Cargando…

Ovarian cancer mutational processes drive site-specific immune evasion

High-grade serous ovarian cancer (HGSOC) is an archetypal cancer of genomic instability(1–4) patterned by distinct mutational processes(5,6), tumour heterogeneity(7–9) and intraperitoneal spread(7,8,10). Immunotherapies have had limited efficacy in HGSOC(11–13), highlighting an unmet need to assess...

Descripción completa

Detalles Bibliográficos
Autores principales: Vázquez-García, Ignacio, Uhlitz, Florian, Ceglia, Nicholas, Lim, Jamie L. P., Wu, Michelle, Mohibullah, Neeman, Niyazov, Juliana, Ruiz, Arvin Eric B., Boehm, Kevin M., Bojilova, Viktoria, Fong, Christopher J., Funnell, Tyler, Grewal, Diljot, Havasov, Eliyahu, Leung, Samantha, Pasha, Arfath, Patel, Druv M., Pourmaleki, Maryam, Rusk, Nicole, Shi, Hongyu, Vanguri, Rami, Williams, Marc J., Zhang, Allen W., Broach, Vance, Chi, Dennis S., Da Cruz Paula, Arnaud, Gardner, Ginger J., Kim, Sarah H., Lennon, Matthew, Long Roche, Kara, Sonoda, Yukio, Zivanovic, Oliver, Kundra, Ritika, Viale, Agnes, Derakhshan, Fatemeh N., Geneslaw, Luke, Issa Bhaloo, Shirin, Maroldi, Ana, Nunez, Rahelly, Pareja, Fresia, Stylianou, Anthe, Vahdatinia, Mahsa, Bykov, Yonina, Grisham, Rachel N., Liu, Ying L., Lakhman, Yulia, Nikolovski, Ines, Kelly, Daniel, Gao, Jianjiong, Schietinger, Andrea, Hollmann, Travis J., Bakhoum, Samuel F., Soslow, Robert A., Ellenson, Lora H., Abu-Rustum, Nadeem R., Aghajanian, Carol, Friedman, Claire F., McPherson, Andrew, Weigelt, Britta, Zamarin, Dmitriy, Shah, Sohrab P.
Formato: Online Artículo Texto
Lenguaje:English
Publicado: Nature Publishing Group UK 2022
Materias:
Acceso en línea:https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9771812/
https://www.ncbi.nlm.nih.gov/pubmed/36517593
http://dx.doi.org/10.1038/s41586-022-05496-1
_version_ 1784854896770547712
author Vázquez-García, Ignacio
Uhlitz, Florian
Ceglia, Nicholas
Lim, Jamie L. P.
Wu, Michelle
Mohibullah, Neeman
Niyazov, Juliana
Ruiz, Arvin Eric B.
Boehm, Kevin M.
Bojilova, Viktoria
Fong, Christopher J.
Funnell, Tyler
Grewal, Diljot
Havasov, Eliyahu
Leung, Samantha
Pasha, Arfath
Patel, Druv M.
Pourmaleki, Maryam
Rusk, Nicole
Shi, Hongyu
Vanguri, Rami
Williams, Marc J.
Zhang, Allen W.
Broach, Vance
Chi, Dennis S.
Da Cruz Paula, Arnaud
Gardner, Ginger J.
Kim, Sarah H.
Lennon, Matthew
Long Roche, Kara
Sonoda, Yukio
Zivanovic, Oliver
Kundra, Ritika
Viale, Agnes
Derakhshan, Fatemeh N.
Geneslaw, Luke
Issa Bhaloo, Shirin
Maroldi, Ana
Nunez, Rahelly
Pareja, Fresia
Stylianou, Anthe
Vahdatinia, Mahsa
Bykov, Yonina
Grisham, Rachel N.
Liu, Ying L.
Lakhman, Yulia
Nikolovski, Ines
Kelly, Daniel
Gao, Jianjiong
Schietinger, Andrea
Hollmann, Travis J.
Bakhoum, Samuel F.
Soslow, Robert A.
Ellenson, Lora H.
