0
Article Tier 2 Sign in to save

Characterization of Bio‐Based Phenolic Plasticizer Extracted From Rambutan Fruit Shell Waste: A Sustainable Alternative to Synthetic Plasticizers for Green Polymer Applications

AI summary Read the abstract

Researchers extracted and characterized a phenolic plasticizer from rambutan fruit shell waste using surfactant-assisted alkali-acid treatment, finding high thermal stability with peak degradation at 303°C and a crystallinity index suggesting compatibility with semicrystalline biopolymers as a potential bio-based alternative to synthetic plasticizers.

ABSTRACT The development of eco‐friendly plasticizer is driving the interest of many scientists due to its environmentally benign nature. This study investigated the extraction and characteristics of bio‐based phenolic compounds from underutilized rambutan shell waste (RSW) as potential plasticizers. A surfactant‐assisted alkali‐acid treatment was used to extract the plasticizer (RSWP), which was then selectively oxidized and dried to produce a solid plasticizer. FTIR revealed the presence of functional groups such as hydroxyl, ester, and aromatic moieties, which are critical for plasticization. XRD analysis indicated a crystalline‐phase composition with a crystallinity index of 78.91%, suggesting possible compatibility with semicrystalline biopolymers. TGA and DSC tests showed superior thermal stability, with a peak degradation temperature of 302.97°C and a high residual char content of 48%. SEM and EDX tests revealed heterogeneous morphology as well as high carbon (42%) and sodium (30.8%) content, which may enhance hydrophilicity. Particle size analysis indicated considerable polydispersity, with an average particle size of 1.249 μm. An AFM investigation indicated anisotropic nanoscale roughness, with a larger peak‐to‐valley height in the horizontal scan (0.098 nm) than in the vertical (0.070 nm). The RSWP performed better than plasticizer systems in terms of heat endurance and surface smoothness, suggesting that it could be used as an environmentally friendly packaging alternative.

More Papers Like This

Article Tier 2

Valorisation of pomelo peel waste for pectin-based bioplastic films: extraction optimization, film fabrication, and comprehensive characterization

AI summary Read the abstract

Researchers optimized pectin extraction from pomelo peel waste and fabricated flexible, biodegradable pectin-chitosan-sorbitol composite films with suitable moisture and solubility properties for sustainable food packaging. Replacing petroleum-based plastics with such biopolymer films directly addresses the generation of persistent microplastic contamination from conventional packaging materials.

Article Tier 2

On the Mechanical, Thermal and Biodegradation of Jackfruit Seed Starch Bioplastic

AI summary Read the abstract

Researchers created bioplastic from jackfruit seed starch with glycerol as a plasticizer and optimized the ratio to achieve better mechanical, thermal, and biodegradable properties. Plant-based bioplastics could help reduce dependence on petroleum-based plastics that persist in the environment as microplastics.

Article Tier 2

Nonisothermal Melt Crystallization Kinetics of PHB/babassu Compounds

AI summary Read the abstract

This materials science paper studies the non-isothermal melt crystallization kinetics of polyhydroxybutyrate (PHB) compounds mixed with babassu plant filler. PHB is a biodegradable bioplastic, and understanding its crystallization behavior is important for optimizing it as a sustainable alternative to petroleum-based plastics.

Article Tier 2

Synthesis, Thermal Properties and Decomposition Mechanism of Poly(Ethylene Vanillate) Polyester

AI summary Read the abstract

Researchers synthesized and characterized poly(ethylene vanillate), a bio-based polyester that could serve as a greener alternative to PET plastic. Developing bio-based plastics with good performance characteristics is important for reducing dependence on petroleum plastics that persist as microplastics in the environment.

Article Tier 2

Characterization of Biodegradable Polymers for Porous Structure: Further Steps toward Sustainable Plastics

AI summary Read the abstract

Four biodegradable polymers -- PBAT, PBS, PHBV, and PLA -- were systematically characterized for mechanical, thermal, and porous structural properties to assess their suitability as more sustainable alternatives to conventional plastics.

Research digests by email

When a large batch of papers lands in the Atlas, we read through it and send a short write-up of what stood out.

Email me about

Share this paper