Prof Wayne Tilley
Dame Roma Mitchell Professor of Cancer Research
School of Medicine
College of Health
Eligible to supervise Masters and PhD as Principal Supervisor - email supervisor to discuss availability.
Professor Wayne Tilley is the Director of the Dame Roma Mitchell Cancer Research Laboratories (DRMCRL), Adelaide Medical School, the University of Adelaide. His research career has spanned some 40 years in Australia, the USA and the UK, and has led to international acclaim as a world expert in the field of nuclear receptors and hormonal carcinogenesis. Professor Tilley’s research has an emphasis on mechanisms of sex hormone signalling and the emergence of resistance to hormonal therapies used in the treatment of breast and prostate cancer. He is internationally recognised for discoveries on steroid hormone receptor action, in particular androgen receptor (AR) structure and function (including cloning the human androgen receptor in the late 1980’s at UT Southwestern Medical School, Dallas TX) and AR function in breast and prostate cancers. He was one of the first to describe perturbations in AR signalling critical to progression of prostate cancer, including evidence for the oncogenic potential of the AR. Most recently, his research has provided evidence that the AR is a tumour suppressor in estrogen receptor (ER)-positive breast cancer and that the progesterone receptor (PR) can inhibit ER action in human breast cancer tissues by a novel reprograming mechanism (Nature 2015; Nature Medicine 2021). This research has led to 4 clinical trials of AR and PR activation in ER-driven disease.Professor Tilley’s research is unique in leveraging similarities in breast and prostate cancer to forge new insights into disease mechanisms and novel treatment strategies. Research in the DRMCRL uses contemporary genomic techniques and unique patient-derived model (PDEs, PDXs) systems to gain a deeper understanding into how sex hormones and their receptors control tumour behaviour. This information is used to develop new treatment strategies, with a clear view to improving patient outcomes.Professor Tilley’s research has attracted significant funding from government, non-government and philanthropic sources. He has published over 225 peer-reviewed papers. In 2016 he received the Endocrine Society of Australia Senior Plenary Award and gave the introductory Plenary Lecture at the 2016 International Congress of Endocrinology in Beijing, China. He was Chair of the 2015 Gordon Research Conference on Hormone-Dependent Cancers and a co-chair of the recent Fusion Nuclear Receptor Meeting in Mexico (4-7 May, 2022). Professor Tilley convenes the International PacRim Breast and Prostate Cancer Meeting Series.
The Dame Roma Mitchell Cancer Research Laboratories (DRMCRL) have an international reputation for research into sex hormone action in hormone-dependent cancers, with a particular emphasis on breast and prostate cancers.
This world-class cancer research centre brings together expertise spanning more than 30 years in basic and translational prostate and breast cancer research. It is the leading centre in Australia with a multidisciplinary team of scientists, clinicians and patient advocates dedicated to understanding how sex hormones and their receptors control tumour behaviour in both disease contexts. The information is used to understand mechanisms of resistance to existing hormonal therapies for breast and prostate cancer and in developing new strategies for disease treatment and management. Research programs span discovery, drug development and clinical translation.
A major research focus at the DRMCRL is the development of novel androgen receptor (AR) and progesterone receptor (PR) targeted therapies for breast and prostate cancer. In prostate cancer, this involves the generation of drugs to inhibit aberrant forms of the AR that drive the disease and are unresponsive to conventional androgen deprivation therapies. In the case of breast cancer, our research has led to new strategies to activate the AR or PR to inhibit growth of tumours that are driven by the estrogen receptor (ER), as well as interrogation of Selective Androgen Receptor Modulators (SARMs), which have the ability to reprogram oncogenic AR activation in ER negative breast cancer.
Our laboratory has pioneered integration of genomic technologies with unique preclinical models of human breast and prostate cancers, especially patient-derived explant cultures and xenograft models, to better understand disease mechanisms and facilitate translation of breast and prostate cancer research into the clinic.