Abu-Rustum, Nadeem R.
Aghajanian, Carol
Friedman, Claire F.
McPherson, Andrew
Weigelt, Britta
Zamarin, Dmitriy
Shah, Sohrab P.
author_facet Vázquez-García, Ignacio
Uhlitz, Florian
Ceglia, Nicholas
Lim, Jamie L. P.
Wu, Michelle
Mohibullah, Neeman
Niyazov, Juliana
Ruiz, Arvin Eric B.
Boehm, Kevin M.
Bojilova, Viktoria
Fong, Christopher J.
Funnell, Tyler
Grewal, Diljot
Havasov, Eliyahu
Leung, Samantha
Pasha, Arfath
Patel, Druv M.
Pourmaleki, Maryam
Rusk, Nicole
Shi, Hongyu
Vanguri, Rami
Williams, Marc J.
Zhang, Allen W.
Broach, Vance
Chi, Dennis S.
Da Cruz Paula, Arnaud
Gardner, Ginger J.
Kim, Sarah H.
Lennon, Matthew
Long Roche, Kara
Sonoda, Yukio
Zivanovic, Oliver
Kundra, Ritika
Viale, Agnes
Derakhshan, Fatemeh N.
Geneslaw, Luke
Issa Bhaloo, Shirin
Maroldi, Ana
Nunez, Rahelly
Pareja, Fresia
Stylianou, Anthe
Vahdatinia, Mahsa
Bykov, Yonina
Grisham, Rachel N.
Liu, Ying L.
Lakhman, Yulia
Nikolovski, Ines
Kelly, Daniel
Gao, Jianjiong
Schietinger, Andrea
Hollmann, Travis J.
Bakhoum, Samuel F.
Soslow, Robert A.
Ellenson, Lora H.
Abu-Rustum, Nadeem R.
Aghajanian, Carol
Friedman, Claire F.
McPherson, Andrew
Weigelt, Britta
Zamarin, Dmitriy
Shah, Sohrab P.
author_sort Vázquez-García, Ignacio
collection PubMed
description High-grade serous ovarian cancer (HGSOC) is an archetypal cancer of genomic instability(1–4) patterned by distinct mutational processes(5,6), tumour heterogeneity(7–9) and intraperitoneal spread(7,8,10). Immunotherapies have had limited efficacy in HGSOC(11–13), highlighting an unmet need to assess how mutational processes and the anatomical sites of tumour foci determine the immunological states of the tumour microenvironment. Here we carried out an integrative analysis of whole-genome sequencing, single-cell RNA sequencing, digital histopathology and multiplexed immunofluorescence of 160 tumour sites from 42 treatment-naive patients with HGSOC. Homologous recombination-deficient HRD-Dup (BRCA1 mutant-like) and HRD-Del (BRCA2 mutant-like) tumours harboured inflammatory signalling and ongoing immunoediting, reflected in loss of HLA diversity and tumour infiltration with highly differentiated dysfunctional CD8(+) T cells. By contrast, foldback-inversion-bearing tumours exhibited elevated immunosuppressive TGFβ signalling and immune exclusion, with predominantly naive/stem-like and memory T cells. Phenotypic state associations were specific to anatomical sites, highlighting compositional, topological and functional differences between adnexal tumours and distal peritoneal foci. Our findings implicate anatomical sites and mutational processes as determinants of evolutionary phenotypic divergence and immune resistance mechanisms in HGSOC. Our study provides a multi-omic cellular phenotype data substrate from which to develop and interpret future personalized immunotherapeutic approaches and early detection research.
