Abstract
Background: Loss-of-function mutations in GRN cause frontotemporal lobar degeneration (FTLD). Patients with GRN mutations present with a uniform subtype of TAR DNA-binding protein 43 (TDP-43) pathology at autopsy (FTLD-TDP type A); however, age at onset and clinical presentation are variable, even within families. We aimed to identify potential genetic modifiers of disease onset and disease risk in GRN mutation carriers. Methods: The study was done in three stages: a discovery stage, a replication stage, and a meta-analysis of the discovery and replication data. In the discovery stage, genome-wide logistic and linear regression analyses were done to test the association of genetic variants with disease risk (case or control status) and age at onset in patients with a GRN mutation and controls free of neurodegenerative disorders. Suggestive loci (p<1 × 10 −5 ) were genotyped in a replication cohort of patients and controls, followed by a meta-analysis. The effect of genome-wide significant variants at the GFRA2 locus on expression of GFRA2 was assessed using mRNA expression studies in cerebellar tissue samples from the Mayo Clinic brain bank. The effect of the GFRA2 locus on progranulin concentrations was studied using previously generated ELISA-based expression data. Co-immunoprecipitation experiments in HEK293T cells were done to test for a direct interaction between GFRA2 and progranulin. Findings: Individuals were enrolled in the current study between Sept 16, 2014, and Oct 5, 2017. After quality control measures, statistical analyses in the discovery stage included 382 unrelated symptomatic GRN mutation carriers and 1146 controls free of neurodegenerative disorders collected from 34 research centres located in the USA, Canada, Australia, and Europe. In the replication stage, 210 patients (67 symptomatic GRN mutation carriers and 143 patients with FTLD without GRN mutations pathologically confirmed as FTLD-TDP type A) and 1798 controls free of neurodegenerative diseases were recruited from 26 sites, 20 of which overlapped with the discovery stage. No genome-wide significant association with age at onset was identified in the discovery or replication stages, or in the meta-analysis. However, in the case-control analysis, we replicated the previously reported TMEM106B association (rs1990622 meta-analysis odds ratio [OR] 0·54, 95% CI 0·46–0·63; p=3·54 × 10 −16 ), and identified a novel genome-wide significant locus at GFRA2 on chromosome 8p21.3 associated with disease risk (rs36196656 meta-analysis OR 1·49, 95% CI 1·30–1·71; p=1·58 × 10 −8 ). Expression analyses showed that the risk-associated allele at rs36196656 decreased GFRA2 mRNA concentrations in cerebellar tissue (p=0·04). No effect of rs36196656 on plasma and CSF progranulin concentrations was detected by ELISA; however, co-immunoprecipitation experiments in HEK293T cells did suggest a direct binding of progranulin and GFRA2. Interpretation: TMEM106B-related and GFRA2-related pathways might be future targets for treatments for FTLD, but the biological interaction between progranulin and these potential disease modifiers requires further study. TMEM106B and GFRA2 might also provide opportunities to select and stratify patients for future clinical trials and, when more is known about their potential effects, to inform genetic counselling, especially for asymptomatic individuals. Funding: National Institute on Aging, National Institute of Neurological Disorders and Stroke, Canadian Institutes of Health Research, Italian Ministry of Health, UK National Institute for Health Research, National Health and Medical Research Council of Australia, and the French National Research Agency.
Original language | English |
---|---|
Pages (from-to) | 548-558 |
Number of pages | 11 |
Journal | The Lancet Neurology |
Volume | 17 |
Issue number | 6 |
DOIs | |
State | Published - Jun 2018 |
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In: The Lancet Neurology, Vol. 17, No. 6, 06.2018, p. 548-558.
Research output: Contribution to journal › Article › peer-review
TY - JOUR
T1 - Potential genetic modifiers of disease risk and age at onset in patients with frontotemporal lobar degeneration and GRN mutations
T2 - a genome-wide association study
AU - Pottier, Cyril
AU - Zhou, Xiaolai
AU - Perkerson, Ralph B.
AU - Baker, Matt
AU - Jenkins, Gregory D.
