Interaction Testing and Polygenic Risk Scoring to Estimate the Association of Common Genetic Variants With Treatment Resistance in Schizophrenia.
Détails
Télécharger: jamapsychiatry_pardias_2022_oi_210077_1640287782.06347.pdf (1072.86 [Ko])
Etat: Public
Version: Final published version
Licence: CC BY 4.0
Etat: Public
Version: Final published version
Licence: CC BY 4.0
ID Serval
serval:BIB_A9662B16E7C0
Type
Article: article d'un périodique ou d'un magazine.
Collection
Publications
Institution
Titre
Interaction Testing and Polygenic Risk Scoring to Estimate the Association of Common Genetic Variants With Treatment Resistance in Schizophrenia.
Périodique
JAMA psychiatry
Collaborateur⸱rice⸱s
Genetics Workstream of the Schizophrenia Treatment Resistance and Therapeutic Advances (STRATA) Consortium and the Schizophrenia Working Group of the Psychiatric Genomics Consortium (PGC)
Contributeur⸱rice⸱s
Ripke S., Neale B.M., Farh K.H., Lee P., Bulik-Sullivan B., Collier D.A., Huang H., Pers T.H., Agartz I., Agerbo E., Albus M., Alexander M., Amin F., Bacanu S.A., Begemann M., Belliveau R.A., Bene J., Bergen S.E., Bevilacqua E., Black D.W., Bruggeman R., Buccola N.G., Buckner R.L., Byerley W., Cahn W., Cai G., Campion D., Cantor R.M., Carr V.J., Carrera N., Catts S.V., Chambert K.D., Chan RCK, Chen RYL, Chen EYH, Cheng W., Cheung EFC, Chong S.A., Cloninger C.R., Cohen D., Cohen N., Cormican P., Craddock N., Crowley J.J., Curtis D., Davidson M., Davis K.L., Degenhardt F., Favero J.D., DeLisi L.E., Demontis D., Dikeos D., Dinan T., Djurovic S., Donohoe G., Drapeau E., Duan J., Dudbridge F., Durmishi N., Eichhammer P., Eriksson J., Escott-Price V., Essioux L., Farrell M.S., Franke L., Freedman R., Freimer N.B., Friedl M., Friedman J.I., Fromer M., Genovese G., Georgieva L., Gershon E.S., Giegling I., Giusti-Rodríguez P., Godard S., Goldstein J.I., Golimbet V., Gopal S., Gratten J., Haan L., Hammer C., Hamshere M.L., Hansen M., Hansen T., Haroutunian V., Hartmann A.M., Henskens F.A., Herms S., Hirschhorn J.N., Hoffmann P., Hofman A., Hollegaard M.V., Hougaard D.M., Ikeda M., Joa I., Julià A., Kahn R.S., Kalaydjieva L., Karachanak-Yankova S., Karjalainen J., Kavanagh D., Keller M.C., Kennedy J.L., Khrunin A., Kim Y., Klovins J., Knowles J.A., Konte B., Kucinskas V., Kucinskiene Z.A., Kuzelova-Ptackova H., Kähler A.K., Laurent C., Keong JLC, Lee S.H., Lerer B., Li M., Li T., Liang K.Y., Lieberman J., Limborska S., Loughland C.M., Lubinski J., Lönnqvist J., Macek M., Magnusson PKE, Maher B.S., Maier W., Mallet J., Marsal S., Mattheisen M., Mattingsdal M., McCarley R.W., McDonald C., McIntosh A.M., Meier S., Meijer C.J., Melegh B., Melle I., Mesholam-Gately R.I., Metspalu A., Michie P.T., Milani L., Milanova V., Mokrab Y., Morris D.W., Mors O., Murphy K.C., Myin-Germeys I., Müller-Myhsok B., Nelis M., Nenadic I., Nertney D.A., Nestadt G., Nicodemus K.K., Nikitina-Zake L., Nisenbaum L., Nordin A., O'Callaghan E., O'Dushlaine C., O'Neill F.A., Oh S.Y., Olincy A., Olsen L., Os J.V., Pantelis C., Papadimitriou G.N., Papiol S., Parkhomenko E., Pato M.T., Paunio T., Pejovic-Milovancevic M., Perkins D.O., Pietiläinen O., Pimm J., Pocklington A.J., Powell J., Price A., Pulver A.E., Purcell S.M., Quested D., Rasmussen H.B., Reichenberg A., Reimers M.A., Richards A.L., Roffman J.L., Roussos P., Ruderfer D.M., Salomaa V., Sanders A.R., Schall U., Schubert C.R., Schulze T.G., Schwab S.G., Scolnick E.M., Scott R.J., Seidman L.J., Shi J., Sigurdsson E., Silagadze T., Silverman J.M., Sim K., Slominsky P., Smoller J.W., So H.C., Spencer CCA, Stahl E.A., Stefansson H., Steinberg S., Stogmann E., Straub R.E., Strengman E., Strohmaier J., Stroup T.S., Subramaniam M., Suvisaari J., Svrakic D.M., Szatkiewicz J.P., Söderman E., Thirumalai S., Toncheva D., Tosato S., Veijola J., Waddington J., Walsh D., Wang D., Wang Q., Webb B.T., Weiser M., Wildenauer D.B., Williams N.M., Williams S., Witt S.H., Wolen A.R., Wong EHM, Wormley B.K., Xi H.S., Zai C.C., Zheng X., Zimprich F., Wray N.R., Stefansson K., Visscher P.M., Adolfsson R., Blackwood DHR, Bramon E., Buxbaum J.D., Børglum A.D., Cichon S., Darvasi A., Domenici E., Ehrenreich H., Esko T., Gejman P.V., Gill M., Gurling H., Hultman C.M., Iwata N., Jablensky A.V., Jönsson E.G., Kendler K.S., Kirov G., Knight J., Lencz T., Levinson D.F., Li Q.S., Liu J., Malhotra A.K., McCarroll S.A., Moran J.L., Mortensen P.B., Nöthen M.M., Ophoff R.A., Palotie A., Petryshen T.L., Posthuma D., Riley B.P., Sham P.C., Sklar P., Clair D.S., Weinberger D.R., Wendland J.R., Werge T., Daly M.J., Agbedjro D., Stahl D., Kapur S., Millgate E., Kepinska A., Kravariti E.
