Phenotype Harmonization in the GLIDE2 Oral Health Genomics Consortium

K. Divaris, S. Haworth, J. R. Shaffer, V. Anttonen, J. D. Beck, Y. Furuichi, B. Holtfreter, D. Jönsson, T. Kocher, S. M. Levy, P. K.E. Magnusson, D. W. McNeil, K. Michaëlsson, K. E. North, U. Palotie, P. N. Papapanou, P. J. Pussinen, D. Porteous, K. Reis, A. SalminenA. S. Schaefer, T. Sudo, Y. Q. Sun, A. L. Suominen, T. Tamahara, S. M. Weinberg, P. Lundberg, M. L. Marazita, I. Johansson

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7 Citas (Scopus)

Resumen

Genetic risk factors play important roles in the etiology of oral, dental, and craniofacial diseases. Identifying the relevant risk loci and understanding their molecular biology could highlight new prevention and management avenues. Our current understanding of oral health genomics suggests that dental caries and periodontitis are polygenic diseases, and very large sample sizes and informative phenotypic measures are required to discover signals and adequately map associations across the human genome. In this article, we introduce the second wave of the Gene-Lifestyle Interactions and Dental Endpoints consortium (GLIDE2) and discuss relevant data analytics challenges, opportunities, and applications. In this phase, the consortium comprises a diverse, multiethnic sample of over 700,000 participants from 21 studies contributing clinical data on dental caries experience and periodontitis. We outline the methodological challenges of combining data from heterogeneous populations, as well as the data reduction problem in resolving detailed clinical examination records into tractable phenotypes, and describe a strategy that addresses this. Specifically, we propose a 3-tiered phenotyping approach aimed at leveraging both the large sample size in the consortium and the detailed clinical information available in some studies, wherein binary, severity-encompassing, and “precision,” data-driven clinical traits are employed. As an illustration of the use of data-driven traits across multiple cohorts, we present an application of dental caries experience data harmonization in 8 participating studies (N = 55,143) using previously developed permanent dentition tooth surface–level dental caries pattern traits. We demonstrate that these clinical patterns are transferable across multiple cohorts, have similar relative contributions within each study, and thus are prime targets for genetic interrogation in the expanded and diverse multiethnic sample of GLIDE2. We anticipate that results from GLIDE2 will decisively advance the knowledge base of mechanisms at play in oral, dental, and craniofacial health and disease and further catalyze international collaboration and data and resource sharing in genomics research.

Idioma originalEnglish
Páginas (desde-hasta)1408-1416
Número de páginas9
PublicaciónJournal of Dental Research
Volumen101
N.º11
DOI
EstadoPublished - oct. 2022

