This file was created by the TYPO3 extension bib --- Timezone: CET Creation date: 2019-12-14 Creation time: 20-04-54 --- Number of references 41 article kenzari_additive_2014 Journal of Materials Processing Technology 2014 214 12 3108--3111 Centre de Compétences : Matériaux et Procédés additifs Additive manufacturing, Complex metallic alloys, Icosahedral Al–Cu–Fe–B, Phase transformations SamuelKenzari DavidBonina Jean-MarieDubois VincentFournee article ISI:000342245500029 JOURNAL OF MATERIALS PROCESSING TECHNOLOGY 2014 214 12 3108-3111 Département CP2S : Métallurgie et Surfaces 0924-0136 10.1016/j.jmatprotec.2014.07.011 SamuelKenzari DavidBonina Jean-MarieDubois VincentFournee article Wegrowe2014 Physical Review B - Condensed Matter and Materials Physics 2014 89 9 Département P2M : Nanomagnétisme et Electronique de Spin http://www.scopus.com/inward/record.url?eid=2-s2.0-84897834175&partnerID=40&md5=b5ecbbf1a3867f2b77a47624b0c93b73 J.-E.Wegrowe H.-J.Drouhin D.Lacour article 201-4445 Applied Physics Letters 2014 105 181120-181124 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1063/1.4901440 M.Desecures L.de Poucques T.Easwarakhanthan J.Bougdira article Djaziri:2014 Journal of Applied Physics 2014 116 093504 Département SI2M : Microstructures et Contraintes 10.1063/1.4894616 S.Djaziri P.-O.Renault E.Le Bourhis Ph.Goudeau D.Faurie G.Geandier C.Mocuta D.Thiaudière article ISI:000336264800009 SCIENCE AND TECHNOLOGY OF ADVANCED MATERIALS 2014 15 2 Département CP2S : Métallurgie et Surfaces 1468-6996 10.1088/1468-6996/15/2/024802 SamuelKenzari DavidBonina Jean MarieDubois VincentFournee article kenzari_complex_2014 Science and Technology of Advanced Materials 2014 15 2 024802 Centre de Compétences : Matériaux et Procédés additifs SamuelKenzari DavidBonina Jean MarieDubois VincentFournee article CP2S022 Chemistry of Materials 2014 26 16 4765-4775 We present a detailed study of the evolution of the electrical, galvanomagnetic, and thermodynamic properties of polycrystalline AgxMo9Se11 compounds for 3.4 ? x ? 3.8 at low temperatures (2?350 K). In agreement with density functional theory calculations, the collected data show an overall gradual variation in the transport properties from metallic to semiconducting behavior on going from x = 3.4 to 3.8. The results evidence subtle variations in the electronic properties with the Ag content, typified by both positive and negative phonon-drag effects together with thermopower and Hall coefficient of opposite signs. Analysis of the data suggests that these features may be due to peculiarities of the dispersion of the valence bands in the vicinity of the chemical potential. A drastic influence of the Ag content on the thermal transport was evidenced by a pronounced change in the temperature dependence of the specific heat below 10 K. Nonlinearities in the Cp(T3) data are correlated to the concentration of Ag atoms, with an increase in x resulting in a more pronounced departure from a Debye law. The observed behavior mirrors that of ionic conductors, suggesting that AgxMo9Se11 for x ? 