Original Research Article

Effect Of Sorbitol Content On The Thermal Stability And Degradation Behaviour Of Cassava Cortex-Reinforced Biocomposites

ISSN 2979-8582  ·  Article No. 094

Adeniyi Emmanuel Daodu✉ Ekanem Benedict Agbonko

Publication Details

Publication Date
12/10/2026
Volume / Issue
Vol 1, Issue 5 (2026)
Article No.
094
Journal
British Journal of Contemporary Research
Received
30 Sep 2026
Views
10
Downloads
1
Affiliations

Adeniyi Emmanuel Daodu: Department of Mechanical Engineering, University of Calabar, Calabar, Cross River, Nigeria

Ekanem Benedict Agbonko: Department of Mechanical Engineering, University of Calabar, Calabar, Cross River, Nigeria

ORCID

Adeniyi Emmanuel Daodu 0009-0006-1915-284X

Ekanem Benedict Agbonko 0000-0002-4724-6169

Abstract

Cassava processing residues are renewable lignocellulosic resources with potential for sustainable composite development. This study evaluated the influence of sorbitol content on the thermogravimetric behaviour of chemically treated cassava cortex (CCT)-based materials. Five formulations were investigated: CCT100, SBT100 and composites containing 5, 15 and 25 wt.% sorbitol (SBTCCT5, SBTCCT15 and SBTCCT25). Thermogravimetric analysis was conducted with a NETZSCH STA 449C using 8.0 ± 1.5 mg specimens heated under nitrogen from 20 to 900 °C at 10 °C min−1. Analysis of the TGA and derivative data showed composition-dependent, multistage degradation. SBTCCT5 exhibited T5 = 314.4 °C and T10 = 333.8 °C, while SBTCCT25 gave T5 = 314.1 °C and the highest T10 = 342.0 °C. SBTCCT15 showed lower initial-degradation thresholds (T5 = 231.7 °C; T10 = 279.0 °C) but retained 16.36% mass at 800 °C, close to SBTCCT5 (16.55%). The principal derivative peak temperatures were approximately 370.6–458.2 °C across the formulations. The results demonstrate a non-monotonic effect of sorbitol concentration: thermal stability depends on the specific CCT:SBT ratio rather than increasing uniformly with sorbitol content. The comparatively high T5/T10 of SBTCCT5 and SBTCCT25 and the higher high-temperature residue of SBTCCT5/SBTCCT15 identify different formulation advantages. These findings support cassava cortex valorisation as a renewable component for bio-based material systems, while further mechanical, moisture and long-term thermal studies are required for application qualification.

Keywords

Cassava Cortex Cassava Peel Sorbitol Biocomposite Thermogravimetric Analysis Thermal Degradation Agro-Waste Valorisation

License

CC BY 4.0

This article is published under the Creative Commons Attribution 4.0 International License . Free to read, share, and adapt with attribution.

Cite This Article

Adeniyi Emmanuel Daodu, Ekanem Benedict Agbonko (2026). Effect Of Sorbitol Content On The Thermal Stability And Degradation Behaviour Of Cassava Cortex-Reinforced Biocomposites. British Journal of Contemporary Research, 1(5), Article 094. https://doi.org/10.67693/BJCR-UR74WAGK
Adeniyi Emmanuel Daodu. “Effect Of Sorbitol Content On The Thermal Stability And Degradation Behaviour Of Cassava Cortex-Reinforced Biocomposites.” British Journal of Contemporary Research, vol. 1, no. 5, 2026.
Adeniyi Emmanuel Daodu. “Effect Of Sorbitol Content On The Thermal Stability And Degradation Behaviour Of Cassava Cortex-Reinforced Biocomposites.” British Journal of Contemporary Research 1, no. 5.

Metadata

ISSN 2979-8582
DOI Prefix 10.67693
Tracking ID BEX_SEP_26_287

British Journal of Contemporary Research

Open Access · Peer Reviewed · Published by Bexford Publishing Ltd

Browse All Issues
Join Community