format Online
Article
Text
id pubmed-9771812
institution National Center for Biotechnology Information
language English
publishDate 2022
publisher Nature Publishing Group UK
record_format MEDLINE/PubMed
spelling pubmed-97718122022-12-23 Ovarian cancer mutational processes drive site-specific immune evasion Vázquez-García, Ignacio Uhlitz, Florian Ceglia, Nicholas Lim, Jamie L. P. Wu, Michelle Mohibullah, Neeman Niyazov, Juliana Ruiz, Arvin Eric B. Boehm, Kevin M. Bojilova, Viktoria Fong, Christopher J. Funnell, Tyler Grewal, Diljot Havasov, Eliyahu Leung, Samantha Pasha, Arfath Patel, Druv M. Pourmaleki, Maryam Rusk, Nicole Shi, Hongyu Vanguri, Rami Williams, Marc J. Zhang, Allen W. Broach, Vance Chi, Dennis S. Da Cruz Paula, Arnaud Gardner, Ginger J. Kim, Sarah H. Lennon, Matthew Long Roche, Kara Sonoda, Yukio Zivanovic, Oliver Kundra, Ritika Viale, Agnes Derakhshan, Fatemeh N. Geneslaw, Luke Issa Bhaloo, Shirin Maroldi, Ana Nunez, Rahelly Pareja, Fresia Stylianou, Anthe Vahdatinia, Mahsa Bykov, Yonina Grisham, Rachel N. Liu, Ying L. Lakhman, Yulia Nikolovski, Ines Kelly, Daniel Gao, Jianjiong Schietinger, Andrea Hollmann, Travis J. Bakhoum, Samuel F. Soslow, Robert A. Ellenson, Lora H. Abu-Rustum, Nadeem R. Aghajanian, Carol Friedman, Claire F. McPherson, Andrew Weigelt, Britta Zamarin, Dmitriy Shah, Sohrab P. Nature Article High-grade serous ovarian cancer (HGSOC) is an archetypal cancer of genomic instability(1–4) patterned by distinct mutational processes(5,6), tumour heterogeneity(7–9) and intraperitoneal spread(7,8,10). Immunotherapies have had limited efficacy in HGSOC(11–13), highlighting an unmet need to assess how mutational processes and the anatomical sites of tumour foci determine the immunological states of the tumour microenvironment. Here we carried out an integrative analysis of whole-genome sequencing, single-cell RNA sequencing, digital histopathology and multiplexed immunofluorescence of 160 tumour sites from 42 treatment-naive patients with HGSOC. Homologous recombination-deficient HRD-Dup (BRCA1 mutant-like) and HRD-Del (BRCA2 mutant-like) tumours harboured inflammatory signalling and ongoing immunoediting, reflected in loss of HLA diversity and tumour infiltration with highly differentiated dysfunctional CD8(+) T cells. By contrast, foldback-inversion-bearing tumours exhibited elevated immunosuppressive TGFβ signalling and immune exclusion, with predominantly naive/stem-like and memory T cells. Phenotypic state associations were specific to anatomical sites, highlighting compositional, topological and functional differences between adnexal tumours and distal peritoneal foci. Our findings implicate anatomical sites and mutational processes as determinants of evolutionary phenotypic divergence and immune resistance mechanisms in HGSOC. Our study provides a multi-omic cellular phenotype data substrate from which to develop and interpret future personalized immunotherapeutic approaches and early detection research. Nature Publishing Group UK 2022-12-14 2022 /pmc/articles/PMC9771812/ /pubmed/36517593 http://dx.doi.org/10.1038/s41586-022-05496-1 Text en © The Author(s) 2022 https://creativecommons.org/licenses/by/4.0/Open Access This article is licensed under a Creative Commons Attribution 4.0 International License, which permits use, sharing, adaptation, distribution and reproduction in any medium or format, as long as you give appropriate credit to the original author(s) and the source, provide a link to the Creative Commons licence, and indicate if changes were made. The images or other third party material in this article are included in the article’s Creative Commons licence, unless indicated otherwise in a credit line to the material. If material is not included in the article’s Creative Commons licence and your intended use is not permitted by statutory regulation or exceeds the permitted use, you will need to obtain permission directly from the copyright holder. To view a copy of this licence, visit http://creativecommons.org/licenses/by/4.0/ (https://creativecommons.org/licenses/by/4.0/) .
spellingShingle Article
Vázquez-García, Ignacio
Uhlitz, Florian
Ceglia, Nicholas
Lim, Jamie L. P.
