Abstract:In this paper, we merge two theories: that of pulse processes on weighted digraphs and that of evolution algebras. We enrich both of them. In fact, we obtain new results in the theory of pulse processes thanks to the new algebraic tool that we introduce in its framework, also extending the theory of evolution algebras, as well as its applications.
“…. , M n of an algebra A with respect to a basis B = {e 1 , ..., e n } as in (2). For a real algebra A we consider the complexification A C provided with the same basis B.…”
Section: Checking When An Algebra Is An Evolution Algebramentioning
confidence: 99%
“…Since then, a large literature has flourished on this topic (see for instance [2][3][4][5][6][7][8][9][10][11][12][13][14][15][16][17]) motivated by the fact that these algebras have connections with group theory, Markov processes, theory of knots, systems and graph theory. For instance, in [2], the theory of evolution algebras was related to that of pulse processes on weighted digraphs and applications were provided by reviewing and enlightening a report of the National Science Foundation about air pollution achieved by the Rand Corporation. A pulse process is a structural dynamic model to analyse complex networks by studying the propagation of changes, through the vertices of a weighted digraph, after introducing an initial pulse in the system at a particular vertex.…”
Section: Introductionmentioning
confidence: 99%
“…They were introduced in 2008 by Tian [1] to enlighten the study of non-Mendelian genetics. Since then, a large literature has flourished on this topic (see for instance [2][3][4][5][6][7][8][9][10][11][12][13][14][15][16][17]) motivated by the fact that these algebras have connections with group theory, Markov processes, theory of knots, systems and graph theory. For instance, in [2], the theory of evolution algebras was related to that of pulse processes on weighted digraphs and applications were provided by reviewing a report of the National Science Foundation about air pollution achieved by the Rand Corporation.…”
Evolution algebras are non-associative algebras that describe non-Mendelian hereditary processes and have connections with many other areas. In this paper, we obtain necessary and sufficient conditions for a given algebra A to be an evolution algebra. We prove that the problem is equivalent to the so-called SDC problem, that is, the simultaneous diagonalisation via congruence of a given set of matrices. More precisely we show that an n-dimensional algebra A is an evolution algebra if and only if a certain set of n symmetric n×n matrices {M1,…,Mn} describing the product of A are SDC. We apply this characterisation to show that while certain classical genetic algebras (representing Mendelian and auto-tetraploid inheritance) are not themselves evolution algebras, arbitrarily small perturbations of these are evolution algebras. This is intringuing, as evolution algebras model asexual reproduction, unlike the classical ones.
“…. , M n of an algebra A with respect to a basis B = {e 1 , ..., e n } as in (2). For a real algebra A we consider the complexification A C provided with the same basis B.…”
Section: Checking When An Algebra Is An Evolution Algebramentioning
confidence: 99%
“…Since then, a large literature has flourished on this topic (see for instance [2][3][4][5][6][7][8][9][10][11][12][13][14][15][16][17]) motivated by the fact that these algebras have connections with group theory, Markov processes, theory of knots, systems and graph theory. For instance, in [2], the theory of evolution algebras was related to that of pulse processes on weighted digraphs and applications were provided by reviewing and enlightening a report of the National Science Foundation about air pollution achieved by the Rand Corporation. A pulse process is a structural dynamic model to analyse complex networks by studying the propagation of changes, through the vertices of a weighted digraph, after introducing an initial pulse in the system at a particular vertex.…”
Section: Introductionmentioning
confidence: 99%
“…They were introduced in 2008 by Tian [1] to enlighten the study of non-Mendelian genetics. Since then, a large literature has flourished on this topic (see for instance [2][3][4][5][6][7][8][9][10][11][12][13][14][15][16][17]) motivated by the fact that these algebras have connections with group theory, Markov processes, theory of knots, systems and graph theory. For instance, in [2], the theory of evolution algebras was related to that of pulse processes on weighted digraphs and applications were provided by reviewing a report of the National Science Foundation about air pollution achieved by the Rand Corporation.…”
Evolution algebras are non-associative algebras that describe non-Mendelian hereditary processes and have connections with many other areas. In this paper, we obtain necessary and sufficient conditions for a given algebra A to be an evolution algebra. We prove that the problem is equivalent to the so-called SDC problem, that is, the simultaneous diagonalisation via congruence of a given set of matrices. More precisely we show that an n-dimensional algebra A is an evolution algebra if and only if a certain set of n symmetric n×n matrices {M1,…,Mn} describing the product of A are SDC. We apply this characterisation to show that while certain classical genetic algebras (representing Mendelian and auto-tetraploid inheritance) are not themselves evolution algebras, arbitrarily small perturbations of these are evolution algebras. This is intringuing, as evolution algebras model asexual reproduction, unlike the classical ones.
“…A classification of low dimensional evolution algebras have been carried out in [8,13,16,17,[21][22][23][24]. Evolution algebras found their applications in models of non-Mendelian genetics laws [1,2,15,26]. Moreover, these algebras are tightly connected with group theory, the theory of knots, dynamic systems, Markov processes and graph theory [3][4][5]12].…”
In the present paper, every evolution algebra is endowed with Banach algebra norm. This together with the description of derivations and automorphisms of nilpotent evolution algebras, allows to investigated the set exp(Der(E)). Moreover, it is proved that exp(Der(E)) is a normal subgroup of Aut(E), and its corresponding index is calculated.
“…Recently, many paper have been devoted to study the derivation of evolution algebras see for instance [2,26,30,31]. Other properties of evolution algebra have been investigated in [5,6,8,9,11,23,29]. In [25], it has been study the properties of the nilpotent finite-dimensional evolution algebras with maximal nil index such as derivation, local derivation, automorphism, and local automorphism.…”
As a system of abstract algebra, evolution algebras are commutative and non-associative algebras. There is no deep structure theorem for general non-associative algebras. However, there are deep structure theorem and classification theorem for evolution algebras because it has been introduced concepts of dynamical systems to evolution algebras. Recently, in [25], it has been studied some properties of nilpotent evolution algebra with maximal index (dim E2 = dim E − 1). This paper is devoted to studying nilpotent finite-dimensional evolution algebras E with dim E2 =dim E − 2. We describe Lie algebras related to the evolution of algebras. Moreover, this result allowed us to characterize all local and 2-local derivations of the considered evolution algebras. All automorphisms and local automorphisms of the nilpotent evolution algebras are found.
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