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dc.contributor.editorĆwik, Jacek
dc.date.accessioned2021-05-01T15:09:09Z
dc.date.available2021-05-01T15:09:09Z
dc.date.issued2021
dc.identifierONIX_20210501_9783036501383_157
dc.identifier.urihttps://directory.doabooks.org/handle/20.500.12854/68411
dc.description.abstractThis Special Issue collects ten articles related to the broadly understood physical properties of intermetallic compounds. Differential thermal analysis was carried out, and the temperatures of thermal effects that arise during the reduction of neodymium from a technological salt mixture of KCl–NaCl–CaCl2–NdF3 with a magnesium–zinc alloy were established. For sol–gel products of stoichiometric MgTiO3, accurate thermal expansion coefficients were measured. The effect of various nanoparticles, such as GaF3, ZnF2, Zn(BF4)2 and Ga2O3 additions, on the activity of CsF-RbF-AlF3 flux and mechanical behavior of Al/Steel brazed joints is presented. The effect of Bi substitution on the structural and magnetic properties of Nd1-xBixMnO3 is investigated. Characteristics of hard magnetic materials based on Nd2Fe14B and Ce2Fe14B intermetallic compounds are presented. A special algorithm is presented to support vector regression for estimating the maximum magnetic entropy change of doped manganite-based compounds. We have received information about the mechanical properties of the reactively synthesized porous Ti3SiC2 compound with different apertures. Furthermore, we have presented the experimental results of Zn-doped Al-rich for fast on-board hydrogen production.
dc.languageEnglish
dc.subject.classificationthema EDItEUR::T Technology, Engineering, Agriculture, Industrial processes::TB Technology: general issues::TBX History of engineering and technologyen_US
dc.subject.otherTi3SiC2
dc.subject.otherintermetallic compound
dc.subject.otherporous material
dc.subject.othermechanical property
dc.subject.otherpore size
dc.subject.otherelastic modulus
dc.subject.otherAl-rich alloy
dc.subject.otherhydrogen generation
dc.subject.otherZn addition
dc.subject.otherGa2O3
dc.subject.otherflux
dc.subject.otherZn-Al filler metal
dc.subject.otherwettability
dc.subject.otherspreadability
dc.subject.othermagnetocaloric effect
dc.subject.othersupport vector regression
dc.subject.otherextreme learning machine
dc.subject.othermaximum magnetic entropy change
dc.subject.othergravitational search algorithm
dc.subject.otherGaF3
dc.subject.otherCsF-AlF3 flux
dc.subject.otherR-Fe-B intermetallics
dc.subject.othercerium
dc.subject.otherpermanent magnets
dc.subject.othersimulation
dc.subject.othermagnetic anisotropy constant
dc.subject.otherhysteresis loop
dc.subject.othercoercive force
dc.subject.otherresidual magnetization
dc.subject.otherX-ray diffraction
dc.subject.otherperovskites manganites
dc.subject.otherAC magnetic susceptibility
dc.subject.otherZnF2
dc.subject.otherZn(BF4)2
dc.subject.othermechanical properties
dc.subject.otherMgTiO3
dc.subject.othergeikielite
dc.subject.otherhigh-temperature X-ray diffraction
dc.subject.othersol-gel technique
dc.subject.otherthermal expansion
dc.subject.othermagnesium–zinc–neodymium master alloy
dc.subject.otherMg–Zn–Nd
dc.subject.othermagnesium master alloy
dc.subject.othermagnesium
dc.subject.otherrare-earth metals
dc.subject.othermaster alloy synthesis
dc.subject.othermetallothermic reduction
dc.subject.othern/a
dc.titleIntermetallic Compound
dc.typebook
oapen.identifier.doi10.3390/books978-3-0365-0139-0
oapen.relation.isPublishedBy46cabcaa-dd94-4bfe-87b4-55023c1b36d0
oapen.relation.isbn9783036501383
oapen.relation.isbn9783036501390
oapen.pages138
oapen.place.publicationBasel, Switzerland


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