Michigan's Rogel Cancer Center is home to the TMPRSS2-ERG discovery, MI-ONCOSEQ, and pioneering degrader chemistry (Wang).
The University of Michigan Rogel Cancer Center in Ann Arbor holds NCI comprehensive designation and is home to the TMPRSS2-ERG discovery in prostate cancer, the MI-ONCOSEQ precision oncology sequencing programme, and pioneering targeted protein degradation chemistry. Arul M. Chinnaiyan's prostate genomics and Shaomeng Wang's MDM2 and BET degraders are its best-known contributions, with Eric R. Fearon, Max S. Wicha, Weiping Zou, Costas A. Lyssiotis and Lori J. Pierce among the people OnCo lists. OnCo links it to prostate cancer and to PROTACs and molecular glues. Whether degraders can reach targets that inhibitors could not, and do so safely, is the open question its chemistry programme faces. Its prostate genomics, degrader chemistry and precision oncology programmes are listed below.
From OpenAlex, oncology works in the last five years (2022 to 2026, current year in progress); counted on 2026-09-24.
Matched to University of Michigan, including child institutions. 3,009 works · 30,226 citations · 77% open access · 7% clinical trials · 1% reviews.
Discovered the TMPRSS2-ERG fusion in prostate cancer and built one of the first clinical sequencing programmes.
Costas Lyssiotis shows how pancreatic tumours feed off their surrounding cells and how to cut the supply.
Co-author of the Fearon-Vogelstein model of how colorectal cancer develops step by step.
Lori Pierce is a breast radiation oncologist and ASCO past president focused on equity in cancer care.
Max Wicha identified breast cancer stem cells and made them a therapeutic target.
Richard and Susan Rogel's 2018 gift to the University of Michigan renamed its NCI-designated comprehensive cancer centre, founded in 1986, the Rogel Cancer Center.
Shaomeng Wang is the medicinal chemist behind some of the first clinical MDM2 inhibitors and PROTAC degraders.
Radiation oncologist who developed adaptive liver radiotherapy and radiosensitising drug combinations.
Immunologist who showed PD-L1 on tumours suppresses T cells and linked interferon to ferroptosis.
The genomic definition of advanced prostate cancer, and the evidence that made molecular testing standard in it. The 19.3 percent DNA repair figure is the direct ancestor of PROfound, TRITON3, PROpel and TALAPRO-2, and the 8 percent germline figure is why a tumour result in this disease has implications for a man's relatives.
The explanation for why prostate cancer has so few targeted drugs outside the hormone axis and the DNA-repair genes: it is a quiet genome with structural rather than point-mutational damage, and the recurrent changes sit in the machinery that reads DNA rather than in kinases.
The most common single molecular event in prostate cancer, present in roughly half of tumours in most series, and the reason prostate cancer is classified by fusion status. It is also a standing reminder that finding the driver and drugging it are different problems: no ETS-directed therapy has reached the clinic.
This paper extended the cancer stem cell concept from leukaemia to a common solid tumour and started the search for tumour-initiating cells across cancers. It underpins research on why cancers relapse after treatments that shrink them and on therapies aimed at the cells that regrow disease.
Shares Recurrent fusion of TMPRSS2 and ETS transcription factor genes in prostate cancer, The mutational landscape of lethal castration-resistant prostate cancer, SU2C-PCF: integrative clinical genomics of advanced prostate cancer, Prostate cancer.
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH), Prostate cancer.
Shares Recurrent fusion of TMPRSS2 and ETS transcription factor genes in prostate cancer, The mutational landscape of lethal castration-resistant prostate cancer, Prostate cancer.
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH).
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH), Prostate cancer.
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH), Prostate cancer.
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH).
Shares Proton therapy machines: cyclotrons, synchrotrons and single-room systems, Proton therapy, National Cancer Institute (NIH).