Formula for Spiral Around Cone - Get Your Answer Here

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    Cone Spiral
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SUMMARY

The discussion focuses on deriving a formula for a spiral that wraps around a conical shape, specifically a "spring-like" spiral that starts at one end and extends infinitely. The key approach involves using a parametric equation to describe the spiral's geometry. The proposed parametric equations are r(t)=(x(t), y(t), z(t)), where x(t)=t sin(t), y(t)=t cos(t), and z(t)=t. This method effectively captures the spiral's behavior as it ascends along the cone.

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eli_lied
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I am looking for the formula to describe a spiral formed around a conical shape. If any particular details are needed, please make them variables and define them.

Thanks to all for the help!
 
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Hi eli_lied! :smile:

Do you mean a shortest-possible-distance spiral, as if a string was pulled tight around the cone?

If so, then remember a cone's "own" geometry (as opposed to embedded geometry) is flat Euclidean …

so just cut the cone along a generator, unfold it, draw a straight line on it, and then join it up again. :wink:
 
Thanks for the reply Tiny Tim :)

What I'm specifically looking for is the equation for a "spring-like" spiral that is, for lack of a better term, 0 at one end and infinity at the other. As though a spring were wrapped around a conical formation with a varying height that increases over time.
 
The simplest method would be to use a parametric equation

r(t)=(x(t), y(t), z(t)): x(t)=t \sin t, y(t)=t \cos t, z(t)=t

or something like that.
 

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