Wu, Michelle
Mohibullah, Neeman
Niyazov, Juliana
Ruiz, Arvin Eric B.
Boehm, Kevin M.
Bojilova, Viktoria
Fong, Christopher J.
Funnell, Tyler
Grewal, Diljot
Havasov, Eliyahu
Leung, Samantha
Pasha, Arfath
Patel, Druv M.
Pourmaleki, Maryam
Rusk, Nicole
Shi, Hongyu
Vanguri, Rami
Williams, Marc J.
Zhang, Allen W.
Broach, Vance
Chi, Dennis S.
Da Cruz Paula, Arnaud
Gardner, Ginger J.
Kim, Sarah H.
Lennon, Matthew
Long Roche, Kara
Sonoda, Yukio
Zivanovic, Oliver
Kundra, Ritika
Viale, Agnes
Derakhshan, Fatemeh N.
Geneslaw, Luke
Issa Bhaloo, Shirin
Maroldi, Ana
Nunez, Rahelly
Pareja, Fresia
Stylianou, Anthe
Vahdatinia, Mahsa
Bykov, Yonina
Grisham, Rachel N.
Liu, Ying L.
Lakhman, Yulia
Nikolovski, Ines
Kelly, Daniel
Gao, Jianjiong
Schietinger, Andrea
Hollmann, Travis J.
Bakhoum, Samuel F.
Soslow, Robert A.
Ellenson, Lora H.
Abu-Rustum, Nadeem R.
Aghajanian, Carol
Friedman, Claire F.
McPherson, Andrew
Weigelt, Britta
Zamarin, Dmitriy
Shah, Sohrab P.
Ovarian cancer mutational processes drive site-specific immune evasion
title Ovarian cancer mutational processes drive site-specific immune evasion
title_full Ovarian cancer mutational processes drive site-specific immune evasion
title_fullStr Ovarian cancer mutational processes drive site-specific immune evasion
title_full_unstemmed Ovarian cancer mutational processes drive site-specific immune evasion
title_short Ovarian cancer mutational processes drive site-specific immune evasion
title_sort ovarian cancer mutational processes drive site-specific immune evasion
topic Article
url https://www.ncbi.nlm.nih.gov/pmc/articles/PMC9771812/
https://www.ncbi.nlm.nih.gov/pubmed/36517593
http://dx.doi.org/10.1038/s41586-022-05496-1
work_keys_str_mv AT vazquezgarciaignacio ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT uhlitzflorian ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT ceglianicholas ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT limjamielp ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT wumichelle ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT mohibullahneeman ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT niyazovjuliana ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT ruizarvinericb ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT boehmkevinm ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT bojilovaviktoria ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT fongchristopherj ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT funnelltyler ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT grewaldiljot ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT havasoveliyahu ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT leungsamantha ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT pashaarfath ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT pateldruvm ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT pourmalekimaryam ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT rusknicole ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT shihongyu ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT vangurirami ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT williamsmarcj ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT zhangallenw ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT broachvance ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT chidenniss ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT dacruzpaulaarnaud ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT gardnergingerj ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT kimsarahh ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT lennonmatthew ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT longrochekara ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT sonodayukio ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT zivanovicoliver ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT kundraritika ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT vialeagnes ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT derakhshanfatemehn ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT geneslawluke ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT issabhalooshirin ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT maroldiana ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT nunezrahelly ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT parejafresia ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT stylianouanthe ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT vahdatiniamahsa ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT bykovyonina ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT grishamracheln ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT liuyingl ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT lakhmanyulia ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT nikolovskiines ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT kellydaniel ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT gaojianjiong ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT schietingerandrea ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT hollmanntravisj ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT bakhoumsamuelf ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT soslowroberta ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT ellensonlorah ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT aburustumnadeemr ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT aghajaniancarol ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT friedmanclairef ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT mcphersonandrew ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT weigeltbritta ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT zamarindmitriy ovariancancermutationalprocessesdrivesitespecificimmuneevasion
AT shahsohrabp ovariancancermutationalprocessesdrivesitespecificimmuneevasion