AU - Serie, Daniel J.
AU - Ghidoni, Roberta
AU - Benussi, Luisa
AU - Binetti, Giuliano
AU - López de Munain, Adolfo
AU - Zulaica, Miren
AU - Moreno, Fermin
AU - Le Ber, Isabelle
AU - Pasquier, Florence
AU - Hannequin, Didier
AU - Sánchez-Valle, Raquel
AU - Antonell, Anna
AU - Lladó, Albert
AU - Parsons, Tammee M.
AU - Finch, Ni Cole A.
AU - Finger, Elizabeth C.
AU - Lippa, Carol F.
AU - Huey, Edward D.
AU - Neumann, Manuela
AU - Heutink, Peter
AU - Synofzik, Matthis
AU - Wilke, Carlo
AU - Rissman, Robert A.
AU - Slawek, Jaroslaw
AU - Sitek, Emilia
AU - Johannsen, Peter
AU - Nielsen, Jørgen E.
AU - Ren, Yingxue
AU - van Blitterswijk, Marka
AU - DeJesus-Hernandez, Mariely
AU - Christopher, Elizabeth
AU - Murray, Melissa E.
AU - Bieniek, Kevin F.
AU - Evers, Bret M.
AU - Ferrari, Camilla
AU - Rollinson, Sara
AU - Richardson, Anna
AU - Scarpini, Elio
AU - Fumagalli, Giorgio G.
AU - Padovani, Alessandro
AU - Hardy, John
AU - Momeni, Parastoo
AU - Ferrari, Raffaele
AU - Frangipane, Francesca
AU - Maletta, Raffaele
AU - Anfossi, Maria
AU - Gallo, Maura
AU - Petrucelli, Leonard
AU - Suh, Eun Ran
AU - Lopez, Oscar L.
AU - Wong, Tsz H.
AU - van Rooij, Jeroen G.J.
AU - Seelaar, Harro
AU - Mead, Simon
AU - Caselli, Richard J.
AU - Reiman, Eric M.
AU - Noel Sabbagh, Marwan
AU - Kjolby, Mads
AU - Nykjaer, Anders
AU - Karydas, Anna M.
AU - Boxer, Adam L.
AU - Grinberg, Lea T.
AU - Grafman, Jordan
AU - Spina, Salvatore
AU - Oblak, Adrian
AU - Mesulam, M. Marsel
AU - Weintraub, Sandra
AU - Geula, Changiz
AU - Hodges, John R.
AU - Piguet, Olivier
AU - Brooks, William S.
AU - Irwin, David J.
AU - Trojanowski, John Q.
AU - Lee, Edward B.
AU - Josephs, Keith A.
AU - Parisi, Joseph E.
AU - Ertekin-Taner, Nilüfer
AU - Knopman, David S.
AU - Nacmias, Benedetta
AU - Piaceri, Irene
AU - Bagnoli, Silvia
AU - Sorbi, Sandro
AU - Gearing, Marla
AU - Glass, Jonathan
AU - Beach, Thomas G.
AU - Black, Sandra E.
AU - Masellis, Mario
AU - Rogaeva, Ekaterina
AU - Vonsattel, Jean Paul
AU - Honig, Lawrence S.
AU - Kofler, Julia
AU - Bruni, Amalia C.
AU - Snowden, Julie
AU - Mann, David
AU - Pickering-Brown, Stuart
AU - Diehl-Schmid, Janine
AU - Winkelmann, Juliane
AU - Galimberti, Daniela
AU - Graff, Caroline
AU - Öijerstedt, Linn
AU - Troakes, Claire
AU - Al-Sarraj, Safa
AU - Cruchaga, Carlos
AU - Cairns, Nigel J.
AU - Rohrer, Jonathan D.
AU - Halliday, Glenda M.
AU - Kwok, John B.
AU - van Swieten, John C.
AU - White, Charles L.
AU - Ghetti, Bernardino
AU - Murell, Jill R.
AU - Mackenzie, Ian R.A.
AU - Hsiung, Ging Yuek R.
