What is the acceleration of a particle orbiting around a nucleus?

AI Thread Summary
The acceleration of a particle orbiting around a nucleus can be expressed as a = v^2/r, indicating that it experiences radial acceleration. In the context of electron orbitals, electrons do not exhibit circular motion and are described by probability density functions rather than definite paths. The discussion highlights a distinction between classical particle motion and quantum mechanics, where traditional acceleration concepts may not apply. There is some confusion regarding specific equations related to acceleration, particularly in the context of K-12 education. Understanding these differences is crucial for accurately discussing particle behavior in atomic structures.
Sariaht
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What is the acceleration of a particle orbiting around a nucleus?

v/(4(pi)) = a ?

I cannot find this info... Will you help me?

r = r0
 
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If it is a uniform motion it will have radial acceleration of

a_r= \frac{v^2}{r}
 
Originally posted by himanshu121
Thanks!

wait... is it really?
 
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If you really mean a particle orbitting, then it is a=v^2/r.

If you're talking about electron orbitals, not orbits, the electrons are not accelerating. The elecrons do not whip around in a circle around a nucleus. The orbital is the space defined by the probability density function of the electron.

Njorl
 
I agree with Njorl
The Que said particle, i.e with definite coordinated and since the forum is in K-12, i didn't delved into probability theory
 
Originally posted by himanshu121
like... so this statement: (ec)2/(107*r2) = a is not true?
 
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