Literature DB >> 27020860

CD27 Agonism Plus PD-1 Blockade Recapitulates CD4+ T-cell Help in Therapeutic Anticancer Vaccination.

Tomasz Ahrends1, Nikolina Bąbała1, Yanling Xiao1, Hideo Yagita2, Hans van Eenennaam3, Jannie Borst4.   

Abstract

While showing promise, vaccination strategies to treat cancer require further optimization. Likely barriers to efficacy involve cancer-associated immunosuppression and peripheral tolerance, which limit the generation of effective vaccine-specific cytotoxic T lymphocytes (CTL). Because CD4(+) T cells improve CTL responsiveness, next-generation vaccines include helper epitopes. Here, we demonstrate in mice how CD4(+) T-cell help optimizes the CTL response to a clinically relevant DNA vaccine engineered to combat human papillomavirus-expressing tumors. Inclusion of tumor-unrelated helper epitopes greatly increased CTL priming, effector, and memory T-cell programming. CD4(+) T-cell help optimized the CTL response in all these aspects via CD27/CD70 costimulation. Notably, administration of an agonistic CD27 antibody could largely replace helper epitopes in promoting primary and memory CTL responses, acting directly on CD8(+) T cells. CD27 agonism improved efficacy of the vaccine without helper epitopes, more so than combined PD-1 and CTLA-4 blockade. Combining CD27 agonism with CTLA-4 blockade improved vaccine-induced CTL priming and tumor infiltration, but only combination with PD-1 blockade was effective at eradicating tumors, thereby fully recapitulating the effect of CD4(+) T-cell help on vaccine efficacy. PD-1 blockade alone did not affect CTL priming or tumor infiltration, so these results implied that it cooperated with CD4(+) T-cell help by alleviating immune suppression against CTL in the tumor. Helper epitope inclusion or CD27 agonism did not stimulate regulatory T cells, and vaccine efficacy was also improved by CD27 agonism in the presence of CD4(+) T-cell help. Our findings provide a preclinical rationale to apply CD27 agonist antibodies, either alone or combined with PD-1 blockade, to improve the therapeutic efficacy of cancer vaccines and immunotherapy generally. Cancer Res; 76(10); 2921-31. ©2016 AACR. ©2016 American Association for Cancer Research.

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Year:  2016        PMID: 27020860     DOI: 10.1158/0008-5472.CAN-15-3130

Source DB:  PubMed          Journal:  Cancer Res        ISSN: 0008-5472            Impact factor:   12.701


  53 in total

Review 1.  The opposing roles of CD4+ T cells in anti-tumour immunity.

Authors:  Tomasz Ahrends; Jannie Borst
Journal:  Immunology       Date:  2018-04-27       Impact factor: 7.397

2.  IFN-Stimulated Gene 15 Is an Alarmin that Boosts the CTL Response via an Innate, NK Cell-Dependent Route.

Authors:  Victoria Iglesias-Guimarais; Tomasz Ahrends; Evert de Vries; Klaus-Peter Knobeloch; Andriy Volkov; Jannie Borst
Journal:  J Immunol       Date:  2020-03-13       Impact factor: 5.422

Review 3.  Biological Consequences of MHC-II Expression by Tumor Cells in Cancer.

Authors:  Margaret L Axelrod; Rebecca S Cook; Douglas B Johnson; Justin M Balko
Journal:  Clin Cancer Res       Date:  2018-11-21       Impact factor: 12.531

Review 4.  Stimulating CD27 to quantitatively and qualitatively shape adaptive immunity to cancer.

Authors:  Timothy Nj Bullock
Journal:  Curr Opin Immunol       Date:  2017-03-17       Impact factor: 7.486

Review 5.  Vaccines targeting helper T cells for cancer immunotherapy.

Authors:  Marit Melssen; Craig L Slingluff
Journal:  Curr Opin Immunol       Date:  2017-07-26       Impact factor: 7.486

Review 6.  TNF-receptor superfamily agonists as molecular adjuvants for cancer vaccines.

Authors:  Timothy Nj Bullock
Journal:  Curr Opin Immunol       Date:  2017-07-24       Impact factor: 7.486

Review 7.  Trial watch: DNA-based vaccines for oncological indications.

Authors:  Stefano Pierini; Renzo Perales-Linares; Mireia Uribe-Herranz; Jonathan G Pol; Laurence Zitvogel; Guido Kroemer; Andrea Facciabene; Lorenzo Galluzzi
Journal:  Oncoimmunology       Date:  2017-11-20       Impact factor: 8.110

8.  Chemical and genetic control of IFNγ-induced MHCII expression.

Authors:  Ruud H Wijdeven; Marvin M van Luijn; Annet F Wierenga-Wolf; Jimmy J Akkermans; Peter J van den Elsen; Rogier Q Hintzen; Jacques Neefjes
Journal:  EMBO Rep       Date:  2018-07-18       Impact factor: 8.807

9.  A CD40 Agonist and PD-1 Antagonist Antibody Reprogram the Microenvironment of Nonimmunogenic Tumors to Allow T-cell-Mediated Anticancer Activity.

Authors:  Hayley S Ma; Bibhav Poudel; Evanthia Roussos Torres; John-William Sidhom; Tara M Robinson; Brian Christmas; Blake Scott; Kayla Cruz; Skylar Woolman; Valerie Z Wall; Todd Armstrong; Elizabeth M Jaffee
Journal:  Cancer Immunol Res       Date:  2019-01-14       Impact factor: 11.151

10.  Optimization of Peptide Vaccines to Induce Robust Antitumor CD4 T-cell Responses.

Authors:  Takumi Kumai; Sujin Lee; Hyun-Il Cho; Hussein Sultan; Hiroya Kobayashi; Yasuaki Harabuchi; Esteban Celis
Journal:  Cancer Immunol Res       Date:  2016-12-09       Impact factor: 11.151

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