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HOW DOES HUMAN-LIKE KNOWLEDGE COME INTO BEING IN ARTIFICIAL ASSOCIATIVE SYSTEMS?

Can we represent knowledge ?. HOW DOES HUMAN-LIKE KNOWLEDGE COME INTO BEING IN ARTIFICIAL ASSOCIATIVE SYSTEMS?. Adrian Horzyk horzyk@agh.edu.pl. AGH UNIVERSITY OF SCIENCE AND TECHNOLOGY Faculty of Electrical Engineering, Automatics, Computer Science and Biomedical Engineering

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HOW DOES HUMAN-LIKE KNOWLEDGE COME INTO BEING IN ARTIFICIAL ASSOCIATIVE SYSTEMS?

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  1. Can we representknowledge? HOW DOESHUMAN-LIKE KNOWLEDGECOME INTO BEING INARTIFICIAL ASSOCIATIVE SYSTEMS? Adrian Horzyk horzyk@agh.edu.pl AGH UNIVERSITY OF SCIENCE AND TECHNOLOGY Faculty of Electrical Engineering, Automatics,Computer Science and Biomedical Engineering Department of Automatics and Biomedical Engineering Unit of Biocybernetics POLAND, 30-059 CRACOW, MICKIEWICZA AV. 30

  2. Knowledgeallows to: • Rememberfacts, rules, objectsorclasses of them. • Consolidatevariousfacts and rulesaftertheirsimiliarities. • Associateobjects, facts, rules with contexts of theiroccurences. • Recallfacts and rulesusingcontext and associations. • Generalizeobjects, facts and rules. • Be creativeusinglearnedclasses of objects, facts and rules. HUMAN-LIKE KNOWLEDGE • Variousfacts and rulescan be associated and recalledthanks to: • Similaritiesof the data thatdefinethem. • Subsequencesof the data thatoccurinsidethem. Knowledge isactiveaggregation of data, facts and rulesthatcan be recalled and generalizedaccording to the context of theirrecalling. Human-likeknowledgecan be representedonly in reactivesystemsthatcanrepresentsuchnot redundantaggregations.

  3. Knowledge: • Isnot a set of facts, rules, objectsorclasses of them. • Isnokindof a computermemoryor a database. • Doesnotremembereverythingprecisely. • Cannot be collectedalike data, facts and rules but itcan be formed for givenorcollected data, facts and rules. • Cannot be easytransferedfrom one system to anotheralike data, databases, facts and rules etc. Onlypieces of information, facts and rulescan be transferedintoanother system. Can be partiallytransferedthroughrecalledfacts and rules. • Isnotlimitedto any set of facts, rulesorobjectsbecausenew, creativeinputcontextscanlead to newfacts, rules, notices, observations and remarks on the basis of the same knowledge. WHAT IS NOT KNOWLEDGE ? Knowledge can be automaticallyformedonly in specialsystemsthatallow to activellyassociateand aggregatedata, factsand rules, and theirvariouscombinations and sequences.

  4. Neuralassociativesystemsallows to: • Representvariousobjects, facts and rules in a unified form of data combinationsusingneurons. • Createclassesof representedobjectsafter most representativefeatures and theircombinations. • Triggerneuronsaccording to the context of otheractivatedneuronsorsensereceptors. • Use the contextof previouslyactivatedneuronsaccording to the timethathaselapsed from theiractivations. • Consolidate and combinevariousobjects, facts and rulesaftertheirsimiliarities and subsequences. • Associateobjects, facts, rules with contexts of theiroccurences. • Recallassociatedobjects, facts, rulesusingneworpreviouslyusedcontexts, questions etc. • Generalizeand evencreatenewobjects, facts and rules. NEURAL ASSOCIATIVE SYSTEMS

  5. Artificialassociativesystems: • Model biologicalneuralassociativesystems, nervoussystems etc. • Defineassociative model of neurons(as-neurons)thatareable to reproducecontext and timedependencies of biologicalneurons. • Can be simulated, trained and adapted on today’scomputers. • Canusevarioustraining data setand evensetsof trainingsequences. • Canreproducetrainingsequencesorcreatenewones- be creative! • Cangeneralizeatvariouslevels: ARTIFICIALASSOCIATIVE SYSTEMS ArtificialAssociative Systems and AssociativeArtificialIntelligence (Polish) Sequencelevel Object level

  6. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  7. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  8. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  9. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  10. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  11. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  12. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  13. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  14. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  15. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  16. Transformation of databasetablesintoassociativestructures ASSORTcreates the basisgraphstructure of associativesystems. TABLE Adrian Horzyk, horzyk@agh.edu.pl, AGH University of Science and Technology

  17. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  18. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  19. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  20. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  21. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  22. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  23. for trainingsequences: S1, S2, S3, S4, S5 ASSOCIATIVE NEURAL GRAPH CONSTRUCTION

  24. The externalexcitation of neuron E4 triggers the followingactivations of neurons: E4  E5  E2  E6 ASSOCIATIVE NEURAL GRAPH EVALUATION We gotsequence S2 as the answer for the externalexcitement of neuron E4:

  25. Neuralassociativestructure for the linguisticobjects THE SIMPLE NEURAL STRUCTURE OF THE CONSECUTIVE LINGUISTIC OBJECTSrepresenting 7 sentences

  26. Response to „Whatisknowledge?” • As-neuronsareconsecutivelyactivatedaftertrainingsequences and give the answers: • Knowledgeisfundamental for intelligence. • Knowledgeis not a set of facts and rules

  27. Associative model of neurons • AS-NEURON: • Works in timethatiscrucial for allassociativeprocessesin the network of connected as-neurons. • Modelsrelaxation and refractionprocesses of biologicalneurons • Relaxation – continuousgradualreturning to itsrestingstate • Refraction – gradualreturning to itsrestingstateafteractivation • Optimizesitsactivityresponcesfor input data combinationschosingonlythe the most intensiveand frequentsubset of them. • Conditionallyplasticallychangesitssize, synaptictransmission and connections to other as-neurons. • Canrepresentmanysimilar as well as quitedifferentcombinations of inputstimuli (data). ASSOCIATIVE MODEL OF NEURONS

  28. Knowledgecan be modelledusingartificialassociativesystems. • Training sequencescan be used to adaptartificialassociativesystems • Associativesystemssupplyus with ability to generalizeon variouslevels: • classescreated for objects • sequencesdescribingfacts and rules • Associativesystemscan be creativeaccording to the context, whichcanrecallnewassociations. CONCLUSION

  29. ? Theory of neural associativecomputationsand knowledge engineeringin the associativesystems Questions? Remarks? ArtificialAssociative Systems and AssociativeArtificialIntelligence (Polish) Google: Horzyk Adrian horzyk@agh.edu.pl

  30. We canmakeour World a better place to live!

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