AU - Borroni, Barbara
AU - Rossi, Giacomina
AU - Tagliavini, Fabrizio
AU - Wszolek, Zbigniew K.
AU - Petersen, Ronald C.
AU - Bigio, Eileen H.
AU - Grossman, Murray
AU - Van Deerlin, Vivianna M.
AU - Seeley, William W.
AU - Miller, Bruce L.
AU - Graff-Radford, Neill R.
AU - Boeve, Bradley F.
AU - Dickson, Dennis W.
AU - Biernacka, Joanna M.
AU - Rademakers, Rosa
N1 - Funding Information: MNS reports grants from Avid Radiopharmaceuticals, Genentech, Merck, Pfizer, Roche, and Suven Life Sciences; reports grants and personal fees from Axovant Sciences, Biogen, Eli Lilly, and vTv Therapeutics; reports personal fees from Grifols and Sanofi; and holds stock in Brain Health, Muses Labs, and Versanum. ALB reports grants from the National Institutes of Health (NIH), Bluefield Project to Cure Frontotemporal Dementia, CBD Solutions, the Tau Consortium, Biogen, Bristol-Myers Squibb, C2N Diagnostics, FORUM Pharmaceuticals, Genentech, Roche, TauRx Therapeutics, and Association for Frontotemporal Degeneration; personal fees from AbbVie, Delos Pharmaceuticals, Denali Therapeutics, Alector, Janssen Pharmaceutica, Celgene, Merck, Novartis, Toyama Chemical, and UCB; and grants and non-financial support from Eli Lilly. GMH reports grants from the Australian National Health and Medical Research Council (grant numbers 1037747, 1079679). ZKW reports grants from the NIH/National Institute of Neurological Disorders and Stroke (NINDS; grant number P50 NS072187). RCP reports personal fees from Roche, Merck, Genentech, and Biogen. All other authors declare no competing interests. Funding Information: We thank all colleagues and staff at the participating centres for their help with recruitment of patients. Specifically, we thank Masood Manoochehri, Chan Foong, Huei-Hsin Chiang, Andrew King, Ivy Trinh, Jeffrey Metcalf, Silvana Archetti, Pheth Sengdy, Alice Fok, Ewa Narożańska, David Lacomis, Nick Fox, Martin Rossor, Jason Warren, Virginia Phillips, Linda Rousseau, Monica Casey-Castanedes, Michael DeTure, Rosanna Colao, Gianfranco Puccio, Sabrina A M Curcio, Livia Bernardi, Eric M Wassermann, Martin Farlow, Ann Hake, Dimitrios I Kapogiannis, Keiji Yamaguchi, Matthew Hagen, Jose Bonnin, Melissa Gener, Lina Riedl, Michael Tierney, and The French Research Network on FTD and FTD/ALS for clinical, pathological and genetic characterisation of patients. This work was supported by NIH grants from the National Institute on Aging: P30 AG019610 (MNS, EMR, NRG-R, DWD); P30 AG012300 (CLW, BME); P50 AG025688 (JGl, MGe); P50 AG08702 (LSH); P30 AG013854 (EHB, M-MM, SW, CGe); P50 AG005133 (JK, OLL); P30 AG019610 (TGB); P01 AG003991 and P50 AG005681 (NJC and CC); R01 AG044546, RF1 AG053303, and P30 AG10124 (JQT); P01 AG017586 (JQT); P01 AG026276 (CC); U01 AG045390, UO1 AG006786, and RO1 AG041797 (BFB); R01 AG037491 (KAJ); P50 AG016574 (RCP, BFB, RR, DWD, DSK, NRG-R); R01 AG051848, R21 AG051839, and P50 AG005131 (RAR); RF AG051504 and U01 AG046139 (NE-T); P50 AG023501 and P01 AG019724 (WWS); and P30 AG010133 (BG, JRM, SSp, AO). The study was in also supported in part by the following NIH grants from NINDS: R35 NS097261 (RR), R01 NS076837 (EDH), P30 NS055077 (MGe), U54 NS092089 (BFB, ALB), P01 NS084974 (DWD), U24 NS072026 (TGB), R01 NS080820 (NE-T), and P50 NS072187 (ZKW). This work was also supported by NIH grants from the National Institute on Deafness and Other Communication Disorders (R01 DC008552 to SW and M-MM) and from the Department of Veterans Affairs (I01 BX003040 to RAR). Furthermore, this work was supported by grants from the Consortium for Frontotemporal dementia (RR); the Bluefield Project to Cure FTD (XZ); the Mayo Clinic Dorothy and Harry T Mangurian Jr Lewy Body Dementia Program and the Little Family Foundation (BFB); the Carl B and Florence E King Foundation (BME, CLW); the McCune Foundation and the Winspear Family Center for Research on the Neuropathology of Alzheimer Disease (CLW); the