Ruben Verborgh’s data

Matches in Ruben’s data for { ?s ?p "Searching for relationships between Linked Data resources is typically interpreted as a pathfinding problem: looking for chains of intermediary nodes (hops) forming the connection or bridge between these resources in a single dataset or across multiple datasets. Linked Open Data, linked datasets available via the web, introduce challenges for pathfinding algorithms. In many cases centralizing all needed linked data in a certain (specialized) repository or index to be able to run the algorithm is not possible or at least not desired. To address this, we propose an approach to top-k shortest pathfinding, which optimally translates a pathfinding query into sequences of triple pattern fragment requests. Triple Pattern Fragments were recently introduced as a solution to address the availability of data on the Web and the scalability of linked data client applications, preventing data processing bottlenecks on the server. The results are streamed to the client, thus allowing clients to asynchronous processing of the top-k shortest paths. We explain how this approach behaves using a training dataset with 10 million triples and show the trade-offs to a SPARQL approach where all the data is gathered in a single triple store on a single machine."@en }

• 978-3-319-46565-4_18 abstract "Searching for relationships between Linked Data resources is typically interpreted as a pathfinding problem: looking for chains of intermediary nodes (hops) forming the connection or bridge between these resources in a single dataset or across multiple datasets. Linked Open Data, linked datasets available via the web, introduce challenges for pathfinding algorithms. In many cases centralizing all needed linked data in a certain (specialized) repository or index to be able to run the algorithm is not possible or at least not desired. To address this, we propose an approach to top-k shortest pathfinding, which optimally translates a pathfinding query into sequences of triple pattern fragment requests. Triple Pattern Fragments were recently introduced as a solution to address the availability of data on the Web and the scalability of linked data client applications, preventing data processing bottlenecks on the server. The results are streamed to the client, thus allowing clients to asynchronous processing of the top-k shortest paths. We explain how this approach behaves using a training dataset with 10 million triples and show the trade-offs to a SPARQL approach where all the data is gathered in a single triple store on a single machine.".