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jobinjosen
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What are the properties of SO(4) group? , How this acts as a rotator in 4 dimensions?, What are the elements of Rotation matrix in a specific dimension among four dimensions?
jostpuur said:In analogy with SO(3), I might guess that [itex]SO(4)=\textrm{exp}(\mathfrak{so}(4))[/itex], where [itex]\mathfrak{so}(4)[/itex] consists of those 4x4 matrices that are antisymmetric (satisty [itex]X^T=-X[/itex]).
However, these matrices depend only on 6 real variables, which is not enough to define two four dimensional vectors that would span the "axis space", so it seems I'm guessing something wrong.
The SO(4) group is a mathematical group that represents the symmetries of a four-dimensional space. It is a special orthogonal group, meaning that its elements are matrices that preserve the length of vectors and the angles between them. In simpler terms, it describes the rotations and reflections in four-dimensional space.
The SO(4) group has several properties that make it unique. Some of these include closure, meaning that the composition of two elements in the group is also an element of the group, and associativity, meaning that the order in which operations are performed does not affect the final result. Additionally, the group has an identity element, which is the identity matrix, and each element has an inverse element.
The SO(4) group has many applications in physics, particularly in quantum mechanics and particle physics. It is used to describe the symmetries of physical systems and can be used to predict the behavior of particles and their interactions. It is also important in the study of spacetime and the theory of relativity.
The elements of the SO(4) group are 4x4 matrices with real numbers as entries. These matrices have a determinant of 1, and their inverse is equal to their transpose. The elements can be represented by four rotations and six reflections, which can be visualized in four-dimensional space.
The SO(4) group is unique in that it is a special orthogonal group in four dimensions. It differs from other groups in its properties and the way it is used in mathematics and physics. It is also larger than the more well-known SO(3) group, which represents rotations in three-dimensional space.