University of Pittsburgh Brain Institute (JK); the Arizona Department of Health Services contract 211002 (TGB); Arizona Biomedical Research Commission contracts 4001, 0011, 05-901, and 1001 (TGB); the Michael J Fox Foundation for Parkinson's Research (TGB); GHR Foundation (RCP, TGB); Mayo Clinic Foundation and the Sun Health Foundation (TGB); the Arizona Department of Health Services (EMR); and The Tau Consortium and the Consortium for Frontotemporal Dementia Resesarch (WWS). We thank the Canadian Institutes of Health Research for the following support provided for this study: MOP13129 (SEB, MM); MOP137116 (MM); #179009 (G-YRH, IRAM); and #327387 (ECF). We also thank the Canadian Consortium on Neurodegeneration in Aging (SEB, ER), in particular for grant #137794 (G-YRH, IRAM); and the LC Campbell Foundation (SEB). In addition, this study was supported by the Ricerca Corrente, Italian Ministry of Health (GR, RG, LB, GB, DG, FT); the Ministry of Health Finalizzata 2011 ref 14GRSB and Fondazione Cassa di Risparmio di Firenze ref 2015-0722 (BN, CF, SB, SSo); AIRAlzh onlus – ANCC-COOP (IP, GGF); and the Telethon Foundation and Ricerca Finalizzata, Italian Ministry of Health (FT). Some of the tissue samples were supplied by The London Neurodegenerative Diseases Brain Bank, which receives funding from the UK Medical Research Council (MRC) and as part of the Brains for Dementia Research programme, jointly funded by Alzheimer's Research UK and the Alzheimer's Society (CT). SP-B was supported by MRC grant G0701441. The Dementia Research Centre at UCL is supported by Alzheimer's Research UK, Brain Research Trust, and the Wolfson Foundation. This work is further supported by the NIHR Queen Square Dementia Biomedical Research Unit, the NIHR UCLH Biomedical Research Centre and the Leonard Wolfson Experimental Neurology Centre Clinical Research Facility. JH received funding from the Wellcome/MRC Centre on Parkinson's. RF was supported by the Alzheimer's Society Grant 284, and RM by The office of the Dean of the School of Medicine, Department of Internal Medicine, at Texas Tech University Health Sciences Center. JDR was supported by an MRC Clinician Scientist Fellowship (MR/M008525/1) and has received funding from the NIHR Rare Disease Translational Research Collaboration (BRC149/NS/MH). ILB, FP, and DH received funding from the Program “Investissements d'avenir” ANR-10-IAIHU-06 and the PHRC FTLDexome (promotion AP-HP). GMH, JBK, JRH, and OP are part of The ForeFront Brain and Mind project team, a large collaborative research group dedicated to the study of neurodegenerative diseases funded by the National Health and Medical Research Council of Australia (NHMRC) Program Grant (#1037746) and Project Grant (#1062539), Dementia Research Team Grant (#1095127), and NeuroSleep Centre of Research Excellence (#1060992), as well as the Australian Research Council Centre of Excellence in Cognition and its Disorders Memory Program (#CE110001021), and the Sydney Research Excellence Initiative 2020. OP is supported by an NHMRC Senior Research Fellowship (APP1103258). GMH is supported by an NHMRC Senior Principal Research Fellowship (630434). CGr is supported by grants provided by the Swedish Research Council (Dnr 521-2010-3134, 529-2014-7504, 2015-02926), Alzheimer Foundation Sweden, Brain Foundation Sweden, Swedish FTD Initiative, Swedish Brain Power, Karolinska Institutet doctoral funding, Gamla Tjänarinnor, Stohnes Foundation, Dementia Foundation Sweden, and the Stockholm County Council (ALF project). MN is funded by German Helmholtz Association, Nomis Foundation, and German Research Foundation. MS is funded by the Else Kröner Fresenius Stiftung. JD-S is supported by German Federal Ministry of Education and Research (FTLDc O1GI1007A). RS-V is supported by Fundació Marató de TV3, Barcelona, Spain (grant 20143810). JCvS is funded by Memorabel 2013 Presympt FTD #70-73305-98-105, JPND RiMod #733051024, and Alzheimer Nederland, de Ruiter #WE.15-2014-08. JSl is supported by the Ministry of Health, Medical University of Gdansk. Publisher Copyright: © 2018 Elsevier Ltd
