Merging High-Throughput, Amplicon-Based Second and Third Generation Sequencing Data: An Integrative and Modular Data Analysis Framework for Haplotype Prediction and Output Evaluation

Despite providing highly accurate results, the short reads generated by second generation sequencing have major limitations in mapping complex genomic regions. Longer reads can resolve these issues and additionally phase distant variants. The third generation sequencing platform ONT currently achieves the longest sequencing reads but falls short in sequencing accuracy. Additionally, deriving phased haplotypes from amplicon-based NGS data remains a complex and time-consuming task that requires extensive bioinformatic expertise. We constructed an integrative, open-access modular data-analysis framework that allows for automated processing of high-throughput sequencing data from both second (Illumina) and third generation (ONT) sequencing platforms, combining the strengths of both technologies. Variant information is automatically evaluated and color-coded for discrepancies. Haplotypes are listed by frequency. All parts of the framework can be used independently. The framework's performance was validated using synthetic and tested with real-life data by analyzing partly homologous <i>FUT1</i>/<i>2</i>/<i>3</i> sequencing data from 400 blood donors.

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Publication Details

Journal
International Journal of Molecular Sciences
Published
2025-04-07
DOI
https://doi.org/10.3390/ijms26073443
Primary Topic
Genetic Associations and Epidemiology
Type
article
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article

Merging High-Throughput, Amplicon-Based Second and Third Generation Sequencing Data: An Integrative and Modular Data Analysis Framework for Haplotype Prediction and Output Evaluation

Johanna Kiefer, Christoph Gassner, Sylvia Mink, Tim Alexander Steiert et al.
International Journal of Molecular Sciences
Genetic Associations and Epidemiology
article

Merging High-Throughput, Amplicon-Based Second and Third Generation Sequencing Data: An Integrative and Modular Data Analysis Framework for Haplotype Prediction and Output Evaluation

Johanna Kiefer, Christoph Gassner, Sylvia Mink, Tim Alexander Steiert, Christian Attenberger, Janne Cadamuro, Yannik Busch, Andre Franke, Wolfgang Peter
article en

Abstract

Despite providing highly accurate results, the short reads generated by second generation sequencing have major limitations in mapping complex genomic regions. Longer reads can resolve these issues and additionally phase distant variants. The third generation sequencing platform ONT currently achieves the longest sequencing reads but falls short in sequencing accuracy. Additionally, deriving phased haplotypes from amplicon-based NGS data remains a complex and time-consuming task that requires extensive bioinformatic expertise. We constructed an integrative, open-access modular data-analysis framework that allows for automated processing of high-throughput sequencing data from both second (Illumina) and third generation (ONT) sequencing platforms, combining the strengths of both technologies. Variant information is automatically evaluated and color-coded for discrepancies. Haplotypes are listed by frequency. All parts of the framework can be used independently. The framework's performance was validated using synthetic and tested with real-life data by analyzing partly homologous <i>FUT1</i>/<i>2</i>/<i>3</i> sequencing data from 400 blood donors.

International Journal of Molecular SciencesVol. 26(7)
University of Cologne (DE), Paracelsus Medical University (AT), Christian-Albrechts-Universität zu Kiel (DE), Private University in the Principality of Liechtenstein (LI), University Hospital Cologne (DE)
Openalex Percentile: Top 92%
Genetic Associations and Epidemiology
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