Author
Listed:
- Derin B. Keskin
(Dana-Farber Cancer Institute
Brigham and Women’s Hospital
Broad Institute of MIT and Harvard
Harvard Medical School)
- Annabelle J. Anandappa
(Dana-Farber Cancer Institute
Harvard Medical School)
- Jing Sun
(Dana-Farber Cancer Institute)
- Itay Tirosh
(Broad Institute of MIT and Harvard
Weizmann Institute of Science)
- Nathan D. Mathewson
(Harvard Medical School
Dana-Farber Cancer Institute)
- Shuqiang Li
(Broad Institute of MIT and Harvard
Dana-Farber Cancer Institute)
- Giacomo Oliveira
(Dana-Farber Cancer Institute)
- Anita Giobbie-Hurder
(Dana-Farber Cancer Institute)
- Kristen Felt
(Center for Immuno-Oncology, Dana-Farber Cancer Institute)
- Evisa Gjini
(Center for Immuno-Oncology, Dana-Farber Cancer Institute)
- Sachet A. Shukla
(Dana-Farber Cancer Institute
Dana-Farber Cancer Institute)
- Zhuting Hu
(Dana-Farber Cancer Institute)
- Letitia Li
(Dana-Farber Cancer Institute)
- Phuong M. Le
(Dana-Farber Cancer Institute)
- Rosa L. Allesøe
(Dana-Farber Cancer Institute
Technical University of Denmark)
- Alyssa R. Richman
(Broad Institute of MIT and Harvard
Harvard Medical School
Massachusetts General Hospital
Massachusetts General Hospital)
- Monika S. Kowalczyk
(Broad Institute of MIT and Harvard)
- Sara Abdelrahman
(Center for Immuno-Oncology, Dana-Farber Cancer Institute)
- Jack E. Geduldig
(Dana-Farber Cancer Institute)
- Sarah Charbonneau
(Dana-Farber Cancer Institute)
- Kristine Pelton
(Dana-Farber Cancer Institute)
- J. Bryan Iorgulescu
(Dana-Farber Cancer Institute
Harvard Medical School
Brigham and Women’s Hospital)
- Liudmila Elagina
(Broad Institute of MIT and Harvard)
- Wandi Zhang
(Dana-Farber Cancer Institute)
- Oriol Olive
(Dana-Farber Cancer Institute)
- Christine McCluskey
(Dana-Farber Cancer Institute)
- Lars R. Olsen
(Technical University of Denmark)
- Jonathan Stevens
(Brigham and Women’s Hospital)
- William J. Lane
(Harvard Medical School
Brigham and Women’s Hospital)
- Andres M. Salazar
(Oncovir Inc)
- Heather Daley
(Dana-Farber Cancer Institute)
- Patrick Y. Wen
(Dana-Farber Cancer Institute
Harvard Medical School
Brigham and Women’s Hospital)
- E. Antonio Chiocca
(Harvard Medical School
Brigham and Women’s Hospital)
- Maegan Harden
(Broad Institute of MIT and Harvard)
- Niall J. Lennon
(Broad Institute of MIT and Harvard)
- Stacey Gabriel
(Broad Institute of MIT and Harvard)
- Gad Getz
(Broad Institute of MIT and Harvard
Harvard Medical School
Massachusetts General Hospital)
- Eric S. Lander
(Broad Institute of MIT and Harvard)
- Aviv Regev
(Broad Institute of MIT and Harvard)
- Jerome Ritz
(Dana-Farber Cancer Institute
Brigham and Women’s Hospital
Harvard Medical School)
- Donna Neuberg
(Dana-Farber Cancer Institute)
- Scott J. Rodig
(Harvard Medical School
Center for Immuno-Oncology, Dana-Farber Cancer Institute
Brigham and Women’s Hospital)
- Keith L. Ligon
(Broad Institute of MIT and Harvard
Harvard Medical School
Dana-Farber Cancer Institute
Brigham and Women’s Hospital)
- Mario L. Suvà
(Broad Institute of MIT and Harvard
Harvard Medical School
Massachusetts General Hospital
Massachusetts General Hospital)
- Kai W. Wucherpfennig
(Harvard Medical School
Dana-Farber Cancer Institute)
- Nir Hacohen
(Broad Institute of MIT and Harvard
Harvard Medical School
Massachusetts General Hospital)
- Edward F. Fritsch
(Dana-Farber Cancer Institute
Broad Institute of MIT and Harvard
Neon Therapeutics Inc)
- Kenneth J. Livak
(Dana-Farber Cancer Institute
Dana-Farber Cancer Institute)
- Patrick A. Ott
(Dana-Farber Cancer Institute
Brigham and Women’s Hospital
Harvard Medical School)
- Catherine J. Wu
(Dana-Farber Cancer Institute
Brigham and Women’s Hospital
Broad Institute of MIT and Harvard
Harvard Medical School)
- David A. Reardon
