Using ASP(Q) to Handle Inconsistent Prioritized Data
📰 ArXiv cs.AI
Learn to handle inconsistent prioritized data using ASP(Q) for optimal query answering and repairs
Action Steps
- Apply ASP(Q) to model prioritized data and define optimal repairs
- Use Pareto-, globally-, and completion-optimal repairs to handle inconsistencies
- Implement query answering using AR, brave, and IAR semantics with optimal repairs
- Configure ASP(Q) to exploit priority relations between conflicting facts
- Test the approach on real-world datasets with inconsistent prioritized data
Who Needs to Know This
Data scientists and AI researchers working with prioritized data can benefit from this approach to handle inconsistencies and optimize query answering. This can be particularly useful in applications where data conflicts need to be resolved based on priority relations.
Key Insight
💡 ASP(Q) can be used to define optimal repairs for inconsistent prioritized data, enabling effective query answering and decision-making.
Share This
🤖 Handle inconsistent prioritized data with ASP(Q) for optimal query answering and repairs! #AI #DataScience
Key Takeaways
Learn to handle inconsistent prioritized data using ASP(Q) for optimal query answering and repairs
Full Article
Title: Using ASP(Q) to Handle Inconsistent Prioritized Data
Abstract:
arXiv:2604.21603v1 Announce Type: cross Abstract: We explore the use of answer set programming (ASP) and its extension with quantifiers, ASP(Q), for inconsistency-tolerant querying of prioritized data, where a priority relation between conflicting facts is exploited to define three notions of optimal repairs (Pareto-, globally- and completion-optimal). We consider the variants of three well-known semantics (AR, brave and IAR) that use these optimal repairs, and for which query answering is in th
Abstract:
arXiv:2604.21603v1 Announce Type: cross Abstract: We explore the use of answer set programming (ASP) and its extension with quantifiers, ASP(Q), for inconsistency-tolerant querying of prioritized data, where a priority relation between conflicting facts is exploited to define three notions of optimal repairs (Pareto-, globally- and completion-optimal). We consider the variants of three well-known semantics (AR, brave and IAR) that use these optimal repairs, and for which query answering is in th
DeepCamp AI