2022
DOI: 10.1016/j.artint.2022.103772
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Preference-based inconsistency-tolerant query answering under existential rules

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Cited by 11 publications
(6 citation statements)
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“…Since explaining query answering has recently drawn considerably attention under existential rule languages (e.g., see [10,11,12,13,14,15]), and knowledge representation in general (e.g., in the context of argumentation [16]) an interesting direction for future work is to address such issue in our setting. Also, it would be interesting to account for user preferences when answering queries, as recently done in [17,18], possibly considering other ways of expressing preferences, e.g. by means of CP-nets [19,20].…”
Section: Next Stepsmentioning
confidence: 99%
“…Since explaining query answering has recently drawn considerably attention under existential rule languages (e.g., see [10,11,12,13,14,15]), and knowledge representation in general (e.g., in the context of argumentation [16]) an interesting direction for future work is to address such issue in our setting. Also, it would be interesting to account for user preferences when answering queries, as recently done in [17,18], possibly considering other ways of expressing preferences, e.g. by means of CP-nets [19,20].…”
Section: Next Stepsmentioning
confidence: 99%
“…Manual intervention can often solve these problems, but it is timeconsuming, and thus not scalable with respect to the amount of data nowadays available. The activities of data cleaning (possibly to be placed or repeated after data integration) include data transformation, data reduction, deduplication, error detection, missing value imputation, and space transformations in the case of multimedia data [5][6] [7]. The overall task is complicated also by the fact that optimizing one dimension of data quality might cause a quality loss for another dimension.…”
Section: Data Science Pipeline Figure 3 Reports a Typical Data Scienc...mentioning
confidence: 99%
“…The Datalog ± languages here considered guaranteeing decidability are among the most frequently analyzed in the literature, namely, linear (L) (Calì, Gottlob, and Lukasiewicz 2012), guarded (G) (Calì, Gottlob, and Kifer 2013), sticky (S) (Calì, Gottlob, and Pieris 2012), and acyclic TGDs (A), the "weak" generalizations weakly sticky (WS) (Calì, Gottlob, and Pieris 2012) and weakly acyclic TGDs (WA) (Fagin et al 2005), their "full" (i.e., existential-free) restrictions linear full (LF), guarded full (GF), sticky full (SF), and acyclic full TGDs (AF), respectively, and full TGDs (F) in general. We refer to (Calautti et al 2022; for a more detailed overview.…”
Section: Preliminariesmentioning
confidence: 99%
“…These notions of optimal repairs have been recently applied to DLs by Bienvenu and Bourgaux (2020;, who studied the data complexity of query entailment under the AR, IAR, and brave semantics based on optimal repairs, existence of a unique optimal repair, and enumeration of all optimal repairs. The data and combined complexity of the AR, IAR, and ICR semantics for existential rules when preferences are expressed via so-called preference rules have been investigated by Calautti et al (2022). The crucial difference between the body of work above and the current paper is that the former considers subsetmaximal repairs only (where preferred ones are identified on the basis of user preferences), while we consider different notions of maximality to define repairs in the first place.…”
mentioning
confidence: 99%