We publish in high impact journals such as Nature, Nature Genetics, Nature Reviews Cancer, Cancer Research, Clinical Cancer Research and Oncogene. Our research is well supported by funding from nationally and internationally competitive grants. The DRMCRL offers students a wide array of projects that span cutting-edge biomedical research using contemporary pre-clinical models, genome-wide technologies and access to large proteomic/genomic databases.
We are currently actively seeking students interested in bioinformatics to interrogate these databases, with opportunities of cross faculty supervision in fields such as mathematics and machine learning.
Key Research Projects Available for DRMCRL
Project 1 - Transforming endocrine therapy for breast and prostate cancer
Description - Breast and prostate cancers are diseases driven by abnormal sex hormone receptor activity mediated by the estrogen receptor (ER) in breast and the androgen receptor (AR) in prostate cancers. Surgery and radiation therapy for these diseases work well when the tumour is confined within the organ of origin. However, for cancers that have spread out of the breast or prostate, either locally or to other parts of the body, the major treatment strategy is to completely abolish the activity of the offending sex hormone receptor. This treatment strategy is called hormone deprivation therapy and has been employed for the past century. Overwhelming evidence indicates that hormone deprivation therapy has run its course in providing a survival advantage to people with breast or prostate cancer.
Our hypothesis is that reprogramming estrogen or androgen receptors (ER and AR) away from oncogenic activity toward more benign activity will transform endocrine therapy for breast and prostate cancer. In this project we aim to discover optimal strategies to reprogram ER or AR activity in breast and prostate cancer by investigating three complementary approaches to reprogramming ER/AR: 1) Activate other nuclear receptors that directly inhibit ER/AR signalling; 2) Utilize selective ER/AR ligands; and 3) Enhance ER/AR reprogramming with epigenetic drugs. We will then validate optimal reprogramming strategies in patient-derived xenograft “clinical trials” and clinical samples.
Available for: Honours and HDR
Start Date: Semester 1 and 2 2023
Project 2 - Selective activation of androgen receptor to treat estrogen receptor positive breast cancer
Description - Androgens, acting via the androgen receptor (AR), a protein related to the estrogen receptor (ER), are natural inhibitors of estrogen-stimulated breast cancer growth. Although androgens are commonly considered to be male hormones, females produce androgens throughout their life. AR typically is present in the same cells as ER, resulting in estrogen and androgen hormones exerting opposing forces on the growth of ER-positive breast cancers, with estrogen having growth promoting and androgens protective effects.
The goals of this project are: 1) Investigate how stimulation of the androgen receptor (AR) by a synthetic androgen which has been shown to be well tolerated by women, inhibits the growth of estrogen-sensitive breast tumours; and 2) Develop and evaluate proteins identified as being potential biomarkers of response to androgenic therapies.
Available for: Honours and HDR
Start Date: Semester 1 and 2 2023
Project 3 - The clinical significance of sex hormone crosstalk in estrogen receptor positive breast cancer
Description - Breast cancer is mainly a disease in which the sex hormone estrogen stimulates uncontrolled growth via the estrogen receptor (ER). We have recently discovered that other sex hormones, including progesterone and androgen, can redirect the actions of estrogen in breast cancers to halt growth or make a tumour disappear. This project will examine the complex interaction between all three sex hormones to develop new, more effective strategies for treating breast cancer.
In this project, we will investigate the three-way interplay between ER, PR (progesterone receptor) and AR (androgen receptor) in contemporary models of breast cancer including patient derived xenografts and ex-vivo cultured primary tumour tissues. The ultimate goal is to determine clinical scenarios in which PR, AR or both could be optimally therapeutically targeted to treat ER+ breast cancer, particularly disease resistant to current ER targeting drugs.
