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Utilizing advanced high-pressure gas-powered particle bombardment technology, the high-pressure gas gene gun facilitates the introduction of tungsten or gold particles, ranging from 0.8 to 1.5 μm in size, encapsulated with nucleic acids. This innovative approach ensures swift, straightforward, and secure transfection effects, demonstrating applicability to both transient and stable transfection methods. The versatility of this instrument extends to a broad spectrum of biological projectile transformations, encompassing in situ, in vitro, in vivo, and ex vivo applications. This gene gun stands out as a fast, efficient, and safe solution for achieving successful gene transfections across various experimental settings.

Model	GJ-100
Target area	Max. 40cm²
Pressure range	3-10MPa
Target type	Animals: Cell and organ cultures
Voltage	Plants: Smaller whole plants, cultured cells, exosomes
Air source	Yeast, bacteria, other microbial cells, chloroplasts, mitochondria
Metal particles	220v/110v

Strong Versatility: The gene gun's exceptional versatility, driven by compressed gas technology, simplifies technical intricacies and significantly expands its range of applications. Researchers can now focus more on their experimental goals, as the gene gun proves adaptable to a wide spectrum of research needs, from basic laboratory work to intricate and specialized applications.
Adjustable Pressure: Offering precision control through adjustable pressure settings within the 3-12MPa range, the gene gun empowers researchers with the flexibility to fine-tune conditions for optimal transfection. This adaptability ensures that the instrument can be optimized for various cell types and experimental setups, contributing to more reliable and reproducible results.
High Conversion Rate: The gene gun stands out with its use of a biologically inert particle carrier, reducing the risk of biological infection and enhancing specificity, resulting in a remarkably high conversion rate. This strategic choice ensures that introduced genetic material reaches target cells with precision, minimizing unintended interactions and significantly improving the success rate of transfection experiments.
Optional Carrier Membranes: Enhancing its adaptability, the gene gun provides a choice between flying or steel membranes, allowing researchers to tailor the instrument to the specific needs of their experiments. This flexibility in membrane selection ensures compatibility and efficiency across a diverse range of experiments, accommodating delicate cell types or robust structures with ease.
Fast Cleaning: Beyond its impressive features, the gene gun introduces a unique circular conversion chamber that is detachable, facilitating swift cleaning and disinfection. This design minimizes downtime between experiments, allowing researchers to maintain a sterile environment and transition seamlessly between different studies. The gene gun not only offers efficiency during experiments but also ensures a streamlined and productive workflow overall.

1. Q: How does the gene gun's reliance on compressed gas enhance its versatility, and can you provide examples of applications where this feature proves advantageous?
A: The gene gun's versatility is significantly enhanced by utilizing compressed gas, simplifying technical aspects, and broadening its range of applications. This feature allows researchers to focus on experimental goals rather than troubleshooting intricacies. Examples of its advantageous applications include basic laboratory work and more specialized experiments, where adaptability is paramount.

2. Q: What is the significance of the adjustable pressure feature, and how does it contribute to the gene gun's performance in different experimental setups?
A: The adjustable pressure feature is crucial for precise control within the 3-12MPa range, providing researchers with the flexibility to optimize transfection conditions. This adaptability ensures the gene gun's optimal performance across various cell types and experimental setups, contributing to more reliable and reproducible results.

3. Q: Can you elaborate on the use of a biologically inert particle carrier and how it contributes to achieving a high conversion rate in gene transfer?
A: Certainly. The gene gun's use of a biologically inert particle carrier is strategic, reducing the risk of biological infection and enhancing specificity. This results in a high conversion rate, ensuring that introduced genetic material reaches target cells with precision, minimizing unintended interactions, and significantly improving the success rate of transfection experiments.

4. Q: How does the option for choosing between flying or steel membranes enhance the adaptability of the gene gun, and can you provide examples of scenarios where this choice matters?
A: Offering a choice between flying or steel membranes enhances the gene gun's adaptability. This flexibility allows researchers to tailor the instrument to specific experiment needs, accommodating a diverse range of scenarios. For instance, this choice is beneficial when working with delicate cell types or robust structures, ensuring compatibility and efficiency.

5. Q: The fast cleaning feature is intriguing. How does the detachable circular conversion chamber contribute to efficient cleaning, and does it impact the overall workflow during experiments?
A: The gene gun's unique circular conversion chamber, which is detachable for fast cleaning and disinfection, minimizes downtime between experiments. This design ensures a streamlined workflow, allowing researchers to maintain a sterile environment and transition seamlessly between different studies. The fast cleaning feature not only enhances efficiency during experiments but also contributes to an overall productive workflow.