Lattice points | Fourier analysis | Neutron-related techniques

Reciprocal lattice

In physics, the reciprocal lattice represents the Fourier transform of another lattice (group) (usually a Bravais lattice). In normal usage, the initial lattice (whose transform is represented by the reciprocal lattice) is a periodic spatial function in real space known as the direct lattice. While the direct lattice exists in real space and is commonly understood to be a physical lattice (such as the lattice of a crystal), the reciprocal lattice exists in the space of spatial frequencies known as reciprocal space or k space, where refers to the wavevector. In quantum physics, reciprocal space is closely related to momentum space according to the proportionality , where is the momentum vector and is the Planck constant. The reciprocal lattice of a reciprocal lattice is equivalent to the original direct lattice, because the defining equations are symmetrical with respect to the vectors in real and reciprocal space. Mathematically, direct and reciprocal lattice vectors represent covariant and contravariant vectors, respectively. The reciprocal lattice is the set of all vectors , that are wavevectors of plane waves in the Fourier series of a spatial function whose periodicity is the same as that of a direct lattice . Each plane wave in this Fourier series has the same phase or phases that are differed by multiples of at each direct lattice point (so essentially same phase at all the direct lattice points). The reciprocal lattice plays a fundamental role in most analytic studies of periodic structures, particularly in the theory of diffraction. In neutron, helium and X-ray diffraction, due to the Laue conditions, the momentum difference between incoming and diffracted X-rays of a crystal is a reciprocal lattice vector. The diffraction pattern of a crystal can be used to determine the reciprocal vectors of the lattice. Using this process, one can infer the atomic arrangement of a crystal. The Brillouin zone is a Wigner-Seitz cell of the reciprocal lattice. (Wikipedia).

Reciprocal lattice
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Rotation matrix | Planck constant | Angular frequency | Pontryagin duality | Miller index | Vector space | Reciprocal lattice | Crystallography | Lattice (group) | Reciprocal length | Lattice (discrete subgroup) | Fourier series | Fourier analysis | Dynamical theory of diffraction | Powder diffraction | Kronecker delta | Topological group | Discrete mathematics | Linear independence | Permutation | Dual basis | Scalar triple product | Bravais lattice | Frequency domain | Locally compact space | Brillouin zone | Wave vector | Interior product | Rotation | Dimension (vector space) | Mathematics | Dual space | Integer | Real number | Dual lattice | Scalar (mathematics) | Neutron diffraction | Zone axis | Basis (linear algebra) | Haar measure | Linear form | Quadratic form | Tuple | Covariance and contravariance of vectors | Cubic crystal system | Pure mathematics | Matrix (mathematics) | Space | Fourier transform | Abelian group | Volume form