Carding 4 Carders
Professional
- Messages
- 2,724
- Reaction score
- 1,588
- Points
- 113
The secrets of the ocean have become the key to the future of nanoproduction.
Scientists have adapted the principles of huge, unexpected "rebellious" waves in the ocean to the nanoscale, which opens up potential opportunities in nanomanufacturing and medical research. These discoveries are supported by mathematical models developed for quantum physics.
For a long time, there were legends about "rebellious" waves that suddenly appear on the calm surface of the ocean and hit oil rigs and ships on their way. Unlike tsunamis, such waves are formed by a random combination of smaller waves, which makes their occurrence extremely rare.
Applying the principles of "rebellious" waves at the nanoscale
Recent studies have shown that the principles of "rebellious" waves can be applied at the nanoscale. This represents a completely new approach to the behavior of liquids at such a tiny level. Holes and bulges formed under the influence of such waves can be used to create structures in nanoproduction. For example, the resulting patterns that break up liquid films can be used to create microelectronic circuits used in the production of solar cells. In addition, the behavior of thin liquid layers can help to understand the causes of dry eyes that occur when the tear film breaks.
Behavior of nanoscopic liquid layers
A study conducted by the University of Warwick's Mathematics Institute has shown how nanoscopic layers of liquid behave in counterintuitive situations. At the nanoscale, the chaotic motion of molecules creates random waves on the surface of a liquid. A rare phenomenon occurs when these waves combine to create a large "rebel nanowave" that breaks through the layer and creates a hole.
Professor James Sprittles, from the University of Warwick, said: "We were thrilled to discover that mathematical models originally developed for quantum physics and recently applied to predicting rebellious ocean waves are key to predicting the stability of nanoscopic liquid layers. In the future, we hope that the theory will allow us to develop a number of nanotechnologies where it is important to control the moment and method of breaking layers."
Scientists have adapted the principles of huge, unexpected "rebellious" waves in the ocean to the nanoscale, which opens up potential opportunities in nanomanufacturing and medical research. These discoveries are supported by mathematical models developed for quantum physics.
For a long time, there were legends about "rebellious" waves that suddenly appear on the calm surface of the ocean and hit oil rigs and ships on their way. Unlike tsunamis, such waves are formed by a random combination of smaller waves, which makes their occurrence extremely rare.
Applying the principles of "rebellious" waves at the nanoscale
Recent studies have shown that the principles of "rebellious" waves can be applied at the nanoscale. This represents a completely new approach to the behavior of liquids at such a tiny level. Holes and bulges formed under the influence of such waves can be used to create structures in nanoproduction. For example, the resulting patterns that break up liquid films can be used to create microelectronic circuits used in the production of solar cells. In addition, the behavior of thin liquid layers can help to understand the causes of dry eyes that occur when the tear film breaks.
Behavior of nanoscopic liquid layers
A study conducted by the University of Warwick's Mathematics Institute has shown how nanoscopic layers of liquid behave in counterintuitive situations. At the nanoscale, the chaotic motion of molecules creates random waves on the surface of a liquid. A rare phenomenon occurs when these waves combine to create a large "rebel nanowave" that breaks through the layer and creates a hole.
Professor James Sprittles, from the University of Warwick, said: "We were thrilled to discover that mathematical models originally developed for quantum physics and recently applied to predicting rebellious ocean waves are key to predicting the stability of nanoscopic liquid layers. In the future, we hope that the theory will allow us to develop a number of nanotechnologies where it is important to control the moment and method of breaking layers."
