Nanoparticle-filled capillary electrophoresis for the separation of long DNA molecules in the presence of hydrodynamic and electrokinetic forces

We report the analysis of long DNA molecules by nanoparticle‐filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as...

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Published inElectrophoresis Vol. 26; no. 16; pp. 3069 - 3075
Main Authors Tseng, Wei-Lung, Huang, Ming-Feng, Huang, Yu-Fen, Chang, Huan-Tsung
Format Journal Article
LanguageEnglish
Published Weinheim WILEY-VCH Verlag 01.08.2005
WILEY‐VCH Verlag
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Abstract We report the analysis of long DNA molecules by nanoparticle‐filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as separation matrices for DNA separation. The separations of λ‐DNA (0.12–23.1 kbp) and high‐molecular‐weight DNA markers (8.27–48.5 kbp) by NFCE, under an electric field of —140 V/cm and a hydrodynamic flow velocity of 554 μm/s, were accomplished within 5 min. To further investigate the separation mechanism, the migration of λ‐DNA was monitored in real time using a charge‐coupled device (CCD) imaging system. The GNPPs provide greater retardation than do conventional polymer media when they are encountered during the electrophoretic process. The presence of interactions between the GNPPs and the DNA molecules is further supported by the fluorescence quenching of prelabeled λ‐DNA, which occurs through an energy transfer mechanism. Based on the results presented in this study, we suggest that the electric field, hydrodynamic flow, and GNPP concentration are the three main determinants of DNA separation in NFCE.
AbstractList We report the analysis of long DNA molecules by nanoparticle‐filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as separation matrices for DNA separation. The separations of λ‐DNA (0.12–23.1 kbp) and high‐molecular‐weight DNA markers (8.27–48.5 kbp) by NFCE, under an electric field of —140 V/cm and a hydrodynamic flow velocity of 554 μm/s, were accomplished within 5 min. To further investigate the separation mechanism, the migration of λ‐DNA was monitored in real time using a charge‐coupled device (CCD) imaging system. The GNPPs provide greater retardation than do conventional polymer media when they are encountered during the electrophoretic process. The presence of interactions between the GNPPs and the DNA molecules is further supported by the fluorescence quenching of prelabeled λ‐DNA, which occurs through an energy transfer mechanism. Based on the results presented in this study, we suggest that the electric field, hydrodynamic flow, and GNPP concentration are the three main determinants of DNA separation in NFCE.
We report the analysis of long DNA molecules by nanoparticle-filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as separation matrices for DNA separation. The separations of lambda-DNA (0.12-23.1 kbp) and high-molecular-weight DNA markers (8.27-48.5 kbp) by NFCE, under an electric field of -140 V/cm and a hydrodynamic flow velocity of 554 microm/s, were accomplished within 5 min. To further investigate the separation mechanism, the migration of lambda-DNA was monitored in real time using a charge-coupled device (CCD) imaging system. The GNPPs provide greater retardation than do conventional polymer media when they are encountered during the electrophoretic process. The presence of interactions between the GNPPs and the DNA molecules is further supported by the fluorescence quenching of prelabeled lambda-DNA, which occurs through an energy transfer mechanism. Based on the results presented in this study, we suggest that the electric field, hydrodynamic flow, and GNPP concentration are the three main determinants of DNA separation in NFCE.
We report the analysis of long DNA molecules by nanoparticle-filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as separation matrices for DNA separation. The separations of lambda-DNA (0.12-23.1 kbp) and high-molecular-weight DNA markers (8.27-48.5 kbp) by NFCE, under an electric field of -140 V/cm and a hydrodynamic flow velocity of 554 microm/s, were accomplished within 5 min. To further investigate the separation mechanism, the migration of lambda-DNA was monitored in real time using a charge-coupled device (CCD) imaging system. The GNPPs provide greater retardation than do conventional polymer media when they are encountered during the electrophoretic process. The presence of interactions between the GNPPs and the DNA molecules is further supported by the fluorescence quenching of prelabeled lambda-DNA, which occurs through an energy transfer mechanism. Based on the results presented in this study, we suggest that the electric field, hydrodynamic flow, and GNPP concentration are the three main determinants of DNA separation in NFCE.We report the analysis of long DNA molecules by nanoparticle-filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic forces. The gold nanoparticle (GNP)/polymer composites (GNPPs) prepared from GNPs and poly(ethylene oxide) were filled in a capillary to act as separation matrices for DNA separation. The separations of lambda-DNA (0.12-23.1 kbp) and high-molecular-weight DNA markers (8.27-48.5 kbp) by NFCE, under an electric field of -140 V/cm and a hydrodynamic flow velocity of 554 microm/s, were accomplished within 5 min. To further investigate the separation mechanism, the migration of lambda-DNA was monitored in real time using a charge-coupled device (CCD) imaging system. The GNPPs provide greater retardation than do conventional polymer media when they are encountered during the electrophoretic process. The presence of interactions between the GNPPs and the DNA molecules is further supported by the fluorescence quenching of prelabeled lambda-DNA, which occurs through an energy transfer mechanism. Based on the results presented in this study, we suggest that the electric field, hydrodynamic flow, and GNPP concentration are the three main determinants of DNA separation in NFCE.
Author Tseng, Wei-Lung
Huang, Ming-Feng
Huang, Yu-Fen
Chang, Huan-Tsung
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  fullname: Tseng, Wei-Lung
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  fullname: Huang, Ming-Feng
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  surname: Chang
  fullname: Chang, Huan-Tsung
  email: changht@ntu.edu.tw
  organization: Department of Chemistry, National Taiwan University, Taipei, Taiwan
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Snippet We report the analysis of long DNA molecules by nanoparticle‐filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic...
We report the analysis of long DNA molecules by nanoparticle-filled capillary electrophoresis (NFCE) under the influences of hydrodynamic and electrokinetic...
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SubjectTerms Bacteriophage lambda - genetics
Capillary electrophoresis
DNA - isolation & purification
DNA separation
DNA, Viral - isolation & purification
Electrophoresis, Capillary - methods
Gold - chemistry
Gold nanoparticles
Molecular Weight
Nanostructures - chemistry
Poly(ethylene oxide)
Polyethylene Glycols
Title Nanoparticle-filled capillary electrophoresis for the separation of long DNA molecules in the presence of hydrodynamic and electrokinetic forces
URI https://api.istex.fr/ark:/67375/WNG-1GT2961R-X/fulltext.pdf
https://onlinelibrary.wiley.com/doi/abs/10.1002%2Felps.200410433
https://www.ncbi.nlm.nih.gov/pubmed/16041701
https://www.proquest.com/docview/68499515
Volume 26
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