Literature DB >> 25501856

Fluorometric assay to compensate for non-viable cells during electroporation.

Alisha D Peterson1, Mark J Jaroszeski, Vinay K Gupta.   

Abstract

A fluorometric assay is described that allows adjustment for non-viable cells that result during electroporation. The technique, unlike others, relies on only one dye, requires a single instrument, and eliminates the need for a separate cell counting step. Murine melanoma (B16-F10) cells were electroporated using electric fields ranging from 400 to 2500 V/cm in the presence of SYTOX(®)-green. Compensation for the fluorescence resulting from non-viable cells was facilitated by a correction curve established by lysing a known number of cells in the presence of SYTOX(®)-green. In uncorrected data, an applied electric field of 2500 V/cm increased dye delivery but also reduced cell viability significantly. Compensating for the fluorescence of non-viable cells showed that changing the field strength to 800 V/cm or 2500 V/cm from 400 V/cm had only marginal effects on membrane pore formation. The fluorometric assay was used to compare electroporation in high conductivity (PBS) and a low conductivity medium (LC-PBS). Statistically significant increases of 10 to 30-fold were observed for cells electroporated at 400 V/cm and 800 V/cm in LC-PBS.

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Year:  2014        PMID: 25501856     DOI: 10.1007/s10895-014-1492-y

Source DB:  PubMed          Journal:  J Fluoresc        ISSN: 1053-0509            Impact factor:   2.217


  15 in total

1.  Quantitative study of electroporation-mediated molecular uptake and cell viability.

Authors:  P J Canatella; J F Karr; J A Petros; M R Prausnitz
Journal:  Biophys J       Date:  2001-02       Impact factor: 4.033

2.  Single-cell electroporation for gene transfer in vivo.

Authors:  K Haas; W C Sin; A Javaherian; Z Li; H T Cline
Journal:  Neuron       Date:  2001-03       Impact factor: 17.173

3.  Electroporation-mediated delivery of molecules to model intestinal epithelia.

Authors:  Esi B Ghartey-Tagoe; Jeremy S Morgan; Kashif Ahmed; Andrew S Neish; Mark R Prausnitz
Journal:  Int J Pharm       Date:  2004-02-11       Impact factor: 5.875

4.  Single-cell electroporation using proton beam fabricated biochips.

Authors:  S Homhuan; B Zhang; F-S Sheu; A A Bettiol; F Watt
Journal:  Biomed Microdevices       Date:  2012-06       Impact factor: 2.838

Review 5.  Carbon nanotubes for biomedical applications.

Authors:  Niraj Sinha; John T W Yeow
Journal:  IEEE Trans Nanobioscience       Date:  2005-06       Impact factor: 2.935

6.  Electroporation of mammalian cells in a microfluidic channel with geometric variation.

Authors:  Hsiang-Yu Wang; Chang Lu
Journal:  Anal Chem       Date:  2006-07-15       Impact factor: 6.986

7.  Microfluidic electroporation for delivery of small molecules and genes into cells using a common DC power supply.

Authors:  Hsiang-Yu Wang; Chang Lu
Journal:  Biotechnol Bioeng       Date:  2008-06-15       Impact factor: 4.530

8.  Effect of medium conductivity and composition on the uptake of propidium iodide into electropermeabilized myeloma cells.

Authors:  C S Djuzenova; U Zimmermann; H Frank; V L Sukhorukov; E Richter; G Fuhr
Journal:  Biochim Biophys Acta       Date:  1996-10-23

9.  Electroporation for the efficient transfection of mammalian cells with DNA.

Authors:  G Chu; H Hayakawa; P Berg
Journal:  Nucleic Acids Res       Date:  1987-02-11       Impact factor: 16.971

10.  Delivery of molecules into cells using localized single cell electroporation on ITO micro-electrode based transparent chip.

Authors:  Sheng-Chiech Chen; Tuhin Subhra Santra; Chia-Jung Chang; Tsung-Ju Chen; Pen-Cheng Wang; Fan-Gang Tseng
Journal:  Biomed Microdevices       Date:  2012-10       Impact factor: 2.838

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  1 in total

1.  Mediated amperometry as a prospective method for the investigation of electroporation.

Authors:  Povilas Simonis; Rasa Garjonyte; Arunas Stirke
Journal:  Sci Rep       Date:  2020-11-05       Impact factor: 4.379

  1 in total

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