Rotation | Four-dimensional geometry | Quaternions

Rotations in 4-dimensional Euclidean space

In mathematics, the group of rotations about a fixed point in four-dimensional Euclidean space is denoted SO(4). The name comes from the fact that it is the special orthogonal group of order 4. In this article rotation means rotational displacement. For the sake of uniqueness, rotation angles are assumed to be in the segment [0, π] except where mentioned or clearly implied by the context otherwise. A "fixed plane" is a plane for which every vector in the plane is unchanged after the rotation. An "invariant plane" is a plane for which every vector in the plane, although it may be affected by the rotation, remains in the plane after the rotation. (Wikipedia).

Rotations in 4-dimensional Euclidean space
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4 Motion part 3

In this third part on Motion we take a look at constant circular motion.

From playlist Life Science Math: Vectors

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I visualized 4D shapes #SoME2

#some2 Articles about computer graphics: https://iquilezles.org/ Ray marching tutorials: https://www.youtube.com/c/TheArtofCodeIsCool In this video I am trying to construct a visualization of 4D shapes

From playlist Summer of Math Exposition 2 videos

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7 Rotation of reference frames

Ever wondered how to derive the rotation matrix for rotating reference frames? In this lecture I show you how to calculate new vector coordinates when rotating a reference frame (Cartesian coordinate system). In addition I look at how easy it is to do using the IPython notebook and SymPy

From playlist Life Science Math: Vectors

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Rotation Matrix in 2D

This clip gives describes a rotation matrix in 2D. The clip is from the book "Immersive Linear Algebra" available at http://www.immersivemath.com.

From playlist Chapter 6 - The Matrix

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Minkowski Space-Time: Spacetime in Special Relativity

Includes discussion of the space-time invariant interval and how the axes for time and space transform in Special Relativity.

From playlist Physics

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ʕ•ᴥ•ʔ Simple Example of Geometry Transformations Rotations

Quickly master rotation symmetry and transformation. Watch more lessons like this and try our practice at https://www.studypug.com/geometry/transformations/rotational-symmetry-and-transformations When an object is turned around its center of rotation to certain degrees and the object loo

From playlist Grade 9 Math (Canada)

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Rotations in the Plane (3 methods for solving) - Geometry

http://www.youtube.com/vinteachesmath This video focuses on rotations about the origin. In particular, this video shows three methods for finding the image of a point after a rotation of 90 degrees about the origin. This video is appropriate for a student taking a course in Geometry. S

From playlist Geometry

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Describing rotation in 3d with a vector

Learn how a three-dimensional vector can be used to describe three-dimensional rotation. This is important for understanding three-dimensional curl.

From playlist Multivariable calculus

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Infrared Regularization of the Lorentzian IKKT Matrix Model and the Emergence.... by Jun Nishimura

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From playlist NUMSTRING 2022

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John Milnor: Spheres

This lecture was held by Abel Laureate John Milnor at The University of Oslo, May 25, 2011 and was part of the Abel Prize Lectures in connection with the Abel Prize Week celebrations. Program for the Abel Lectures 2011 1. "Spheres" by Abel Laureate John Milnor, Institute for Mathematical

From playlist Abel Lectures

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The meme that teaches relativity (Spacetime symmetries and the celestial sphere) #SoME2

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From playlist Summer of Math Exposition 2 videos

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From playlist Algebraic Topology: a beginner's course - N J Wildberger

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Lecture 4: Equivariant CNNs I (Euclidean Spaces) - Maurice Weiler

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From playlist First Italian School on Geometric Deep Learning - Pescara 2022

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A tale of two conjectures: from Mahler to Viterbo - Yaron Ostrover

Members' Seminar Topic: A tale of two conjectures: from Mahler to Viterbo. Speaker: Yaron Ostrover Affiliation: Tel Aviv University, von Neumann Fellow, School of Mathematics Date: November 19, 2018 For more video please visit http://video.ias.edu

From playlist Mathematics

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12. Non-Euclidean Spaces: Open Universes and the Spacetime Metric

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From playlist The Early Universe by Prof. Alan Guth

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From playlist Fractals & Math

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Stéphane Mallat: High dimensional learning from images to physics

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From playlist 30 years of wavelets

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Transformations on the Number Plane (2 of 2: Rotation & Reflection)

More resources available at www.misterwootube.com

From playlist Basic Linear Relationships

Related pages

Poincaré group | 3-sphere | Inverse function | Lie group | Multiplicative group | Plane of rotation | Vector space | Conjugation of isometries in Euclidean space | Invariant (mathematics) | Maximal torus | Lorentz group | Group (mathematics) | Rodrigues' rotation formula | Identity matrix | Arthur Cayley | Quaternion | Orientation (vector space) | Dimension | David Hilbert | Determinant | William Rowan Hamilton | Laplace–Runge–Lenz vector | Simple group | Direct product of groups | Real projective space | Mathematics | Felix Klein | Real number | Isometry | Quaternions and spatial rotation | Normal subgroup | Stereographic projection | Clifford torus | Orthogonality | Euclid | Basis (linear algebra) | Compact space | Orthogonal matrix | Subgroup | Orthogonal group | Euler–Rodrigues formula | Skew-symmetric matrix | Reflection (mathematics) | Rank (linear algebra) | Rotation (mathematics)