Polymer-Enhanced Adenoviral Transduction of CAR-Negative Bladder Cancer Cells

The application of adenoviral gene therapy for cancer is limited by immune clearance of the virus as well as poor transduction efficiency, since the protein used for viral entry (CAR) serves physiological functions in adhesion and is frequently decreased among cancer cells. Cationic polymers have be...

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Veröffentlicht in:Molecular pharmaceutics 2009-10, Vol.6 (5), p.1612-1619
Hauptverfasser: Kasman, Laura M, Barua, Sutapa, Lu, Ping, Rege, Kaushal, Voelkel-Johnson, Christina
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container_end_page 1619
container_issue 5
container_start_page 1612
container_title Molecular pharmaceutics
container_volume 6
creator Kasman, Laura M
Barua, Sutapa
Lu, Ping
Rege, Kaushal
Voelkel-Johnson, Christina
description The application of adenoviral gene therapy for cancer is limited by immune clearance of the virus as well as poor transduction efficiency, since the protein used for viral entry (CAR) serves physiological functions in adhesion and is frequently decreased among cancer cells. Cationic polymers have been used to enhance adenoviral gene delivery, but novel polymers with low toxicity are needed to realize this approach. We recently identified polymers that were characterized by high transfection efficiency of plasmid DNA and a low toxicity profile. In this study we evaluated the novel cationic polymer EGDE-3,3′ for its potential to increase adenoviral transduction of the CAR-negative bladder cancer cell line TCCSUP. The amount of adenovirus required to transduce 50−60% of the cells was reduced 100-fold when Ad.GFP was preincubated with the EGDE-3,3′ polymer. Polyethyleneimine (pEI), a positively charged polymer currently used as a standard for enhancing adenoviral transduction, also increased infectivity, but transgene expression was consistently higher with EGDE-3,3′. In addition, EGDE-3,3′-supplemented transduction of an adenovirus expressing an apoptosis inducing transgene, Ad.GFP-TRAIL, significantly enhanced the amount of cell death. Thus, our results indicate that novel biocompatible polymers may be useful in improving the delivery of adenoviral gene therapy.
doi_str_mv 10.1021/mp9000958
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Pharmaceutics</addtitle><description>The application of adenoviral gene therapy for cancer is limited by immune clearance of the virus as well as poor transduction efficiency, since the protein used for viral entry (CAR) serves physiological functions in adhesion and is frequently decreased among cancer cells. Cationic polymers have been used to enhance adenoviral gene delivery, but novel polymers with low toxicity are needed to realize this approach. We recently identified polymers that were characterized by high transfection efficiency of plasmid DNA and a low toxicity profile. In this study we evaluated the novel cationic polymer EGDE-3,3′ for its potential to increase adenoviral transduction of the CAR-negative bladder cancer cell line TCCSUP. The amount of adenovirus required to transduce 50−60% of the cells was reduced 100-fold when Ad.GFP was preincubated with the EGDE-3,3′ polymer. Polyethyleneimine (pEI), a positively charged polymer currently used as a standard for enhancing adenoviral transduction, also increased infectivity, but transgene expression was consistently higher with EGDE-3,3′. In addition, EGDE-3,3′-supplemented transduction of an adenovirus expressing an apoptosis inducing transgene, Ad.GFP-TRAIL, significantly enhanced the amount of cell death. 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subjects Adenovirus
Adenoviruses, Human - genetics
Cell Death
Cell Line, Tumor
Coxsackie and Adenovirus Receptor-Like Membrane Protein
Epoxy Resins - chemistry
Gene Expression
Genetic Therapy - methods
Genetic Vectors
Green Fluorescent Proteins - genetics
Humans
Polymers - chemistry
Receptors, Virus - deficiency
Receptors, Virus - genetics
Receptors, Virus - metabolism
Recombinant Proteins - genetics
TNF-Related Apoptosis-Inducing Ligand - genetics
Transduction, Genetic - methods
Urinary Bladder Neoplasms - genetics
Urinary Bladder Neoplasms - metabolism
Urinary Bladder Neoplasms - pathology
Urinary Bladder Neoplasms - therapy
title Polymer-Enhanced Adenoviral Transduction of CAR-Negative Bladder Cancer Cells
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