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non-Abelian structures
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Every non-commutative ring, non-commutative group, non-commutative groupoid, non-commutative monoid, non-commutative algebra, and so on, has a non-Abelian structure; a few specific examples of non-Abelian algebras are : Clifford algebras, matrix algebras, non-commutative $C^*$ -algebras, quantum `groups' (non-commuative Hopf algebras), quantum `groupoids' (non-commutative weak Hopf algebras).
The term `non-Abelian'-instead of noncommutative- is often the preferred qualifier for theories, with the possible exeception of `noncommutative geometry', which is a non-Abelian theory. On the other hand, the term `anabelian' (in French, ``anabelienne'') was employed by Alexander Grothendieck to describe a new field of research called ``Anabelian Geometry'' in his `Esquisse d'un Programme''
The commutativity property in all Abelian structures, such as Abelian groups and Abelian categories is a global rather than partial, or local, property. Thus, many categories or toposes/topoi may exhibit local but not global commutativity properties; for example, a category is still non-Abelian if $Hom_{Ab}(-, -)$ does not have the structure of a commutative (or
Abelian) group; alternatively, a category that does not satisfy one of the four $Ab$ -axioms of Freyd, or one of the $Ab1$ to $Ab6$ axioms in the current abelian category definition is non-Abelian.
The structures of several, n-valued logic algebras are represented as non-commutative lattices and are, therefore, non-Abelian. Specific examples are provided by the generally non-commutative $LM_n$ -logic algebras, categories of $LM_n$ -logic algebras and lattice morphisms. On the other hand, the Heyting (intuitionistic logic) algebra subobject classifier of a standard topos is commutative and thus, it is Abelian; this does
not mean however that all toposes/topoi have Abelian structure-in fact, this is not generally case.
- The category of Abelian (or commutative) groups is Abelian;
- The Grothendieck category is a special case of $\mathcal{\A}b5$ category;
- Local Grothendieck categories are Abelian categories;
- The Grassmann category is Abelian;
- The category of (commutative) semi-noetherian rings is Abelian. ([1]);
- The category of Heyting logic algebras, $Hy$ and the category of Boolean logic algebras, Boole are both categories of commutative lattices, and are Abelian categories;
- If $\grp$ is a topological groupoid the category of sheaves, $S_{hA}$ of Abelian groups over $\grp$ is an Abelian category.
Related results If $\mathcal{\G}$ is a Grothendieck catgeory and $\mathcal{\A}$ is a localizing subcategory of $\mathcal{\G}$ , then $\mathcal{\G} \slash \mathcal{\A}$ is Abelian, as it is also a Grothendieck category (COROLLARY 6.2 on p. 186 in [1]) .
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See Also: non-Abelian theory, abelian category, examples of abelian categories, supplemental axioms for an Abelian category, higher dimensional generalized Van Kampen theorems (HD-VKT), axiomatic theory of supercategories and metacategories, algebraic category of LMn logic algebras, categorical quantum logics as quantum LM-algebraic logic, non-commuting graph, generalized toposes with many-valued logic subobject classifiers, categorical algebra, topic entry on the algebraic foundations of mathematics, Jordan-Banach and Jordan-Lie algebras
| Other names: |
nonabelian, non-commutative structure, non-abelian structure |
| Also defines: |
non-Abelian structure |
| Keywords: |
non-AbelianTheories, non-commutative structures, several examples of nonabelian structures |
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Cross-references: localizing subcategory, sheaves, topological groupoid, Boolean, logic algebras, Grassmann category, local Grothendieck categories, Grothendieck category, mean, subobject classifier, intuitionistic logic, morphisms, lattice, N-valued logic, current, axioms, satisfy, group, toposes, categories, abelian categories, abelian groups, abelian, property, field, Alexander Grothendieck, noncommutative geometry, theories, term, weak Hopf algebras, quantum groupoids, Hopf algebras, quantum groups, matrix, Clifford algebras, algebra, monoid, groupoid, non-commutative group, ring, non-commutative, commutative, Bourbaki, algebraic, structure
There are 4 references to this entry.
This is version 85 of non-Abelian structures, born on 2008-07-14, modified 2009-07-02.
Object id is 10790, canonical name is NonAbelianStructures.
Accessed 1821 times total.
Classification:
| AMS MSC: | 03G20 (Mathematical logic and foundations :: Algebraic logic :: Lukasiewicz and Post algebras) | | | 03G30 (Mathematical logic and foundations :: Algebraic logic :: Categorical logic, topoi) | | | 03G12 (Mathematical logic and foundations :: Algebraic logic :: Quantum logic) | | | 18A15 (Category theory; homological algebra :: General theory of categories and functors :: Foundations, relations to logic and deductive systems) | | | 18-00 (Category theory; homological algebra :: General reference works ) |
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