loris neuroinformatics platform for imaging genetics · rathi gnanasekaran, tara campbell, jordan...

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References 1. Bae, J.B. et al. Genomics Inform, 2013, 11(1):7–14 2. Das, S. et al. Front Neuroinform, 2011, 5(37) 3. Evans, A.C. et al. Neuroimage, 2006, 30(1):184-202 4. Wolff, J. et al. Am J Psychiatry, 2012, 169(6):589-600 5. Ge T. et al. Quant Biol, 2013, 1(4)227-245 6. Kent et al. Genome Res, 2002, 12(6):996-1006 7. MacFarlane, D. et al. OHBM 2014 8. Meaney, M. et al. Annu Rev Neurosci 2001, 24:1161-92 9. Rogic, S. et al. ISMB-ECCB, 2013 10. Sherif, T. et al. Front.Neuroinform, 2014, 8(54) 11. Sherif, T. et al. Front.Neuroinform, 2015, 8(89) 12. Stein, J et al. Neuroimage, 2010, 52(3):1160-1174 13. Thompson, P. et al. Brain Imaging Behav, 2014, 8(2):153–182 Introduction LORIS 2 (loris.ca) is a web-based open- source data management system, integrating imaging, behavioural/clinical and summary genetic data within a single informatics platform. Developed at the McGill Centre for Integrative Neuroscience (MCIN) within the Montreal Neurological Institute (MNI), LORIS manages the flow of data in a study from acquisition and storage through processing and dissemination. LORIS ʼ Genomic Browser module is designed to address a key challenge of imaging genetics research, providing pivotal support for cross-linkage of detailed genotype information with neuroimaging, behavioural/clinical and demographic data, all coordinated within the same web- accessible platform. 5,12 This is timely given the increase in interest within the research community for imaging genetics studies and the formation of consortia such as ENIGMA 13 that aim at understanding brain function and disease through imaging and genetic data. Global collaborations LORIS serves as the technical platform for large-scale projects such as the NIH-funded Fragile X and Infant Brain Imaging Study (IBIS) 4 , MAVAN 8 (Maternal Adversity Vulnerability and Neurodevelopment), and the NeuroDevNet Network Centres of Excellence. Acknowledgements Development of LORIS has also been funded by the National Institutes Health and the NeuroDevNet Network of Centres of Excellence. Additional contributing developers: Dario Vins, John Harlap, Matt Charlet, Andrew Cordery, David Brownlee, Sebastian Muehlboeck, Tarek Sherif, Mia Petkova, Cecile Madjar, Justin Kat, Rathi Gnanasekaran, Tara Campbell, Jordan Stirling, Ted Strauss Karolina Marasinska, Xavier Lecours-Boucher, Evan McIlroy, Olga Tsibulevskaya, Nic Kassis, Marc-Etienne Rousseau, Pierre Rioux. Methods LORISʼ Genomic Browser embeds display and download tools for multiple formats of genomic and imaging data, facilitating large- scale data acquisition, dissemination and analysis. Any format of derived genetic dataset, including metadata about genetic data collection and analysis, can be loaded and seamlessly linked with multi-modal subject data in the database. Results LORISʼ demonstration database features a sample implementation of the Genomic Browser: https://demo.loris.ca/main.php?test_name=genomic_browser 827 CNV and 153 SNP sample records can be queried and filtered across subjects to provide: • Genomic profiles for individual subjects, summarizing available datasets • Distribution of genomic variants for any subset of a study population • Cross-linkage to neuroimaging and behavioural datasets for each subject • Metadata associated to each subjectʼs dataset by analysis type • Summary display of key columns vs. complete view across all available fields Conclusions LORISʼ ability to cross-link subject datasets across genomic, neuroimaging and behavioural modalities serves as a key tool for imaging-genetics, providing seamless centralization and dissemination of comprehensive datasets for large- scale research initiatives in the age of Big Data. Figure 2: Sample analyzed CNV data in the Genomic Browser, filtered by type (gain) and characteristic (Pathogenic). Figure 1: Sample analyzed SNP data in the Genomic Browser filtered for gender, subject cohort, chromosome, and SNP function prediction with projected links to AspireDB 9 phenome-genome visualization tools. Querying Filterable and exportable subject-based genomic profiles Dissemination Exporting population datasets for processing and analysis 7,10 Clinical/Behavioural Ongoing development of the Genomic Browser includes support for methylation data, upload and download of voxel-wise GWAS data 12 , links to external data resources such as the UCSC Genome Browser 6 as well as the ASPIREdb 9 engine for phenome-genome exploration, and data visualization utilities from the IHEC Data Portal 1 for epigenetic visualization. For more information visit LORIS.ca BrainBrowser 11 Embedded Volume and Surface Viewer LORIS neuroinformatics platform for Imaging Genetics C. Rogers 1 , S. Das 1 , Z. Mohaddes 1 , D. MacFarlane 1 , P. Kostopoulos 1 , E. Portales-Casamar 2 , and A.C. Evans 1 1 Montreal Neurological Institute, Montreal, QC, Canada 2 Centre for High-Throughput Biology, University of British Columbia, Vancouver, BC, Canada Figure 3: Sample methylation data in the Genomic Browser, with links to the UCSC Genome Browser 6 CpG and Gene visualization utilities. Visualization Links to resources: UCSC Genome Browser 6 AspireDB 9 browser IHEC 1 Data tools Datasets: PLINK format Methylation CpG beta-values Variant Analysis GWAS, EWAS CNV, SNP Genetic/ Epigenetic Imaging Datasets: 3D/4D including MRI MEG PET Spectroscopy

