id,collection,dc.contributor.author,dc.date.accessioned,dc.date.available,dc.date.issued,dc.description.abstract,dc.identifier.doi,dc.identifier.eissn,dc.identifier.isbn,dc.identifier.issn,dc.identifier.uri,dc.language.iso,dc.localisation,dc.publisher,dc.rights,dc.rights.cc,dc.subject,dc.subject.hal,dc.title,dc.typdoc,ensam.audience,ensam.city,ensam.conference.date,ensam.conference.title,ensam.country,ensam.import.source,ensam.invitedCommunication,ensam.issue,ensam.journal,ensam.mappingcollection,ensam.page,ensam.peerReviewing,ensam.proceeding,ensam.title.proceeding,ensam.volume,ensam.workflow.metadataEdited,ensam.workflow.submissionConsumer,hal.author.function,hal.date.transferred,hal.identifier,hal.status,hal.submission.permitted,hal.version,workflow.import.source
"c5d0845a-b45b-4fc6-a010-ef015601b96e","10985/182||10985/6566","EL YOUSSEF, Mohamad||VAN GORP, Adrien||BENABOU, Abdelkader||FAVEROLLE, Pierre||MIPO, Jean-Claude||LAVALLEY, Yannick||COUR, Christiane||LECUPPE, Thomas||CLENET, Stephane","2021","2021","2017","The manufacturing of a slinky stator core is the result of a sequence of difference processes: straightening, punching, rolling….. It has been shown in the literature that manufacturing processes lead to a degradation of the magnetic properties. However, it is really difficult from the state of art to classify them a priori from the most influent to the less. In order to determine the most influent processes, it is necessary the evaluate quantitatively the impact of impact of each process. In this paper, A campaign of magnetic characterization is carried out on FeSi 1.3% specimens extracted after each process on the manufacturing line of a slinky stator. Samples have different shapes, so different characterization methods were used to determine the normal curves and total losses. Results show that the dispersion in raw material is quite important and depends on the level of induction. Straightening and training processes deteriorate the magnetic material properties and dispersion after both processes is higher than the raw material one. The effect of rolling and cutting are the most harmful compared to the other manufacturing processes, while the compacting process shows a benefic effect.","10.1109/iemdc.2017.8002159",,"9781509042814",,"http://hdl.handle.net/10985/20057","en","Centre de Lille","IEEE","Post-print","Pas de Licence CC","Slinky stator||Iron losses||Manufacturing process||Electrical steel||Magnetic measurements","Sciences de l'ingénieur","Slinky stator : The impact of manufacturing process on the magnetic properties","Communication avec acte","Internationale","Miami","2017-05-21","2017 IEEE International Electric Machines and Drives Conference (IEMDC)","Etats-Unis","crossref","Non",,,"10985/6566||10985/6566","1-8","Oui","Oui","2017 IEEE International Electric Machines and Drives Conference (IEMDC)",,"true",,"aut",,,"unsent",,,"crossref"
"01a31d2c-d1b6-4541-9388-b044cfe0d6f0","10985/182||10985/6566","EL YOUSSEF, Mohamad||VAN GORP, Adrien||BENABOU, Abdelkader||FAVEROLLE, Pierre||MIPO, Jean-Claude||CLENET, Stephane","2021","2021","2020","In this article, an experimental procedure is presented to handle magnetic measurements under uniaxial tensile stress reaching the plastic domain. The main advantage of the proposed procedure is that it does not require an additional magnetic core to close the magnetic flux path through the studied sample. The flux flows only in the sample, and no parasitic air gaps are introduced, thus avoiding the use of the H-coil to evaluate the magnetic field, which is often very sensitive and not easy to calibrate. A specimen of nonoriented FeSi (1.3%) sheet (M330-35A) is characterized under uniaxial tensile stress. To validate the proposed procedure, a comparison with the single sheet tester procedure is carried out. The results obtained by the two procedures are in good agreement. Moreover, to illustrate the possibilities offered by the proposed procedure, we confirm some results obtained in the literature. We show that the positive plastic strain leads to a significant degradation of magnetic behavior. An applied tensile stress on a virgin (unstrained) sample leads to a degradation of the magnetic behavior. However, on a pre-strained sample, an applied tensile stress results in reducing the deterioration caused by the plastic strain until a stress value called optimum is attained. Above this threshold, the magnetic behavior re-deteriorates progressively.","10.1515/phys-2020-0160",,,"2391-5471","http://hdl.handle.net/10985/20020","en","Centre de Lille","De Gruyter","Post-print","CC BY","Non-oriented FeSi steel||Magnetic characterization||Tensile stress||Plastic strain","Sciences de l'ingénieur","Experimental set up for magnetomechanical measurements with a closed flux path sample","Article dans une revue avec comité de lecture","Internationale",,,,,"crossref",,"1","Open Physics","10985/6566","517-525","Oui",,,"18","true","newSubmission","aut","2021-03-17T14:34:40Z","hal-03172216","accept","true","1","crossref"
"80faa024-0752-4e76-94c0-45fe245e2344","10985/182||10985/6566","EL YOUSSEF, Mohamad||VANGORP, Adrien||BENABOU, Abdelkader||FAVEROLLE, Pierre||MIPO, Jean-Claude||CLENET, Stephane","2021","2021","2021","In this paper, an experimental procedure is presented in order to handle magnetic measurements under uniaxial tensile stress reaching the plastic domain. The main advantage of the proposed procedure is that it does not require an additional magnetic core to close the magnetic flux path through the studied sample. The flux flows only in the sample and no parasitic airgaps are introduced, which avoids the use of H-coil to evaluate the magnetic field, often very sensitive and not easy to calibrate. A specimen of non-oriented (NO) FeSi (1.3%) sheet (M330-35A) is characterized under uniaxial tensile stress. In order to validate the proposed procedure, a comparison with the single sheet tester procedure is carried out. The results obtained by the two procedures are in a good agreement. Moreover, to illustrate the possibilities offered by the proposed procedure, we confirm some results met in the literature. We show that positive plastic strain leads to significant degradation of magnetic behavior. An applied tensile stress on a virgin (un-strained) sample leads to a magnetic behavior degradation. Whereas, on a pre-strained sample, an applied tensile stress results in reducing the deterioration caused by the plastic strain until a stress value called optimum. Above this threshold, the magnetic behavior re-deteriorates progressively.","10.1109/tec.2021.3050982","1558-0059",,"0885-8969","http://hdl.handle.net/10985/20058","en","Centre de Lille","Institute of Electrical and Electronics Engineers","Post-print","Pas de Licence CC","Electrical and Electronic Engineering||Energy Engineering and Power Technology||Strain||Magnetomechanical effects||Plastics||Magnetic properties||Magnetic flux||Lamination||Magnetic cores","Sciences de l'ingénieur","Improving global ferromagnetic characteristics of laminations by heterogeneous deformation","Article dans une revue avec comité de lecture","Internationale",,,,,"crossref",,,"IEEE Transactions on Energy Conversion","10985/6566","1-9","Oui",,,,"true",,"aut",,,"unsent",,,"crossref"
