Understanding Standing Waves in Hydrogen with Animation and Quantum Mechanics

In summary, the animation in the given link is not a good representation of a standing wave in Hydrogen as it shows particles with a position and movement, which is not applicable in quantum mechanics. To get a picture of an atom of Hydrogen, we need to solve the Schrodinger equation and plot the probability amplitude function. This can be done with modern technology using microscopes. A link to learn more about this technique is provided. Additionally, a recent image of a Hydrogen atom's orbital structure is available to view.
  • #1
bobie
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Can this animation http://en.wikipedia.org/wiki/File:GravitationalWave_PlusPolarization.gif be a good representation of a standing wave in Hydrogen?
If the wave rotated on the normal direction could then be a representation of the probability cloud in QM?
Can you give me a link whre to learn how, with which technique they get a picture of an atom of H?
 
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  • #2
bobie said:
Can this animation http://en.wikipedia.org/wiki/File:GravitationalWave_PlusPolarization.gif be a good representation of a standing wave in Hydrogen?
No, it's a picture of something completely different. One very big hint that it has nothing to do with quantum mechanics is that each little moving dot in the picture represents a particle - and if you've heard it once you've heard it 83 bazillion times here - in quantum mechanics particles are not like little dots that have a position and move around.

Can you give me a link where to learn how, with which technique they get a picture of an atom of H?

The technique we use is to write down the Schrodinger equation for an electron in a central potential, and solve it. The solution is a function that describes the probability amplitude for the electron being localized within a particular region around the nucleus. Given this, we can draw a picture just by coloring all the points where the probability amplitude squared is greater than some value - that will give us the shape of the region within the electron will be found with a given probability.

Googling for "hydrogen atom solution schrodinger equation" finds many hits, although as the first one from hyperphysics says, "The solution of the Schrodinger equation for the hydrogen atom is a formidable mathematical problem...", which is a polite way of saying that there's no substitute for actually learning enough math to follow the solution. It's within the reach of any second-year class of differential equations.
 
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  • #3
Nugatory said:
The technique we use is to write down the Schrodinger equation.

Thanks, Nugatory, I was wondering if it is possible with modern technology (and microscopes) to scan and get sort of a picture of an atom of hydrogen.
 
  • #5
Thanks a lot, Bill, that is what I was looking for. Can you comment on the ground state?
 

Related to Understanding Standing Waves in Hydrogen with Animation and Quantum Mechanics

What is a standing wave in hydrogen?

A standing wave in hydrogen is a specific type of wave that occurs within the electron cloud of a hydrogen atom. It is characterized by a stationary pattern of electron density, with nodes and antinodes corresponding to areas of high and low electron density respectively.

How is animation used to understand standing waves in hydrogen?

Animation is often used to visualize the complex concepts of standing waves in hydrogen. It can show the movement and behavior of the electron cloud, as well as how it interacts with the proton in the nucleus to create the standing wave pattern.

What role does quantum mechanics play in understanding standing waves in hydrogen?

Quantum mechanics is essential in understanding standing waves in hydrogen as it provides the theoretical framework and mathematical models for describing the behavior of electrons in atoms. It explains how electrons exist in discrete energy levels and how they move and interact within the atom to create standing waves.

Why is understanding standing waves in hydrogen important?

Understanding standing waves in hydrogen is important because it is a fundamental concept in quantum mechanics and helps us to understand the behavior of atoms, which are the building blocks of all matter. It also has practical applications in fields such as chemistry, physics, and engineering.

What is the significance of standing waves in hydrogen in modern research?

Standing waves in hydrogen are still an active area of research in modern science. They have played a crucial role in the development of quantum mechanics and continue to be studied for their potential applications in fields such as quantum computing and nanotechnology.

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