Abstract
Infant high-grade gliomas appear clinically distinct from their counterparts in older children, indicating that histopathologic grading may not accurately reflect the biology of these tumors. We have collected 241 cases under 4 years of age, and carried out histologic review, methylation profiling, and custom panel, genome, or exome sequencing. After excluding tumors representing other established entities or subgroups, we identified 130 cases to be part of an “intrin-sic” spectrum of disease specific to the infant population. These included those with targetable MAPK alterations, and a large proportion of remaining cases harboring gene fusions targeting ALK (n = 31), NTRK1/2/3 (n = 21), ROS1 (n = 9), and MET (n = 4) as their driving alterations, with evidence of efficacy of targeted agents in the clinic. These data strongly support the concept that infant gliomas require a change in diagnostic practice and management. SIGNIFICANCE: Infant high-grade gliomas in the cerebral hemispheres comprise novel subgroups, with a prevalence of ALK, NTRK1/2/3, ROS1, or MET gene fusions. Kinase fusion–positive tumors have better outcome and respond to targeted therapy clinically. Other subgroups have poor outcome, with fusion-negative cases possibly representing an epigenetically driven pluripotent stem cell phenotype.
Original language | English (US) |
---|---|
Pages (from-to) | 942-963 |
Number of pages | 22 |
Journal | Cancer discovery |
Volume | 10 |
Issue number | 7 |
DOIs | |
State | Published - Jul 2020 |
ASJC Scopus subject areas
- Oncology
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In: Cancer discovery, Vol. 10, No. 7, 07.2020, p. 942-963.
Research output: Contribution to journal › Article › peer-review
}
TY - JOUR
T1 - Infant high-grade gliomas comprise multiple subgroups characterized by novel targetable gene fusions and favorable outcomes
AU - Clarke, Matthew
AU - Mackay, Alan
AU - Ismer, Britta
AU - Pickles, Jessica C.
AU - Tatevossian, Ruth G.
AU - Newman, Scott
AU - Bale, Tejus A.
AU - Stoler, Iris
AU - Izquierdo, Elisa
AU - Temelso, Sara
AU - Carvalho, Diana M.
AU - Molinari, Valeria
AU - Burford, Anna
AU - Howell, Louise
AU - Virasami, Alex
AU - Fairchild, Amy R.
AU - Avery, Aimee
AU - Chalker, Jane
AU - Kristiansen, Mark
AU - Haupfear, Kelly
AU - Dalton, James D.
AU - Orisme, Wilda
AU - Wen, Ji
AU - Hubank, Michael
AU - Kurian, Kathreena M.
AU - Rowe, Catherine
AU - Maybury, Mellissa
AU - Crosier, Stephen
AU - Knipstein, Jeffrey
AU - Schüller, Ulrich
AU - Kordes, Uwe
AU - Kram, David E.
AU - Snuderl, Matija
AU - Bridges, Leslie
AU - Martin, Andrew J.
AU - Doey, Lawrence J.
AU - Al-Sarraj, Safa
AU - Chandler, Christopher
AU - Zebian, Bassel
AU - Cairns, Claire
AU - Natrajan, Rachael
AU - Boult, Jessica K.R.
AU - Robinson, Simon P.
AU - Sill, Martin
AU - Dunkel, Ira J.
AU - Gilheeney, Stephen W.
AU - Rosenblum, Marc K.
AU - Hughes, Debbie
AU - Proszek, Paula Z.
AU - Macdonald, Tobey J.
AU - Preusser, Matthias
AU - Haberler, Christine
AU - Slavc, Irene
AU - Packer, Roger
AU - Ng, Ho Keung
AU - Caspi, Shani
AU - Popović, Mara
AU - Kotnik, Barbara Faganel
AU - Wood, Matthew D.
AU - Baird, Lissa
AU - Davare, Monika Ashok
AU - Solomon, David A.
AU - Olsen, Thale Kristin
AU - Brandal, Petter
AU - Farrell, Michael
AU - Cryan, Jane B.
AU - Capra, Michael
AU - Karremann, Michael
AU - Schittenhelm, Jens
AU - Schuhmann, Martin U.
AU - Ebinger, Martin
AU - Dinjens, Winand N.M.
AU - Kerl, Kornelius
AU - Hettmer, Simone
AU - Pietsch, Torsten
AU - Andreiuolo, Felipe
AU - Driever, Pablo Hernáiz
AU - Korshunov, Andrey
AU - Hiddingh, Lotte
AU - Worst, Barbara C.
AU - Sturm, Dominik
AU - Zuckermann, Marc
AU - Witt, Olaf
AU - Bloom, Tabitha
AU - Mitchell, Clare
AU - Miele, Evelina
AU - Colafati, Giovanna Stefania
AU - Diomedi-Camassei, Francesca
AU - Bailey, Simon
AU - Moore, Andrew S.
AU - Hassall, Timothy E.G.
AU - Lowis, Stephen P.
AU - Tsoli, Maria
AU - Cowley, Mark J.