3.6 might belong to this class of compounds. Département CP2S : Chimie et électrochimie des matériaux T.ZHOU M.COLIN C.CANDOLFI C.Boulanger A.DAUSCHER E.Santava J.HEJTMANEK P.BARANEK R.AL RAHAL AL ORABI M.POTEL B.Fontaine P.GOUGEON R.Gautier B.LENOIR article ISI:000330735200004 METALLURGICAL AND MATERIALS TRANSACTIONS B-PROCESS METALLURGY AND MATERIALS PROCESSING SCIENCE 2014 45 1 13-21 Gas-stirring ladle treatment of liquid metal has been pointed out for a long time as the processing stage is mainly responsible for the inclusion population of specialty steels. A steel ladle is a complex three-phase reactor, where strongly dispersed inclusions are transported by the turbulent liquid metal/bubbles flow. We have coupled a population balance model with CFD in order to simulate the mechanisms of transport, aggregation, flotation, and surface entrapment of inclusions. The simulation results, when applied to an industrial gas-stirring ladle operation, show the efficiency of this modeling approach and allow us to compare the respective roles of these mechanisms on the inclusion removal rate. The comparison with literature reporting data emphasizes the good prediction of deoxidating rate of the ladle. On parallel, a simplified zero-dimensional model has been set-up incorporating the same kinetics law for the aggregation rate and all the removal mechanisms. A particular attention has been paid on the averaging method of the hydrodynamics parameters introduced in the flotation and kinetics kernels. Centre de Compétences : ERMIONE informatique et calcul 1073-5615 10.1007/s11663-013-9940-7 Jean-PierreBellot ValerioDe Felice BernardDussoubs AlainJardy StephaneHans article 201-4352 Oxidation of Metals 2014 82 163-179 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1007/s11085-014-9484-5 E.K. Tillous J.Dulcy T.Belmonte article 201-4342 Journal of Physics D: Applied Physics 2014 47 205201 The electron temperature and electron density are measured in a microwave (MW) plasma-assisted chemical vapour diamond deposition reactor for different experimental conditions by varying the substrate temperature, methane content and MW power density. Optical emission spectroscopy (OES) and MW interferometry are used to probe the discharge generated in a stainless steel resonant cavity excited at a frequency of 2.45 GHz. Changing the substrate temperature from 630 to 900 ?C does not show any significant influence on the electron temperature or on the electron density. Increasing the methane content from 0 to 10% does not lead to any modification of the electron temperature or density. However between 10% and 20% CH, a decrease of the electron density is observed which may be attributed to soot particle formation. The electron density increases in the range of (1.2-10) x 1011 cm-3 from moderate power density conditions (50 hPa/1000 W) to high power density conditions (250 hPa/3500 W). OES measurements show that the electron temperature exhibits a flat axial profile in the plasma bulk and ranges from 14 000K at (25 hPa/600 W) to 10 500K at (400 hPa/3000 W). Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1088/0022-3727/47/20/205201 N.Derkaoui C.Rond T.Gries G.Henrion A.Gicquel article CP2S007 Applied Catalysis., B 2014 146 279-288 Metallophyte plants derived from phytoextn. are used as starting materials to prep. novel polymetallic catalysts. Polymetallic catalyst activity is used in many Lewis acid catalyzed reactions according to the polymetallic catalyst prepn. The synergetic catalysis of these systems leads to efficient syntheses of complex biomols. such as dihydropyrimidinone, 5'-capped DNA and RNA, and glycosyl aminoacid. These new polymetallic catalysts also bring new possibilities in Green Catalysis, that we named "Ecol. Catalysis". [on SciFinder(R)] Département CP2S : Chimie et électrochimie des matériaux VincentEscande LaetitiaGaroux ClaireGrison YannThillier FrancoiseDebart Jean-JacquesVasseur ClothildeBoulanger ClaudeGrison article CP2S019 Electrochimica Acta 2014 137 586-594 Abstract In this paper, we report the electrodeposition of stoichiometric Bi2Te3 compound using an ionic liquid binary mixture: 1-ethyl-1-octyl-piperidinium bis(trifluoromethylsulfonyl)imide: 1-ethyl-1-octyl-piperidinium bromide (EOPipTFSI:EOPipBr 95:5 (mol%)). The use of this mixture allows to reach a higher solubility of Bi(III) and Te(IV) precursors compared to pure EOPipTFSI ionic liquid in which Te(IV) salts are not soluble. Moreover, this electrolyte presents an extended cathodic stability, allowing the study of electrochemical processes that occur at high cathodic potential values. A detailed voltammetric study of electrochemical systems was performed for electrolytes containing different [Bi(III)]/[Te(IV)] ratio, allowing the attribution of cathodic signals to electrochemical processes. Experimental conditions leading to the deposition of stoichiometric Bi2Te3 were then determined by varying deposition potential and electrolyte composition, using potentiostatic experiments followed by XRD and SEM-EDX analysis. By varying the concentration of precursors in the electrolyte, mirror-like coatings, adherent and homogeneous, were obtained. Electroplated Bi2Te3 presents n-type conductivity with a Seebeck coefficient equal to ?70 ?V K?1 and an electrical resistivity of 133 ?? m. Département CP2S : Chimie et électrochimie des matériaux Bismuth telluride Ionic liquid Electrodeposition Thermoelectricity JonathanSzymczak SophieLegeai StéphanieMichel SébastienDiliberto NicolasStein ClotildeBoulanger article ISI:000342544700008 ACTA PHYSICA POLONICA A 2014 126 2 453-457 Département CP2S : Métallurgie et Surfaces 0587-4246 J. -M.Dubois E.Belin-Ferré article ISI:000331477800037 NATURE 2014 506 7488 349-354 Département P2M : Surfaces et Spectroscopies 0028-0836 10.1038/nature12952 JensBaringhaus MingRuan FrederikEdler AntonioTejeda MurielSicot AminaTaleb-Ibrahimi An-PingLi ZhigangJiang Edward H.Conrad ClaireBerger ChristophTegenkamp Walt A.de Heer article ISI:000339380700007 SCIENCE AND TECHNOLOGY OF ADVANCED MATERIALS 2014 15 3 Département CP2S : Métallurgie et Surfaces 1468-6996 10.1088/1468-6996/15/3/034804 Jean-MarieDubois EstherBelin-Ferre article Geandier:2014b Journal of heat treatments and materials 2014 69 54--59 Département SI2M : Microstructures et Contraintes 10.3139/105.110206 G.Geandier M.Dehmas M.Mourot E.Aeby-Gautier S.Denis O.Martin N.Karnatak article Esin:2014 Acta Materialia 2014 80 118--131 Département SI2M : Microstructures et Contraintes http://dx.doi.org/10.1016/j.actamat.2014.07.042 Elsevier BV 1359-6454 10.1016/j.actamat.2014.07.042 V.A.Esin B.Denand Q.Le Bihan M.Dehmas J.Teixeira G.Geandier S.Denis T.Sourmail E.Aeby-Gautier article Gangineni2014 Applied Physics Letters 2014 104 18 Département P2M : Nanomagnétisme et Electronique de Spin http://www.scopus.com/inward/record.url?eid=2-s2.0-84900419454&partnerID=40&md5=6f5d85784d1f746a330c6f129191ac44 R.B.Gangineni C.Bellouard A.Duluard B.Negulescu C.Baraduc G.Gaudin C.Tiusan article Perevoshchikova2014 Computational Materials Science 2014 82 151-158 Département SI2M : Microstructures et Contraintes http://dx.doi.org/10.1016/j.commatsci.2013.09.047 Elsevier 10.1016/j.commatsci.2013.09.047 NataliyaPerevoshchikova