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Developing effective knowledge representation and reasoning (KRR) techniques is an essential aspect of successful intelligent systems. The goal of the workshop series on Graphical Structures for Knowledge Representation and Reasoning (GKR) is to bring together researchers involved in the development and application of graph-based knowledge representation formalisms and reasoning techniques.

Active Semantic Relations in Layered Enterprise Architecture Development

1 Introduction

CG can visually represent LEAD metaobjects and their semantic relationships by linking each concept to another through these relationships; however, verification can be difficult due to the manual nature of the task [1]. While manual inspection of LEAD artifacts can identify organizational gaps, an element of mathematical rigor can be applied to the process to complement LEAD using CG and FCA [6,8].

2 The Metamodel Diagram

Later processing of these 'triples' (metaobject–relation– . metaobject) through FCA can highlight gaps in the model, revealing an organizational gap or human error in the modeling process.

3 Activating the Metamodel

Methodology

Using the algorithm depicted by Fig.2, we identify and analyze the active semantic relationships towards our goal of achieving an active directed graph, thereby highlighting the metaobject dependencies. Following Fig.2, we reviewed each two-way semantic relationship to determine which active or passive status should be assigned and created an initial active.

Findings

Result: Two hundred and thirty-five semantic cycles in 16ActiveDataObject report.txt 16v2ActiveDataObject.csv Operation: Delete transitive relation. Result: One hundred and twelve semantic cycles in 16v2ActiveDataObject report.txt 16v3ActiveDataObject.csv Operation: Delete transitive relation.

Table 2. Refactoring the data sublayer of the metamodel – Active Data Object.
Table 2. Refactoring the data sublayer of the metamodel – Active Data Object.

Formal Concept Lattice

The revised FCL probably provides a more intuitive model in the context of the warehouse picking process, with location before platform component and much of the grid dependent on the former. However, we note that due to the manual and interpretive nature of the exercise, other modelers may come to different conclusions.

Fig. 3. 25ActiveInfrastructureService lattice
Fig. 3. 25ActiveInfrastructureService lattice

4 Discussion

Implications

To eliminate the presence of a platform component in the highest formal concept, we examined the FCL and identified the source as "Platform Component - Serves - Location". Since pick pack represents the physical process of picking and packing goods at a location—a concept that predates technology platforms—the revised explanation offers a more lucid model.

Current Limitations

14 M. Baxter et al. fully automates - the process') based on the assumption that there are other paths with more indirect metaobjects. This decision was based on the distance between the metaobjects in the LEAD layers and was later confirmed by the discovery of 'Data Object - Influences Design - Application Tasks - Uses - Data Tables - Encapsulates - Information Object - Specialized as - Application Function - Describes Automation - Process' in the report 16ActiveDataObject.

Future Research

As we demonstrated, the proposed algorithm helped significantly, so based on our experiences, there are routes to further refine it. So is the "chain of command" asymmetrical, and why, or are there concepts missing.

5 Conclusion

As such, this clear "chain of command" is expected to both help identify the levers to achieve a desired change and minimize its adverse effects. As such, this formal approach can be combined with OntoClean, METONTOLOGY, or other ontology engineering approaches [4,10].

The images or other third-party materials in this chapter are included in the chapter's Creative Commons license, unless otherwise indicated in a credit line for the material. If material is not included in the chapter's Creative Commons license and your intended use is not permitted by statutory regulations or exceeds the permitted use, you will need to obtain permission directly from the copyright holder.

A Belief Update System Using an Event Model for Location of People in a Smart Home

Overall, we propose an algorithm capable of screening knowledge subject to well-defined evolutionary constraints.

2 Use Case Example

3 Related Work

Logical Formalism

Given a finite set O of constant symbols and a finite set E of primitive event type symbols. An interpretation is a function that associates each primitive symbol of the arity event type with a subset of I × On, where I is the set of all time intervals.

Fig. 1. Example of a smart home, equipped with simple location devices
Fig. 1. Example of a smart home, equipped with simple location devices

AGM Model

As a tool for defining contraction, we denote by K ⊥x the set of all largest non-implicating subsets of K. The first naive approach to defining a contraction, called the maxichoice contraction, is to choose K−x for one element of K ⊥x.

