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Lang, Joshua M

0000-0002-0943-8872

Mayo Clinic

University of Wisconsin, Madison, WI.

Citations 3

Phase II Randomized Trial of Radium-223 Dichloride and Cabozantinib in Patients With Renal Cell Carcinoma With Bone Metastases: RADICAL (Alliance A031801)
McKay, Rana R. , Ballman, Karla V. , Atherton, Pamela J. , Ajmera, Archana , Baghdadi, Tareq Al, Baumann, Brian C. , Beltran, Himisha , Berg, Stephanie , Chen, Ronald C. , Choudhury, Atish D. , Jacene, Heather A. , Kilari, Deepak , Kwok, Young , Swami, Umang , Tan, Alan , Yang, Yuanquan , Zhang, Tian , Galsky, Matthew D. , George, Daniel J. , Baghdadi, Tareq Al , Cole, Suzanne , Jacene, Heather A , Lang, Joshua M , Kilari, Deepak , Kwok, Young , McGregor, Bradley , Morris, Michael J , Parikh, Mamta , Swami, Umang , Tan, Alan , Yang, Yuanquan A , Zhang, Tian , Galsky, Matthew D , Rosenberg, Jonathan E , George, Daniel J , Choueiri, Toni K , Baumann, Brian C , Choudhury, Atish D , Chen, Ronald , Ballman, Karla , Berg, Stephanie A , Cole, Suzanne , Lang, Joshua M. , McGregor, Bradley A. , Morris, Michael J. , Choueiri, Toni K.

Journal of Clinical Oncology | July 27, 2026 | Volume: 44 | Issue: 24 | Pages: 2341-2352

