Fish gelatin is increasingly recognized as an alternative source of gelatin, but its use has been limited due to weak gelling properties. To address these issues, the effect of furcellaran, a gelling agent, was examined at various levels (25-100% FG substitution) on the structural and physicochemical properties of FG gels. As the amount of FUR increased to 25%, the FG/FUR gel showed improved hardness and gel strength (P<0.05). Additionally, increasing FUR levels led to higher gelling and melting points, showing a dose-dependent relationship. Microstructural analysis revealed that adding FUR created a denser gel network with smaller gaps. SAXS scattering intensities also increased as FUR concentration rose. Overall, adding FUR improved the gelling properties of FG without negatively affecting springiness and syneresis, enhancing gel strength and gelling temperature.
The limitations of fish gelatin (FG) in terms of weak gelling properties, low gel strength, and inability to set at room temperature. By investigating the impact of furcellaran (FUR), a gelling agent, the study offers a solution to enhance FG’s functional properties, making it a more viable alternative to traditional animal-based gelatin. The findings suggest that FUR improves the texture, gel strength, and thermal stability of FG, which is crucial for a wide range of applications in the food and pharmaceutical industries. This could lead to the development of more sustainable, plant-based gelling agents, offering ethical and environmental benefits. Additionally, the study enhances the understanding of the molecular interactions between FG and FUR, providing a foundation for further innovations in gelation technology and the creation of improved, multifunctional gel-based products.

คณะสถาปัตยกรรม ศิลปะและการออกแบบ
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คณะสถาปัตยกรรม ศิลปะและการออกแบบ
This project is a carbon safe haven of Bangkok, aspiring to be the prototypal gateway of the future's carbon net zero ambitions. The project aims to answer the fundamental "flaw" of the existing urban fabric, still being extremely inefficient and highly polluting. Conversely, Carbon Oasis would not only create its own energy, but look to provide its excess energy and water surplus' back to the city and its surroundings. Taking parts of the existing city and implementing new concepts to inspire a change in the urban fabric and its people.

คณะวิทยาศาสตร์
In this paper, Vanadium dioxide (VO2) thin-film devices with two different use cases have been redesigned to introduce an asymmetrical resonant cavity structure. The structure is designed with the goal of enhancing the optical performance of the central VO2 layer and has an anti-reflection property in the cold state. The advantages and limitations of such a design are discussed.