Crystallographic domains

  • What are crystalline domains?

    The crystalline domains, on the other hand, are very strong.
    They are like anchor points within the structure.
    Together, these two structures combine to make something that can be stretched, but only so far before it will snap back.
    They could make an elastic material, or an elastomer..

  • What is crystalline domain?

    Thus, the macroscopic fibers contain two domains: crystalline domain and amorphous domain (Figure 1).
    Crystalline domains have lower accessibility than amorphous domains, due to the impenetrability of the tight crystalline structure of the former versus the open, unorganized nature of the latter. .

  • What is domain size?

    The Domain Size outputs the size of an attribute domain on the selected geometry type, for example, the number of edges in a mesh, or the number of points in a point cloud..

  • What is the difference between grains and domains?

    Inside a grain, little zones, called domains, are created that are homogeously deformed.
    Their size is thus smaller than the size of the grain.
    It can be determined by X Ray diffraction for example..

  • A crystal is a substance in which the constituent atoms, molecules, or ions are packed in a regularly ordered, repeating three-dimensional pattern.
    Most crystals are solids.
  • Domain boundaries, i.e. interfaces between different orientation variants of the same crystal species, and phase boundaries, i.e. interfaces between two different modifications of the same compound, exhibit rather similar features.
Domain is more difficult to define unless it is given more context. In ferromagnetic crystals, magnetic polarized domains may exist within the crystal. DomainsĀ 
An antiphase domain (APD) is a type of planar crystallographic defect in which the atoms within a region of a crystal are configured in the opposite order to those in the perfect lattice system.
Throughout the entire APD, atoms sit on the sites typically occupied by atoms of a different species.
For example, in an ordered AB alloy, if an A atom occupies the site usually occupied by a B atom, a type of crystallographic point defect called an antisite defect is formed.
If an entire region of the crystal is translated such that every atom in a region of the plane of atoms sits on its antisite, an antiphase domain is formed.
In other words, an APD is a region formed from antisite defects of a parent lattice.
On either side of this domain, the lattice is still perfect, and the boundaries of the domain are referred to as antiphase boundaries.
Crucially, crystals on either side of an antiphase boundary are related by a translation, rather than a reflection or an inversion.

Interface between magnetic domains

A domain wall is a term used in physics which can have similar meanings in magnetism, optics, or string theory.
These phenomena can all be generically described as topological solitons which occur whenever a discrete symmetry is spontaneously broken.
Crystallographic domains
Crystallographic domains

Region of a magnetic material in which the magnetization has uniform direction

A magnetic domain is a region within a magnetic material in which the magnetization is in a uniform direction.
This means that the individual magnetic moments of the atoms are aligned with one another and they point in the same direction.
When cooled below a temperature called the Curie temperature, the magnetization of a piece of ferromagnetic material spontaneously divides into many small regions called magnetic domains.
The magnetization within each domain points in a uniform direction, but the magnetization of different domains may point in different directions.
Magnetic domain structure is responsible for the magnetic behavior of ferromagnetic materials like iron, nickel, cobalt and their alloys, and ferrimagnetic materials like ferrite.
This includes the formation of permanent magnets and the attraction of ferromagnetic materials to a magnetic field.
The regions separating magnetic domains are called domain walls, where the magnetization rotates coherently from the direction in one domain to that in the next domain.
The study of magnetic domains is called micromagnetics.

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