AU - Ziegler, David S.
AU - Karajannis, Matthias A.
AU - Aquilina, Kristian
AU - Hargrave, Darren R.
AU - Carceller, Fernando
AU - Marshall, Lynley V.
AU - Deimling, Andreas von
AU - Kramm, Christof M.
AU - Pfister, Stefan M.
AU - Sahm, Felix
AU - Baker, Suzanne J.
AU - Mastronuzzi, Angela
AU - Carai, Andrea
AU - Vinci, Maria
AU - Capper, David
AU - Popov, Sergey
AU - Ellison, David W.
AU - Jacques, Thomas S.
AU - Jones, David T.W.
AU - Jones, Chris
N1 - Funding Information: This work was supported by the CRIS Cancer Foundation and the INSTINCT network funded by The Brain Tumour Charity, Great Ormond Street Children’s Charity, and Children with Cancer UK, Cancer Research UK. The authors acknowledge NHS funding to the National Institute for Health Research Biomedical Research Centre at The Royal Marsden and the ICR, the NIHR Great Ormond Street Hospital Biomedical Research Centre, research nurse funding by the Experimental Cancer Medicines Centre (ECMC) Paediatric Network, as well as CRUK support to the Cancer Imaging Centre at the ICR and Royal Marsden in association with the MRC and Department of Health (England; C1060/A16464). Further funding support was provided by the German Children’s Cancer Foundation (DKKS, project “MNP2.0 – Improving the Diagnostic Accuracy of Pediatric Brain Tumors,” and support for the German Brain Tumor Reference Center of the DGNN, grant 2014.17) and the PedBrain Tumour Project contributing to the International Cancer Genome Consortium, funded by German Cancer Aid (109252) and by the German Federal Ministry of Education and Research (BMBF, grant #01KU1201A), and the DKFZ-MOST Cooperation Program. We would like to thank Laura von Soosten (DKFZ) for technical assistance and Richard Buus (ICR) and the Breast Cancer Now NanoString facility for conducting the NanoString gene expression profiling. The authors thank Brain UK for provision of cases and clinical information. The authors thank the Cure Brain Cancer Foundation, Australian Lions Childhood Cancer Research Foundation, and Lions Club International Foundation (LCIF). Some of the results are in part based upon data generated by Lions Kids Cancer Genome Project (LKCGP) Partners. The authors thank the German Cancer Research Center (DKFZ) Genomics and Proteomics Core Facility and the Hartwell Center at St. Jude Children’s Research Hospital for technical support. The authors acknowledge funding from the American, Lebanese and Syrian-Associated Charities (ALSAC). The Queensland Children’s Tumour Bank is funded by the Children’s Hospital Foundation (Queensland). This work was funded in part by the Marie-Josée and Henry R. Kravis Center for Molecular Oncology and the National Cancer Institute Cancer Center Core Grant No. P30-CA008748. We gratefully acknowledge the members of the Memorial Sloan Kettering Molecular Diagnostics Service in the Department of Pathology. M. Snuderl acknowledges funding from the Friedberg Charitable Foundation, the Making Headway Foundation, and the Sohn Conference Foundation. A. Korshunov is supported by the Helmholtz Association Research Grant (Germany). M. Vinci is a CwCUK Fellow (grant number 16-234). S.J. Baker acknowledges funding support from the NIH (CA096832). Funding Information: D.S. Ziegler has received speakers bureau honoraria from Bayer. M.A. Karajannis is a consultant/advisory board member at CereXis, Recursion Pharmaceuticals, and Bayer. D.R. Hargrave is a consultant for entrectinib and is a consultant/advisory board member for larotrectinib. L.V. Marshall has received speakers’ bureau honoraria from Bayer. A. von Deimling has received royalties for antibodies for clone H09 from Dianova (IDH1R132H) and for clone VE1 from Roche/Ventana (BRAFV600E). C.M. Kramm reports receiving a commercial research grant from Novartis and is a consultant/advisory board member for Novartis and Boehringer Ingelheim. F. Sahm has received speakers bureau honoraria from Illumina, Agilent, and Medac. D. Capper has ownership interest in a patent pending on DNA methylation–based tumor classification. No potential conflicts of interest were disclosed by the other authors. Funding Information: This work was supported by the CRIS Cancer Foundation and the INSTINCT network funded by The Brain Tumour Charity, Great Ormond Street Children’s Charity, and Children with Cancer UK, Cancer Research UK. The authors acknowledge NHS funding to the National Institute for Health Research Biomedical Research Centre at The Royal Marsden and the ICR, the NIHR Great Ormond Street Hospital Biomedical Research Centre, research nurse funding by the Experimental Cancer Medicines Centre (ECMC) Paediatric Net-work, as well as CRUK support to the Cancer Imaging Centre at the ICR and Royal Marsden in association with the MRC and Department of Health (England; C1060/A16464). Further funding support was provided by the German Children’s Cancer Foundation (DKKS, project “MNP2.0 – Improving the Diagnostic Accuracy of Pediatric Brain Tumors,” and support for the German