We have seen the emergence of numerous drugs in the process of combating viruses. It would not be wrong to say that we suddenly learned about medicine, especially during the pandemic period. But viruses It is evolving and to keep up with this development we need to develop our medicines accordingly. It is not only important what the effects of medications are, but also that they become more practical.

of Australia from RMIT University Researchers have introduced a new material that will use brute force in the fight against viruses. This material, which can be used in hospitals, laboratories and other sensitive areas, is a protective agent against viruses that come into contact with it. acts as a trap.

Don’t be fooled by how smooth it looks, it has a spiky texture.

Exterior view of the object

Although the material developed over 2 years is soft for us, it is microscopically durable. has nano-spines. These spines are so small that they can cut and puncture cells. The object tested against hPIV-3 viruses showed a success rate of 96 percent. Viruses that came into contact with this object were either disintegrated or at a level that could not be corrected. heavy damage taken.

A virus on the plate

As a result of this damage, viruses can; It could not spread infections such as pneumonia, croup and bronchitis. This process, which requires no external intervention, can be completed within 6 hours. Interesting design insect inspired. Scientists studying dragonfly and cicada species also found similar nano-spines on the wings of these species. The function of these spines is to similarly prevent bacterial cells from spreading.

Damaged virus remains

But because viruses are much smaller than bacteria, they adapt to the situation smaller spines It had to be revealed. To create the object in question, researchers bombarded a silicon wafer with ions using a special device. At this stage, researchers create protrusions in certain parts of the plate. 2 nanometers thick and 290 nanometers long He was given needles. This means that they are 30 thousand times thinner than our hair.

With this material, researchers hope to reduce the use of large amounts of chemicals to remove viruses. You can view the entire study here.