Computational fractal geometry

  • How does fractal geometry work?

    A fractal is a recursively created never-ending pattern that is usually self-similar in nature.
    Separate from Euclidean geometry, fractal geometry addresses the more non-uniform shapes found in nature, such as mountains, clouds and trees.
    Fractals provide a systematic method to capture the “roughness” of some objects..

  • How is fractal geometry used in real life?

    Applications in technology

    Fractal antennas.Fractal transistor.Fractal heat exchangers.Digital imaging.Architecture.Urban growth.Classification of histopathology slides.Fractal landscape or Coastline complexity..

  • Is fractal geometry useful?

    Why are fractals important? Fractals help us study and understand important scientific concepts, such as the way bacteria grow, patterns in freezing water (snowflakes) and brain waves, for example.
    Their formulas have made possible many scientific breakthroughs..

  • What is fractal computing?

    We provide first the definition of fractal regarding computer architectures.
    Fractalness is the primitive property of computing problems stating that there exists a finite program, when executed on arbitrarily scaled parallel machines that solve the problem uniformly in finite time..

  • What is fractal geometry method?

    A fractal is a recursively created never-ending pattern that is usually self-similar in nature.
    Separate from Euclidean geometry, fractal geometry addresses the more non-uniform shapes found in nature, such as mountains, clouds and trees.
    Fractals provide a systematic method to capture the “roughness” of some objects..

  • What is meant by fractal geometry?

    A Fractal is a type of mathematical shape that are infinitely complex.
    In essence, a Fractal is a pattern that repeats forever, and every part of the Fractal, regardless of how zoomed in, or zoomed out you are, it looks very similar to the whole image..

  • What is the aim of fractal geometry?

    Objectives: Fractal geometry is a tool used to characterize irregularly shaped and complex figures.
    It can be used not only to generate biological structures (e.g., the human renal artery tree), but also to derive parameters such as the fractal dimension in order to quantify the shapes of structures..

  • Where can you find fractals?

    The patterns of randomness in fractals may be seen everywhere, from seashells to spiral galaxies to the structure of human lungs.
    Branching fractals include trees, ferns, the neurons in our brains, the blood veins in our lungs, lightning bolts, rivers branching, as well as the shoreline and rock formations..

  • Where does fractal geometry occur?

    Geometrically, they exist in between our familiar dimensions.
    Fractal patterns are extremely familiar, since nature is full of fractals.
    For instance: trees, rivers, coastlines, mountains, clouds, seashells, hurricanes, etc..

  • Why do we need fractal geometry?

    Separate from Euclidean geometry, fractal geometry addresses the more non-uniform shapes found in nature, such as mountains, clouds and trees.
    Fractals provide a systematic method to capture the “roughness” of some objects.Oct 1, 2021.

  • Benoit Mandelbrot, (born November 20, 1924, Warsaw, Poland—died October 14, 2010, Cambridge, Massachusetts, U.S.), Polish-born French American mathematician universally known as the father of fractals.
  • Fractal patterns can reduce stress by up to 60 percent, according to Psychology Today.
    Exposure to fractal patterns in nature can reduce your stress levels significantly.
    It seems this kind of stress reduction most often occurs because of a certain physiological resonance within the eye.
  • Objectives: Fractal geometry is a tool used to characterize irregularly shaped and complex figures.
    It can be used not only to generate biological structures (e.g., the human renal artery tree), but also to derive parameters such as the fractal dimension in order to quantify the shapes of structures.
  • One of the more standard methods to measure fractals is to use the Hausdorff Dimension, which is D = log N / log s, where N is the number of parts a fractal produces from each segment, and s is the size of each new part compared to the original segment.
  • The more calculations using the formula, the more detailed the Fractal shape will become.
    Computers significantly improved the ability to explore Fractal equations because of how fast computers can calculate large and complex math equations.
Applications of this theory include geometric design, data visualization, reverse engineering, physics, geology, image encoding and compression, metallurgy, 
Dear Colleagues,. From one point of view, fractal geometry is a field in science that unifies mathematics, theoretical physics, art, and computer science.
The scope of this article is to identify the parameters of bivariate fractal interpolation surfaces by using convex hulls as bounding volumes of appropriately 
Computational fractal geometry
Computational fractal geometry

Infinitely detailed mathematical structure

In mathematics, a fractal is a geometric shape containing detailed structure at arbitrarily small scales, usually having a fractal dimension strictly exceeding the topological dimension.
Many fractals appear similar at various scales, as illustrated in successive magnifications of the Mandelbrot set.
This exhibition of similar patterns at increasingly smaller scales is called self-similarity, also known as expanding symmetry or unfolding symmetry; if this replication is exactly the same at every scale, as in the Menger sponge, the shape is called affine self-similar.
Fractal geometry lies within the mathematical branch of measure theory.
A fractal landscape or fractal surface is generated using

A fractal landscape or fractal surface is generated using

Stochastically generated naturalistic terrain

A fractal landscape or fractal surface is generated using a stochastic algorithm designed to produce fractal behavior that mimics the appearance of natural terrain.
In other words, the surface resulting from the procedure is not a deterministic, but rather a random surface that exhibits fractal behavior.


According to Benoit Mandelbrot, A fractal is by definition a set for which the Hausdorff-Besicovitch dimension strictly exceeds the topological dimension.
Presented here is a list of fractals, ordered by increasing Hausdorff dimension, to illustrate what it means for a fractal to have a low or a high dimension.

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