Fractal Geometry: Uses, Math & Fascinating Patterns

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    Fractal Geometry
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Fractal geometry describes complex, self-similar patterns that can be mathematically expressed through exponential functions. It is characterized by irregular shapes, such as coastlines and the Koch snowflake, which exhibit roughness at various scales. Fractals are utilized in the real world for their optimal properties, such as the strength-to-weight ratio in bird bones and the efficient area coverage seen in trees and river systems. Understanding fractal geometry typically requires knowledge of algebra, trigonometry, and calculus. Overall, fractals play a significant role in both mathematics and natural phenomena.
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The very first time I ever heard about fractals was in my junior year in high school in my Algebra II class when we were studying complex numbers. I was fascinated by these wonderous objects and I've had many questions about them ever since.
Though two of my main questions have always been: how are they used in our world, and how does Fractal Geometry describe them mathematically?
 
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Well, thanks for the link. I know that many fractals can be expained mathematically by an exponential expression, but can anyone tell me what Fractal Geometry is like? Also, what does it take to comprehend it (Algebra, Trigonometry, Calculus)?
 
"can anyone tell me what Fractal Geometry is like?"
Generally it is geometry that is rough, like a http://en.wikipedia.org/wiki/Koch_snowflake" .
It doesn't have to be regular, for example a coastline is fractal (over a certain range).

"How are they used in the world?"
Well fractals often are optimal in some regard, for example maximum strength to weight ratio gives fractal-like structures in bird bones and in the Eiffel tower. Maximum area coverage per length gives the fractal tree-like shape of rivers... and similarly for trees.
 
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Good morning I have been refreshing my memory about Leibniz differentiation of integrals and found some useful videos from digital-university.org on YouTube. Although the audio quality is poor and the speaker proceeds a bit slowly, the explanations and processes are clear. However, it seems that one video in the Leibniz rule series is missing. While the videos are still present on YouTube, the referring website no longer exists but is preserved on the internet archive...

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