10.1200/jco-26-01135 Get It

PURPOSE Bone metastases (BM) occur in approximately 30% of patients with metastatic renal cell carcinoma (mRCC) and are associated with poor survival and symptomatic skeletal events (SSEs). Radium-223, an alpha-emitting bone-seeking radioisotope, and cabozantinib, a tyrosine kinase inhibitor, have demonstrated activity in BM. RADICAL (Alliance A031801; ClinicalTrials.gov identifier: NCT04071223 ) evaluated cabozantinib ± radium-223 in mRCC with BM. METHODS This phase II trial enrolled patients with mRCC of any histology with ≥1 BM. Patients were randomly assigned 1:1 to cabozantinib ± radium-223, stratified by osteoclast-targeted therapy (OTT), prior therapy, opioid use, and International mRCC Database Consortium (IMDC) risk. The primary end point was SSE-free survival (SSE-FS). Secondary end points included safety, objective response rate (ORR), progression-free survival, and overall survival (OS). A target of 124 evaluable patients was planned, with a prespecified interim futility analysis at 50% of expected SSE-FS events; the trial would stop if the stratified hazard ratio (sHR) > 1.0. RESULTS The prespecified interim futility analysis was conducted after 90 patients were enrolled and crossed the futility boundary, leading to closure at 98 patients. The final analysis included all 98 patients. Median age was 63 years, 82.7% had clear cell histology, and 79.6% were using an OTT. IMDC risk was favorable (18.4%), intermediate (67.3%), and poor (14.3%). Median follow-up was 13.1 months. Median SSE-FS for cabozantinib with radium-223 versus cabozantinib was 16.7 versus 17.6 months (sHR, 1.46 [90% CI, 0.86 to 2.51]). Median OS was 28.3 versus 19.7 months (sHR, 1.40 [95% CI, 0.70 to 2.79]). ORR was 19.4% versus 25.0% ( P = .78). Grade ≥3 adverse events were similar across arms (69.6% v 75.5%). CONCLUSION Radium-223 did not improve SSE-FS when added to cabozantinib. The combination demonstrated a manageable safety profile.
Trial Design and Objectives for Patients With Prostate Cancer: Recommendations From the Prostate Cancer Working Group 4
Armstrong, Andrew J., Morris, M., Abida, Wassim , Aggarwal, Rahul R., Antonarakis, Emmanuel S., Attard, Gerhardt , Beltran, Himisha, Bryce, Alan H. , Carducci, Michael A. , Cheng, Heather H., Dahut, William L. , Emmett, Louise , Fizazi, Karim, Gafita, Andrei, George, Daniel J., Hermann, Ken, Hofman, Michael S., Hope, MD Thomas A., Hussain, Maha, Kelly, W. Kevin, Kuo, Phillip H. , Liu, Glenn X., Morgans, Alicia K., McKay, Rana R., Nanus, David, Nelson, P., Reichert, Zachery R. , Ryan, Charles J. , Sartor, A. Oliver, Schwartz, Lawrence H., Sharifi, Nima , Stadler, Walter M., Stein, M., Sternberg, Cora N., Szmulewitz, Russell Z., Tagawa, Scott T., Sokolova, Alexandra O., Wyatt, Alex, Yu, Evan Y., Halabi, S., Scher, Howard I., Group, for the PCWG4 Writing, Alumkal, Joshi J. , Aparicio, Ana, Barata, Pedro C., Drake, Charles G., Hamid, Anis , Heath, Elisabeth I. , Nauseef, Jones, Lage, Daniel E. , Mallak, Nadine , Patnaik, Akash, Prepelica, Kristofer, Rowe, Steven P., Slovin, Susan F. , Taplin, Mary‐Ellen , Zorko, Nicholas, Carducci, Michael A. , Halabi, Susan , Cheng, Heather H. , Antonarakis, Emmanuel S. , Morris, Michael J. , Armstrong, Andrew J. , Nauseef, Jones T. , Antonarakis, Emmanuel S. , Zorko, Nicholas A. , Armstrong, Andrew J , Morris, Michael J , Aggarwal, Rahul , Antonarakis, Emmanuel S , Beltran, Himisha , Bryce, Alan H , Cheng, Heather H , Chen, Delphine L , Chi, Kim N , Childs, Daniel S , Dahut, William , Emmett, Louise , Fizazi, Karim , Gafita, Andrei , George, Daniel J , Hermann, Ken , Hofman, Michael S , Hope, Thomas A , Hussain, Maha H A , Kelly, W Kevin , Kessler, Elizabeth , Lang, Joshua M , Liu, Glenn , Marshall, Catherine H , Morgans, Alicia K , McKay, Rana R , Nelson, Peter S , Paller, Channing J , Reichert, Zachery R , Sartor, A Oliver , Schöder, Heiko , Sharifi, Nima , Stadler, Walter M , Stein, Mark , Sternberg, Cora N , Szmulewitz, Russell Z , Tagawa, Scott T , Sokolova, Alexandra O , Wyatt, Alexander , Yamoah, Kosj , Yu, Evan Y , Halabi, Susan , Antonarakis, Emmanuel S , Zorko, Nicholas A , Nauseef, Jones T , N., Kim , Childs, Daniel S. , Fizazi, Karim , Gafita, Andrei , George, Daniel J. , Hofman, Michael S. , Lang, Joshua M. , Liu, Glenn , Marshall, Catherine H. , Morgans, Alicia K. , McKay, Rana R. , Paller, Channing J. , Sartor, Oliver , Schöder, Heiko , Schwartz, Lawrence H., Stadler, Walter M. , Tagawa, Scott T. , Scher, Howard I. , Aparicio, Ana, Barata, Pedro C. , Drake, Charles G. , Graff, Julie Nicole , Patnaik, Akash , Rathkopf, Dana E , Rettig, Matthew B.

