Fabrication and Boosting the Morphological and Optical Properties of PVP/SiC/Ti Nanosystems for Tailored Renewable Energies and Nanoelectronics Fields

The present study objects to synthesize of PVP/SiC/Ti nanostructures as a future and promising nanomaterials for nanoelectronics, energy storage and optical approaches. The morphological and optical properties of PVP/SiC/Ti nanostructures were examined. Results of optical characteristics demonstrate...

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Veröffentlicht in:Journal of inorganic and organometallic polymers and materials 2024-04, Vol.34 (4), p.1678-1688
Hauptverfasser: Hashim, Ahmed, Hadi, Aseel, Ibrahim, Hamed, Rashid, Farhan Lafta
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creator Hashim, Ahmed
Hadi, Aseel
Ibrahim, Hamed
Rashid, Farhan Lafta
description The present study objects to synthesize of PVP/SiC/Ti nanostructures as a future and promising nanomaterials for nanoelectronics, energy storage and optical approaches. The morphological and optical properties of PVP/SiC/Ti nanostructures were examined. Results of optical characteristics demonstrated the PVP/SiC/Ti nanostructures have stable absorbance(A) at UV and NIR spectra where the absorbance increased about 65.7% at λ = 400 nm and 65.3% at λ = 760 nm while transmission decreased when the concentration of PVP/SiC/Ti nanostructures increased of 37.5 gm/L, these results can be useful in solar energy fields, optical devices, anti-reflectance coating material, and other modern fields. When the concentration reached of 37.5 gm/L, energy band gap decreased from 3.25 to 2.25 eV, this behaviour makes the PVP/SiC/Ti nanostructures are suitable in numerous optoelectronics fields. The other optical factors of PVP/SiC/Ti nanostructures improved with rising concentration. The thermal energy storage results illustrated to obtain on gain of melting time reached 60%, this result makes the PVP–SiC–Ti–H 2 O nanofluids are multifunctional for renewable energy applications. Finally, the achieved results indicated to the PVP/SiC/Ti nanostructures are potential and promising to utilize in solar energy and optoelectronics approaches with excellent optical factors compared of other nanomaterials.
doi_str_mv 10.1007/s10904-023-02908-1
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The morphological and optical properties of PVP/SiC/Ti nanostructures were examined. Results of optical characteristics demonstrated the PVP/SiC/Ti nanostructures have stable absorbance(A) at UV and NIR spectra where the absorbance increased about 65.7% at λ = 400 nm and 65.3% at λ = 760 nm while transmission decreased when the concentration of PVP/SiC/Ti nanostructures increased of 37.5 gm/L, these results can be useful in solar energy fields, optical devices, anti-reflectance coating material, and other modern fields. When the concentration reached of 37.5 gm/L, energy band gap decreased from 3.25 to 2.25 eV, this behaviour makes the PVP/SiC/Ti nanostructures are suitable in numerous optoelectronics fields. The other optical factors of PVP/SiC/Ti nanostructures improved with rising concentration. The thermal energy storage results illustrated to obtain on gain of melting time reached 60%, this result makes the PVP–SiC–Ti–H 2 O nanofluids are multifunctional for renewable energy applications. 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The thermal energy storage results illustrated to obtain on gain of melting time reached 60%, this result makes the PVP–SiC–Ti–H 2 O nanofluids are multifunctional for renewable energy applications. 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The thermal energy storage results illustrated to obtain on gain of melting time reached 60%, this result makes the PVP–SiC–Ti–H 2 O nanofluids are multifunctional for renewable energy applications. Finally, the achieved results indicated to the PVP/SiC/Ti nanostructures are potential and promising to utilize in solar energy and optoelectronics approaches with excellent optical factors compared of other nanomaterials.</abstract><cop>New York</cop><pub>Springer US</pub><doi>10.1007/s10904-023-02908-1</doi><tpages>11</tpages></addata></record>
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subjects Absorbance
Alternative energy sources
Chemistry
Chemistry and Materials Science
Energy bands
Energy gap
Energy storage
Inorganic Chemistry
Morphology
Nanoelectronics
Nanofluids
Nanomaterials
Nanostructure
Optical properties
Optoelectronics
Organic Chemistry
Polymer Sciences
Renewable energy
Silicon carbide
Solar energy
Thermal energy
title Fabrication and Boosting the Morphological and Optical Properties of PVP/SiC/Ti Nanosystems for Tailored Renewable Energies and Nanoelectronics Fields
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