Available for: Honours and HDR
Start Date: Semester 1 and 2 2023
Project 4 - Pushing AR toward better outcomes in breast and prostate cancers
Description - This project will establish the efficacy of drugs called SARMs (selective androgen receptor modulators) for re-activating the normal, non-oncogenic function of the AR (androgen receptor) in human-derived pre-clinical models and clinical samples of breast and prostate cancers. Currently available SARMs (eg Enobosarm) have excellent safety profiles, and are poised for rapid implementation into clinical trials. Through our collaborations with clinicians that currently run breast cancer and prostate cancer clinical trials, we have access to breast cancer and prostate cancer samples, and also an avenue to prepare them to quickly implement novel treatment strategies that arise from this project.
The aims of this project are: 1) Identify SARMs that reprogram AR from oncogenic to benign genomic loci in breast cancers and prostate cancers; 2) Identify proteins that mediate AR reprogramming in breast and prostate cancers; 3) Pre-clinically test selected SARMs with therapeutic potential; and 4) Determine the clinical scope for SARMs and candidate biomarkers derived during the project.
Available for: Honours and HDR
Start Date: Semester 1 and 2 2023
Project 5 - Targeting CDK9 in triple negative and endocrine-resistant breast cancers
Description - Triple negative breast cancer (TNBC) is the worst form of breast cancer at diagnosis. Better treatments for these cancers is a critical unmet need. TNBC preferentially afflicts young women and those with mutations of the BRCA1 gene. Another very aggressive form of breast cancer is estrogen receptor (ER) driven cancer that becomes resistant to ER targeting therapies. Chemotherapy and more recently, CDK4/6 inhibitors are the only approved means of treating these cancers, but survival rates remain low.
This project focuses on these highly aggressive breast cancers that collectively cause the majority of breast cancer-related death. Such cancers have phenomenal rates of growth, in part due to elevated transcriptional activation of oncogenes. In collaboration with a medicinal chemist (Prof Shudong Wang), we are testing new drugs that specifically target CDK9, a factor that can ramp up the transcriptional activity of RNA polymerase II. The goals of this project are: 1) Demonstrate the efficacy of novel CDK9 inhibitors in a unique suite of patient-derived xenograft models of triple negative and endocrine-resistant breast cancer; 2) Identify cellular mediators of CDK9-targeted therapy in these disease subtypes; and 3) Test our CDK9 inhibitors in prospectively-collected patient derived explant tumours cultured ex vivo and evaluate a biomarker signature of treatment response.
Available for: Honours and HDR
Start Date: Semester 1 and 2 2023
| Date | Position | Institution name |
|---|---|---|
| 2014 - ongoing | Visiting Professorship | University of Turku |
| 2012 - 2014 | Visiting Scientist, Cancer Research UK | Cambridge University |
| 2006 - ongoing | Co-Director | Adelaide Prostate Cancer Research Centre |
| 2002 - ongoing | Director, Dame Roma Mitchell Cancer Research Laboratories | The University of Adelaide |
| 2001 - 2002 | Visiting Fellow, Norris Comprehensive Cancer Center | University of Southern California |
| 1996 - 2001 | Director, Flinders Cancer Centre | Flinders University |
| 1992 - 1998 | NHMRC Senior Research Fellow | Flinders University |
| 1991 - 1992 | NHMRC CJ Martin Fellow | Flinders University |
| 1989 - 1991 | Visiting Fellow, Department of Internal Medicine | University of Texas Southwestern Medical Center |
