Effect of MoSi2 on the wettability of SiCp/MoSi2(p) substrates for prospective Al-based composites via pressureless infiltration
Source abstract
Abstract
The quantitative influence of using recycled and reagent-grade MoSi 2 particle (MoSi 2(p) ) powders, as well as evaluating the effect of % MoSi 2(p) powders and SiC particles (SiC p ) in compact substrates, % porosity, temperature, and dwell time on the wettability of SiC p /MoSi 2(p) compacts by an Al–Mg–Si alloy were investigated. Evaluating and comparing reagent-grade or recycled MoSi 2 is essential because the low-cost recycled material may convey phases that influence the wettability, and reagent-grade MoSi 2 may impose affordability issues. The optimum wettability conditions were determined, and the contact angle (θ) and liquid‒vapor surface tension ( γ l-v ) were projected and experimentally verified. From ANOVA, the parameters most significantly impacting ( θ ) and ( γ l-v ) are the MoSi 2(p) content and type. For contact angle, the corresponding contributions are 47% and 31%, while for surface tension, they are 32% and 18%, respectively. Under optimal conditions, equilibrium θ and γ l-v values as low as 43° ± 6° and 234 ± 20 mN/m are obtained, which are favorable compared with the values predicted for 50% porosity. A comparison of the four different substrates revealed the beneficial effect of adding reagent-grade MoSi 2(p) powders on the SiC p compacts, manifested by a 52% decrease in θ . The results are promising for developing Al/SiC p /MoSi 2(p) composites by non-assisted or pressureless infiltration.
Source: openalex_inverted_index · Quality: baseline
Research context
OpenAlex topics: Aluminum Alloys Composites Properties · Advanced ceramic materials synthesis · Aluminum Alloy Microstructure Properties
SciVX discovery tags are terminology-based. OpenAlex topics are source-provided classifications.
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