Truth Maintenance Systems

Maxichoice contraction and meet contraction are extreme cases of partial meet contraction, where γ selects one element or all elements of K ⊥x. When a contradiction node becomes "in" after an update, the backtracking procedure is invoked to "out" the contradiction again.

4 Our Contribution

  • Algorithm Overview
  • Logical Formalism
  • Transition Graph Structure
  • Nodes’ Belief Sets
  • Building the Graph
  • Querying the Graph

The definition of the hypothesis NTk(t) can be refined by stating that there exist some walks from NId0 to NTk(t) such that the events occurring between them correspond to the sequence of events described by the exact position in the observation intervals. For a nodeN, Obs(N) is the set of observations associated with the interval it belongs to.

Fig. 3. Example of transition graph structure
Fig. 3. Example of transition graph structure

5 Application to the Location Problem

One can also become interested in what happens at the beginning (resp. at the end) of the observation interval by looking only at the belief nodes that have consistent predecessors (resp. successors) in the previous (resp. next) interval . For example, a property is true at the beginning of the observation interval if it is true in all nodes that have a consistent predecessor in the preceding interval.

6 Conclusion and Perspectives

The transition graph resulting from the algorithm is described in Table 1. Note that in the last interval the only possibility is that Alice is in the bedroom and Bob is in the kitchen, which is more accurate than what can be inferred by only using the last observations. Open Access This chapter is licensed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits use, sharing, adaptation, distribution, and reproduction in any medium or format, so as long as you give appropriate credit to the original author(s) and source, you must provide a link to the Creative Commons license and indicate whether changes have been made.

A Natural Language Generation Technique for Automated Psychotherapy

In contrast, model-based CG systems can, with some effort, be made to work with a relatively small amount of domain-specific linguistic knowledge and with little or no learning. Finally, Section 4 concludes with some current challenges of this approach and its prospects for testing and further development.

2 Sources Informing the Generation of Responses

  • Tracking of Patient’s Expressed Emotions
  • Conceptual Analysis of Patient’s Utterances
  • Using Context to Inform the Planning Process
  • Response Generation Architecture

The therapist can continue the therapy as long as the patient's tracked emotional state remains within the safe region. Similarly, if the relationship with the patient is lost (the quality of the patient's responses deteriorates), special steps must be taken to restore it before anything else can be done.

Table 1. Mean locations of labelled emotional points in the range [− 1.5, +1.5] as compiled in Smith & Ellsworth’s study.
Table 1. Mean locations of labelled emotional points in the range [− 1.5, +1.5] as compiled in Smith & Ellsworth’s study.

3 Implementation Details

Initially, these entries are provided manually to represent information from the pre-existing admission interview. Consultation of the system is performed at each conversational turn, informed of the current state of variables from inputs.

4 Conclusion

A Natural Language Generation Technique for Automated Psychotherapy 39 patient identifier and one of the 15 core themes (section 2.3), such as suicide_attempts, readiness_to_change, and chief_complaint. A Natural Language Generation Technique for Automated Psychotherapy 41 Open Access This chapter is licensed under the terms of the Creative Commons Attribution 4.0 International License (http://creativecommons.org/licenses/by/4.0/), which permits use, sharing, adaptation, distribution, and reproduction in any medium or format, provided you give proper credit to the original author(s) and source, provide a link to the Creative Commons license, and indicate whether changes have been made.

Creative Composition Problem

A Knowledge Graph Logical-Based AI Construction and Optimization Solution

Applied in Cecilia: An Architecture of a Digital Companion Artificial Intelligence (AI) Agent System Composer of Dialogue

Scripts for Well-Being and Mental Health

We proposed Cecilia Architecture of a Digital Companion Artificial Intelligence Agent System Composer of Dialogue Scripts for Wellness and Mental Health. CCP is instantiated in this applied domain for The Problem of Creating a Dialogue Composition (PCDC) that optimizes the Mental Health and Wellbeing of the student.