BenoitAppolaire JulienTeixeira ElisabethAeby-Gautier SabineDenis article Schleicher2014 Nature Communications 2014 5 Département P2M : Nanomagnétisme et Electronique de Spin http://www.scopus.com/inward/record.url?eid=2-s2.0-84905482337&partnerID=40&md5=4ccbc88e193e7e394072da0990df284a F.Schleicher U.Halisdemir D.Lacour M.Gallart S.Boukari G.Schmerber V.Davesne P.Panissod D.Halley H.Majjad Y.Henry B.Leconte A.Boulard D.Spor N.Beyer C.Kieber E.Sternitzky O.Cregut M.Ziegler F.Montaigne E.Beaurepaire P.Gilliot M.Hehn M.Bowen article Vernier2014 Applied Physics Letters 2014 104 12 Département P2M : Nanomagnétisme et Electronique de Spin http://www.scopus.com/inward/record.url?eid=2-s2.0-84897433156&partnerID=40&md5=bffcab599ba4f127bb019885b83d3d19 N.Vernier J.-P.Adam S.Eimer G.Agnus T.Devolder T.Hauet B.Ocker F.Garcia D.Ravelosona article CP2S017 Surface and Coatings Technology 2014 Abstract The surface of the AISI 420 martensitic stainless steel was subjected to High Current Pulsed Electron Beam (HCPEB) treatment. The microstructure in the melted layer consisted of a three phase mixture: (i) fine ?-Fe grains formed via epitaxial growth from the substrate, (ii) larger ?–grains nucleated from the top surface of the melt and (iii) some needles-like variants issued from the solid state martenitic transformation. Despite this complex multi-phase microstructure, the corrosion performance, tested in a sulfuric acid solution, was significantly enhanced by the HCPEB treatment. The increase in corrosion potential and delayed pitting are essentially attributed to an increase in Cr content, rising from 13.3 wt. % in the bulk to about 14 wt. % at the surface, together with a very limited amount of surface craters. This low density of craters did not give rise to significant deep hardening in the sub-surface but the top surface melted layer hardness was increased by more than 50% because of the triggering of the martensitic transformation. Département CP2S : Chimie et électrochimie des matériaux High Current Pulsed Electron Beam Treatment (HCPEB) Surface hardening Corrosion Phase selection Phase transformation Martensitic steel Y.Samih G.Marcos N.Stein N.Allain E.Fleury C.Dong T.Grosdidier article 201-4381 Surface and Coatings Technology 2014 259 737-745 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1016/j.surfcoat.2014.09.065 Y.Samih G.Marcos N.Stein N.Allain E.Fleury C.Dong T.Grosdidier article 201-4443 Plasma Processes and Polymers 2014 11 551-558 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1002/ppap.201300166 M.Belmahi S.Bulou A.Thouvenin L.de Poucques R.Hugon L.Le Brizoual P.Miska D.Genève J.-L.Vasseur J.Bougdira article ISI:000332422500007 PHYSICAL REVIEW B 2014 89 8 Département CP2S : Métallurgie et Surfaces 1098-0121 10.1103/PhysRevB.89.085428 H. I.Li G. J. P.Abreu A. K.SHUKLA V.Fournee J.Ledieu L. N. SerkovicLoli S. E.Rauterkus M. V.Snyder S. Y.Su K. E.Marino R. D.DIEHL article 201-4350 Applied Surface Science 2014 311 721-728 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1016/j.apsusc.2014.05.145 N.D. Boscher S.Olivier R.Maurau S.Bulou T.Sindzingre T.Belmonte P.Choquet article 201-4444 Carbon 2014 76 330-340 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1016/j.carbon.2014.04.084 X.Glad L.de Poucques J.A. Jaszczak M.Belmahi J.Ghanbaja J.Bougdira article Jeanmaire:2014 Materials Characterization 2014 98 193-201 Département SI2M : Microstructures et Contraintes