ISSN
2168-6238 (Electronic)
ISSN-L
2168-622X
Statut éditorial
Publié
Date de publication
01/03/2022
Peer-reviewed
Oui
Volume
79
Numéro
3
Pages
260-269
Langue
anglais
Notes
Publication types: Journal Article
Publication Status: ppublish
Publication Status: ppublish
Résumé
About 20% to 30% of people with schizophrenia have psychotic symptoms that do not respond adequately to first-line antipsychotic treatment. This clinical presentation, chronic and highly disabling, is known as treatment-resistant schizophrenia (TRS). The causes of treatment resistance and their relationships with causes underlying schizophrenia are largely unknown. Adequately powered genetic studies of TRS are scarce because of the difficulty in collecting data from well-characterized TRS cohorts.
To examine the genetic architecture of TRS through the reassessment of genetic data from schizophrenia studies and its validation in carefully ascertained clinical samples.
Two case-control genome-wide association studies (GWASs) of schizophrenia were performed in which the case samples were defined as individuals with TRS (n = 10 501) and individuals with non-TRS (n = 20 325). The differences in effect sizes for allelic associations were then determined between both studies, the reasoning being such differences reflect treatment resistance instead of schizophrenia. Genotype data were retrieved from the CLOZUK and Psychiatric Genomics Consortium (PGC) schizophrenia studies. The output was validated using polygenic risk score (PRS) profiling of 2 independent schizophrenia cohorts with TRS and non-TRS: a prevalence sample with 817 individuals (Cardiff Cognition in Schizophrenia [CardiffCOGS]) and an incidence sample with 563 individuals (Genetics Workstream of the Schizophrenia Treatment Resistance and Therapeutic Advances [STRATA-G]).
GWAS of treatment resistance in schizophrenia. The results of the GWAS were compared with complex polygenic traits through a genetic correlation approach and were used for PRS analysis on the independent validation cohorts using the same TRS definition.
The study included a total of 85 490 participants (48 635 [56.9%] male) in its GWAS stage and 1380 participants (859 [62.2%] male) in its PRS validation stage. Treatment resistance in schizophrenia emerged as a polygenic trait with detectable heritability (1% to 4%), and several traits related to intelligence and cognition were found to be genetically correlated with it (genetic correlation, 0.41-0.69). PRS analysis in the CardiffCOGS prevalence sample showed a positive association between TRS and a history of taking clozapine (r2 = 2.03%; P = .001), which was replicated in the STRATA-G incidence sample (r2 = 1.09%; P = .04).
In this GWAS, common genetic variants were differentially associated with TRS, and these associations may have been obscured through the amalgamation of large GWAS samples in previous studies of broadly defined schizophrenia. Findings of this study suggest the validity of meta-analytic approaches for studies on patient outcomes, including treatment resistance.
To examine the genetic architecture of TRS through the reassessment of genetic data from schizophrenia studies and its validation in carefully ascertained clinical samples.
Two case-control genome-wide association studies (GWASs) of schizophrenia were performed in which the case samples were defined as individuals with TRS (n = 10 501) and individuals with non-TRS (n = 20 325). The differences in effect sizes for allelic associations were then determined between both studies, the reasoning being such differences reflect treatment resistance instead of schizophrenia. Genotype data were retrieved from the CLOZUK and Psychiatric Genomics Consortium (PGC) schizophrenia studies. The output was validated using polygenic risk score (PRS) profiling of 2 independent schizophrenia cohorts with TRS and non-TRS: a prevalence sample with 817 individuals (Cardiff Cognition in Schizophrenia [CardiffCOGS]) and an incidence sample with 563 individuals (Genetics Workstream of the Schizophrenia Treatment Resistance and Therapeutic Advances [STRATA-G]).
GWAS of treatment resistance in schizophrenia. The results of the GWAS were compared with complex polygenic traits through a genetic correlation approach and were used for PRS analysis on the independent validation cohorts using the same TRS definition.
The study included a total of 85 490 participants (48 635 [56.9%] male) in its GWAS stage and 1380 participants (859 [62.2%] male) in its PRS validation stage. Treatment resistance in schizophrenia emerged as a polygenic trait with detectable heritability (1% to 4%), and several traits related to intelligence and cognition were found to be genetically correlated with it (genetic correlation, 0.41-0.69). PRS analysis in the CardiffCOGS prevalence sample showed a positive association between TRS and a history of taking clozapine (r2 = 2.03%; P = .001), which was replicated in the STRATA-G incidence sample (r2 = 1.09%; P = .04).
In this GWAS, common genetic variants were differentially associated with TRS, and these associations may have been obscured through the amalgamation of large GWAS samples in previous studies of broadly defined schizophrenia. Findings of this study suggest the validity of meta-analytic approaches for studies on patient outcomes, including treatment resistance.
Pubmed
Web of science
Open Access
Oui
Création de la notice
17/01/2022 8:45
Dernière modification de la notice
14/03/2023 6:49