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Adjoint operations in twist-products of lattices
Rings and Algebras · Submitted 3 Jan 2021
abstract compiled · 2026-09-23 · no language-model review
The authors' main claim Finally, we introduce another pair \odot and \Rightarrow of adjoint operations on the full twist-product of a bounded commutative residuated lattice such that the resulting algebra is a bounded commutative residuated lattice satisfying the double negation law and we investigate when P_a(L) is closed under these new operations \odot and \Rightarrow.
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Given an integral commutative residuated lattice L=(L,\vee,\wedge), its full twist-product (L^2,\sqcup,\sqcap) can be endowed with two binary operations \odot and \Rightarrow introduced formerly by M. Busaniche and R. Cignoli as well as by C. Tsinakis and A. M. Wille such that it becomes a commutative residuated lattice. For every a in L we define a certain subset P_a(L) of L^2. We characterize when P_a(L) is a sublattice of the full twist-product (L^2,\sqcup,\sqcap). In this case P_a(L) together with some natural antitone involution ' becomes a pseudo-Kleene lattice. If L is distributive then (P_a(L),\sqcup,\sqcap,') becomes a Kleene lattice. We present sufficient conditions for P_a(L) being a subalgebra of (L^2,\sqcup,\sqcap,\odot,\Rightarrow) and thus for \odot and \Rightarrow being a pair of adjoint operations on P_a(L). Finally, we introduce another pair \odot and \Rightarrow of adjoint operations on the full twist-product of a bounded commutative residuated lattice such that the resulting algebra is a bounded commutative residuated lattice satisfying the double negation law and we investigate when P_a(L) is closed under these new operations \odot and \Rightarrow.
background contribution method result interpretation main claim
| # | sentence | role | the authors' own work | states the main conclusion | strength |
|---|---|---|---|---|---|
| s0 | Given an integral commutative residuated lattice L=(L,\vee,\wedge), its full twist-product (L^2,\sqcup,\sqcap) can be endowed with two binary operations \odot and \Rightarrow introduced formerly by M. Busaniche and R. Cignoli as well as by C. Tsinakis and A. M. | background 0.99 | 0.09 | 0.04 | asserted 0.98 |
| s1 | Wille such that it becomes a commutative residuated lattice. | background 0.89 | 0.11 | 0.05 | asserted 0.90 |
| s2 | For every a in L we define a certain subset P_a(L) of L^2. | contribution 0.76 | 0.94 | 0.03 | asserted 0.98 |
| s3 | We characterize when P_a(L) is a sublattice of the full twist-product (L^2,\sqcup,\sqcap). | result 0.54 | 0.91 | 0.10 | asserted 0.92 |
| s4 | In this case P_a(L) together with some natural antitone involution ' becomes a pseudo-Kleene lattice. | result 0.99 | 0.84 | 0.14 | asserted 1.00 |
| s5 | If L is distributive then (P_a(L),\sqcup,\sqcap,') becomes a Kleene lattice. | result 1.00 | 0.82 | 0.12 | asserted 1.00 |
| s6 | We present sufficient conditions for P_a(L) being a subalgebra of (L^2,\sqcup,\sqcap,\odot,\Rightarrow) and thus for \odot and \Rightarrow being a pair of adjoint operations on P_a(L). | contribution 0.69 | 0.93 | 0.27 | asserted 0.98 |
| s7 | Finally, we introduce another pair \odot and \Rightarrow of adjoint operations on the full twist-product of a bounded commutative residuated lattice such that the resulting algebra is a bounded commutative residuated lattice satisfying the double negation law and we investigate when P_a(L) is closed under these new operations \odot and \Rightarrow. | contribution 1.00 | 0.95 | 0.31 | asserted 1.00 |
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Original abstract
Given an integral commutative residuated lattice L=(L,\vee,\wedge), its full twist-product (L^2,\sqcup,\sqcap) can be endowed with two binary operations \odot and \Rightarrow introduced formerly by M. Busaniche and R. Cignoli as well as by C. Tsinakis and A. M. Wille such that it becomes a commutative residuated lattice. For every a in L we define a certain subset P_a(L) of L^2. We characterize when P_a(L) is a sublattice of the full twist-product (L^2,\sqcup,\sqcap). In this case P_a(L) together with some natural antitone involution ' becomes a pseudo-Kleene lattice. If L is distributive then (P_a(L),\sqcup,\sqcap,') becomes a Kleene lattice. We present sufficient conditions for P_a(L) being a subalgebra of (L^2,\sqcup,\sqcap,\odot,\Rightarrow) and thus for \odot and \Rightarrow being a pair of adjoint operations on P_a(L). Finally, we introduce another pair \odot and \Rightarrow of adjoint operations on the full twist-product of a bounded commutative residuated lattice such that the resulting algebra is a bounded commutative residuated lattice satisfying the double negation law and we investigate when P_a(L) is closed under these new operations \odot and \Rightarrow.
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The following construction was introduced for distributive lattices in [ref] and generalized for posets by the authors in [ref] : Let $a∈L$ and consider the following subset of $L^2$: [equation] Since our paper [ref] is devoted to posets and not to lattices, we are going to show that if $(P_a(𝐋),⊔,⊓)$ is a sublattice of $(L^2,⊔,⊓)$ then $(P_a(𝐋),⊔,⊓,')$ where the unary operation $'$ on $P_a(𝐋)$ is defined by $(x,y)':=(y,x)$ for all $(x,y)∈P_a(𝐋)$ is a pseudo-Kleene lattice.
Kleene posets and pseudo-Kleene posets · A construction of pseudo-Kleene lattices in the full twist-product · 0.96
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