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Page 1: LORIS neuroinformatics platform for Imaging Genetics · Rathi Gnanasekaran, Tara Campbell, Jordan Stirling, Ted Strauss Karolina Marasinska, Xavier Lecours-Boucher, Evan McIlroy,

References1. Bae, J.B. et al. Genomics Inform, 2013, 11(1):7–14 2. Das, S. et al. Front Neuroinform, 2011, 5(37)3. Evans, A.C. et al. Neuroimage, 2006, 30(1):184-2024. Wolff, J. et al. Am J Psychiatry, 2012, 169(6):589-6005. Ge T. et al. Quant Biol, 2013, 1(4)227-2456. Kent et al. Genome Res, 2002, 12(6):996-1006 7. MacFarlane, D. et al. OHBM 2014 8. Meaney, M. et al. Annu Rev Neurosci 2001, 24:1161-929. Rogic, S. et al. ISMB-ECCB, 2013 10. Sherif, T. et al. Front.Neuroinform, 2014, 8(54) 11. Sherif, T. et al. Front.Neuroinform, 2015, 8(89) 12. Stein, J et al. Neuroimage, 2010, 52(3):1160-117413. Thompson, P. et al. Brain Imaging Behav, 2014, 8(2):153–182

IntroductionLORIS2 (loris.ca) is a web-based open-source data management system, integrating imaging, behavioural/clinical and summary genetic data within a single informatics platform. Developed at the McGill Centre for Integrative Neuroscience (MCIN) within the Montreal Neurological Institute (MNI), LORIS manages the flow of data in a study from acquisition and storage through processing and dissemination.LORIS ʼ Genomic Browser module is designed to address a key challenge of imaging genetics research, providing pivotal support for cross-linkage of detailed genotype information with neuroimaging, behavioural/clinical and demographic data, all coordinated within the same web-accessible platform.5,12 This is timely given the increase in interest within the research community for imaging genetics studies and the formation of consortia such as ENIGMA13 that aim at understanding brain function and disease through imaging and genetic data.

Global collaborationsLORIS serves as the technical platform for large-scale projects such as the NIH-funded Fragile X and Infant Brain Imaging Study (IBIS)4, MAVAN8 (Maternal Adversity Vulnerability and Neurodevelopment), and the NeuroDevNet Network Centres of Excellence.

AcknowledgementsDevelopment of LORIS has also been funded by the National Institutes Health and the NeuroDevNet Network of Centres of Excellence. Additional contributing developers: Dario Vins, John Harlap, Matt Charlet, Andrew Cordery, David Brownlee, Sebastian Muehlboeck, Tarek Sherif, Mia Petkova, Cecile Madjar, Justin Kat, Rathi Gnanasekaran, Tara Campbell, Jordan Stirling, Ted Strauss Karolina Marasinska, Xavier Lecours-Boucher, Evan McIlroy, Olga Tsibulevskaya, Nic Kassis, Marc-Etienne Rousseau, Pierre Rioux.

MethodsLORISʼ Genomic Browser embeds display and download tools for multiple formats of genomic and imaging data, facilitating large-scale data acquisition, dissemination and analysis. Any format of derived genetic dataset, including metadata about genetic data collection and analysis, can be loaded and seamlessly linked with multi-modal subject data in the database.  

Results

LORISʼ demonstration database features a sample implementation of the Genomic Browser: https://demo.loris.ca/main.php?test_name=genomic_browser

827 CNV and 153 SNP sample records can be queried and filtered across subjects to provide: • Genomic profiles for individual subjects, summarizing available datasets • Distribution of genomic variants for any subset of a study population • Cross-linkage to neuroimaging and behavioural datasets for each subject • Metadata associated to each subjectʼs dataset by analysis type • Summary display of key columns vs. complete view across all available fields

ConclusionsLORISʼ ability to cross-link subject datasets across genomic, neuroimaging and behavioural modalities serves as a key tool for imaging-genetics, providing seamless centralization and dissemination of comprehensive datasets for large-scale research initiatives in the age of Big Data.

Figure 2: Sample analyzed CNV data in the Genomic Browser, filtered by type (gain) and characteristic (Pathogenic).

Figure 1: Sample analyzed SNP data in the Genomic Browser filtered for gender, subject cohort, chromosome, and SNP function prediction with projected links to AspireDB9 phenome-genome visualization tools.

QueryingFilterable and exportable

subject-based genomic profiles

DisseminationExporting population

datasets for processing and analysis7,10

Clinical/Behavioural

Ongoing development of the Genomic Browser includes support for methylation data, upload and download of voxel-wise GWAS data12, links to external data resources such as the UCSC Genome Browser6 as well as the ASPIREdb9 engine for phenome-genome exploration, and data visualization utilities from the IHEC Data Portal1 for epigenetic visualization.

For more informationvisit LORIS.ca

BrainBrowser11

Embedded Volume and Surface Viewer

LORIS neuroinformatics platform for Imaging Genetics C. Rogers1, S. Das1, Z. Mohaddes1, D. MacFarlane1, P. Kostopoulos1, E. Portales-Casamar2, and A.C. Evans1

1Montreal Neurological Institute, Montreal, QC, Canada 2Centre for High-Throughput Biology, University of British Columbia, Vancouver, BC, Canada

Figure 3: Sample methylation data in the Genomic Browser, with links to the UCSC Genome Browser6 CpG and Gene visualization utilities.

VisualizationLinks to resources:• UCSC Genome Browser6

• AspireDB9 browser• IHEC1 Data tools

Datasets:• PLINK format• Methylation CpG

beta-values• Variant Analysis

GWAS, EWAS CNV, SNP

Genetic/Epigenetic

Imaging

Datasets: 3D/4D including

• MRI• MEG• PET• Spectroscopy