|
2013 |
44
43
|
2013 |
2
2
|
2012 |
Open access
19
20
|
2012 |
197
182
|
2012 |
Open access
|
2012 |
22
23
|
2011 |
10
10
|
2011 |
29
|
2011 |
Open access
26
26
|
2011 |
22
22
|
2011 |
Open access
184
171
|
2010 |
Open access
32
30
|
2010 |
Open access
12
10
|
2008 |
10
10
|
2008 |
76
|
2008 |
Open access
42
43
|
Research
Our expertise in blood vessels, and the endothelial cells which form their inner lining, allows us to critically interrogate diseases such as cancer, cardiovascular disease and diabetes. Our ultimate aim is to understand the fundamental biology of the vasculature so that new treatment opportunities for the most debilitating and deadly diseases can be produced to save thousands of lives every year, worldwide.
Research
Details | Registry | Status |
---|---|---|
Anti-fouling and/or anti-thrombotic medical devices Voelcker, Nicolas Hans; Moore, Eli; Bonder, Claudine Sharon |
AU | Filed |
Markers of endothelial progenitor cells and uses thereof Bonder, Claudine Sharon; Lopez, Angel Fransciso; Talbo, Gert Hoy |
AU | Granted |
Markers of endothelial progenitor cells and uses thereof Bonder, Claudine Sharon; López, Ángel Fransciso; Talbo, Gert Hoy |
EP | Filed |
Markers of endothelial progenitor cells and uses thereof Bonder, Claudine Sharon; Lopez, Angel Fransciso; Talbo, Gert Hoy |
US | Filed |
Markers of endothelial progenitor cells and uses thereof Bonder, Claudine Sharon; Lopez, Angel Fransciso; Talbo, Gert Hoy |
WO | Filed |
Medical devices using coated polymers Moore, Eli; Benveniste, Glen Leon; Bonder, Claudine Sharon |
WO | Filed |
Bonder, Claudine Sharon; Lopez, Angel Fransciso |
WO | Filed |
Novel cancer treatment involving modulation of il-3 activity Lopez, Angel F; Bonder, Claudine S; Thompson, Emma |
WO | Filed |
2020-2022: Project Leader for NHMRC Development grant (bioinvisible stents) and NHMRC Project grant (vasculogenic mimicry in melanoma)
2020-present: Project Leader for TekCyte Pty Ltd and Carina Biotech Pty Ltd (start-up comapnies from CTM-CRC)
External engagement & recognition
Organisation | Country |
---|---|
Australian National University | AUSTRALIA |
Australian Research Council (ARC) | AUSTRALIA |
Baker Heart and Diabetes Institute | AUSTRALIA |
Beatson Institute | UNITED KINGDOM |
BreastScreen SA | AUSTRALIA |
Central Adelaide Local Health Network Incorporated | AUSTRALIA |
Centre for Physical Activity in Ageing | AUSTRALIA |
Cornell University | UNITED STATES |
CSIRO Manufacturing Flagship | AUSTRALIA |
Flinders Medical Centre | AUSTRALIA |
Flinders University | AUSTRALIA |
Garvan Institute of Medical Research | AUSTRALIA |
Garvan Medical Institute | AUSTRALIA |
German Cancer Research Center | GERMANY |
Griffith University | AUSTRALIA |
H. Lee Moffitt Cancer Center | UNITED STATES |
Hanson Centre for Cancer Research | AUSTRALIA |
Hanson Institute | AUSTRALIA |
Hebrew University | MEXICO |
Institute of Medical and Veterinary Science | AUSTRALIA |
La Trobe University | AUSTRALIA |
Lancaster University | UNITED KINGDOM |
Leibniz Institute for New Materials | GERMANY |
Lund University | SWEDEN |
Mayo Clinic | UNITED STATES |
Medical University of Graz | AUSTRIA |
Medical University of South Carolina | UNITED STATES |
Molecular Oncology Editorial Office | UNITED KINGDOM |
Monash University | AUSTRALIA |
Peter MacCallum Cancer Centre | AUSTRALIA |
QIMR Berghofer Medical Research Institute | AUSTRALIA |
RMIT University | AUSTRALIA |
Royal Adelaide Hospital | AUSTRALIA |
Royal Brisbane and Women's Hospital | AUSTRALIA |
Royal College of Surgeons in Ireland | IRELAND |
Royal Eye & Ear Hospital | AUSTRALIA |
SA Pathology | AUSTRALIA |
Shanghai University | CHINA |
South Australian Health and Medical and Research Institute (SAHMRI) | AUSTRALIA |
St. Vincent's Institute of Medical Research | AUSTRALIA |
The Queen Elizabeth Hospital | AUSTRALIA |
Thomas Jefferson University | UNITED STATES |
Trinity College Dublin | IRELAND |
Tufts Medical Centre | UNITED STATES |
Universitat Freiburg im Breisgau | GERMANY |
University of Adelaide | AUSTRALIA |
University of Canberra | AUSTRALIA |
University of Illinois at Urbana-Champaign | UNITED STATES |
University of Melbourne | AUSTRALIA |
University of Nebraska Medical Center | UNITED STATES |
University of New South Wales | AUSTRALIA |
