Neuraminidase‐mediated desialylation augments AAV9‐mediated gene expression in skeletal muscle

Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia‐augmented expression include: (i) i...

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Published inThe journal of gene medicine Vol. 20; no. 9; pp. e3049 - n/a
Main Authors Zhu, Hongling, Wang, Tao, John Lye, Robert, French, Brent A., Annex, Brian H.
Format Journal Article
LanguageEnglish
Published England Wiley Periodicals Inc 01.09.2018
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Abstract Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia‐augmented expression include: (i) increased vascular permeability and (ii) “unmasking” of endogenous AAV9 receptors. In the present study, we aimed to reconstitute the ischemic induction of AAV9 in vivo, using local injection of histamine (to increase vascular permeability) and neuraminidase (to desialylate cell surface glycans). Methods Bioassays were performed to optimize the effects of histamine and neuraminidase after intramuscular injection. Histamine and/or neuraminidase were then injected intramuscularly shortly before intravenous injection of an AAV9 vector expressing luciferase. Luciferase expression was serially assessed with bioluminescence imaging. At the end of the study, tissues were harvested for assays of luciferase activity and AAV9 genome copy number aiming to assess AAV‐mediated gene expression and transduction, respectively. Results Intramuscular injection of either neuraminidase or neuraminidase plus histamine significantly increased both transduction and gene expression, whereas histamine alone had little effect. Pre‐injection with neuraminidase increased AAV9‐mediated gene delivery by four‐ to nine‐fold and luciferase activity by 60–100‐fold. Luciferase activity in neuraminidase‐injected muscle was > 100‐fold higher than in any off‐target tissue (including heart, liver and brain). Conclusions The ischemic induction of AAV9‐mediated gene expression in muscle can largely be reconstituted by pre‐injecting neuraminidase intranmuscularly. This strategy may prove useful in future human gene therapy protocols as a quick and efficient means to selectively target systemically injected AAV9 to localized regions of muscle, thus decreasing the potential for adverse effects in off‐target tissues.
AbstractList Abstract Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia‐augmented expression include: (i) increased vascular permeability and (ii) “unmasking” of endogenous AAV9 receptors. In the present study, we aimed to reconstitute the ischemic induction of AAV9 in vivo, using local injection of histamine (to increase vascular permeability) and neuraminidase (to desialylate cell surface glycans). Methods Bioassays were performed to optimize the effects of histamine and neuraminidase after intramuscular injection. Histamine and/or neuraminidase were then injected intramuscularly shortly before intravenous injection of an AAV9 vector expressing luciferase. Luciferase expression was serially assessed with bioluminescence imaging. At the end of the study, tissues were harvested for assays of luciferase activity and AAV9 genome copy number aiming to assess AAV‐mediated gene expression and transduction, respectively. Results Intramuscular injection of either neuraminidase or neuraminidase plus histamine significantly increased both transduction and gene expression, whereas histamine alone had little effect. Pre‐injection with neuraminidase increased AAV9‐mediated gene delivery by four‐ to nine‐fold and luciferase activity by 60–100‐fold. Luciferase activity in neuraminidase‐injected muscle was > 100‐fold higher than in any off‐target tissue (including heart, liver and brain). Conclusions The ischemic induction of AAV9‐mediated gene expression in muscle can largely be reconstituted by pre‐injecting neuraminidase intranmuscularly. This strategy may prove useful in future human gene therapy protocols as a quick and efficient means to selectively target systemically injected AAV9 to localized regions of muscle, thus decreasing the potential for adverse effects in off‐target tissues.
BACKGROUNDFollowing systemic delivery, AAV9-mediated gene expression is significantly increased in ischemic versus non-ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia-augmented expression include: (i) increased vascular permeability and (ii) "unmasking" of endogenous AAV9 receptors. In the present study, we aimed to reconstitute the ischemic induction of AAV9 in vivo, using local injection of histamine (to increase vascular permeability) and neuraminidase (to desialylate cell surface glycans). METHODSBioassays were performed to optimize the effects of histamine and neuraminidase after intramuscular injection. Histamine and/or neuraminidase were then injected intramuscularly shortly before intravenous injection of an AAV9 vector expressing luciferase. Luciferase expression was serially assessed with bioluminescence imaging. At the end of the study, tissues were harvested for assays of luciferase activity and AAV9 genome copy number aiming to assess AAV-mediated gene expression and transduction, respectively. RESULTSIntramuscular injection of either neuraminidase or neuraminidase plus histamine significantly increased both transduction and gene expression, whereas histamine alone had little effect. Pre-injection with neuraminidase increased AAV9-mediated gene delivery by four- to nine-fold and luciferase activity by 60-100-fold. Luciferase activity in neuraminidase-injected muscle was > 100-fold higher than in any off-target tissue (including heart, liver and brain). CONCLUSIONSThe ischemic induction of AAV9-mediated gene expression in muscle can largely be reconstituted by pre-injecting neuraminidase intranmuscularly. This strategy may prove useful in future human gene therapy protocols as a quick and efficient means to selectively target systemically injected AAV9 to localized regions of muscle, thus decreasing the potential for adverse effects in off-target tissues.
Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia‐augmented expression include: (i) increased vascular permeability and (ii) “unmasking” of endogenous AAV9 receptors. In the present study, we aimed to reconstitute the ischemic induction of AAV9 in vivo, using local injection of histamine (to increase vascular permeability) and neuraminidase (to desialylate cell surface glycans). Methods Bioassays were performed to optimize the effects of histamine and neuraminidase after intramuscular injection. Histamine and/or neuraminidase were then injected intramuscularly shortly before intravenous injection of an AAV9 vector expressing luciferase. Luciferase expression was serially assessed with bioluminescence imaging. At the end of the study, tissues were harvested for assays of luciferase activity and AAV9 genome copy number aiming to assess AAV‐mediated gene expression and transduction, respectively. Results Intramuscular injection of either neuraminidase or neuraminidase plus histamine significantly increased both transduction and gene expression, whereas histamine alone had little effect. Pre‐injection with neuraminidase increased AAV9‐mediated gene delivery by four‐ to nine‐fold and luciferase activity by 60–100‐fold. Luciferase activity in neuraminidase‐injected muscle was > 100‐fold higher than in any off‐target tissue (including heart, liver and brain). Conclusions The ischemic induction of AAV9‐mediated gene expression in muscle can largely be reconstituted by pre‐injecting neuraminidase intranmuscularly. This strategy may prove useful in future human gene therapy protocols as a quick and efficient means to selectively target systemically injected AAV9 to localized regions of muscle, thus decreasing the potential for adverse effects in off‐target tissues.
Following systemic delivery, AAV9-mediated gene expression is significantly increased in ischemic versus non-ischemic muscle, suggesting that AAV9 is an attractive vector for treating peripheral arterial disease. Potential mechanisms underlying ischemia-augmented expression include: (i) increased vascular permeability and (ii) "unmasking" of endogenous AAV9 receptors. In the present study, we aimed to reconstitute the ischemic induction of AAV9 in vivo, using local injection of histamine (to increase vascular permeability) and neuraminidase (to desialylate cell surface glycans). Bioassays were performed to optimize the effects of histamine and neuraminidase after intramuscular injection. Histamine and/or neuraminidase were then injected intramuscularly shortly before intravenous injection of an AAV9 vector expressing luciferase. Luciferase expression was serially assessed with bioluminescence imaging. At the end of the study, tissues were harvested for assays of luciferase activity and AAV9 genome copy number aiming to assess AAV-mediated gene expression and transduction, respectively. Intramuscular injection of either neuraminidase or neuraminidase plus histamine significantly increased both transduction and gene expression, whereas histamine alone had little effect. Pre-injection with neuraminidase increased AAV9-mediated gene delivery by four- to nine-fold and luciferase activity by 60-100-fold. Luciferase activity in neuraminidase-injected muscle was > 100-fold higher than in any off-target tissue (including heart, liver and brain). The ischemic induction of AAV9-mediated gene expression in muscle can largely be reconstituted by pre-injecting neuraminidase intranmuscularly. This strategy may prove useful in future human gene therapy protocols as a quick and efficient means to selectively target systemically injected AAV9 to localized regions of muscle, thus decreasing the potential for adverse effects in off-target tissues.
Author Annex, Brian H.
Zhu, Hongling
Wang, Tao
French, Brent A.
John Lye, Robert
AuthorAffiliation 3 Robert M. Berne Cardiovascular Research Center, University of Virginia, Charlottesville, VA, USA 22908
2 Department of Biomedical Engineering, University of Virginia, Charlottesville, VA, USA 22908
1 Department of Medicine, Division of Cardiovascular Medicine, University of Virginia, Charlottesville, VA, USA 22908
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Keywords gene therapy
Adeno-associated virus
muscle-specific promoter
receptor
neuraminidase
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Current address: Department of Cardiology, Tongji Hospital, Tongji Medical College, Huazhong University of Science and Technology, Wuhan, Hubei 430030, China
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Snippet Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9...
Following systemic delivery, AAV9-mediated gene expression is significantly increased in ischemic versus non-ischemic muscle, suggesting that AAV9 is an...
Abstract Background Following systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting...
BackgroundFollowing systemic delivery, AAV9‐mediated gene expression is significantly increased in ischemic versus non‐ischemic muscle, suggesting that AAV9 is...
BACKGROUNDFollowing systemic delivery, AAV9-mediated gene expression is significantly increased in ischemic versus non-ischemic muscle, suggesting that AAV9 is...
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SubjectTerms Adeno‐associated virus
Bioluminescence
Cell surface
Copy number
Exo-a-sialidase
Gene expression
Gene therapy
Gene transfer
Genomes
Histamine
Injection
Intravenous administration
Ischemia
Liver
muscle‐specific promoter
neuraminidase
Neuroimaging
Permeability
Polysaccharides
receptor
Skeletal muscle
Title Neuraminidase‐mediated desialylation augments AAV9‐mediated gene expression in skeletal muscle
URI https://onlinelibrary.wiley.com/doi/abs/10.1002%2Fjgm.3049
https://www.ncbi.nlm.nih.gov/pubmed/30101537
https://www.proquest.com/docview/2105021461
https://search.proquest.com/docview/2087994358
https://pubmed.ncbi.nlm.nih.gov/PMC6209320
Volume 20
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