Synergistic enhancement of foaming and thermal properties of gelatin based composite gel foam by blending biopolymers

IF 6 2区 材料科学 Q1 MATERIALS SCIENCE, CHARACTERIZATION & TESTING
Polymer Testing Pub Date : 2026-03-01 Epub Date: 2026-02-14 DOI:10.1016/j.polymertesting.2026.109109
Jingbo Ma , Yinting Guo
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引用次数: 0

Abstract

This study establishes a synergistic multi-component strategy to engineer fully bio-based, high-performance gelatin composite foams. By strategically integrating l-carrageenan(l-car), pectin, chitosan, sucrose, and microbial transglutaminase (mTG), we achieve tailored control over material properties. The incorporation of sucrose significantly enhanced thermal stability, elevating the melting point from 39.3 °C (pure gelatin) to 41.25 °C. Mechanically, all additives except mTG improved the compressive modulus and strength, with chitosan yielding the highest performance due to polyelectrolyte complex formation. Importantly, a quantitative power-law model reveals that foam expansion is governed by the competition between viscosity and gelation kinetics. These findings provide a versatile design paradigm for fabricating sustainable, tailorable bio-foams, offering a promising alternative to conventional polymer foams in packaging and insulation applications.
通过混合生物聚合物协同增强明胶基复合凝胶泡沫的发泡和热性能
本研究建立了一种协同多组分策略来设计全生物基高性能明胶复合泡沫。通过战略性地整合l-卡拉胶(l-car)、果胶、壳聚糖、蔗糖和微生物转谷氨酰胺酶(mTG),我们实现了对材料性能的量身定制控制。蔗糖的加入显著提高了热稳定性,将熔点从39.3°C(纯明胶)提高到41.25°C。机械上,除mTG外,所有添加剂都提高了抗压模量和强度,壳聚糖由于形成了聚电解质复合物而获得了最高的性能。重要的是,定量幂律模型揭示了泡沫膨胀是由粘度和凝胶动力学之间的竞争所控制的。这些发现为制造可持续的、可定制的生物泡沫提供了一个通用的设计范例,为包装和绝缘应用中的传统聚合物泡沫提供了一个有前途的替代品。
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来源期刊
Polymer Testing
Polymer Testing 工程技术-材料科学:表征与测试
CiteScore
10.70
自引率
5.90%
发文量
328
审稿时长
44 days
期刊介绍: Polymer Testing focuses on the testing, analysis and characterization of polymer materials, including both synthetic and natural or biobased polymers. Novel testing methods and the testing of novel polymeric materials in bulk, solution and dispersion is covered. In addition, we welcome the submission of the testing of polymeric materials for a wide range of applications and industrial products as well as nanoscale characterization. The scope includes but is not limited to the following main topics: Novel testing methods and Chemical analysis • mechanical, thermal, electrical, chemical, imaging, spectroscopy, scattering and rheology Physical properties and behaviour of novel polymer systems • nanoscale properties, morphology, transport properties Degradation and recycling of polymeric materials when combined with novel testing or characterization methods • degradation, biodegradation, ageing and fire retardancy Modelling and Simulation work will be only considered when it is linked to new or previously published experimental results.
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