2 Related Work

Applied Chat-Bots for Mental Health Well-Being

In the work of Cidy Mason [51] it is presented how Human-Level AI requires Compassionate Intelligence, much more than just common sense about the world, it will require compassionate intelligence to guide interaction and build the applications of the future. In Cindy Mason's work [49], an Engineering Kindness architecture is presented, where the construction of a machine with compassionate intelligence is proposed.

Applied Knowledge Graph for Mental Health Well-Being

The positive design of our interactions with devices can therefore have a positive impact on economy, civilization and society. The work of [48] describes a growing body of co-discovery occurring across a range of disciplines that supports the case for humanities in technology design.

3 Cecilia: An Architecture of a Digital Companion Artificial Intelligence Agent System Composer of Dialogue Scripts for

Cecilia: A Master-Slave AI Agents Digital Companion System Design Cecilia defines a master-salve conceptual design following a centralized approach

All the semantic knowledge of each slave and the general theory of interaction between them is written in the language of logic programming (LP). After performing the symphony, the composer will hopefully learn from the feedback (applause, criticism, etc.) to create a better symphony.

The Cecilia Logical-Based AI Agent Digital Companion System

The highest module consists of an ASP program that proposes the ASDS plan to solve a specific problem based on the constructed graph that provides a Prescription in dialogue to the student to optimize her mental health and well-being. The formal specification of this second phase in terms of an optimization problem The Problem of Creating a Dialogue Composition (PCDC) which is an example of The Creative Composition Problem.

Fig. 2. I. Abstract script generation
Fig. 2. I. Abstract script generation

4 The Creative Composition Problem (CCP)

  • Formal Definition CCP Graph Instance
  • Dynamic Programming Definition of CPP
  • Dynamic Programming Algorithm
  • Computational Complexity of Dynamic Programming Algorithm to Compute the Optimal CCP Solution
  • Running Example

Given a CCP instance G(S, K) =< V, E, P v, P e > we compute the optimal solution using a Dynamic Programming strategy. Using dynamic programming, based on the recursive definition to calculate the CCP optimal solution, in Algorithm1 the optimal solution for a given CCP instance is calculated.

5 Creative Reasoning-Planning: The Master-Agent Artificial Intelligent Composer (MAIC) of Dialogue Scripts for Well-Being

The MAIC Diagnostic: Enriching Talks (Mild Therapies) Theories Specified in ASP

Diagnosis of emotional type theory. It diagnoses the student's emotional status derived from the student's conversation with Cecilia. Empathy Theory. It proposes AI task interactions with the aim of strengthening empathy with Cecilia, but also mainly helping the student to achieve a healthy emotional status.

The MAIC Prescription and Recommendation: Solving the Creative Composition Problem (CCP)

Theory of emotional well-being. It provides a logical description of the OCC model of emotion which aims to achieve and maximize student happiness [70]. It tracks the emotional status of the learner through past conversation sessions to help make a better diagnosis.

6 Pre-evaluation of Cecilia

Cecilia is designed to be independent of the knowledge writing domain, for example using Enriching Talks. Also Cecilia is independent of the used human language to talk to the Agent user (in our case the student).

7 Technologies Suitable to Solve CCP and to Implement the Design of Cecilia Architecture

Availability of well-known and mature solvers for use, such as CLASP and DLV. It is worth mentioning that Prolog-type solvers such as XSB and CIAO [1,32] can also be considered.

8 Conclusions

For a machine to engage in our world with a compassionate attitude, we are faced with the task of articulating the healthy sense of compassion. This is why in our future work we will integrate assessment from other disciplines to improve the development of compassion in our research work [48,50].

A Appendix 1

B Appendix 2

Diano, F., Ferrata, F., Calabretta, R.: Development of a mindfulness-based mobile application for learning emotional self-regulation. Rosenkranz, M.A., Dunne, J.D., Davidson, R.J.: The next generation of mindfulness-based intervention research: What we've learned and where we're going.

Set Visualisations

Sections 2 and 3 of this article provide an introduction to Venn, Euler, and Hasse diagrams and FCA. A potentially provocative conclusion of this article is that although many people can find Euler diagrams.

