
Explore the mathematics of 2D and 3D rotations from first principles, build rotation matrices, and simulate them on Desmos.
Rotate a point in 2d by theta using rotation matrix, yielding x1 = x0 cos theta - y0 sin theta and y1 = y0 cos theta + x0 sin theta.
Learn to rotate a point in a 2d plane with desmos, using x0,y0 to obtain x1,y1 via x1 equals x0 cos theta minus y0 sin theta.
Explore how to manipulate a single-variable function on the 2D plane using rotation, amplitude, phase, and crossover adjustments, with examples like x^3, x^2, and sine x, via a rotation matrix.
Explore 3d rotations using rotation matrices around the z axis, the x axis, and the y axis, converting degrees to radians, and visualizing how coordinates transform with a graphical calculator.
Rotate a point in 3D space by composing rotations about the x, y, and z axes with matrix multiplication, exploring orientations and x1 and y1 projections on a 2D view.
Explore how to simulate 3d rotation on a 2d screen by rotating a line defined by two points around the z, x, and y axes, using perspective and multiple points.
Explore 3D rotation of a triangle by mapping a 3D plane onto a 2D screen, rotating the triangle around the x, y, and z axes to visualize its motion.
Explore 3D rotation using a simple cube, deriving and applying the rotation matrix as you rotate around the z, x, and y axes from the origin.
Generate and rotate a surface defined by a two-variable function using parametric equations. Build and center a grid with floor and modulus, then rotate this three-dimensional grid.
Rotate a 3d grid and map the z plane onto the x and y outputs, using six rotation equations and inputs g(t), h(t), and f(x,y) for z.
Explore 2D and 3D rotations as they drive a 3D surface generator. Uncover practical techniques for generating and visualizing surfaces in a mathematical odyssey.
Explore how pyramids transform under 2d and 3d rotations, revealing fundamental geometric principles and spatial reasoning in this mathematical odyssey.
Explore rotating a single-variable function in 3d space, like x squared, around the z, y, and x axes, with origin-centered grids.
Explore rotation of a 3d surface for a function of two variables, with labeled x, y, and z axes, using alpha, beta, gamma in degrees, and a joystick for control.
Explore generating 3d parametric functions by defining x, y, and z as outputs of h(t) and g(t) with parameters a and b, including points, lines, parabola, surfaces, sphere, and helix.
Explore a cube through 2d and 3d rotations within a mathematical odyssey, guiding students toward mastery of rotation concepts.
Explore how parametric art uses 2D and 3D rotations to create dynamic visual patterns across digital compositions.
Celebrate completing the course and consider enrolling in the full course for continued learning. Appreciate what you learned as valuable and prepare to join the next course.
Welcome to "Mastering 2D and 3D Rotations: A Mathematical Odyssey," a captivating journey into the fundamental principles of rotation in two and three-dimensional spaces. Whether you're an aspiring game developer seeking to enhance your understanding of spatial transformations or simply someone intrigued by the elegance of mathematical concepts, this introductory course is designed to illuminate the art and science of rotations.
In the realm of computer graphics, robotics, animation, and game development, the concept of rotation is omnipresent. It's the magic behind the seamless movement of characters, the realistic rendering of objects, and the precise positioning of elements in 2D and 3D environments. Understanding rotations isn't just a technical skill; it's a gateway to unlocking the full potential of these creative and technological fields.
Our journey begins by delving deep into the heart of rotations through the lens of transformation matrices. These mathematical constructs serve as our compass, guiding us through the intricate world of rotations. You'll discover how a simple set of equations can transform an ordinary point, a line, a triangle, or even a complex object like a cube into new orientations with astonishing precision.
But this course is not just about abstract mathematics. We understand that to truly grasp the power of rotations, you need hands-on experience. That's why we've incorporated interactive simulations that bring these concepts to life. Through these simulations, you'll have the opportunity to see, feel, and manipulate the effects of rotations in real-time. This practical experience will solidify your understanding and equip you with the skills needed to apply rotations in practical scenarios.
As you progress through the course, you'll witness the elegance and universality of rotation mathematics. You'll uncover the connections between 2D and 3D rotations, bridging the gap between these seemingly distinct realms.
Whether you're a game engine developer seeking to optimize performance or simply a curious mind eager to explore the beauty of mathematical transformations, "Mastering 2D and 3D Rotations" promises to be an enlightening and enriching experience. Join us on this odyssey into the world of rotations, and let's embark on a journey that will forever change the way you perceive space and movement.