2019
DOI: 10.1155/2019/2604148
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Facilitating the Quantitative Analysis of Complex Events through a Computational Intelligence Model-Driven Tool

Abstract: Complex event processing (CEP) is a computational intelligence technology capable of analyzing big data streams for event pattern recognition in real time. In particular, this technology is vastly useful for analyzing multicriteria conditions in a pattern, which will trigger alerts (complex events) upon their fulfillment. However, one of the main challenges to be faced by CEP is how to define the quantitative analysis to be performed in response to the produced complex events. In this paper, we propose the use… Show more

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Cited by 5 publications
(2 citation statements)
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References 33 publications
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“…All of these test cases can be found at this URL 8 , where the reader can find the graphical models created with MEdit4CEP-BPCPN, and the BPCPNs and PCPNs obtained for them with the test scenarios. As an illustration, we describe Test cases 1, 2 and 11, with the input 8. http://dx.doi.org/10.17632/scrjyndpv6.1 (1,15,1,pA({ma=23,tm=1}))++ 1` (2,15,1,pA({ma=55,tm=1}))++ 1` (3,17,1,pC({mc=0,tm=1}))++ 1`(4,16,2,pB({mb=25,tm=2}))++ 1`(5,15,2,pA({ma=50,tm=2}))++ 1`(6,17,3,pC({mc=5,tm=3}))++ 1`(7,16,3,pB({mb=12,tm=3}))++ 1`(8,17,4,pC({mc=10,tm=4}))++ 1`(9,15,4,pA({ma=0,tm=4}))++ 1`(10,16,5,pB({mb=1,tm=5}))++ 1` (11,16,6,pB({mb=5,tm=6}))++ 1`(12,15,7,pA({ma=15,tm=7}))++ 1`(13,17,7,pC({mc=8,tm=7})) Fig. 17.…”
Section: Validationmentioning
confidence: 99%
See 1 more Smart Citation
“…All of these test cases can be found at this URL 8 , where the reader can find the graphical models created with MEdit4CEP-BPCPN, and the BPCPNs and PCPNs obtained for them with the test scenarios. As an illustration, we describe Test cases 1, 2 and 11, with the input 8. http://dx.doi.org/10.17632/scrjyndpv6.1 (1,15,1,pA({ma=23,tm=1}))++ 1` (2,15,1,pA({ma=55,tm=1}))++ 1` (3,17,1,pC({mc=0,tm=1}))++ 1`(4,16,2,pB({mb=25,tm=2}))++ 1`(5,15,2,pA({ma=50,tm=2}))++ 1`(6,17,3,pC({mc=5,tm=3}))++ 1`(7,16,3,pB({mb=12,tm=3}))++ 1`(8,17,4,pC({mc=10,tm=4}))++ 1`(9,15,4,pA({ma=0,tm=4}))++ 1`(10,16,5,pB({mb=1,tm=5}))++ 1` (11,16,6,pB({mb=5,tm=6}))++ 1`(12,15,7,pA({ma=15,tm=7}))++ 1`(13,17,7,pC({mc=8,tm=7})) Fig. 17.…”
Section: Validationmentioning
confidence: 99%
“…We also developed MEdit4CEP-CPN [10], an extension of MEdit4CEP that allows the user to define event patterns using the MEdit4CEP graphical editor, and then automatically transform them into PCPNs, thus obtaining the input files that can be immediately opened with CPN Tools. MEdit4CEP-CPN was then used in [11] as a computational intelligence modeldriven tool for the quantitative analysis of events of interest in the context of a specific application, the Sick Building Syndrome.…”
Section: Introductionmentioning
confidence: 99%