Brain Tumor Reference Center of the DGNN, grant 2014.17) and the PedBrain Tumour Project contributing to the International Cancer Genome Consortium, funded by German Cancer Aid (109252) and by the German Federal Ministry of Education and Research (BMBF, grant #01KU1201A), and the DKFZ-MOST Cooperation Program. We would like to thank Laura von Soosten (DKFZ) for technical assistance and Richard Buus (ICR) and the Breast Cancer Now NanoString facility for conducting the NanoString gene expression profiling. The authors thank Brain UK for provision of cases and clinical information. The authors thank the Cure Brain Cancer Foundation, Australian Lions Childhood Cancer Research Foundation, and Lions Club International Foundation (LCIF). Some of the results are in part based upon data generated by Lions Kids Cancer Genome Project (LKCGP) Partners. The authors thank the German Cancer Research Center (DKFZ) Genomics and Prot-eomics Core Facility and the Hartwell Center at St. Jude Children’s Research Hospital for technical support. The authors acknowledge funding from the American, Lebanese and Syrian-Associated Chari-ties (ALSAC). The Queensland Children’s Tumour Bank is funded by the Children’s Hospital Foundation (Queensland). This work was funded in part by the Marie-Josée and Henry R. Kravis Center for Molecular Oncology and the National Cancer Institute Cancer Center Core Grant No. P30-CA008748. We gratefully acknowledge the members of the Memorial Sloan Kettering Molecular Diagnostics Service in the Department of Pathology. M. Snuderl acknowledges funding from the Friedberg Charitable Foundation, the Making Headway Foundation, and the Sohn Conference Foun-dation. A. Korshunov is supported by the Helmholtz Association Research Grant (Germany). M. Vinci is a CwCUK Fellow (grant number 16-234). S.J. Baker acknowledges funding support from the NIH (CA096832). Publisher Copyright: © 2020 American Association for Cancer Research.
PY - 2020/7
Y1 - 2020/7
N2 - Infant high-grade gliomas appear clinically distinct from their counterparts in older children, indicating that histopathologic grading may not accurately reflect the biology of these tumors. We have collected 241 cases under 4 years of age, and carried out histologic review, methylation profiling, and custom panel, genome, or exome sequencing. After excluding tumors representing other established entities or subgroups, we identified 130 cases to be part of an “intrin-sic” spectrum of disease specific to the infant population. These included those with targetable MAPK alterations, and a large proportion of remaining cases harboring gene fusions targeting ALK (n = 31), NTRK1/2/3 (n = 21), ROS1 (n = 9), and MET (n = 4) as their driving alterations, with evidence of efficacy of targeted agents in the clinic. These data strongly support the concept that infant gliomas require a change in diagnostic practice and management. SIGNIFICANCE: Infant high-grade gliomas in the cerebral hemispheres comprise novel subgroups, with a prevalence of ALK, NTRK1/2/3, ROS1, or MET gene fusions. Kinase fusion–positive tumors have better outcome and respond to targeted therapy clinically. Other subgroups have poor outcome, with fusion-negative cases possibly representing an epigenetically driven pluripotent stem cell phenotype.
AB - Infant high-grade gliomas appear clinically distinct from their counterparts in older children, indicating that histopathologic grading may not accurately reflect the biology of these tumors. We have collected 241 cases under 4 years of age, and carried out histologic review, methylation profiling, and custom panel, genome, or exome sequencing. After excluding tumors representing other established entities or subgroups, we identified 130 cases to be part of an “intrin-sic” spectrum of disease specific to the infant population. These included those with targetable MAPK alterations, and a large proportion of remaining cases harboring gene fusions targeting ALK (n = 31), NTRK1/2/3 (n = 21), ROS1 (n = 9), and MET (n = 4) as their driving alterations, with evidence of efficacy of targeted agents in the clinic. These data strongly support the concept that infant gliomas require a change in diagnostic practice and management. SIGNIFICANCE: Infant high-grade gliomas in the cerebral hemispheres comprise novel subgroups, with a prevalence of ALK, NTRK1/2/3, ROS1, or MET gene fusions. Kinase fusion–positive tumors have better outcome and respond to targeted therapy clinically. Other subgroups have poor outcome, with fusion-negative cases possibly representing an epigenetically driven pluripotent stem cell phenotype.
UR - http://www.scopus.com/inward/record.url?scp=85086156431&partnerID=8YFLogxK
UR - http://www.scopus.com/inward/citedby.url?scp=85086156431&partnerID=8YFLogxK
U2 - 10.1158/2159-8290.CD-19-1030
DO - 10.1158/2159-8290.CD-19-1030
M3 - Article
C2 - 32238360
AN - SCOPUS:85086156431
SN - 2159-8274
VL - 10
SP - 942
EP - 963
JO - Cancer Discovery
JF - Cancer Discovery
IS - 7
ER -