3results about How to "Rapid inactivation" patented technology

This invention discloses a swab sample preservation solution. The solution contains isosorbide dimethyl ether, sucrose fatty acid ester, and polyether NPE-108. This preservation solution is a swab sample preservation solution that can rapidly inactivate viruses and has good preservation effects. It can preserve viral nucleic acid for 16 days at room temperature (37°C) and for 60 days at 2–8°C, effectively protecting the nucleic acid from degradation without affecting subsequent nucleic acid extraction and detection, making it safe and effective. Furthermore, this preservation solution can rapidly inactivate the preserved virus sample in just 10 minutes, effectively preventing secondary infection of operators.

The application relates to a sterilization device and a bacteria picking device. The sterilization device comprises a mounting bracket and a plurality of heating pipes arranged in an array on the mounting bracket. Each heating pipe is provided with a heating cavity for accommodating a bacteria picking member, and the heating pipe is used for heating the bacteria picking member entering the heating cavity. The above-mentioned sterilization device and bacteria picking device can simultaneously perform high-temperature sterilization on a plurality of bacteria picking members, thereby being suitable for a bacteria picking device with a plurality of bacteria picking members, improving sterilization efficiency, and reducing the cost of modifying the bacteria picking device.

This invention discloses an antibacterial filter, its preparation method, and its application, relating to the field of air purification. The antibacterial filter disclosed in this invention uses glass fiber as a substrate, and is prepared by loading a nano-copper-carbon composite through hydroxylation pretreatment and hydrothermal reaction. The resulting antibacterial filter exhibits excellent bacterial capture rate and antibacterial performance. The glass fiber used in this invention has a large pore size, allowing the antibacterial filter to capture bacteria without increasing air resistance or reducing pressure drop, i.e., it is not easily clogged. The oxygen-rich nano-carbon in the nano-copper-carbon composite increases the surface roughness of the glass fiber. This increased roughness, combined with the active groups on the surface of the oxygen-rich nano-carbon, significantly improves the bacterial capture rate of the antibacterial filter. The nano-copper in the nano-copper-carbon composite provides excellent antibacterial properties.