Effect of Jackfruit Rind-Based Cellulose (JR-CEL.) on Physical and Mechanical Properties of the Biodegradable Glycerol/Gelatine Matrix Film

Biodegradable films research has been studied as a potential substitution for the conventional films since it can be produced by using natural sources. The aim for the study is to evaluate the effect of the jackfruit rind-based cellulose (JR-CEL.) on physical and mechanical properties of the biodegr...

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Bibliographic Details
Main Authors: Majid, NA (Author), Rahman, WA (Author), Razak, SFA (Author)
Format: Article
Language:English
Published: 2018
Online Access:View Fulltext in Publisher
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Summary:Biodegradable films research has been studied as a potential substitution for the conventional films since it can be produced by using natural sources. The aim for the study is to evaluate the effect of the jackfruit rind-based cellulose (JR-CEL.) on physical and mechanical properties of the biodegradable glycerol/gelatine matrix film. The cellulose was successfully extracted from the jackfruit rind by using bleaching process and alkaline treatment and it was confirmed by using Scanning Electron Microscopy (SEM). JR-CEL. had been mixed in the best chosen mixture, namely glycerol(40)/gelatine(60) biodegradable matrix film. Further evaluation on physical and mechanical properties on these films had been compared with glycerol/gelatine matrix film. When comparing the glycerol/gelatine film matrix with the glycerol/gelatine/cellulose composite film, it showed that the addition of JR-CEL in the matrix film, the biodegradability of the film increased. The addition of JR-CEL to the film decreases the moisture uptake of the film. Solubility of the film decreased from 97.97% to 71.28% because JR-CEL was hard to dissolve in water and it needed a longer time to dissolve. The addition of JR-CEL to the film decreased the tensile strength and Young Modulus of the film. JR-CEL increased the porosity inside the film and this has been confirmed by the image from SEM (Scanning Electron Microscopy) that showed crack formation on the surface of the film.
DOI:10.1063/1.5062701