2 A Brief Introduction to Euler and Venn Diagrams

Many questions about the relationship between well-formed Euler diagrams and meshes still remain open. While a single (fairly simple) equation is required to determine whether a network is distributive, no similar simple equation or property has yet been found to determine whether setE(L) can be represented as a well-formed Euler diagram.

3 Formal Concept Analysis and Hasse Diagrams

To be well-formed, the diagram should not contain an area that is disconnected and divided into several minimal areas (as in D3b in Figure 1, where the black area in the middle belongs to the outer area). This is true for all nodes that have direct attributes in Figures 2 and 3 , except for the top concept in Figure 2 (with the “juvenile” attribute), because the top concept is the meeting of the empty set and is thus ∧-reducible.

Fig. 2. A formal context and concept lattice
Fig. 2. A formal context and concept lattice

4 Venn Diagrams and Boolean Lattices

If the objects {calf, calf, lamb} were removed from the formal context, the resulting mesh would still be isomorphic to that in Fig.3. A superdual graph represents an abstract set of regions of an Euler diagram that is independent of exactly how the diagram is drawn.

5 Sets of Zones as Well-Formed Euler Diagrams and Lattices

The set of areas in Lattice 4 forms a mesh without complementary concepts, but does not correspond to a well-formed Euler diagram (because it violates the single-label condition). Last but not least, Diagram 5 presents an example of a well-formed Euler diagram that does not correspond to a mesh without additional concepts.

Fig. 5. Euler diagrams and concept lattices
Fig. 5. Euler diagrams and concept lattices

6 Conditions for Well-Formed Euler Diagrams

Its corresponding Euler diagram would not be well-formed because the single-label condition would not be satisfied. For the purposes of this paper, this fact about Euler diagrams is expressed as the set of well-formed Euler diagrams that are not closed under recursive generation.

Fig. 6. Euler diagrams and distributive lattices
Fig. 6. Euler diagrams and distributive lattices

7 Reading Implications from Euler and Hasse Diagrams

This does not mean that the corresponding Hasse diagram must also be planar, because a Hasse diagram is a directed graph, while a dual graph is undirected. For example, grid 1 in Fig.4 is not planar and cannot be converted to a planar Hasse diagram.

8 Conclusion

Although it is theoretically possible to draw Hasse diagrams for Boolean grids of any size, it becomes difficult to see anything in such a grid for more than 4 sets. Collection Visualizations with Euler and Hasse Diagrams 83 diagrams can only represent some subsets of forces and because it is not clear what the exact algebraic nature of well-formed Euler diagrams is, one can argue that Hasse diagrams in a certain sentence is more suitable to represent collection. theory as Euler diagrams.

Usage Patterns Identification Using Graphs and Machine Learning

2 The Problem

3 Approach

The restrictions are: the patterns defined must be mutually exclusive, meaning that a subscriber must fit only one pattern, and the entire pool of subscribers must fit the defined patterns (there cannot be any subscribers who have no pattern assigned).

4 Implementation

On average, the number of units per account in the data we had about four, and only in extreme cases did the number exceed thirty. By having an array where we keep track of such cases, we can ultimately determine all the clusters.

Fig. 1. Graphical representation of Step 3
Fig. 1. Graphical representation of Step 3

5 Technologies

The information, contained in the nodes that create the tree, represents the location (which serves as a search key) and the device ID (which is unique to an account). Each value in the array represents the index of a group in which a device is positioned.

6 Results and Analysis

During the tests done to find an optimal model for these tasks, we obtained an accuracy close to 100% for the training data, but, for the validation, the accuracy was much lower, which means that the model just learned the results. 4. Mean partition score for each model where the bar index represents the model from Table 1.

Fig. 2. Sharing probability distribution
Fig. 2. Sharing probability distribution

7 Conclusion

Collaborative Design and Manufacture

Information Structures for Team Formation and Coordination

Traditionally, this is approached by either a notion of 'closeness' or 'best fit' (metric-based paradigms); or by finding a subtree within a tree (data structure) (tree traversal). In Sect.2 we briefly summarize the initial and current research contexts for the work; in Sect.3 we introduce key elements of the formal apparatus and we briefly outline our approach; and in Sect.4 we give some simplified examples.

