Matches in SemOpenAlex for { <https://semopenalex.org/work/W4378839669> ?p ?o ?g. }
- W4378839669 endingPage "143809" @default.
- W4378839669 startingPage "143809" @default.
- W4378839669 abstract "SiC nanowires (SiCnw) are widely combined with ceramic matrix for electromagnetic wave (EMW) absorption due to their good conductive network structure. However, the single loss mechanism limits its further application in the field of EMW absorption. Herein, a novel three-dimensional network of SiCnw decorated by MoS2 nanoflowers with a “flower-branched” structure was synthesized in the pores of porous Si3N4 ceramics (MoS2/SiCnw/Si3N4) by precursor infiltration and pyrolysis combined with hydrothermal reaction. The morphology, pore structure, and dielectric properties of porous MoS2/SiCnw/Si3N4 ceramics were investigated. The interleaved SiCnw within the pore structure provide a large number of growth sites for the MoS2 nanoflowers, ensuring a uniform distribution of MoS2 nanoflowers without agglomeration. Compared with porous SiCnw/Si3N4 ceramics, porous MoS2/SiCnw/Si3N4 ceramics achieve improved microwave absorption performance with an effective absorption bandwidth of 3.50 GHz at a thickness of 2.38 mm and a minimum reflection loss of −70.48 dB at a thickness of 2.10 mm. The excellent EMW absorption performance is attributed to the interfacial polarization loss caused by the MoS2-SiCnw heterogeneous interface, the conduction loss from the SiCnw conductive network, and the defect-induced dipole polarization loss. This work provides new insight into the development of high performance ceramic-based wave absorbing materials." @default.
- W4378839669 created "2023-06-01" @default.
- W4378839669 creator A5003994632 @default.
- W4378839669 creator A5024301944 @default.
- W4378839669 creator A5027930191 @default.
- W4378839669 creator A5037724227 @default.
- W4378839669 creator A5055623794 @default.
- W4378839669 date "2023-08-01" @default.
- W4378839669 modified "2023-09-30" @default.
- W4378839669 title "Construction of the SiC nanowires network structure decorated by MoS2 nanoflowers in porous Si3N4 ceramics for electromagnetic wave absorption" @default.
- W4378839669 cites W2000701741 @default.
- W4378839669 cites W2085371967 @default.
- W4378839669 cites W2274481275 @default.
- W4378839669 cites W2317349426 @default.
- W4378839669 cites W2343399254 @default.
- W4378839669 cites W2563826044 @default.
- W4378839669 cites W2749879173 @default.
- W4378839669 cites W2762866833 @default.
- W4378839669 cites W2884152345 @default.
- W4378839669 cites W2885038869 @default.
- W4378839669 cites W2888175392 @default.
- W4378839669 cites W2908909481 @default.
- W4378839669 cites W2920938767 @default.
- W4378839669 cites W2946188932 @default.
- W4378839669 cites W2961460479 @default.
- W4378839669 cites W2965774173 @default.
- W4378839669 cites W2973493296 @default.
- W4378839669 cites W2984269839 @default.
- W4378839669 cites W2991328869 @default.
- W4378839669 cites W3004048571 @default.
- W4378839669 cites W3016589763 @default.
- W4378839669 cites W3021162403 @default.
- W4378839669 cites W3036783415 @default.
- W4378839669 cites W3037467151 @default.
- W4378839669 cites W3046366582 @default.
- W4378839669 cites W3082040990 @default.
- W4378839669 cites W3083619747 @default.
- W4378839669 cites W3090532671 @default.
- W4378839669 cites W3103979732 @default.
- W4378839669 cites W3110537792 @default.
- W4378839669 cites W3113330362 @default.
- W4378839669 cites W3113644435 @default.
- W4378839669 cites W3152700374 @default.
- W4378839669 cites W3157510066 @default.
- W4378839669 cites W3163821775 @default.
- W4378839669 cites W3169341078 @default.
- W4378839669 cites W3170658131 @default.
- W4378839669 cites W3172014185 @default.
- W4378839669 cites W3176953343 @default.
- W4378839669 cites W3194564987 @default.
- W4378839669 cites W3197046283 @default.
- W4378839669 cites W3199024859 @default.
- W4378839669 cites W3201587030 @default.
- W4378839669 cites W3202354130 @default.
- W4378839669 cites W3203760588 @default.
- W4378839669 cites W3206382898 @default.
- W4378839669 cites W3207000177 @default.
- W4378839669 cites W3209547950 @default.
- W4378839669 cites W3209834968 @default.
- W4378839669 cites W3211943138 @default.
- W4378839669 cites W3212534526 @default.
- W4378839669 cites W3215747522 @default.
- W4378839669 cites W3215806740 @default.
- W4378839669 cites W4200371707 @default.
- W4378839669 cites W4200418783 @default.
- W4378839669 cites W4200515832 @default.
- W4378839669 cites W4205149996 @default.
- W4378839669 cites W4206836254 @default.
- W4378839669 cites W4221023405 @default.
- W4378839669 cites W4223504863 @default.
- W4378839669 cites W4225137606 @default.
- W4378839669 cites W4229035454 @default.
- W4378839669 cites W4285246227 @default.
- W4378839669 cites W4286213957 @default.
- W4378839669 cites W4288445452 @default.
- W4378839669 cites W4289526110 @default.
- W4378839669 cites W4291498058 @default.
- W4378839669 cites W4307956489 @default.
- W4378839669 cites W4311778538 @default.
- W4378839669 cites W4321795764 @default.
- W4378839669 cites W4324348626 @default.
- W4378839669 cites W4360980907 @default.
- W4378839669 cites W4221137562 @default.
- W4378839669 doi "https://doi.org/10.1016/j.cej.2023.143809" @default.
- W4378839669 hasPublicationYear "2023" @default.
- W4378839669 type Work @default.
- W4378839669 citedByCount "1" @default.
- W4378839669 countsByYear W43788396692023 @default.
- W4378839669 crossrefType "journal-article" @default.
- W4378839669 hasAuthorship W4378839669A5003994632 @default.
- W4378839669 hasAuthorship W4378839669A5024301944 @default.
- W4378839669 hasAuthorship W4378839669A5027930191 @default.
- W4378839669 hasAuthorship W4378839669A5037724227 @default.
- W4378839669 hasAuthorship W4378839669A5055623794 @default.
- W4378839669 hasConcept C104779481 @default.
- W4378839669 hasConcept C125287762 @default.
- W4378839669 hasConcept C133386390 @default.
- W4378839669 hasConcept C134132462 @default.