| 1987 - 1989 | NHMRC CJ Martin Fellow | University of Texas Southwestern Medical Center |
| 1983 - 1986 | NHMRC Senior Research Officer, Department of Surgery | Flinders University |
| Date | Type | Title | Institution Name | Country | Amount |
|---|---|---|---|---|---|
| 2016 | Award | 2016 Senior Plenary Award | Endocrine Society of Australia | Australia | - |
| 2015 | Award | Executive Dean’s Awards 2015 | The University of Adelaide | Australia | - |
| 2008 | Award | Ron Ross Award | 4th PacRim Breast and Prostate Cancer Meeting | Canada | - |
| Date | Institution name | Country | Title |
|---|---|---|---|
| 1984 | Flinders University of South Australia | Australia | PhD |
| 1976 | University of Adelaide | Australia | B. Sc (Hons) |
| Date | Title | Institution | Country |
|---|---|---|---|
| 1987 - 1989 | NHMRC CJ Martin Fellow | University of Texas Southwestern Medical Center at Dallas | United States |
| Year | Citation |
|---|---|
| 2026 | Peaston, A., Auricht, R., Hickey, T., Peters, M., MCLACHLAN, S., Birrell, S., & Tilley, W. (2026). First-in-Dog (FiDo) Cancer Initiative review. In Vet Science Week Proceedings 24-26 July 2026 Gold Coast Convention & Exhibition Centre (pp. 523). Gold Coast. |
| 2026 | Rahman, R., Rahaman, M. H., Hanson, A. R., Choo, N., Xie, J., Townley, S. L., . . . Selt, L. A. (2026). CDK9 inhibition as a therapeutic strategy in advanced prostate cancer. In ASIA-PACIFIC JOURNAL OF CLINICAL ONCOLOGY Vol. 22 (pp. S64-S65). WILEY. |
| 2025 | Lawrence, M., Keerthikumar, S., Townley, S., Clark, A., Cuffe, G., Laven-Law, G., . . . Selth, L. (2025). Androgen receptor genomic structural rearrangements reshape the AR cistrome in castration-resistant prostate cancer. In ASIA-PACIFIC JOURNAL OF CLINICAL ONCOLOGY Vol. 21 (pp. 119). WILEY. |
| 2020 | Lim, E., Milioli, H. H., Alexandrou, S., Coulson, R., Yong, A., Fernandez, K. J., . . . Portman, N. (2020). MDM2 inhibition in combination with endocrine therapy and CDK4/6 inhibition for the treatment of ER-positive breast cancer. In ASIA-PACIFIC JOURNAL OF CLINICAL ONCOLOGY Vol. 16 (pp. 110). WILEY. |
| 2017 | Nassar, Z. D., Centenera, M. M., Machiels, J., Polacek, S. J., Bloch, K., Tilley, W. D., . . . Butler, L. (2017). Lipid elongation: an unexplored therapeutic target in prostate cancer. In CANCER RESEARCH Vol. 77 (pp. 2 pages). Washington, DC: AMER ASSOC CANCER RESEARCH. DOI |
| 2017 | Shafi, A. A., Schiewer, M. J., de Leeuw, R., McCue, P. A., Gomella, L. G., Lallas, C. D., . . . Knudsen, K. E. (2017). PDeX (Patient Derived eXplant) models to determine the basis for response to targeted agents in prostate cancer. In CANCER RESEARCH Vol. 77 (pp. 2 pages). Washington, DC: AMER ASSOC CANCER RESEARCH. DOI |
| 2013 | Morel, K., Ormsby, R., Bezak, E., Tilley, W., Lawrence, M., & Sykes, P. (2013). Parthenolide as a selective radiosensitiser in the treatment and prevention of prostate cancer. In BJU International Vol. 112 (pp. 45). Melbourne: Wiley. |
| 2012 | Ochnik, A. M., Moore, N. L., Birrell, S. N., Butler, L. M., Jindal, S., Selth, L., . . . Hickey, T. E. (2012). The combined actions of DHT and MPA lead to altered AR signaling in normal and malignant post-menopausal breast epithelial cells. In Cancer Research Vol. 72 (pp. 2). Chicago, IL: American Association for Cancer Research. DOI |
| 2009 | Butler, L., Centenera, M., Marrocco, D., Carter, S., Bianco-Miotto, T., & Tilley, W. (2009). A novel combinatorial approach using androgen receptor-targeted agents for treatment of prostate cancer. In Cancer Research Vol. 69 (pp. 2 pages). American Association for Cancer Research. |
