Recent studies have shown that adoptive T cell transfer (ACT) can be an effective treatment for patients with metastatic cancer. The most common source of antigen reactive T cells for ACT is ex vivo expanded tumor infiltrating lymphocytes (TIL) or antigen stimulated PBL-derived T cells. One ofthe main limitations to treating patients with ACT is the availability of large numbers of antigen reactive autologous T cells. To circumvent this limitation, we first demonstrated that it was possible to redirect the specificity of T cells using retroviral vectors encoding the TCR a and p genes isolated from a tumor-reactive T cell clone. Subsequently, we and others have shown that it is possible to isolate TCR's that recognize a wide variety of tumor and viral antigens. The resulting TCR transduced T cells can secrete cytokines and lyse targets as efficiently as antigen specific T cells. The field was further advanced by the identification of the first high affinity human TCR that could engineer both CD4+ and CD8+ T cells to recognize the physiologic levels of antigen expressed by tumor cells. These studies and others have open the possibility of providing ACT to a large number of patients regardless of their natural ability to generate anti-tumor immunity. In 2006, the first use of TCR transduced T cells was reported in humans. The conclusions from this study were that TCR gene modified T cells can be safely administered to patients and there was evidence of their anti-tumor activity in vivo. Subsequently, three other studies have been published which support the safety of using TCR transduced T cells in cancer patients. In these studies, objective clinical responses were observed at higher frequencies when high affinity TCRs were used. However, the frequency of the clinical responses in patients treated with TCR transduced T cells (12-30%) was substantially less than in patients treated with TIL (~50%). Therefore, there may be fundamental differences between the biology of TCR transduced T cells and TIL which account for the differences in the clinical response rates. What is needed for this Program is a consistent and reproducible source of mouse and human TIL 13831 TCR transduced T cells for use throughout the Program. Therefore, the goal of Core C is to provide Projects 1-4 with high quality TIL 13831 TCR transduced mouse and human T cells for their in vitro and in vivo studies and to generate clinical grade TIL 13831 TCR transduced T cells for the clinical trials in Project 5.

Public Health Relevance

This Core will provide TCR transduced human and mouse T cells for Project 1-5 in the Program. This includes laboratory grade mouse and human T cells for the laboratory studies as well as all of the clinical grade T cells for the clinical trials in Project 5.

National Institute of Health (NIH)
National Cancer Institute (NCI)
Research Program Projects (P01)
Project #
Application #
Study Section
Special Emphasis Panel (ZCA1-RPRB-J)
Project Start
Project End
Budget Start
Budget End
Support Year
Fiscal Year
Total Cost
Indirect Cost
Loyola University Chicago
United States
Zip Code
Chiuzan, Cody; Garrett-Mayer, Elizabeth; Yeatts, Sharon D (2015) A likelihood-based approach for computing the operating characteristics of the 3+3 phase I clinical trial design with extensions to other A+B designs. Clin Trials 12:24-33
Eby, Jonathan M; Kang, Hee-Kap; Klarquist, Jared et al. (2014) Immune responses in a mouse model of vitiligo with spontaneous epidermal de- and repigmentation. Pigment Cell Melanoma Res 27:1075-85
Kesarwani, Pravin; Al-Khami, Amir A; Scurti, Gina et al. (2014) Promoting thiol expression increases the durability of antitumor T-cell functions. Cancer Res 74:6036-47
Chatterjee, Shilpak; Thyagarajan, Krishnamurthy; Kesarwani, Pravin et al. (2014) Reducing CD73 expression by IL1?-Programmed Th17 cells improves immunotherapeutic control of tumors. Cancer Res 74:6048-59
Husain, Shahid; Abdul, Yasir; Webster, Christine et al. (2014) Interferon-gamma (IFN-?)-mediated retinal ganglion cell death in human tyrosinase T cell receptor transgenic mouse. PLoS One 9:e89392
Chatterjee, Shilpak; Eby, Jonathan M; Al-Khami, Amir A et al. (2014) A quantitative increase in regulatory T cells controls development of vitiligo. J Invest Dermatol 134:1285-94
Kohlhapp, Frederick J; Zloza, Andrew; O'Sullivan, Jeremy A et al. (2012) CD8(+) T cells sabotage their own memory potential through IFN-?-dependent modification of the IL-12/IL-15 receptor ? axis on dendritic cells. J Immunol 188:3639-47