(Dana-Farber Cancer Institute
Brigham and Women’s Hospital
Harvard Medical School)
Abstract
Neoantigens, which are derived from tumour-specific protein-coding mutations, are exempt from central tolerance, can generate robust immune responses1,2 and can function as bona fide antigens that facilitate tumour rejection3. Here we demonstrate that a strategy that uses multi-epitope, personalized neoantigen vaccination, which has previously been tested in patients with high-risk melanoma4–6, is feasible for tumours such as glioblastoma, which typically have a relatively low mutation load1,7 and an immunologically ‘cold’ tumour microenvironment8. We used personalized neoantigen-targeting vaccines to immunize patients newly diagnosed with glioblastoma following surgical resection and conventional radiotherapy in a phase I/Ib study. Patients who did not receive dexamethasone—a highly potent corticosteroid that is frequently prescribed to treat cerebral oedema in patients with glioblastoma—generated circulating polyfunctional neoantigen-specific CD4+ and CD8+ T cell responses that were enriched in a memory phenotype and showed an increase in the number of tumour-infiltrating T cells. Using single-cell T cell receptor analysis, we provide evidence that neoantigen-specific T cells from the peripheral blood can migrate into an intracranial glioblastoma tumour. Neoantigen-targeting vaccines thus have the potential to favourably alter the immune milieu of glioblastoma.
Suggested Citation
Derin B. Keskin & Annabelle J. Anandappa & Jing Sun & Itay Tirosh & Nathan D. Mathewson & Shuqiang Li & Giacomo Oliveira & Anita Giobbie-Hurder & Kristen Felt & Evisa Gjini & Sachet A. Shukla & Zhutin, 2019.
"Neoantigen vaccine generates intratumoral T cell responses in phase Ib glioblastoma trial,"
Nature, Nature, vol. 565(7738), pages 234-239, January.
Handle:
RePEc:nat:nature:v:565:y:2019:i:7738:d:10.1038_s41586-018-0792-9
DOI: 10.1038/s41586-018-0792-9
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Cited by:
- Pauline Latzer & Henning Zelba & Florian Battke & Annekathrin Reinhardt & Borong Shao & Oliver Bartsch & Armin Rabsteyn & Johannes Harter & Martin Schulze & Thomas Okech & Alexander Golf & Christina K, 2024.
"A real-world observation of patients with glioblastoma treated with a personalized peptide vaccine,"
Nature Communications, Nature, vol. 15(1), pages 1-9, December.
- Hakimeh Ebrahimi-Nik & Marmar Moussa & Ryan P. Englander & Summit Singhaviranon & Justine Michaux & HuiSong Pak & Hiroko Miyadera & William L. Corwin & Grant L. J. Keller & Adam T. Hagymasi & Tatiana , 2021.
"Reversion analysis reveals the in vivo immunogenicity of a poorly MHC I-binding cancer neoepitope,"
Nature Communications, Nature, vol. 12(1), pages 1-11, December.
- Dinh-Huy Nguyen & Sung-Hwan You & Hien Thi-Thu Ngo & Khuynh Nguyen & Khang Vuong Tran & Tan-Huy Chu & So-young Kim & Sang-Jun Ha & Yeongjin Hong & Jung-Joon Min, 2024.
"Reprogramming the tumor immune microenvironment using engineered dual-drug loaded Salmonella,"
Nature Communications, Nature, vol. 15(1), pages 1-17, December.
- J. K. Wiencke & Annette M. Molinaro & Gayathri Warrier & Terri Rice & Jennifer Clarke & Jennie W. Taylor & Margaret Wrensch & Helen Hansen & Lucie McCoy & Emily Tang & Stan J. Tamaki & Courtney M. Tam, 2022.
"DNA methylation as a pharmacodynamic marker of glucocorticoid response and glioma survival,"
Nature Communications, Nature, vol. 13(1), pages 1-16, December.
- Laura Y. Zhou & Fei Zou & Wei Sun, 2023.
"Prioritizing candidate peptides for cancer vaccines through predicting peptide presentation by HLA‐I proteins,"
Biometrics, The International Biometric Society, vol. 79(3), pages 2664-2676, September.
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