| 2006 | Murphy, N., Bianco-Miotto, T., Ricciardelli, C., Ruiz, A., Segara, D., McNeil, C., . . . Tilley, W. (2006). Expression of the androgen receptor and its association with disease outcome in breast cancer. In Breast Cancer Research and Treatment Vol. 100 (pp. S262-S263). San Antonio, Texas: Springer. |
| 1987 | MARSHALL, V. R., TILLEY, W. D., & HORSFALL, D. J. (1987). LOCALIZATION AND REGULATION OF THE PROSTATIC ESTROGEN-RECEPTOR. In BRITISH JOURNAL OF UROLOGY Vol. 59 (pp. 182). BLACKWELL SCIENCE LTD. |
| 1984 | ELDER, D. D., HORSFALL, D. J., TILLEY, W. D., & MARSHALL, V. R. (1984). THE ROLE OF ESTROGEN IN PROSTATIC GROWTH. In BRITISH JOURNAL OF UROLOGY Vol. 56 (pp. 90). BLACKWELL SCIENCE LTD. |
| 1983 | HORSFALL, D. J., TILLEY, W. D., MARSHALL, V. R., & CANT, E. L. M. (1983). ENZYMATIC DISPERSAL TECHNIQUE FOR FLOW CYTOMETRIC QUANTITATION OF ESTROGEN-RECEPTOR IN HUMAN-BREAST TUMOR-CELLS. In CLINICAL AND EXPERIMENTAL PHARMACOLOGY AND PHYSIOLOGY Vol. 10 (pp. 482-483). BLACKWELL SCIENCE. |
| 1983 | TILLEY, W. D., HORSFALL, D. J., & MARSHALL, V. R. (1983). ESTROGEN AND ANDROGEN RECEPTORS IN GUINEA-PIG PROSTRATE EPITHELIUM AND STROMA. In CLINICAL AND EXPERIMENTAL PHARMACOLOGY AND PHYSIOLOGY Vol. 10 (pp. 439-440). BLACKWELL SCIENCE. |
| 1981 | TILLEY, W. D., KEIGHTLEY, D. D., & MARSHALL, V. R. (1981). ESTROGEN AND ANDROGEN RECEPTORS IN BENIGN PROSTATIC HYPERPLASIA AND CARCINOMA OF THE PROSTATE. In BRITISH JOURNAL OF UROLOGY Vol. 53 (pp. 74). BLACKWELL SCIENCE LTD. |
| 1979 | TILLEY, W. D., KEIGHTLEY, D. D., & MARSHALL, V. R. (1979). HORMONE RECEPTORS IN BENIGN PROSTATIC HYPERPLASIA. In AUSTRALIAN AND NEW ZEALAND JOURNAL OF SURGERY Vol. 49 (pp. 147). BLACKWELL SCIENCE. |
| 1978 | KEIGHTLEY, D. D., TILLEY, W. D., & CANT, E. L. M. (1978). STORAGE OF TISSUE TO BE USED IN ESTROGEN-RECEPTOR ASSAYS. In AUSTRALIAN AND NEW ZEALAND JOURNAL OF SURGERY Vol. 48 (pp. 224). BLACKWELL SCIENCE. |
| Year | Citation |
|---|---|
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Data from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S6 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S12 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Table S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S8 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Table S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S11 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S13 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S7 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S9 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Dataset S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S4 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S10 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2026 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2026). Figure S5 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S11 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S12 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S10 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S13 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S13 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S12 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S10 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S11 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S10 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S13 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S12 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S11 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S10 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S12 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S11 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S13 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Dataset