Oscillation Frequency: Horizontal vs Inclined Plane

AI Thread Summary
The discussion centers on the comparison of oscillation frequency for a mass on a spring when positioned on a horizontal surface versus an inclined plane, assuming a frictionless environment. It is noted that the frequency formula is frequency = angular frequency (w) / 2π, suggesting that frequency remains constant regardless of the surface orientation. Participants clarify that frequency does not depend on acceleration, leading to questions about the specific context of frequency being discussed. The conversation also touches on the dynamic nature of frequency in different scenarios, such as electromagnetic waves. Overall, the frequency of oscillation is considered to be unaffected by the incline in this idealized situation.
n3w ton
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How does the oscillation frequency compare when being horizontal and when being on an inclined plane (assuming frictionless).

I thought this:

When on Horizontal surface

frequency = angular frequency (w) / 2∏

Since frequency does not depend on acceleration, the frequency would remain the same?
 
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hi n3w ton! :smile:
n3w ton said:
Since frequency does not depend on acceleration …

why? :wink:
 
HI,
you are describing frequency in what field exactly ?

It depends on the problem, a Radar EM wave travels with constant speed C , but the frequency is dynamic, it can start at 150 KHz and move toward 450Khz
 
Welcome to PF!

Hi KHMOU YOUSSEF! WELCOME TO PF! :smile:

My guess is it's a mass on the end of a spring. :wink:
 
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