http://dx.doi.org/10.1016/j.matchar.2014.11.001 Elsevier BV 1044-5803 10.1016/j.matchar.2014.11.001 G.Jeanmaire M.Dehmas A.Redjaïmia S.PUECH G.Fribourg article ISI:000341271100006 PHYSICAL REVIEW LETTERS 2014 113 10 Département CP2S : Métallurgie et Surfaces 0031-9007 10.1103/PhysRevLett.113.106101 R. D.DIEHL H. I.Li S. Y.Su A.Mayer N. A.Stanisha J.Ledieu K. R. J.Lovelock Robert G.Jones A.Deyko L. H.Wearing R.McGrath A.Chaudhuri D. P.Woodruff article kenzari_quasicrystal-polymer_2014 Acta Physica Polonica A 2014 126 2 449--452 Centre de Compétences : Matériaux et Procédés additifs SKenzari DBonina ADegiovanni JMDubois VFournée article ISI:000342544700007 ACTA PHYSICA POLONICA A 2014 126 2 449-452 Département CP2S : Métallurgie et Surfaces 0587-4246 S.Kenzari D.Bonina A.Degiovanni J. M.Dubois V.Fournee article Grosseau-Poussard:2014 Advances in Science and Technology 2014 91 100???107 Département SI2M : Microstructures et Contraintes http://dx.doi.org/10.4028/www.scientific.net/AST.91.100 Trans Tech Publications 1662-0356 10.4028/www.scientific.net/ast.91.100 Jean LucGrosseau-Poussard MathieuGuerain PhilippeGoudeau GuillaumeGeandier BenoitPanicaud NobumichiTamura MartinKunz CatherineDejoie Jean SebastienMicha article ISI:000333539400015 ACS NANO 2014 8 3 1969-1971 Département P2M : Surfaces et Spectroscopies 1936-0851 10.1021/nn500322r MarcoDi Giovannantonio MohamedEl Garah JoshLipton-Duffin VincentMeunier LuisCardenas YannickFagot-Revurat AlbanoCossaro AlbertoVerdini Dmitrii F.Perepichka FedericoRosei GiorgioContini article 201-4380 ECS Electrochemistry Letters 2014 39 D33-D35 Département CP2S : Expériences et Simulations des Plasmas Réactifs - Interaction plasma-surface et Traitement des Surfaces ESPRITS 10.1149/2.0011410eel L.Exbrayat E.Calvié T.Douillard G.Marcos C.Savall C.Berziou J.Creus P.Steyer article ISI:000334990600058 ACS NANO 2014 8 4 3646-3653 Département CP2S : Métallurgie et Surfaces 1936-0851 10.1021/nn500234j VincentFournee EmilieGaudry JulianLedieu Marie-Cecilede Weerd DongmeiWu ThomasLograsso article ISI:000340658000004 PHYSICAL REVIEW B 2014 89 24 Département CP2S : Métallurgie et Surfaces 1098-0121 10.1103/PhysRevB.89.245428 HeekeunShin A.Schwarze R. D.DIEHL K.PUSSI A.Colombier E.Gaudry J.Ledieu G. M.McGuirk L. N. SerkovicLoli V.Fournee L. L.Wang G.Schull R.Berndt article ISI:000341987600031 JOURNAL OF CHEMICAL PHYSICS 2014 141 8 Département CP2S : Métallurgie et Surfaces 0021-9606 10.1063/1.4892408 G. M.McGuirk J.Ledieu E.Gaudry M. -C.de Weerd V.Fournee article ISI:000338515900064 APPLIED PHYSICS LETTERS 2014 104 Centre de Compétences : X-Gamma rayons X et spectroscopie 0003-6951 10.1063/1.4885354 A.Neggache T.Hauet F.Bertran P.Le Fèvre S.Petit-Watelot T.Devolder P.Ohresser P.Boulet C.Mewes S.Maat J. R.Childress S.Andrieu article Leroy2014 Physical Review B - Condensed Matter and Materials Physics 2014 90 3 Département P2M : Nanomagnétisme et Electronique de Spin http://www.scopus.com/inward/record.url?eid=2-s2.0-84904863830&partnerID=40&md5=b40e0b037c5507c25b669bff7f44364a M.-A.Leroy A.M.Bataille B.Dkhil F.Porcher A.Barbier V.L.R.Jacques Y.Lu C.Bellouard T.Hauet S.Ravy J.Herrero-Martin C.Gatel K.Bouzehouane A.Gukasov S.Andrieu C.Tiusan article CP2S015 Journal Electronic Materials 2014 43 10 3857-3862 Département CP2S : Chimie et électrochimie des matériaux Bismuth telluride thick films soluble anode thermoelectric M.Maas S.Diliberto C.de Vaulx K.Azzouz C.Boulanger