96 sample parallel acoustic fragmentation for high throughput next generation sequencing library preparation

Random, unbiased fragmentation of genomic DNA is necessary for next generation sequencing (NGS), yet the process of DNA fragmentation is still a bottleneck in NGS pipelines. A technology that increases the efficiency and consistency of this step will be highly desirable for both research laboratories and in clinical diagnostics. Previously, we reported the development of a novel cavitation enhancement reagent that dramatically decreases the time and acoustic energy required for genomic DNA fragmentation. The inclusion of this reagent in standard protocols facilitates highly efficient sonication enabling the use of widely available and inexpensive equipment, including water bath-based sonicators. Here, we report that cavitation enhancement facilitates parallel fragmentation of up to 96 samples of genomic DNA in a modified sonication device. The parallel processing of multiple samples significantly reduces processing time, while maintaining fragment range reproducibility and preserving DNA quality for NGS. Consequently, this system removes a key bottleneck in standard NGS pipelines and facilitates efforts toward research and personalized genomics.

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Publication Details

Journal
PLoS ONE
Published
2026-02-17
DOI
https://doi.org/10.1371/journal.pone.0341139
Primary Topic
Molecular Biology Techniques and Applications
Type
article
Field-Weighted Citation Impact
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article

96 sample parallel acoustic fragmentation for high throughput next generation sequencing library preparation

Andrew S. Weitz, Marjan Mehrab‐Mohseni, Haofan Zheng, P. A. Dayton et al.
PLoS ONE
Molecular Biology Techniques and Applications
article

96 sample parallel acoustic fragmentation for high throughput next generation sequencing library preparation

Andrew S. Weitz, Marjan Mehrab‐Mohseni, Haofan Zheng, P. A. Dayton, Sherif W. Farag, Kathlyne Jayne B. Bautista, Erika Maldonado-Rosado, Yusha Liu, Michell D. Carroll, Jinwook Kim, Brian Velasco, Piotr A. Mieczkowski, Samantha G. Pattenden, Austin J. Hepperla, Jonathan D. Rosen, Perry D. Haaland, Matthew J. Niederhuber, Sandeep K. Kasoji
article en

Abstract

Random, unbiased fragmentation of genomic DNA is necessary for next generation sequencing (NGS), yet the process of DNA fragmentation is still a bottleneck in NGS pipelines. A technology that increases the efficiency and consistency of this step will be highly desirable for both research laboratories and in clinical diagnostics. Previously, we reported the development of a novel cavitation enhancement reagent that dramatically decreases the time and acoustic energy required for genomic DNA fragmentation. The inclusion of this reagent in standard protocols facilitates highly efficient sonication enabling the use of widely available and inexpensive equipment, including water bath-based sonicators. Here, we report that cavitation enhancement facilitates parallel fragmentation of up to 96 samples of genomic DNA in a modified sonication device. The parallel processing of multiple samples significantly reduces processing time, while maintaining fragment range reproducibility and preserving DNA quality for NGS. Consequently, this system removes a key bottleneck in standard NGS pipelines and facilitates efforts toward research and personalized genomics.

PLoS ONEVol. 21(2)
University of North Carolina at Chapel Hill (US), North Carolina Biotechnology Center (US)
Affordable and clean energy
Openalex Percentile: Top 52%
Molecular Biology Techniques and Applications
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