S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Data from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S5 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S8 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S4 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S6 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S5 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S4 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S5 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S6 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S8 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S4 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S7 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S3 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S8 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S8 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S7 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S9 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S5 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S7 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S9 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S9 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S9 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S6 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S6 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S7 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S1 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Table S2 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2024 | Shrestha, R. K., Nassar, Z. D., Hanson, A. R., Iggo, R., Townley, S. L., Dehairs, J., . . . Selth, L. A. (2024). Figure S4 from ACSM1 and ACSM3 Regulate Fatty Acid Metabolism to Support Prostate Cancer Growth and Constrain Ferroptosis. DOI |
| 2023 | Centenera, M. M., Scott, J. S., Machiels, J., Nassar, Z. D., Miller, D. C., Zinonos, I., . . . Butler, L. M. (2023). Data from ELOVL5 Is a Critical and Targetable Fatty Acid Elongase in Prostate Cancer. DOI |
| 2023 | Butler, L. M., Mah, C. Y., Machiels, J., Vincent, A. D., Irani, S., Mutuku, S. M., . . . Swinnen, J. V. (2023). Data from Lipidomic Profiling of Clinical Prostate Cancer Reveals Targetable Alterations in Membrane Lipid Composition. DOI |
| Year | Citation |
|---|---|
| 2025 | Mustafa, E., Laven-Law, G., Winter, J., Kikhtyak, Z., Bergeron, A., MacGrogan, G., . . . Hickey, T. (2025). The transcription factor AP-2β defines active enhancers conferring molecular apocrine cell identity in breast cancer. DOI |
| 2024 | Heydarlou, H., Hodson, L., Dorraki, M., Hickey, T., Tilley, W., Smith, E., . . . Farajpour, A. (2024). A Deep Learning Approach for Classification of Fibroglandular Breast Density in Histology Images of Human Breast Tissue. DOI |
|
NHMRC Ideas Grant APP1186647 2020-2023 $1,148,310 |
A combinatorial drug strategy to target lethal forms of breast cancer. W.D. Tilley, E. Lim, R. Iggo, J. Carroll |
|
NHMRC Project Grant APP1145777 2018-2021 $998,754 |
Pushing AR toward better outcomes in breast and prostate cancers. W.D. Tilley, T. Hickey, L. Selth, J. Carroll, E. Lim, W. Zwart, A. Joshua, C. Sweeney |
|
NHMRC Project Grant APP1138242 2018-2021 $799,440 |
A novel strategy for targeting castrate-resistant prostate cancer. G. Risbridger, W.D. Tilley, L. Furic, S. Sandhu, A. Azad, L. Selth, M. Lawrence |
|
Movember and National Breast Cancer Foundation, Australia 2018-2021 $2,958,714 |
Transforming endocrine therapy for breast and prostate cancer. W.D. Tilley, G. Risbridger, J. Carroll, E. Lim, S. Clark, T. Hickey, L. Selth |
|
The Hospital Research Foundation, Australia 2018-2021 $375,000.00 |
Transforming therapy for breast and prostate cancer. W.D. Tilley, T. Hickey, L. Selth |
