FRINK Linked Data Fragments server

Matches in SemOpenAlex for { <https://semopenalex.org/work/W2327005335> ?p ?o ?g. }

• W2327005335 abstract "Reactive Melt Infiltration (RMI) is a process that may be used for the manufacture of ceramic-matrix composites in which a molten metal such as silicon infiltrates a porous substrate. The infiltration is driven by capillary forces and by the structural geometry of the porous substrate. In the case where the substrate contains carbon, molten silicon may react with it to form a silicon carbide phase. Consequently, the geometry and associated properties such as porosity and permeability evolve during the capillary rise. Competition between capillary rise and reaction may lead to a choking off effect that should be avoided. Capillary rise may be simulated with macroscopic models derived from Darcy's [e.g., Nelson 2000, Sangsuwan 1999], Washburn's [e.g., Muscat 1994, Yang 2000] or Richards' [e.g., Einset 1996-a, 1996-b, 1998] laws which require the knowledge of permeability (identified against Dullien's [1977] and Patro's [2007] models). As pointed out by Dullien [1977], in pore networks there are parallel paths, so the rate of capillary rise is calculated in a single tube with periodic stepwise changes in diameter. In each portion of the tube a Poiseuille flow is considered. These models reveal that the apparent capillary diameter for the rate of capillary rise is several orders of magnitude smaller than the pore diameter corresponding to the peak of the mercury intrusion porosimetry curve. The permeability is considered to be proportional to the apparent diameter calculated from the rate of capillary rise due to the capillary network model of the pore structure used. In order to determine the characteristic scales responsible for capillary rise in granular media, a microscopic investigation on organized geometries was undertaken. Simulations of two-phase flows with a Volume Of Fluid approach at microscopic scale were investigated with CFD code Thetis (developed at I2M, Bordeaux) that accounts for wetting and capillary effects on objects with a complex shape. The characteristic data were used in Einset's macroscopic model. This model is based on conservation laws (quantity of silicon, energy, free volume). In Einset's original model [1996-a, 1996-b, 1998], the source term for the reaction between molten silicon and carbon is linked to the velocity of the front, so choking off effect cannot be properly described. Consequently, Einset's model was modified to take into account an explicit reactive law. The simplest choice is to assume a first order reaction rate for silicon saturation in the porous medium. Results of different simulations are discussed." @default.
• W2327005335 created "2016-06-24" @default.
• W2327005335 creator A5006772030 @default.
• W2327005335 creator A5014701277 @default.
• W2327005335 creator A5014972934 @default.
• W2327005335 creator A5032920088 @default.
• W2327005335 creator A5036173945 @default.
• W2327005335 creator A5058988380 @default.
• W2327005335 date "2015-01-01" @default.
• W2327005335 modified "2023-09-25" @default.
• W2327005335 title "SIMULATION OF REACTIVE MELT INFILTRATION FOR THE MANUFACTURE OF CERAMIC MATRIX COMPOSITES" @default.
• W2327005335 cites W1982459523 @default.
• W2327005335 cites W2020416301 @default.
• W2327005335 cites W2066976595 @default.
• W2327005335 cites W2077258565 @default.
• W2327005335 cites W2100589664 @default.
• W2327005335 cites W2109039402 @default.
• W2327005335 doi "https://doi.org/10.1615/ichmt.2015.intsympadvcomputheattransf.710" @default.
• W2327005335 hasPublicationYear "2015" @default.
• W2327005335 type Work @default.
• W2327005335 sameAs 2327005335 @default.
• W2327005335 citedByCount "1" @default.
• W2327005335 countsByYear W23270053352020 @default.
• W2327005335 crossrefType "proceedings-article" @default.
• W2327005335 hasAuthorship W2327005335A5006772030 @default.
• W2327005335 hasAuthorship W2327005335A5014701277 @default.
• W2327005335 hasAuthorship W2327005335A5014972934 @default.
• W2327005335 hasAuthorship W2327005335A5032920088 @default.
• W2327005335 hasAuthorship W2327005335A5036173945 @default.
• W2327005335 hasAuthorship W2327005335A5058988380 @default.
• W2327005335 hasConcept C105569014 @default.
• W2327005335 hasConcept C114873805 @default.
• W2327005335 hasConcept C120024216 @default.
• W2327005335 hasConcept C134132462 @default.
• W2327005335 hasConcept C153400128 @default.
• W2327005335 hasConcept C159985019 @default.
• W2327005335 hasConcept C191897082 @default.
• W2327005335 hasConcept C192562407 @default.
• W2327005335 hasConcept C196806460 @default.
• W2327005335 hasConcept C2780722187 @default.
• W2327005335 hasConcept C47566043 @default.
• W2327005335 hasConcept C544956773 @default.
• W2327005335 hasConcept C6648577 @default.
• W2327005335 hasConceptScore W2327005335C105569014 @default.
• W2327005335 hasConceptScore W2327005335C114873805 @default.
• W2327005335 hasConceptScore W2327005335C120024216 @default.
• W2327005335 hasConceptScore W2327005335C134132462 @default.
• W2327005335 hasConceptScore W2327005335C153400128 @default.
• W2327005335 hasConceptScore W2327005335C159985019 @default.
• W2327005335 hasConceptScore W2327005335C191897082 @default.
• W2327005335 hasConceptScore W2327005335C192562407 @default.
• W2327005335 hasConceptScore W2327005335C196806460 @default.
• W2327005335 hasConceptScore W2327005335C2780722187 @default.
• W2327005335 hasConceptScore W2327005335C47566043 @default.
• W2327005335 hasConceptScore W2327005335C544956773 @default.
• W2327005335 hasConceptScore W2327005335C6648577 @default.
• W2327005335 hasLocation W23270053351 @default.
• W2327005335 hasOpenAccess W2327005335 @default.
• W2327005335 hasPrimaryLocation W23270053351 @default.
• W2327005335 hasRelatedWork W137332093 @default.
• W2327005335 hasRelatedWork W1529510658 @default.
• W2327005335 hasRelatedWork W2015706911 @default.
• W2327005335 hasRelatedWork W2078550441 @default.
• W2327005335 hasRelatedWork W2155215432 @default.
• W2327005335 hasRelatedWork W2351679394 @default.
• W2327005335 hasRelatedWork W241989449 @default.
• W2327005335 hasRelatedWork W3147045337 @default.
• W2327005335 hasRelatedWork W3180457004 @default.
• W2327005335 hasRelatedWork W2504603895 @default.
• W2327005335 isParatext "false" @default.
• W2327005335 isRetracted "false" @default.
• W2327005335 magId "2327005335" @default.
• W2327005335 workType "article" @default.