PY - 2018/6
Y1 - 2018/6
N2 - Background: Loss-of-function mutations in GRN cause frontotemporal lobar degeneration (FTLD). Patients with GRN mutations present with a uniform subtype of TAR DNA-binding protein 43 (TDP-43) pathology at autopsy (FTLD-TDP type A); however, age at onset and clinical presentation are variable, even within families. We aimed to identify potential genetic modifiers of disease onset and disease risk in GRN mutation carriers. Methods: The study was done in three stages: a discovery stage, a replication stage, and a meta-analysis of the discovery and replication data. In the discovery stage, genome-wide logistic and linear regression analyses were done to test the association of genetic variants with disease risk (case or control status) and age at onset in patients with a GRN mutation and controls free of neurodegenerative disorders. Suggestive loci (p<1 × 10 −5 ) were genotyped in a replication cohort of patients and controls, followed by a meta-analysis. The effect of genome-wide significant variants at the GFRA2 locus on expression of GFRA2 was assessed using mRNA expression studies in cerebellar tissue samples from the Mayo Clinic brain bank. The effect of the GFRA2 locus on progranulin concentrations was studied using previously generated ELISA-based expression data. Co-immunoprecipitation experiments in HEK293T cells were done to test for a direct interaction between GFRA2 and progranulin. Findings: Individuals were enrolled in the current study between Sept 16, 2014, and Oct 5, 2017. After quality control measures, statistical analyses in the discovery stage included 382 unrelated symptomatic GRN mutation carriers and 1146 controls free of neurodegenerative disorders collected from 34 research centres located in the USA, Canada, Australia, and Europe. In the replication stage, 210 patients (67 symptomatic GRN mutation carriers and 143 patients with FTLD without GRN mutations pathologically confirmed as FTLD-TDP type A) and 1798 controls free of neurodegenerative diseases were recruited from 26 sites, 20 of which overlapped with the discovery stage. No genome-wide significant association with age at onset was identified in the discovery or replication stages, or in the meta-analysis. However, in the case-control analysis, we replicated the previously reported TMEM106B association (rs1990622 meta-analysis odds ratio [OR] 0·54, 95% CI 0·46–0·63; p=3·54 × 10 −16 ), and identified a novel genome-wide significant locus at GFRA2 on chromosome 8p21.3 associated with disease risk (rs36196656 meta-analysis OR 1·49, 95% CI 1·30–1·71; p=1·58 × 10 −8 ). Expression analyses showed that the risk-associated allele at rs36196656 decreased GFRA2 mRNA concentrations in cerebellar tissue (p=0·04). No effect of rs36196656 on plasma and CSF progranulin concentrations was detected by ELISA; however, co-immunoprecipitation experiments in HEK293T cells did suggest a direct binding of progranulin and GFRA2. Interpretation: TMEM106B-related and GFRA2-related pathways might be future targets for treatments for FTLD, but the biological interaction between progranulin and these potential disease modifiers requires further study. TMEM106B and GFRA2 might also provide opportunities to select and stratify patients for future clinical trials and, when more is known about their potential effects, to inform genetic counselling, especially for asymptomatic individuals. Funding: National Institute on Aging, National Institute of Neurological Disorders and Stroke, Canadian Institutes of Health Research, Italian Ministry of Health, UK National Institute for Health Research, National Health and Medical Research Council of Australia, and the French National Research Agency.
