Please use this identifier to cite or link to this item: http://dspace.univ-tiaret.dz:80/handle/123456789/11585
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dc.contributor.authorMEBARKI, Sakhr-
dc.contributor.authorMOUSSAOUI, Abdelhai-
dc.date.accessioned2023-05-16T08:10:56Z-
dc.date.available2023-05-16T08:10:56Z-
dc.date.issued2017-06-
dc.identifier.urihttp://dspace.univ-tiaret.dz:80/handle/123456789/11585-
dc.descriptionThe evolution of technologies leads to the use of machines requiring precise and variable speeds for variable speed drive. The main advantage of dc machines lies in their simple adaptation to the means for adjusting or varying their speed, torque and direction of rotation as well as their direct connection to a source of energy (batteries, Batteries, etc.). In spite of their main problem in the connection between the brushes or "charcoals" and the rotary collector, the DC motor continues to exist through many applications. In this work, we present several studies of the DC motor, then the technique of speed variation associated with a four-quadrant chopper, and finally the simulation of our model on simulation software «Proteus» «LabVIEW» and Realization of a control circuit with the Arduino boarden_US
dc.description.abstractevolution of technologies leads to the use of machines requiring precise and variable speeds for variable speed drive for example. The main advantage of dc machines lies in their simple adaptation to the means for adjusting or varying their speed, torque and direction of rotation as well as their direct connection to a source of energy (batteries, Batteries, etc.). In spite of their main problem in the connection between the brushes or "charcoals" and the rotary collector, the DC motor continues to exist through many applications. In this work, we present several studies of the DC motor, then the technique of speed variation associated with a four-quadrant chopper, and finally the simulation of our model on simulation software «Proteus» «LabVIEW» and Realization of a control circuit with the Arduino board. Résumé : L’évolution des technologies conduit à utiliser des machines nécessitant des vitesses de rotation précises et variables pour l'entrainement à vitesse. L'avantage principal des machines à courant continu réside dans leur adaptation simple aux moyens permettant de régler ou de faire varier leur vitesse, leur couple et leur sens de rotation ainsi que leur raccordement direct à une source d'énergie (batteries d'accumulateur, piles, etc.). Malgré leur principal problème qui se pose au niveau de la liaison entre les balais, ou « charbons » et le collecteur rotatif, le moteur à courant continu continue d’exister à travers de nombreuses applications. Dans ce travail, on présente plusieurs l’étude du moteur à courant continu, puis la technique de la variation de vitesse associé à un hacheur à quatre quadrants, et enfin la simulation de notre modèle sur logiciel de simulation « Proteus » « LabVIEW» et réalisation d’un circuit de commande avec la carte Arduino.en_US
dc.language.isofren_US
dc.publisherUniversité Ibn Khaldounen_US
dc.subjectMachine à courant continuen_US
dc.subjectles convertisseurs statiquesen_US
dc.subjectla technique MLIen_US
dc.subjectLabVIEWen_US
dc.titleCommande d’un hacheur à quatre quadrants sous l’environnement LabVIEW Arduinoen_US
dc.typeThesisen_US
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1._page de gard.pdf206,14 kBAdobe PDFView/Open
8.Introduction G.pdf184,38 kBAdobe PDFView/Open
11.Chapiter 1_corrigé.pdf737,49 kBAdobe PDFView/Open
13.Chapiter 2_corrigé.pdf952,42 kBAdobe PDFView/Open
15.Chapiter 3_cor1 (Réparé) (2).pdf2,2 MBAdobe PDFView/Open
17.Conclusion G.pdf259,27 kBAdobe PDFView/Open
22.Abstrac.pdf265,2 kBAdobe PDFView/Open
4.Sommaire.pdf174,18 kBAdobe PDFView/Open


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