Scientists used to depict quantum-mechanical systems based on Schrodinger theories. Just now the latest observations led to the theory that huge disks of stars or wreckages can operate beneath the corresponding laws, similar to the subatomic particles, according to the Schrodinger equation.
The Schrodinger equation is the basis of the new observations
According to a new research, observing space formations with such an equation can give new theories about the way the galaxies developed, plus that they will unveil hints about the movements of the solar system and the performance of the disks surrounding faraway planets.
Konstantin Batygin, a scientist at the California Institute of Technology and the leading author of this recent research, didn’t expect to discover that very equation during his observational research on the planetary disks.
“At the time, I was completely floored. I was expecting the regular wave equation to appear, something like the wave of a string or something like that. And instead, get this equation, which is really the cornerstone of quantum mechanics,” admitted Batygin.
Applying the Schrodinger equation, scientists will be able to interpret, on an atomic and subatomic level, the interplays of such system, representing a general notion in quantum mechanics which defines that system’s unexpected reactions.
In the study’s conclusion, the rings can move similar to particles
“In retrospect, when I look at the problem now, I’m surprised at how I didn’t just guess that that’s what it was going to be,” admitted Konstantin Batygin.
The new observation will permit scientists to comprehend the compositions the cosmologists observe in the nighttime sky in a new way.
Accordingly, since the rings are changing on considerably extended timescales than people can perceive, the equation may be applied to calculate the way a system reached to what we are able to observe in the present days. Besides, the very same equation can predict how a system will shift eventually, according to Batygin.