2 Research Context

Timely response to this through an agile partnership requires rapid coordination of product development activities such as preliminary conceptual design of appropriate subsystems and (conceptual) integration of the resulting specification, between (potential) partners from the cluster. Essentially, the problem of assembling an agile partnership is one of matchmaking: identifying requirements and locating suppliers to meet them.

3 Preliminaries

Formal Concept Analysis

The pair ({Mercury, Venus, Earth, Mars},{size-small,distance-near}) is a concept of the simple context of Table 1. Furthermore, since ({Mercury,Venus},{size-of small, distance-near, moon-no})≤({Mercury, Venus, Earth, Mars},{size-small, distance-near}) the former is a subconcept of the latter.

Fig. 1. A concept lattice for the planets from Table 1; after [3].
Fig. 1. A concept lattice for the planets from Table 1; after [3].

Galois Connections and Concept Lattices

We indicate the closures of this under the compositions of the derivation operators ℘(G) and ℘(M)∂, respectively. Thus, they do not share any of the attributes in Table 1 and are conceptually distinct and should not coexist in the scope of any concept.

Observations

For example, size-large and distance-near do not apply together to any of the planets in Table 1. This means that for a given context we can use subsets of attributes to more directly examine the interrelationships of objects from different perspectives; and visualize it.

4 Application

Invitations to Tender

By collapsing the entire grid into a suitable sub-grid (for sub-context of attributes: Min-Capacity, Trusted, NADCAP, Proximal and Min-CSR), see Fig.4, we immediately see that only suppliers S1, S6 and S7 are suitable partners for the tender (from the current set). It is more likely that the ten suppliers for some aspect of the tender would be the same aspect and our projection on a sub-grid.

Fig. 3. A concept lattice for suppliers
Fig. 3. A concept lattice for suppliers

Coordinating Meetings

We can also see that no single provider needs to meet nearly every attribute, since the lowest node in the grid has no object (provider) associated with it. Moreover, we can also see that no single attribute requires the input of every supplier, as the highest node in the grid has no attribute (attribute) associated with it.

Project Subgroups

For example, we can infer from the node labeled "Windows" that the interests of the specialty glass supplier and the panel coincide, and that only these two need to meet to finalize the relevant specifications. Thus, we know that we will need to coordinate meetings between these two for the purpose of discussing Windows.

5 Concluding Remarks

Our aim is not to challenge established methods; rather, our purpose here has been to present the approach and outline its applications to provide food for thought and stimulate discussion.

Invited Additional Contributions

Approximate Knowledge Graph Query Answering: From Ranking to Binary

Classification

In this paper, we focus on this issue, especially in the case of missing edges in the graph. In the evaluation phase, this ranking is compared not to a ground truth ranking, but to the set of correct answers to the question.

2 Approximate Query Answering on Knowledge Graphs

MPQE

Graph Relational Convolutional Networks (R-GCN) [17] are a special case that introduces a mechanism to deal with different types of relationships as they occur in KG, and have been shown to be effective for tasks such as connection prediction and entity classification. The generality derives from the fact that R-GCN uses a general message-passing mechanism to inject the query, rather than relying on operators specific to paths and intersections.

Query2Box

Complex Query Decomposition

3 From Ranking Metrics to Actual Answers

Closed-World Assumption

KG Query Answering with Binary Classification 113 disadvantages of such methods include a potential slowdown during learning or a limit to the overall performance of the model, since having very different entities in T and our sample from V − T could prevent our model from learning the differences between the two sets. On the other hand, if these two sets are very similar, the model would be forced to uncover differences even when they are not very obvious.

From Ranking to Classification

In fact, it is often good practice to use so-called "hard" negative sampling, which is similar to entities in T. A better alternative for finding entities that are not in T is to use more sophisticated techniques, as suggested in [16].

4 Using Axis-Aligned Boxes for Query Embedding

Boxes for Entities

The nodes representing Alice and Bob are close to each other in one context and far apart in another. The embedding of entities in Figure 5 shows that with boxes it is possible to have entities close and far from each other at the same time.

