TY - JOUR
T1 - Truncated FGFR2 is a clinically actionable oncogene in multiple cancers
AU - Zingg, Daniel
AU - Bhin, Jinhyuk
AU - Yemelyanenko, Julia
AU - Kas, Sjors M.
AU - Rolfs, Frank
AU - Lutz, Catrin
AU - Lee, Jessica K.
AU - Klarenbeek, Sjoerd
AU - Silverman, Ian M.
AU - Annunziato, Stefano
AU - Chan, Chang S.
AU - Piersma, Sander R.
AU - Eijkman, Timo
AU - Badoux, Madelon
AU - Gogola, Ewa
AU - Siteur, Bjørn
AU - Sprengers, Justin
AU - de Klein, Bim
AU - de Goeij-de Haas, Richard R.
AU - Riedlinger, Gregory M.
AU - Ke, Hua
AU - Madison, Russell
AU - Drenth, Anne Paulien
AU - van der Burg, Eline
AU - Schut, Eva
AU - Henneman, Linda
AU - van Miltenburg, Martine H.
AU - Proost, Natalie
AU - Zhen, Huiling
AU - Wientjens, Ellen
AU - de Bruijn, Roebi
AU - de Ruiter, Julian R.
AU - Boon, Ute
AU - de Korte-Grimmerink, Renske
AU - van Gerwen, Bastiaan
AU - Féliz, Luis
AU - Abou-Alfa, Ghassan K.
AU - Ross, Jeffrey S.
AU - van de Ven, Marieke
AU - Rottenberg, Sven
AU - Cuppen, Edwin
AU - Chessex, Anne Vaslin
AU - Ali, Siraj M.
AU - Burn, Timothy C.
AU - Jimenez, Connie R.
AU - Ganesan, Shridar
AU - Wessels, Lodewyk F.A.
AU - Jonkers, Jos
N1 - Funding Information:
We thank D. Zimmerli and I. van der Heijden for experimental support and J. Houthuijzen and A. Moises Da Silva for providing mice; the staff at the NKI animal facility, the animal pathology facility, the flow cytometry facility and the genomics core facility and Rutgers Cancer Institute of New Jersey Biospecimen Repository and Histopathology Service Shared Resource for their technical support; the people from the transgenic and the preclinical intervention units of the Mouse Clinic for Cancer and Ageing (MCCA) at the NKI for their technical support performing the animal experiments; and the staff at Crown Bioscience for their technical support with performing the PDX experiments. This publication and the underlying study have been made possible in part on the basis of the data that the Hartwig Medical Foundation and the Center of Personalised Cancer Treatment (CPCT) have made available to the study as well as the data from the Broad Institute (CCLE and CTRPv2), the Wellcome Sanger Institute (GDSC) and TCGA Research Network. This work was funded by the Dutch Cancer Society (KWF 2017-61169 to J.B., L.F.A.W. and J.J.; KWF 2020-12894 to D.Z., E.C., L.F.A.W. and J.J.), the European Research Council (ERC Synergy project CombatCancer to J.J.; ERC AdG-883877 to S.R.), the Netherlands Organisation for Scientific Research (NWO-Middelgroot project 91116017 to C.R.J.), the VUmc-Cancer Center Amsterdam (infrastructure grant to C.R.J.), the Swiss National Science Foundation (SNF P2ZHP3_175027 to D.Z.; SNF 310030_179360 to S.R.), the German Research Foundation (DFG 319175447 to F.R.), and the US National Cancer Institute (NCI P30CA072720 to C.S.C. and S.G.). This work is part of the Oncode Institute, which is partly financed by the Dutch Cancer Society.
