Abstract
Dimensions of partially ordered sets, lattices and frames have attracted the interest of various researches (see for example Sancho de Salas and Sancho de Salas 1991; Vinokurov 1966; Dushnik and Miller 1941; Hegde and Jain 2007; Trotter 1975; Boyadzhiev et al. 2018; Dube et al. 2015, 2017; Georgiou et al. 2016; Hai-feng et al. 2017; Brijlall and Baboolal 2008, 2010; Boyadzhiev et al. 2019). For example, the order, Krull, covering dimension, and the quasi covering dimension are some of these dimensions that have been studied extensively. Especially, finite partially ordered sets and finite lattices are the main axes of this Dimension Theory, investigating new results and characterizations for their dimensions. The matrix algebra plays an essential role in these studies, considering incidence and order matrices. Also, based on these researches, algorithms which compute these dimensions have been investigated. Since the chapter on dimensions of partially ordered sets continues to attract the interest, the small inductive dimension is a new notion that has been defined firstly for regular frames in Brijlall and Baboolal (2008). In this paper, we study the small inductive dimension for finite lattices using matrices. For that, we study the meaning of the pseudocomplement and the lattice \({\uparrow }x\), where x is an element of a finite lattice. Based on these investigations we present an algorithmic procedure for the matrix computation of the small inductive dimension of an arbitrary finite lattice.
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References
Boyadzhiev D, Georgiou DN, Megaritis AC, Sereti F (2018) A study of a covering dimension of finite lattices. Appl Math Comput 333:276–285
Boyadzhiev D, Georgiou D, Megaritis A, Sereti F (2019) A study of the quasi covering dimension of finite lattices. Comput Appl Math 38(3):109–18
Brijlall D, Baboolal D (2008) Some aspects of dimension theory of frames. Indian J Pure Appl Math 39(5):375–402
Brijlall D, Baboolal D (2010) The Katětov-Morita theorem for the dimension of metric frames. Indian J Pure Appl Math 41(3):535–553
Dube T, Georgiou DN, Megaritis AC, Moshokoa SP (2015) A study of covering dimension for the class of finite lattices. Discr Math 338(7):1096–1110
Dube T, Georgiou DN, Megaritis AC, Sereti F (2017) Studying the Krull dimension of finite lattices under the prism of matrices. Filomat 31(10):2901–2915
Dushnik B, Miller E (1941) Partially ordered sets. Am J Math 63:600–610
Georgiou DN, Megaritis AC, Sereti F (2016) A study of the order dimension of a poset using matrices. Quaest Math 39(6):797–814
Hai-feng Z, Meng Z, Guang-jun Z (2017) Answer to some open problems on covering dimension for finite lattices. Discr Math 340(5):1086–1091
Hegde R, Jain K (2007) The hardness of approximating poset dimension. Electron Notes Discr Math 29:435–443
Sancho de Salas JB, Sancho de Salas MT (1991) Dimension of distributive lattices and universal spaces. Topol Appl 42(1):25–36
Trotter WT Jr (1975) Inequalities in dimension theory for posets. Proc Am Math Soc 47:311–316
Vinokurov VG (1966) A lattice method of defining dimension. Soviet Math Dokl 168(3):663–666
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The authors would like to thank the referees for the careful reading of the paper and the useful comments.
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Beshimov, R.B., Georgiou, D. & Sereti, F. The small inductive dimension of finite lattices through matrices. Comp. Appl. Math. 42, 145 (2023). https://doi.org/10.1007/s40314-023-02234-9
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DOI: https://doi.org/10.1007/s40314-023-02234-9