5 Proof of Concept

Results

The latter two settings also affect how many different queries we can practice within a given time frame. Although we have no intersections between query boxes and target boxes, we can still check if the target boxes (fromT) appear relatively close to the entity boxes, compared to the box representations of entities inV−T.

6 Conclusion and Outlook

As future research directions, we see the need to extend our experiments to include other types of queries (partitions, negations, filters, etc.), in order to show the generalizability of our approach. Also, it seems worth experimenting with different geometric representations for the query parts (anchor, variables and targets).

Galois Connections for Patterns: An Algebra of Labelled Graphs

A natural way to define collections of instances is to consider the microstructure properties of binary CSP instances [30]. Defining sets of binary CSP instances by prohibiting patterns has led to the discovery of new traceable classes [9,18].

2 Definitions and Notation

When forbidden, a set of Sof patterns defines a set of cases (those sets of cases in which none of the patterns occur in S). A set of forbidden patterns is tractable if the corresponding set of cases in which none of the patterns occurs in S is tractable.

Fig. 2. The operation P × Q.
Fig. 2. The operation P × Q.

3 The Two Lattices

Considering that S1 ≤ S2 as S2 S1, then the minimal element in the lattice S is the empty set of patterns and the maximal element is {P∅} where P∅ is the pattern that contains no points or edges. Considering that T1 ≤T2 as T1 → T2, then the minimal element of T is the empty set of patterns and the maximal element is the set of all patterns.

4 The Galois Connection

If we consider only sets of fully specified instances in T, then Theorem 4 would not hold. They do not define the same set of generic instances because, for example, the single pattern Q ∈S2 is in f(S1) but not in f(S2).

Fig. 3. The sets of patterns S 1 = {P 1 , P 2 } and S 2 = {Q} define the same set of completely specified instances when forbidden, but f(S 1 )  = f(S 2 ).
Fig. 3. The sets of patterns S 1 = {P 1 , P 2 } and S 2 = {Q} define the same set of completely specified instances when forbidden, but f(S 1 ) = f(S 2 ).

5 Tractability Consequences of the Galois Connection

The following proposition tells us that the tractable sets of patterns form a sublattice of S. We can observe that there are infinite sets of patterns S such that f(S) is tractable, but for no finite subsets of S isf(S) can be treated, e.g.

6 Augmented Patterns: Motivation

This example illustrates the fact that we need to apply a filter to the set of cases I defined by disallowing a set of augmented patterns. We can give a set of enlarged patterns that are linear in the size of S1 and S2 as follows.

Fig. 6. Examples of augmented patterns.
Fig. 6. Examples of augmented patterns.

7 Augmented Patterns: Definitions

We would like to establish a Galois connection between the set of sets of flat generic instances and the set of sets of augmented models which we denote by SA. Instead, we present in Section 8a the Galois connection between T and ΣA the set of augmented model sets.

Fig. 9. (a) The broken-triangle pattern (BTP). (b) An alternative pattern which defines the same class.
Fig. 9. (a) The broken-triangle pattern (BTP). (b) An alternative pattern which defines the same class.

8 A Galois Connection for Augmented Patterns

Thus, given a flat instance I ∈ I and a function Rel ∈ REL, I, Rel(I) is an augmented version of I (eg instance I with an order on its variables). The tractable sets of augmented models form a coupling half-lattice, since S1, S2tractable implies that S1+S2 is tractable.

Fig. 10. The function F from Σ A to T
Fig. 10. The function F from Σ A to T

9 Discussion and Conclusion

J'egou, P.: Decomposition of domains based on the microstructure of finite constraint satisfaction problems. ed.). American Mathematical Society, Providence (1996). ed.): The Constraint Satisfaction Problem: Complexity and Approximability, Dagstuhl Follow-Ups, vol.

Gambar

Fig. 1. Warehouse pick pack metamodel (from LEAD ID#-ES20001ALL)
Table 1. Refactoring the Capability sublayer of the metamodel – Active Organisation, Role, and Organisational Function.
Table 2. Refactoring the data sublayer of the metamodel – Active Data Object.
Fig. 3. 25ActiveInfrastructureService lattice
+7

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