Scientists have adapted the principles of huge, unexpectedly arising “rebellious” waves in the ocean to the nano level, opening potential opportunities in nanoproduction and medical research. These findings are supported by mathematical models originally developed for quantum physics. (source)
For a long time, legends have circulated about these “rebellious” waves that suddenly appear on the calm surface of the ocean and surprise oil towers and ships in their path. Unlike tsunamis, these waves are formed by a random combination of smaller waves, making their occurrence extremely rare.
Application of “rebellious” wave principles at the nanoscale:
Recent studies have shown that the principles of these “rebellious” waves can be applied at the nanoscale. This represents an entirely new approach to understanding fluid behavior at such a tiny level. The indentations and protrusions formed under the influence of these waves can be utilized to create structures in nanoproduction. For example, the patterns formed that disrupt liquid films can be used in the production of microelectronic circuits for solar panels. Additionally, the behavior of thin liquid layers can help researchers understand the causes of dry eyes that occur when the tear film ruptures.
Understanding nanoscopic liquid layers:
A study conducted by the Waurik University Mathematical Institute examined the behavior of nanoscopic liquid layers in controlled situations. At the nanoscale, the chaotic movement of molecules generates random waves on the liquid’s surface. A rare phenomenon occurs when these waves merge, resulting in the formation of a large “rebellious nanowave” that breaks the layer and creates a hole.
Professor James Sprittls from the University of Warurik said, “We were delighted to find that the mathematical models originally designed for quantum physics and recently employed to predict rebellious waves in the ocean are equally important in predicting the stability of nanoscopic liquid layers. In the future, we hope this theory will contribute to the development of numerous nanotechn