Funding Information:
We thank D. Zimmerli and I. van der Heijden for experimental support and J. Houthuijzen and A. Moises Da Silva for providing mice; the staff at the NKI animal facility, the animal pathology facility, the flow cytometry facility and the genomics core facility and Rutgers Cancer Institute of New Jersey Biospecimen Repository and Histopathology Service Shared Resource for their technical support; the people from the transgenic and the preclinical intervention units of the Mouse Clinic for Cancer and Ageing (MCCA) at the NKI for their technical support performing the animal experiments; and the staff at Crown Bioscience for their technical support with performing the PDX experiments. This publication and the underlying study have been made possible in part on the basis of the data that the Hartwig Medical Foundation and the Center of Personalised Cancer Treatment (CPCT) have made available to the study as well as the data from the Broad Institute (CCLE and CTRPv2), the Wellcome Sanger Institute (GDSC) and TCGA Research Network. This work was funded by the Dutch Cancer Society (KWF 2017-61169 to J.B., L.F.A.W. and J.J.; KWF 2020-12894 to D.Z., E.C., L.F.A.W. and J.J.), the European Research Council (ERC Synergy project CombatCancer to J.J.; ERC AdG-883877 to S.R.), the Netherlands Organisation for Scientific Research (NWO-Middelgroot project 91116017 to C.R.J.), the VUmc-Cancer Center Amsterdam (infrastructure grant to C.R.J.), the Swiss National Science Foundation (SNF P2ZHP3_175027 to D.Z.; SNF 310030_179360 to S.R.), the German Research Foundation (DFG 319175447 to F.R.), and the US National Cancer Institute (NCI P30CA072720 to C.S.C. and S.G.). This work is part of the Oncode Institute, which is partly financed by the Dutch Cancer Society.
Publisher Copyright:
© 2022, The Author(s), under exclusive licence to Springer Nature Limited.
PY - 2022/8/18
Y1 - 2022/8/18
N2 - Somatic hotspot mutations and structural amplifications and fusions that affect fibroblast growth factor receptor 2 (encoded by FGFR2) occur in multiple types of cancer1. However, clinical responses to FGFR inhibitors have remained variable1–9, emphasizing the need to better understand which FGFR2 alterations are oncogenic and therapeutically targetable. Here we apply transposon-based screening10,11 and tumour modelling in mice12,13, and find that the truncation of exon 18 (E18) of Fgfr2 is a potent driver mutation. Human oncogenomic datasets revealed a diverse set of FGFR2 alterations, including rearrangements, E1–E17 partial amplifications, and E18 nonsense and frameshift mutations, each causing the transcription of E18-truncated FGFR2 (FGFR2ΔE18). Functional in vitro and in vivo examination of a compendium of FGFR2ΔE18 and full-length variants pinpointed FGFR2-E18 truncation as single-driver alteration in cancer. By contrast, the oncogenic competence of FGFR2 full-length amplifications depended on a distinct landscape of cooperating driver genes. This suggests that genomic alterations that generate stable FGFR2ΔE18 variants are actionable therapeutic targets, which we confirmed in preclinical mouse and human tumour models, and in a clinical trial. We propose that cancers containing any FGFR2 variant with a truncated E18 should be considered for FGFR-targeted therapies.
AB - Somatic hotspot mutations and structural amplifications and fusions that affect fibroblast growth factor receptor 2 (encoded by FGFR2) occur in multiple types of cancer1. However, clinical responses to FGFR inhibitors have remained variable1–9, emphasizing the need to better understand which FGFR2 alterations are oncogenic and therapeutically targetable. Here we apply transposon-based screening10,11 and tumour modelling in mice12,13, and find that the truncation of exon 18 (E18) of Fgfr2 is a potent driver mutation. Human oncogenomic datasets revealed a diverse set of FGFR2 alterations, including rearrangements, E1–E17 partial amplifications, and E18 nonsense and frameshift mutations, each causing the transcription of E18-truncated FGFR2 (FGFR2ΔE18). Functional in vitro and in vivo examination of a compendium of FGFR2ΔE18 and full-length variants pinpointed FGFR2-E18 truncation as single-driver alteration in cancer. By contrast, the oncogenic competence of FGFR2 full-length amplifications depended on a distinct landscape of cooperating driver genes. This suggests that genomic alterations that generate stable FGFR2ΔE18 variants are actionable therapeutic targets, which we confirmed in preclinical mouse and human tumour models, and in a clinical trial. We propose that cancers containing any FGFR2 variant with a truncated E18 should be considered for FGFR-targeted therapies.
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U2 - 10.1038/s41586-022-05066-5
DO - 10.1038/s41586-022-05066-5
M3 - Article
C2 - 35948633
AN - SCOPUS:85136216088
VL - 608
SP - 609
EP - 617
JO - Nature
JF - Nature
SN - 0028-0836
IS - 7923
ER -