|
NHMRC Development Grant APP1135682 2018-2020 $1,171,199 |
Development of a novel and highly selective CDK4/6 inhibitor for treating cancer. S. Wang, R. Milne, W.D. Tilley, E. Lim |
|
Cancer Research UK, Cambridge University A23654 2018-2020 £193,783 |
PEARL Study: A window of opportunity study to assess the biological effects of progesterone in premenopausal ER-positive, PgR-positive early breast cancer. C. Palmieri, W.D. Tilley, S. Chauhan, C. Rawcliffe, J. Neoptolemos, J. Carroll, E. Lim |
|
NHMRC Project Grant APP1121057 2017-2020 $959,423 |
Dual targeting of the Androgen Receptor for Effective and Durable Control of Lethal Prostate Cancer. W.D. Tilley, G. Risbridger, G. Raj, L. Selth, J. Taylor, A. Joshua |
|
NHMRC Project Grant APP1130077 2017-2020 $1,023,132 |
The clinical significance of sex hormone receptor crosstalk in ER+ breast cancer. W.D. Tilley, J. Carroll, T. Hickey, E. Lim, L. Selth, E. Ebrahimie, S. Birrell, C. Palmieri, G. Greene, A. Bruna, C. Lange, F. Classens, N. Dean, F. Markowetz, A. Swarbrick |
|
Cancer Council of NSW 2017-2019 $450,000 |
WinPro: Progesterone as an anticancer therapy in early breast cancer. E. Lim, W.D. Tilley |
| Date | Role | Research Topic | Program | Degree Type | Student Load | Student Name |
|---|---|---|---|---|---|---|
| 2024 | Co-Supervisor | Selective Androgen Receptor Modulators (SARMs) for the Treatment of Androgen Receptor positive (AR+) and Estrogen Receptor Positive (ER+) Breast Cancer. | Doctor of Philosophy | Doctorate | Full Time | Mr Manjit Rana |
| 2023 | Principal Supervisor | Investigating the role of androgen receptors in bladder cancer | Doctor of Philosophy | Doctorate | Full Time | Mr Ahmed Faris Abdulridha Aldoghachi |
| 2023 | Co-Supervisor | Role of Androgen Receptor Signalling in the Metastasis of Estrogen Receptor Positive Breast Cancer | Doctor of Philosophy | Doctorate | Full Time | Ms Dana Basem Mohamad Al Safadi |
| Date | Role | Research Topic | Program | Degree Type | Student Load | Student Name |
|---|---|---|---|---|---|---|
| 2022 - 2025 | Co-Supervisor | Mechanistic Insights into Androgen and Progesterone Receptor Mediated Tumour Suppression in ER Positive Breast Cancer | Doctor of Philosophy | Doctorate | Full Time | Ms Maliha Wajahat . |
| 2021 - 2023 | Co-Supervisor | Unlocking Insights from Complex Transcriptomic Data: Novel Bioinformatics Methods for Neurodegeneration and Cancer Studies | Doctor of Philosophy | Doctorate | Full Time | Miss Nora Liu |
| 2021 - 2026 | Principal Supervisor | Insights into androgen receptor agonism as a therapeutic strategy to overcome endocrine resistance in ER-positive breast cancer | Doctor of Philosophy | Doctorate | Full Time | Mr Alex Adrian Pace |
| 2019 - 2023 | Co-Supervisor | Investigating USP2 as a mediator of therapy resistance in lethal prostate cancer | Doctor of Philosophy | Doctorate | Full Time | Ms Meiwen Danielle Fang |
| 2017 - 2021 | Co-Supervisor | Role of the GATA3 Transcription Factor on AR Signalling in Breast Cancer | Doctor of Philosophy | Doctorate | Full Time | Mrs Leila Hosseinzadeh |
| 2017 - 2021 | Co-Supervisor | Elucidating the molecular mechanisms underlying androgen-regulated lipid metabolism in prostate cancer | Doctor of Philosophy | Doctorate | Full Time | Mr Raj Kumar Shrestha |
| 2017 - 2021 | Co-Supervisor | Development of a Novel Therapeutic Strategy for Estrogen Receptor Negative Breast Cancer | Doctor of Philosophy | Doctorate | Full Time | Mrs Ebtihal Hashem Mustafa |
| 2017 - 2021 | Co-Supervisor | Extreme Activation of Androgen Receptor for Prostate Cancer Therapy | Doctor of Philosophy | Doctorate | Full Time | Mr Mohammadreza Alizadeh Ghodsi |