University of Oxford | UNITED KINGDOM |
University of Queensland | AUSTRALIA |
University of Sheffield | UNITED KINGDOM |
University of South Australia | AUSTRALIA |
University of Sydney | AUSTRALIA |
University of Tennessee | UNITED STATES |
University of Zurich | SWITZERLAND |
Walter and Eliza Hall Institute of Medical Research | AUSTRALIA |
Washington University in St Louis | UNITED STATES |
Western Sydney University | AUSTRALIA |
Women's and Children's Health Network | AUSTRALIA |
External engagement & recognition
Engagement/recognition | Year |
---|---|
AmbassadorBridging the Gap |
2019 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2018 |
AmbassadorBridging The Gap Foundation |
2017 |
MemberAustralian and New Zealand Microcirculation Society (ANZMS) |
2017 |
MemberAustralian Society for Medical Research (ASMR) |
2017 |
MemberNorth American Vascular Biology Organisation (NAVBO) |
2017 |
MemberAustralasian Society for Immunology (ASI) |
2017 |
MemberAustralian Vascular Biology Society (AVBS) |
2017 |
MemberAmerican Association of Immunologists (AAI) |
2017 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2017 |
Emerging Innovator AwardWinnovation Awards |
2016 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2016 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2015 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2014 |
Finalist, Peter Doherty Leading Light AwardAustralian Society for Medical Research (ASMR) |
2013 |
Project LeaderCell Therapy Manufacturing Co-operative Research Centre (CTM-CRC) |
2013 |
Project LeaderCo-operative Research Centre for Biomarker Translation (Biomarker CRC) |
2012 |
Project LeaderCo-operative Research Centre for Biomarker Translation (Biomarker CRC) |
2011 |
Project LeaderCo-operative Research Centre for Biomarker Translation (Biomarker CRC) |
2010 |
Invited media contact for the National Breast Cancer Foundation (NBCF), The Hospital Research Foundation (THRF), the Heart Foundation and the University of South Australia (UniSA).
Teaching & student supervision
Supervisions from 2010 shown
Thesis title | Student status |
---|---|
110188-Enhancing therapy of acute myeloid leukaemia by predicting drivers of relapse | Current |
Advancing a novel biomarker for pancreatic cancer | Current |
Characterisation of extracellular matrix composition across the human brain and applications in brain organoid vascularisation | Current |
Deciphering how airway epithelial programming and inflammation cause chronic allergic airways disease | Current |
Enhancing cancer immunotherapy success by efficient recruitment of T cells to solid tumours | Current |
Interleukin-3 (IL-3) promotes blood vessel development in breast cancer | Current |
Investigating the origins and progression of pancreatic cancer | Current |
Molecular diagnosis for point-of-care skin cancer testing | Current |
Revealing the role of ICAM1 in breast cancer progression | Current |
Targeting the tumour vasculature in melanoma for a more effective immune response and improved survival | Current |
Understanding how cancers modify the functional characteristics of the tumour extracellular matrix | Current |
Design and evaluation of blood-contacting coatings | Completed |
Desmoglein-2 as a regulator of pancreatic ductal adenocarcinoma progression | Completed |
Fundamental studies of poly(ethylene glycol-b-caprolactone) block copolymers self-assembly in water | Completed |
Peroxisome proliferator-activated receptor gamma interacts with sphingosine 1-phosphate to regulate vascular function | Completed |
Targeting sphingolipid metabolism in proteasome inhibitor-resistant multiple myeloma | Completed |
Targeting sphingosine kinase 1 to overcome venetoclax resistance in acute myeloid leukemia | Completed |
The role of flightless I in epidermal stem cell division, proliferation and differentiation during development, homeostasis, wound healing and epidermolysis bullosa-cutaneous squamous cell carcinoma | Completed |
The role of platelets in vasculogenic mimicry | Completed |
Transcriptional control of cellular identity in the lymphatic vasculature | Completed |
Using high throughput screening to design cell therapy scaffolds | Completed |
Vasculogenic mimicry: regulation and function in melanoma | Completed |