Gene Gun Delivery
Gene Gun Delivery - Related Videos
05:44
Gene-gun Transfection of Hippocampal Neurons
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Cited by 2 •
2006
12:02
Transient Gene Expression in Tobacco using Gibson Assembly and the Gene Gun
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Cited by 8 •
2014
This work describes a novel method for selectively targeting subcellular organelles in plants, assayed using the BioRad Gene Gun.
05:33
Biolistic-Mediated Gene Transfer: A Technique to Deliver Gene of Interest in Target Cells via a Biolistic Gene Gun
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2025
In this video, we demonstrate the protocol of biolistic gene gun-mediated gene delivery in cultured cells. This method provides a simple method of stable genetic transformation using a minimal quantity of DNA.
17:42
Preparation of Gene Gun Bullets and Biolistic Transfection of Neurons in Slice Culture
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Cited by 90 •
2008
We describe a method for preparing DNA coated gold bullets and demonstrate the use of such bullets to biolistically transfect neurons in cultured hippocampal slices.
10:39
Bimolecular Fluorescence Complementation (BiFC) Assay for Protein-Protein Interaction in Onion Cells Using the Helios Gene Gun
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Cited by 18 •
2010
This article illustrates how to properly use the BioRad Helios Gene Gun to introduce plasmid DNA into onion epidermal cells and how to test for protein-protein interactions in onion cells based on the principle of Bimolecular Fluorescence Complementation...
FAQs
The particle carrier is central to Gene Gun Delivery because it provides the physical mass needed to propel DNA into a target. Gold and tungsten are identified as the principal materials used for DNA coating. Once accelerated, these microscopic particles can cross cell walls or membranes and release genetic material inside cells, supporting downstream expression or integration.
The outcome depends on what happens to the introduced genetic material after particle impact and release. In some experiments, DNA remains available temporarily, producing transient expression. In others, it becomes stably integrated into cellular genetic material. These distinct outcomes allow researchers to use the technique for short-term functional studies or transgenic research.
Delivery efficiency is variable because the physical impact must balance penetration with preservation of the target. Particles need to reach cells and release DNA, yet excessive physical disruption can damage tissue. This tradeoff affects how consistently cells receive genetic material and can influence the quality and interpretation of expression or integration results.
Its main advantage in this context is direct physical access. Rather than relying only on biological processes that may be blocked by cell walls, membranes, or other barriers, propelled particles can penetrate intact tissues and deliver DNA. This expands experimental options in systems where conventional transformation is ineffective or difficult, including plant and selected animal tissues.
A typical workflow begins by coating microscopic gold or tungsten particles with DNA, directing the coated particles toward a selected target, and accelerating them so they penetrate cells or tissues. The delivered DNA is then released inside the target, where researchers assess transient expression or stable integration. Tissue condition and delivery variability remain important considerations.
Gene Gun Delivery supports genetic work in plants, microorganisms, and selected animal tissues. Its applications include functional genomics, transgenic research, and vaccine development. The ability to target intact tissues is particularly useful when researchers need to examine gene activity or introduce genetic material in systems where conventional transformation does not readily overcome biological barriers.