This is a section about Quantum mechanics!
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This is a section about Schrödinger equation!
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Schrödinger equation solution for the hydrogen atom is a very important subject about which there is a lot to say.
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This is a section about Atomic orbital!
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This is a section about Principal quantum number!
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This is a section about Azimuthal quantum number!
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This is a section about Magnetic quantum number!
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This is a section about Quantum mechanics experiment!
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This is a section about Emission spectrum!
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This is a section about Rydberg formula!
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This is a section about Fine structure!
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This is a section about Hyperfine structure!
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Articles by others on the same topic
This is a section about Quantum mechanics!
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Quantum mechanics is quite a broad term. Perhaps it is best to start approaching it from the division into:
- non-relativistic quantum mechanics: obviously the simpler one, and where you should start
- relativistic quantum mechanics: more advanced, and arguably "less useful"
Key experiments that could not work without quantum mechanics: Section "Quantum mechanics experiment".
Mathematics: there are a few models of increasing precision which could all be called "quantum mechanics":
Ciro Santilli feels that the largest technological revolutions since the 1950's have been quantum related, and will continue to be for a while, from deeper understanding of chemistry and materials to quantum computing, understanding and controlling quantum systems is where the most interesting frontier of technology lies.
Quantum mechanics is a fundamental branch of physics that deals with the behavior of matter and energy at the smallest scales, such as atoms and subatomic particles. It departs significantly from classical mechanics, which describes the motion of macroscopic objects. Here are some key principles and concepts of quantum mechanics: 1. **Wave-Particle Duality**: Particles, such as electrons and photons, exhibit both wave-like and particle-like properties.