
Explore how fractals exhibit auto-similarity and branching, from fern-like shapes to the Mandelbrot set, using Mandelbulb 3D to illustrate iteration and escape-time coloring.
Download and run Mandelbulb 3D by opening the course's download links in the module, choose Windows or iOS, download, uncompress, and execute the executable without admin privileges.
Links to download the Mandelbulb 3D software (Free) to use in this course.
Explore the Mandelbulb 3D interface, from top buttons like animations and navigator to opening, saving a picture, the rendering screen, with right-side menus for formulas, lighting, postprocessing, and themes.
Open the formula section, select a formula, and click calculate 3D to render your first fractal; explore formulas to compare 2D previews and 3D results.
Discover iterated function systems that use shapes to create fractals, showing auto-similarity and branching in 3D and 4D formulas, and watch Mandelbulb 3D render iterative shapes.
Explore common Mandelbulb 3D fractals, including the Koch cube, Menger sponge, Sierpinski pyramid, and Sierpinski-Hilbert curve, rendered in 3D and 4D using the software's formulas.
Navigate Mandelbulb 3D with the navigator, mastering camera movement, head rotation, and rendering previews. Send the fractal to the main editor for high-quality 3D renders and explore keyboard shortcuts.
Explore the navigator's parameter editor to sculpt fractal shapes by adjusting integer power (2–8) and the xml displayer, then fine-tune iterations and fourth-dimension adjustments to render unique fractals.
Navigate the fractal directly in the editor by zooming, dragging, and rotating, then recalculate in 3D. Use undo and position or rotation controls to adjust parameters without leaving the editor.
Explore the alternate process for combining Mandelbulb 3D formulas, blending a Menger sponge with others to generate unique fractal shapes. Adjust navigator parameters, rotate and scale, then render in 3D.
Explore how interpolate mode blends two fractal formulas, like Menger 3 and Sierpinski 3, by adjusting weights to control iteration ratios and shape outcomes.
Explore combining up to six formulas in Mandelbulb 3D, where the second formula begins mixing to create two mixtures of formulas and new fractal structures.
Explore the cutting tool to modify fractals by slicing the Mandelbulb 3D in the x, y, and z planes, adjusting axis values, and sampling mesh points for diverse shapes.
Activate julia mode in the Mandelbulb 3d editor to edit fractals with x, y, and z parameters, using the navigator to insert values and calculate julia for 3d formulas.
Use mutation generator to mutate the current fractal into two new fractals, then continue mutating to generate diverse results and adjust parameters like Julia parameters and iterations.
Explore Mandelbulb 3D's file system, learn how to save fractal parameters, renders, and image files, and manage authorship and clipboard transfers for efficient re-rendering.
Explore a collection of demo files for Mandelbulb 3D that demonstrate generated fractals by opening M3 parameter files and adjusting parameters or mutations to explore variations.
Explore how image size and quality affect fractal renders by adjusting calculation options such as distance estimator and step with limiter, and note the trade-off between render time and detail.
Set up six lights to illuminate Mandelbulb 3D fractals and control their color. Adjust diffusion, intensity, and per-light options, and save presets for quick rendering.
Color Mandelbulb 3D fractals by adjusting object and ambient colors, speckle and main colors, with color mapping tied to the escape-time histogram.
Explore global, positional, and lightmap lighting in Mandelbulb 3D. Learn to orbit a global light, place positional lights inside or outside the fractal, and adjust color, intensity, and maps.
Explore dynamic fog in Mandelbulb 3D, a fractal-based light that emerges from the fractal itself. Adjust intensity, offset, far offset, blending, and color to shape the aura and scene.
Learn how to place and adjust background images in Mandelbulb 3D, including selecting files, choosing 360-degree backgrounds, setting aspect ratios, rotating the image, and tuning intensity and ambient depth.
Enable volumetric light in Mandelbulb 3D by selecting a light and configuring the six available metric light parameters to reveal fractal light rays.
Explore how soft and hard shadows affect Mandelbulb 3D fractals, using ambient and realistic post-processing options and recalculation order to control lighting and render times.
Explore how reflections affect Mandelbulb 3D renders, including when flat surfaces are required, how the amount and depth control reflection iterations, and the slow, optional use of reflections with transparency.
Explore depth of field in Mandelbulb 3D by focusing with z and z2, adjusting aperture and blur, and choosing calculation methods and passes to balance realism and render time.
Export fractals using two methods: a 360 render and exporting as a 3D model for external use, then adjust field of view and 2:1 aspect for seamless panorama.
Increase the 360° render scale for higher quality, save full-size image, add 360° EXIF data with dxi for dot net, set Rico as make, and verify in a 360° viewer.
Export a Mandelbulb fractal to a .obj 3D model using dibbles tracer, center and offset the fractal, adjust scale, and apply smoothing for a clean final mesh.
Have you ever wondered about the complex, organic shapes in nature?
Do you want to create and explore incredible, breathtaking designs that surpass the limits of conventional software by adding infinity and algorithms to the mixture?
Welcome to the world of fractals!
With this course, you will understand the key features of Mandelbulb 3D, a free software for generating fractals.
It is important to mention that this course doesn't require a mathematical background. It is focused on the visual side of fractals, and there are examples for all the topics. The course is based on video lectures, some of them with additional downloadable materials for you to practice. There are also quizzes for you to review what you learned.
What is a fractal?
A fractal is a geometrical object that presents characteristics as branching and self-similarity. These objects are used among mathematicians to study and model natural & irregular shapes such as trees and snowflakes. Fractals have also been used by artists and visual designers in the last century to generate abstract and unique designs that surpass the limits of imagination.
So, what can you do with them?
With all what you'll learn from this course, you will be able to use them to create:
If you're new to fractals,
you will find all what you need to generate amazing fractal images, 3D models and even animations!
If you have experience,
you'll get a chance to refresh and update your knowledge and learn new things.
I invite you to join the amazing adventure of fractals. I assure you that you will be amazed when you navigate your creations.