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| Ultima descărcare din IBN: 2024-01-03 05:54 |
 SM ISO690:2012BĂRBAT, Boldur-Eugen, FILIP, Florin Gheorghe. Cybernetic Modelling. Proof-of-Concept Example. In: Microelectronics and Computer Science, Ed. 9, 19-21 octombrie 2017, Chisinau. Chișinău, Republica Moldova: Universitatea Tehnică a Moldovei, 2017, Ediția 9, pp. 239-242. ISBN 978-9975-4264-8-0. |
| EXPORT metadate: Google Scholar Crossref CERIF DataCite Dublin Core |
| Microelectronics and Computer Science Ediția 9, 2017 |
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Conferința "Microelectronics and Computer Science" 9, Chisinau, Moldova, 19-21 octombrie 2017 | ||||||
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Continuing the preceding paper [5], this one illustrates Cybernetic Modelling , applying it to biologic stability. A Lotka Volterra model for preda tor prey spe cies is employed to (discrete time) modelling homeostasis with hysteretic delay , simulating (macrochronic) stability of simple cybernetic (Barkhausen loop) systems . NL capability is achieved replacing differential equations by iterative loops (with polysemantic time granularity) and employing ( some ) non numeric mathematics . The modelling subspecies is evaluated from both transdisciplinary bridge legs : software engineering (undemanding yet flexible post industrial apparatus ) and biology/ecology (versatile (field or laboratory) research tool , with user friend ly interface, allowing to write “What if” scenarios for handling (over)simplified ecologic (sub) systems in their real world habitats ) . |
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| Cuvinte-cheie biologic stability (Lotka Volterra model), c ybernetic m odel ling (CyMo), non algorithmic software, non numeric mathematics, service oriented engineering |
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DataCite XML Export
<?xml version='1.0' encoding='utf-8'?> <resource xmlns:xsi='http://www.w3.org/2001/XMLSchema-instance' xmlns='http://datacite.org/schema/kernel-3' xsi:schemaLocation='http://datacite.org/schema/kernel-3 http://schema.datacite.org/meta/kernel-3/metadata.xsd'> <creators> <creator> <creatorName>Bărbat, B.</creatorName> <affiliation>Academia Româna, România</affiliation> </creator> <creator> <creatorName>Filip, F.</creatorName> <affiliation>Academia Româna, România</affiliation> </creator> </creators> <titles> <title xml:lang='en'>Cybernetic Modelling. Proof-of-Concept Example</title> </titles> <publisher>Instrumentul Bibliometric National</publisher> <publicationYear>2017</publicationYear> <relatedIdentifier relatedIdentifierType='ISBN' relationType='IsPartOf'>978-9975-4264-8-0</relatedIdentifier> <subjects> <subject>biologic stability (Lotka Volterra model)</subject> <subject>c ybernetic m odel ling (CyMo)</subject> <subject>non algorithmic software</subject> <subject>non numeric mathematics</subject> <subject>service oriented engineering</subject> </subjects> <dates> <date dateType='Issued'>2017</date> </dates> <resourceType resourceTypeGeneral='Text'>Conference Paper</resourceType> <descriptions> <description xml:lang='en' descriptionType='Abstract'><p><strong>Continuing </strong> <strong>the preceding </strong> <strong>paper </strong> <strong>[5], </strong> <strong>this one </strong> <strong>illustrates </strong> <strong><em>Cybernetic Modelling</em></strong> <strong>, </strong> <strong>applying it to </strong> <strong>biologic stability. </strong> <strong>A Lotka</strong> <strong>Volterra model </strong> <strong>for preda</strong> <strong>tor</strong> <strong>prey spe</strong> <strong>cies </strong> <strong>is employed </strong> <strong>to </strong> <strong>(discrete</strong> <strong>time) </strong> <strong>modelling </strong> <strong>homeostasis with hysteretic </strong> <strong>delay</strong> <strong>, </strong> <strong>simulating (macrochronic) stability of simple cybernetic </strong> <strong>(Barkhausen loop) </strong> <strong>systems</strong> <strong>. </strong> <strong>NL</strong> <strong>capability is </strong> <strong>achieved replacing differential equations </strong> <strong>by </strong> <strong>iterative loops </strong> <strong>(with polysemantic time </strong> <strong>granularity) </strong> <strong>and </strong> <strong>employing </strong> <strong>(</strong> <strong>some</strong> <strong>) </strong> <strong>non</strong> <strong>numeric mathematics</strong> <strong>. </strong> <strong>The modelling subspecies is evaluated from </strong> <strong>both transdisciplinary bridge </strong> <strong>legs</strong> <strong>: </strong> <strong><em>software engineering </em></strong> <strong>(undemanding yet flexible </strong> <strong>post</strong> <strong>industrial </strong> <strong>apparatus</strong> <strong>) </strong> <strong>and </strong> <strong><em>biology/ecology </em></strong> <strong>(versatile (field or laboratory) research </strong> <strong>tool</strong> <strong>, with user</strong> <strong>friend</strong> <strong>ly interface, allowing to </strong> <strong>write </strong> <strong>“What</strong> <strong>if” </strong> <strong>scenarios for handling </strong> <strong>(over)simplified </strong> <strong>ecologic </strong> <strong>(sub)</strong> <strong>systems in </strong> <strong>their </strong> <strong>real</strong> <strong>world habitats</strong> <strong>)</strong> <strong>. </strong> </p></description> </descriptions> <formats> <format>application/pdf</format> </formats> </resource>
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