Financiación

We thank the following investigators for their contributions to individual cohorts: Julie T. Marchesan and Kevin Moss (ARIC); Michiaki Kubo, Yoichiro Kamatani, Koichi Matsuda, Yoshinori Murakami, Takayuki Morisaki, and Akiko Nagai (Biobank Japan, BBJ); Betsy Foxman, Katherine Neiswanger, and Richard Crout (CCDG: COHRA cohorts); FinnGen Consortium contributors; Karin Weber-Gasparoni, Justine L. Kolker, and John J. Warren (Iowa Fluoride Study, IFS); Jeffrey C. Murray, Lina Moreno Uribe, Brian Howe, Azeez Butali, Consuelo Valencia Ramirez, Claudia Restrepo, Frederic W.B. Deleyiannis, Carmencita Padilla, Ieda Orioli, Fernando Poletta, Carmen Buxó Martinez, Jacqueline T. Hecht, George Wehby, Katherine Neiswanger, Carla Sanchez, Alexandre Rezende Vieira, Ross Long, and Rasha Nesha Alotaibi (CCDG: OFC cohorts); Juha Sinisalo (Parogene); Caroline Hayward, Robin Flaig, and Archie Campbell (Generation Scotland); Ben Brumpton, Hedda Høvik, and Astrid Jullumstrø Feuerherm (HUNT4); Alex Teumer, Henry Völzke, and Uwe Völker (SHIP); Taku Obara, Maki Goto, Otsuki Akihito, Junko Kawashima, Yuichi Aoki, Sakae Saito, and Ritsuko Shimizu (ToMMo: Tohoku Medical Megabank Organization); Yukinori Okada (TMDUAGP, Osaka University); and Paul Franks (VIKING). The authors disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: Funding support for participating studies and investigators is also acknowledged: CCDG: COHRA1/Dental SCORE and CCDG: COHRA2/COHRA Smile were supported by US National Institutes of Health (NIH) grants R01-DE014899, U01-DE018903, and X01-HG009878-01. IFS was supported by NIH grants R01-DE09551, U01-DE018903, X01-HG008978, R01-DE014899, and P30-DE10126. CCDG: OFC1 and CCDG: OFC2 were supported by NIH grants R01-DE016148, X01-HG00784, and X01-HG011437. SHIP is funded by the Federal Ministry of Education and Research (grants 01ZZ9603, 01ZZ0103, and 01ZZ0403), the Ministry of Cultural Affairs, and the Social Ministry of the Federal State of Mecklenburg–West Pomerania and Siemens Healthcare, Erlangen, Germany. SIMPLER receives funding through the Swedish Research Council under grants 2017-00644 and 2017-06100. The Swedish Twin Registry is managed by Karolinska Institutet and receives funding through the Swedish Research Council under grant 2017-00641. Periogene North was funded by the County Council of Västerbotten under grants RV-96458 and RV-832371. The Swedish GLIDE receives funding through the Swedish Research Council under grants 2020-00930 and 2015-02597. K. Divaris acknowledges support by NIH grant U01-DE025046. The authors disclosed receipt of the following financial support for the research, authorship, and/or publication of this article: Funding support for participating studies and investigators is also acknowledged: CCDG: COHRA1/Dental SCORE and CCDG: COHRA2/COHRA Smile were supported by US National Institutes of Health (NIH) grants R01-DE014899, U01-DE018903, and X01-HG009878-01. IFS was supported by NIH grants R01-DE09551, U01-DE018903, X01-HG008978, R01-DE014899, and P30-DE10126. CCDG: OFC1 and CCDG: OFC2 were supported by NIH grants R01-DE016148, X01-HG00784, and X01-HG011437. SHIP is funded by the Federal Ministry of Education and Research (grants 01ZZ9603, 01ZZ0103, and 01ZZ0403), the Ministry of Cultural Affairs, and the Social Ministry of the Federal State of Mecklenburg–West Pomerania and Siemens Healthcare, Erlangen, Germany. SIMPLER receives funding through the Swedish Research Council under grants 2017-00644 and 2017-06100. The Swedish Twin Registry is managed by Karolinska Institutet and receives funding through the Swedish Research Council under grant 2017-00641. Periogene North was funded by the County Council of Västerbotten under grants RV-96458 and RV-832371. The Swedish GLIDE receives funding through the Swedish Research Council under grants 2020-00930 and 2015-02597. K. Divaris acknowledges support by NIH grant U01-DE025046.

FinanciadoresNúmero del financiador
Akiko Nagai
Astrid Jullumstrø Feuerherm
Rasha Nesha Alotaibi
Social Ministry of the Federal State of Mecklenburg
National Institutes of HealthR01-DE014899, X01-HG011437, R01-DE09551, X01-HG00784, P30-DE10126, X01-HG009878-01, R01-DE016148, U01-DE018903, X01-HG008978
National Institute of Environmental Health SciencesP30ES010126
Bundesministerium für Bildung und Forschung01ZZ0403, 01ZZ0103, 01ZZ9603
Västerbotten Läns Landsting2015-02597, RV-832371, 2020-00930, U01-DE025046, RV-96458
Karolinska Institutet2017-00641
Vetenskapsrådet2017-06100, 2017-00644
Ministry of Cultural Affairs

    ASJC Scopus Subject Areas

    • General Dentistry

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