Journal of Clinical Oncology | February 26, 2026 | Volume: 44 | Issue: 13 | Pages: 1249-1265

10.1200/jco-25-02834 Get It

PURPOSE The continuous development of new imaging approaches, molecular phenotyping, genetic subtypes, prognosis assessments, and effective therapies across a range of disease states has created a need to redefine terminology and best practices for clinical trial conduct in patients with advanced prostate cancer. Methods We convened an international expert committee of diverse working groups, the Prostate Cancer Working Group 4 (PCWG4), between 2016 and 2025. Our objective was to formulate updated criteria based on emerging evidence and clinical trial data in a biomarker context to provide guidance for clinical trial design, eligibility, and end point assessments for patients with advanced prostate cancer. RESULTS PCWG4 redefines terminology around the disease state and previous therapies in a patient-centric context and terminology focused on androgen pathway modulation. We consider imaging, with a particular focus on positron emission tomography (PET)–defined disease. New recommendations are provided for disease state terminology, defining eligibility criteria, response and delay/prevent end points, intervals for reassessments including imaging, and patient-reported outcome determination. We provide recommendations in a biomarker-based context of use for the intended indication, reflective of patient benefit for specific interventions. We emphasize the need for development of validated PET imaging and molecular and phenotypic criteria as well as trial designs to appropriately risk stratify patients, predict and assess benefit, and measure post-treatment outcomes reliably in a trial framework. CONCLUSION PCWG4 updates recommendations on patient and tumor characterization, therapy development, and imaging criteria and extends guidance into earlier androgen pathway modulator–naïve/sensitive disease states to reflect an evolving, heterogeneous, and diverse patient population to optimize treatment benefits for all patients.
Expression and Therapeutic Targeting of TROP-2 in Treatment-Resistant Prostate Cancer
Sperger, Jamie M. , Helzer, Kyle T. , Stahlfeld, Charlotte N. , Jiang, Dawei , Singh, Anupama , Kaufmann, Katherine R. , Niles, David J. , Héninger, Erika , Rydzewski, Nicholas R. , Wang, Liguo , Wang, Liewei , Yang, Rendong , Ren, Yanan , Kyriakopoulos, Christos E. , Slovin, Susan F. , Soule, Howard R. , Zhao, Shuang G. , Cai, Weibo , Dehm, Scott M. , Lang, Joshua M. , Engle, Jonathan W , Huang, Peng , Kyriakopoulos, Christos E , Slovin, Susan F , Soule, Howard R , Zhao, Shuang G , Kohli, Manish , Tagawa, Scott T , Cai, Weibo , Dehm, Scott M , Lang, Joshua M , Wang, Liguo , Engle, Jonathan W. , Kohli, Manish , Tagawa, Scott T.

Clinical Cancer Research | March 20, 2023 | Volume: 29 | Issue: 12 | Pages: 2324-2335

10.1158/1078-0432.ccr-22-1305 Get It

Abstract Purpose: Men with metastatic castration-resistant prostate cancer (mCRPC) frequently develop resistance to androgen receptor signaling inhibitor (ARSI) treatment; therefore, new therapies are needed. Trophoblastic cell-surface antigen (TROP-2) is a transmembrane protein identified in prostate cancer and overexpressed in multiple malignancies. TROP-2 is a therapeutic target for antibody–drug conjugates (ADC). Experimental Design: TROP-2 gene (TACSTD2) expression and markers of treatment resistance from prostate biopsies were analyzed using data from four previously curated cohorts of mCRPC (n = 634) and the PROMOTE study (dbGaP accession phs001141.v1.p1, n = 88). EPCAM or TROP-2–positive circulating tumor cells (CTC) were captured from peripheral blood for comparison of protein (n = 15) and gene expression signatures of treatment resistance (n = 40). We assessed the efficacy of TROP-2–targeting agents in a mouse xenograft model generated from prostate cancer cell lines. Results: We demonstrated that TACSTD2 is expressed in mCRPC from luminal and basal tumors but at lower levels in patients with neuroendocrine prostate cancer. Patients previously treated with ARSI showed no significant difference in TACSTD2 expression, whereas patients with detectable AR-V7 expression showed increased expression. We observed that TROP-2 can serve as a cell surface target for isolating CTCs, which may serve as a predictive biomarker for ADCs. We also demonstrated that prostate cancer cell line xenografts can be targeted specifically by labeled anti–TROP-2 agents in vivo. Conclusions: These results support further studies on TROP-2 as a therapeutic and diagnostic target for mCRPC.