Repository logo

Infoscience

  • English
  • French
Log In
Logo EPFL, École polytechnique fédérale de Lausanne

Infoscience

  • English
  • French
Log In
  1. Home
  2. Academic and Research Output
  3. Journal articles
  4. The enhancement of DNA fragmentation in a bench top ultrasonic water bath with needle-induced air bubbles: Simulation and experimental investigation
 
research article

The enhancement of DNA fragmentation in a bench top ultrasonic water bath with needle-induced air bubbles: Simulation and experimental investigation

Sun, Lin
•
Liu, Yang
•
Lehnert, Thomas  
Show more
July 1, 2022
Biomicrofluidics

Shearing DNA to a certain size is the first step in many medical and biological applications, especially in next-generation gene sequencing technology. In this article, we introduced a highly efficient ultrasonic DNA fragmentation method enhanced by needle-induced air bubbles, which is easy to operate with high throughput. The principle of the bubble-enhanced sonication system is introduced and verified by flow field and acoustic simulations and experiments. Lambda DNA long chains and mouse genomic DNA short chains are used in the experiments for testing the performance of the bubble-enhanced ultrasonic DNA fragmentation system. Air bubbles are an effective enhancement agent for ultrasonic DNA fragmentation; they can obviously improve the sound pressure level in the whole solution, thus, achieving better absorption of ultrasound energy. Growing bubbles also have a stretched function on DNA molecule chains and form a huge pressure gradient in the solution, which is beneficial to DNA fragmentation. Purified lambda DNA is cut from 48.5 to 2 kbp in 5 min and cut to 300 bp in 30 min. Mouse genomic DNA (asymptotic to 1400 bp) decreases to 400 bp in 5 min and then reduces to 200 bp in 30 min. This bubble-enhanced ultrasonic method enables widespread access to genomic DNA fragmentation in a standard ultrasonic water bath for many virus sequencing demands even without good medical facilities. Published under an exclusive license by AIP Publishing.

  • Details
  • Metrics
Type
research article
DOI
10.1063/5.0101740
Web of Science ID

WOS:000834161300002

Author(s)
Sun, Lin
Liu, Yang
Lehnert, Thomas  
Gijs, Martin A. M.  
Li, Songjing
Date Issued

2022-07-01

Publisher

AIP Publishing

Published in
Biomicrofluidics
Volume

16

Issue

4

Article Number

044103

Subjects

Biochemical Research Methods

•

Biophysics

•

Nanoscience & Nanotechnology

•

Physics, Fluids & Plasmas

•

Biochemistry & Molecular Biology

•

Science & Technology - Other Topics

•

Physics

•

gas-bubbles

•

oscillations

•

degradation

•

shearing

•

library

Editorial or Peer reviewed

REVIEWED

Written at

EPFL

EPFL units
LMIS2  
Available on Infoscience
August 15, 2022
Use this identifier to reference this record
https://infoscience.epfl.ch/handle/20.500.14299/190025
Logo EPFL, École polytechnique fédérale de Lausanne
  • Contact
  • infoscience@epfl.ch

  • Follow us on Facebook
  • Follow us on Instagram
  • Follow us on LinkedIn
  • Follow us on X
  • Follow us on Youtube
AccessibilityLegal noticePrivacy policyCookie settingsEnd User AgreementGet helpFeedback

Infoscience is a service managed and provided by the Library and IT Services of EPFL. © EPFL, tous droits réservés