| 2016 - 2020 | Co-Supervisor | The Role of MicroRNA-194 in Prostate Cancer Progression | Doctor of Philosophy | Doctorate | Full Time | Miss Rayzel Candida Fernandes |
| 2010 - 2016 | Co-Supervisor | The Role of Estrogen Receptor and the Androgen Receptor in Human Breast Cancer | Doctor of Philosophy | Doctorate | Part Time | Mrs Shalini Jindal |
| 2009 - 2013 | Co-Supervisor | Investigation into the Expression and Localisation of C-Kit and the Regulation of Kit Ligand Gene Expression in the Adult Human Ovary | Doctor of Philosophy | Doctorate | Full Time | Dr Astrud Tuck |
| 2008 - 2012 | Co-Supervisor | The Molecular Actions of Medroxyprogesterone Acetate on Androgen Receptor Signalling and the Promotion of Breast Cancer | Doctor of Philosophy | Doctorate | Full Time | Miss Aleksandra Monica Ochnik |
| 2008 - 2011 | Co-Supervisor | Characterisation of the Co-chaperone Small Glutamine-rich Tetratricopeptide Repeat containing Protein Alpha as a Regulator of Androgen Receptor Activity in Prostate Cancer Cells | Doctor of Philosophy | Doctorate | Full Time | Dr Andrew Trotta |
| 2008 - 2012 | Co-Supervisor | The Role of Small Glutamine-Rich Tetratricopeptide Repeat Containing Protein Alpha in Female Reproductive Tissues | Doctor of Philosophy | Doctorate | Full Time | Ms Miriam Simone Butler |
| 2007 - 2012 | Co-Supervisor | Mathematical Models of Cell Cycle Progression: Applications to Breast Cancer Cell Lines | Doctor of Philosophy | Doctorate | Part Time | Miss Kate Simms |
| 2007 - 2015 | Co-Supervisor | Combinatorial Targeting of the Androgen Receptor for Prostate Cancer Therapy | Doctor of Philosophy | Doctorate | Full Time | Miss Sarah Carter |
| 2006 - 2010 | Co-Supervisor | The Role of Epigenetic Modifications in Prostate Tumourigenesis | Doctor of Philosophy | Doctorate | Full Time | Ms Karen Huiqin Chiam |
| 2004 - 2008 | Co-Supervisor | Characterisation of a Dominant Negative Androgen Receptor in Prostate Cancer Cells | Doctor of Philosophy | Doctorate | Part Time | Dr Margaret Centenera |
| 2004 - 2008 | Co-Supervisor | Androgen Signalling in Normal and Malignant Breast Epithelial Cells | Doctor of Philosophy | Doctorate | Part Time | Ms Amelia Peters |
| 2004 - 2008 | Co-Supervisor | Androgens and Androgen Receptor Signalling in Men | Doctor of Philosophy | Doctorate | Full Time | Dr Elle Need |
| 2003 - 2007 | Principal Supervisor | Targeting the Androgen Receptor as a Therapeutic Strategy for Prostate Cancer | Doctor of Philosophy | Doctorate | Full Time | Miss Deborah Marrocco |
| 2002 - 2004 | Co-Supervisor | Versican: regulation, purification, and biological properties of a candidate prognostic indicator for breast cancer | Doctor of Philosophy | Doctorate | Full Time | Miss Supaporn Suwiwat |
| 2002 - 2004 | Principal Supervisor | ANDROGEN SIGNALLING IN HUMAN BREAST CANCER CELLS | Doctor of Philosophy | Doctorate | Full Time | Dr Nicole Moore |
| Date | Role | Research Topic | Location | Program | Supervision Type | Student Load | Student Name |
|---|---|---|---|---|---|---|---|
| 2021 - ongoing | Principal Supervisor | Exploring the role of steroid receptors in ER+ breast cancer. | University of Adelaide | Doctor of Philosophy (Medical Science) | Doctorate | Full Time | Alex Pace |
| Date | Engagement Type | Partner Name |
|---|---|---|
| 2019 - ongoing | Consultant | Radius Health, Waltham, Massachusetts: Selective androgen receptor modulators (SARMs) and breast cancer program. |
| Date | Title | Type | Institution | Country |
|---|---|---|---|---|
| 2008 - ongoing | Advisory Editor | Journal Review | Endocrine-Related Cancer | - |
| 2008 - ongoing | Editorial Board | Journal Review | Oncology Times | - |