Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties

Boron carbide (B4C) and magnesium aluminate (MgAl2O4) incorporated waste polystyrene (wPS) based composites were prepared at various ratios i.e., 5–20% of the filler. Based on the fabricated composites, samples with 20% B4C, 5% MgAl2O4 and 15:10% B4C:MgAl2O4 exhibited improved mechanical and thermal...

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Main Authors: Ahmad, Waqas, Fida, Sadia, Ahmad, Imtiaz, Tariq, Razia, Mohamed Jan, Badrul, Hussain, Fida, Kenanakis, George, Ikram, Rabia
Format: Article
Language:English
Published: Springer Nature 2024
Online Access:http://psasir.upm.edu.my/id/eprint/113268/1/113268.pdf
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author Ahmad, Waqas
Fida, Sadia
Ahmad, Imtiaz
Tariq, Razia
Mohamed Jan, Badrul
Hussain, Fida
Kenanakis, George
Ikram, Rabia
author_facet Ahmad, Waqas
Fida, Sadia
Ahmad, Imtiaz
Tariq, Razia
Mohamed Jan, Badrul
Hussain, Fida
Kenanakis, George
Ikram, Rabia
author_sort Ahmad, Waqas
collection UPM
description Boron carbide (B4C) and magnesium aluminate (MgAl2O4) incorporated waste polystyrene (wPS) based composites were prepared at various ratios i.e., 5–20% of the filler. Based on the fabricated composites, samples with 20% B4C, 5% MgAl2O4 and 15:10% B4C:MgAl2O4 exhibited improved mechanical and thermal properties. The tensile strength and young modulus of the composites was increased to 2622.5 and 27.931 MPa for 20%B4C, 2266.8 and 19.39 MPa for 5% MgAl2O4, 2719.4 and 21 MPa for 15:10% B4C:MgAl2O4 from that of 2232 and 10 MPa of wPS, respectively. TGA results showed that the temperature for 50% weight loss of wPS (337 °C) increased to 404 °C, 390 oC and 394 oC for wPS-B4C:20%, wPS-MgAl2O4:5% and wPS-B4C-MgAl2O4:15:10% composite, respectively. Their corresponding glass transition temperature increased from 79.65 °C to 265.6 °C, 291.19 oC and 302.5 oC for wPS-B4C:20%, wPS-MgAl2O4:5%, and wPS-B4C-MgAl2O4:15:10%, respectively. FTIR and SEM analysis concluded marginal changes in the surface topography and distribution of wPS particles upon the incorporation of B4C and MgAl2O4 fillers. XRD analysis indicated that the composite retained the crystalline configurations of original B4C and MgAl2O4, confirming the mere physical interaction of the filler with wPS. This study is focused on the cost-effective fabrication of various composites i.e., wPS-B4C, wPS-MgAl2O4 and wPS-B4C-MgAl2O4 with improved thermal stability and value-added mechanical performance which can be further envisioned of great prospects for industrial applications and devices.
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spelling upm.eprints-1132682024-11-19T07:33:58Z http://psasir.upm.edu.my/id/eprint/113268/ Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties Ahmad, Waqas Fida, Sadia Ahmad, Imtiaz Tariq, Razia Mohamed Jan, Badrul Hussain, Fida Kenanakis, George Ikram, Rabia Boron carbide (B4C) and magnesium aluminate (MgAl2O4) incorporated waste polystyrene (wPS) based composites were prepared at various ratios i.e., 5–20% of the filler. Based on the fabricated composites, samples with 20% B4C, 5% MgAl2O4 and 15:10% B4C:MgAl2O4 exhibited improved mechanical and thermal properties. The tensile strength and young modulus of the composites was increased to 2622.5 and 27.931 MPa for 20%B4C, 2266.8 and 19.39 MPa for 5% MgAl2O4, 2719.4 and 21 MPa for 15:10% B4C:MgAl2O4 from that of 2232 and 10 MPa of wPS, respectively. TGA results showed that the temperature for 50% weight loss of wPS (337 °C) increased to 404 °C, 390 oC and 394 oC for wPS-B4C:20%, wPS-MgAl2O4:5% and wPS-B4C-MgAl2O4:15:10% composite, respectively. Their corresponding glass transition temperature increased from 79.65 °C to 265.6 °C, 291.19 oC and 302.5 oC for wPS-B4C:20%, wPS-MgAl2O4:5%, and wPS-B4C-MgAl2O4:15:10%, respectively. FTIR and SEM analysis concluded marginal changes in the surface topography and distribution of wPS particles upon the incorporation of B4C and MgAl2O4 fillers. XRD analysis indicated that the composite retained the crystalline configurations of original B4C and MgAl2O4, confirming the mere physical interaction of the filler with wPS. This study is focused on the cost-effective fabrication of various composites i.e., wPS-B4C, wPS-MgAl2O4 and wPS-B4C-MgAl2O4 with improved thermal stability and value-added mechanical performance which can be further envisioned of great prospects for industrial applications and devices. Springer Nature 2024 Article PeerReviewed text en http://psasir.upm.edu.my/id/eprint/113268/1/113268.pdf Ahmad, Waqas and Fida, Sadia and Ahmad, Imtiaz and Tariq, Razia and Mohamed Jan, Badrul and Hussain, Fida and Kenanakis, George and Ikram, Rabia (2024) Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties. Emergent Materials. pp. 1-15. ISSN 2522-5731; eISSN: 2522-574X (In Press) https://link.springer.com/article/10.1007/s42247-024-00827-6 10.1007/s42247-024-00827-6
spellingShingle Ahmad, Waqas
Fida, Sadia
Ahmad, Imtiaz
Tariq, Razia
Mohamed Jan, Badrul
Hussain, Fida
Kenanakis, George
Ikram, Rabia
Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title_full Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title_fullStr Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title_full_unstemmed Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title_short Ex‑situ Synthesis of B4C and MgAl2O4 incorporated Waste Polystyrene (wPS) Composites with Improved Thermal and Mechanical Properties
title_sort ex situ synthesis of b4c and mgal2o4 incorporated waste polystyrene wps composites with improved thermal and mechanical properties
url http://psasir.upm.edu.my/id/eprint/113268/1/113268.pdf
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