惰性气体循环装置 S-395

使用小型喷雾干燥仪 S-300 安全处理有机溶剂的方法。

可将惰性气体循环装置 S-395 用作小型喷雾干燥仪 S-300 的理想配件，从而安全地对有机溶剂进行喷雾干燥。其创新设计使有机溶剂的喷雾干燥更加环保、经济和安全。

安全

小型喷雾干燥仪 S-300 能够安全处理有机溶剂
惰性气体环境可避免在喷雾干燥过程中发生爆炸
通过控制氧气和压力，防止出现爆炸条件
可选配除湿机 S-396，处理溶剂和水的混合物

经济高效

惰性气体消耗量小
回收有机溶剂
实验室喷雾干燥仪可实现快速安装
小型喷雾干燥仪 S-300 集成手推车设计可节省空间

环境可持续发展

小型喷雾干燥仪 S-300 的《闭环》方式可极大地降低污染，并保护环境
实验室喷雾干燥仪的冷却回路可回收有机溶剂（-30℃）
可消除使用有机溶剂时对仪器的损坏

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Pharma
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Chemicals / Materials
Laboratory-scale spray drying is a versatile and efficient method for producing a wide range of materials in the chemicals and materials science field. In recent years, notable trends have emerged, including the application of spray drying for nano materials, paints and coatings, and catalysts. One trend is the use of laboratory-scale spray drying in the synthesis of nano materials. This technique enables the production of nanoparticles and nanostructured materials with controlled size, morphology, and composition. By tailoring these properties, researchers can develop advanced materials with improved mechanical strength, enhanced conductivity, and tailored surface functionalities. Spray drying also finds application in the production of paints and coatings. By producing fine and uniform particles, spray drying contributes to the desired properties of coatings, such as improved color, durability, and film formation. This trend leads to the development of high-quality coatings with enhanced performance and functionality. Furthermore, laboratory-scale spray drying plays a role in the development of catalysts. By controlling particle size, composition, and surface area, spray drying allows for the design and optimization of catalysts for efficient chemical transformations and environmental applications. In summary, laboratory-scale spray drying in the chemicals and materials science field is witnessing trends in nano materials, paints and coatings, and catalysts. These trends contribute to the development of advanced materials, high-performance coatings, and efficient catalysts, driving innovation in various industries.
Batteries
Laboratory-scale spray drying is a valuable technique in battery research for the fabrication of electrode materials. It enables precise control over particle size and morphology, resulting in electrodes with optimized electrochemical performance. Spray drying allows for the production of fine and uniform particles, contributing to the development of high-performance batteries. This method facilitates the development of electrode materials with enhanced properties, such as improved conductivity and electrochemical stability. By employing laboratory-scale spray drying in battery research, scientists can advance energy storage technologies and develop more efficient and reliable batteries for various applications.
Food
Applications: Encapsulation of additives, controlled release, nutraceuticals, functional foods, flavors, vitamins, proteins, probiotic bacteria, juice concentrate, milk powder Methods: Drying, encapsulation of liquids, Encapsulation of solids, Micronization Instruments used: Mini Spray Dryer S-300, Encapsulator B-390 / B-395, Lyovapor L-200 / L-300
Biotech
Applications: Cells, bacteria and protein encapsulation, cell transplantation, biotransformation Methods: Drying, encapsulation of liquids, Encapsulation of solids, Micronization, Cell encapsulation Instruments used: Mini Spray Dryer S-300, Nano Spray Dryer B-90, Encapsulator B-390 / B-395, Lyovapor L-200 / L-300
Cosmetics
Applications: Cosmetics, fragrances Methods: Drying, encapsulation of liquids, Encapsulation of solids, Micronization Instruments used: Mini Spray Dryer S-300, Encapsulator B-390 / B-395, Lyovapor L-200 / L-300