AB - Background: Loss-of-function mutations in GRN cause frontotemporal lobar degeneration (FTLD). Patients with GRN mutations present with a uniform subtype of TAR DNA-binding protein 43 (TDP-43) pathology at autopsy (FTLD-TDP type A); however, age at onset and clinical presentation are variable, even within families. We aimed to identify potential genetic modifiers of disease onset and disease risk in GRN mutation carriers. Methods: The study was done in three stages: a discovery stage, a replication stage, and a meta-analysis of the discovery and replication data. In the discovery stage, genome-wide logistic and linear regression analyses were done to test the association of genetic variants with disease risk (case or control status) and age at onset in patients with a GRN mutation and controls free of neurodegenerative disorders. Suggestive loci (p<1 × 10 −5 ) were genotyped in a replication cohort of patients and controls, followed by a meta-analysis. The effect of genome-wide significant variants at the GFRA2 locus on expression of GFRA2 was assessed using mRNA expression studies in cerebellar tissue samples from the Mayo Clinic brain bank. The effect of the GFRA2 locus on progranulin concentrations was studied using previously generated ELISA-based expression data. Co-immunoprecipitation experiments in HEK293T cells were done to test for a direct interaction between GFRA2 and progranulin. Findings: Individuals were enrolled in the current study between Sept 16, 2014, and Oct 5, 2017. After quality control measures, statistical analyses in the discovery stage included 382 unrelated symptomatic GRN mutation carriers and 1146 controls free of neurodegenerative disorders collected from 34 research centres located in the USA, Canada, Australia, and Europe. In the replication stage, 210 patients (67 symptomatic GRN mutation carriers and 143 patients with FTLD without GRN mutations pathologically confirmed as FTLD-TDP type A) and 1798 controls free of neurodegenerative diseases were recruited from 26 sites, 20 of which overlapped with the discovery stage. No genome-wide significant association with age at onset was identified in the discovery or replication stages, or in the meta-analysis. However, in the case-control analysis, we replicated the previously reported TMEM106B association (rs1990622 meta-analysis odds ratio [OR] 0·54, 95% CI 0·46–0·63; p=3·54 × 10 −16 ), and identified a novel genome-wide significant locus at GFRA2 on chromosome 8p21.3 associated with disease risk (rs36196656 meta-analysis OR 1·49, 95% CI 1·30–1·71; p=1·58 × 10 −8 ). Expression analyses showed that the risk-associated allele at rs36196656 decreased GFRA2 mRNA concentrations in cerebellar tissue (p=0·04). No effect of rs36196656 on plasma and CSF progranulin concentrations was detected by ELISA; however, co-immunoprecipitation experiments in HEK293T cells did suggest a direct binding of progranulin and GFRA2. Interpretation: TMEM106B-related and GFRA2-related pathways might be future targets for treatments for FTLD, but the biological interaction between progranulin and these potential disease modifiers requires further study. TMEM106B and GFRA2 might also provide opportunities to select and stratify patients for future clinical trials and, when more is known about their potential effects, to inform genetic counselling, especially for asymptomatic individuals. Funding: National Institute on Aging, National Institute of Neurological Disorders and Stroke, Canadian Institutes of Health Research, Italian Ministry of Health, UK National Institute for Health Research, National Health and Medical Research Council of Australia, and the French National Research Agency.
UR - http://www.scopus.com/inward/record.url?scp=85046353036&partnerID=8YFLogxK
U2 - 10.1016/S1474-4422(18)30126-1
DO - 10.1016/S1474-4422(18)30126-1
M3 - Article
C2 - 29724592
AN - SCOPUS:85046353036
SN - 1474-4422
VL - 17
SP - 548
EP - 558
JO - The Lancet Neurology
JF - The Lancet Neurology
IS - 6
ER -