Abstract
Semantic networks can simulate the human complex frames in reasoning process providing efficient association and inference mechanisms. Ontology can be used to fill the gap between human and computational intelligence for a task domain. For an evolving environment it is important to understand what knowledge is required for a task domain with an adaptive ontology matching. To reflect the evolving knowledge this paper considers ontologies based on folksonomies according to a new concept structure called “Folksodriven” to represent folksonomies. Folksonomies are a set of terms that a group of users tagged content without a controlled vocabulary. A Folksodriven Structure Network (FSN), built from the relations among the Folksodriven tags (FD tags), is presented as a folksonomy tags suggestions for the user to solve the problems inherent in an uncontrolled vocabulary of the folksonomy. It was observed that the properties of the FSN depend mainly on the nature, distribution, size and the quality of the reinforcing FD tags. So, the studies on the transformational regulation of the FD tags are regarded to be important for an adaptive folksonomies classifications in an evolving environment used by Intelligent Systems. This paper discuss the deformation exhibiting linear behavior on FSN based on folksonomy tags chosen by different user on web site resources, this is a topic which has not been well studied so far. The discussion shows that the linear elastic constitutive equation possesses some leaning for the investigation. A constitutive law on FSN is investigated towards a systematic mathematical analysis on stress analysis and equations of motion for an evolving ontology matching on an environment defined by the users’ folksonomy choice. The adaptive ontology matching and the elastodynamics are merged to obtain what we can call the elasto-adaptive-dynamics methodology of the FSN.
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A Real-time Control System (RCS) Reference Model Architecture, that implements a generic Hierarchical control system, was inspired 30 years ago by a theoretical model of the brain responsible for sensory-interactive and goal-directed control of conscious motions. Systems based on the RCS architecture have been designed and implemented to varying degrees for a wide variety of applications evolving through a variety of versions. Roughly each RCS consists of: Sensor, Controller, Actuator and Process (System) that should be controlled. (see http://www.nist.gov/el/isd/rcs.cfm).
Nonlinear means that output isn't directly proportional to input, or that a change in one variable doesn't produce a proportional change or reaction in the related variable(s). In other words, a system's values at one time aren't proportional to the values at an earlier time.
A dynamical system is anything that moves, changes, or evolves in time. Hence, chaos deals with what the experts like to refer to as dynamical-systems theory (the study of phenomena that vary with time) or nonlinear dynamics (the study of nonlinear movement or evolution).
A phonon is a quantum mechanical definition of the lattice vibration that uniformly oscillates at the same frequency. It is known as the “normal mode” in classical mechanics. According to it any arbitrary lattice vibration can be described as a superposition of the elementary vibrations described by the phonon (cfr. Fourier analysis—Courant and Hilbert 2008).
Similar to phonon, phason is associated with nodes of lattice motion, considered here as FD tags. However, whereas phonons are related to translation of FD tags, phasons are associated with FD tags rearrangements.
Quasiperiodicity in the general definition also includes incommensurately modulated FSN as well as composite FSN. Here, we will not discuss these cases, which either can be seen as periodic modification of an underlying basic structure or as a kind of intergrowth of periodic structures.
Spinning consolidation: the growing of FD tags connections around the original FD tag.
Collapse: when links between FD tags shrink together abruptly and completely to a direct link with a main FD tag.
According to classical physic the Hooke's law (law of elasticity), is depicted by \({F} = {-kx}\) Where the movement of the end of the spring is expressed by x respect its equilibrium position. F depicts the spring restoring force and k is the spring (or rate) constant.
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Acknowledgments
I would like to thank Prof. Marco Colombetti of the “Department of Electronics, Information and Bioengineering” (DEIB) of the “Politecnico di Milano” University (Italy) for his advice on Knowledge Engineering and Artificial Intelligence. I am especially indebted to all the reviewers’ detailed comments and constructive suggestions on the manuscript.
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Dal Mas, M. Elastic Adaptive Dynamics Methodology on Ontology Matching on Evolving Folksonomy Driven Environment. Evolving Systems 5, 33–48 (2014). https://doi.org/10.1007/s12530-013-9086-5
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DOI: https://doi.org/10.1007/s12530-013-9086-5