In the wave of technological iteration and industrial upgrading, the research and development of new materials has become the core driving force for breaking through
technological bottlenecks and promoting changes in various industries. From high-performance composite materials in aerospace to nanoscale precision materials, every material innovation relies on efficient and reliable mixing equipment. The SMIDA
planetary centrifugal mixer, with its excellent performance and deep integration into the entire process of new material research and development, has become a key partner for researchers to explore the mysteries of materials.
1、 Accurate proportioning accelerates the research and development process of new composite materials
The core of the research and development of new composite materials lies in the precise ratio and fusion of different materials, and SMIDA planetary centrifugal mixer is the "golden partner" to achieve this goal. In cutting-edge fields such as carbon fiber reinforced resin based composites and metal based composites, researchers need to mix various materials with different physical and chemical properties in precise proportions to obtain new materials with special properties such as high strength and low density.
The SMIDA mixer relies on a high-precision mixing control system to control material proportioning errors within a very small range. Through its unique planetary motion trajectory and high-speed centrifugal force, different materials achieve uniform dispersion at the molecular level during the mixing process. For example, in the research and development of composite materials for new energy vehicle battery electrodes, SMIDA mixers can accurately mix active substances, conductive agents, and binders, helping research teams quickly test the effects of different formulations on battery charging and discharging performance and cycle life, shortening the research and development cycle by more than 30%. This precise mixing ability greatly improves research efficiency and accelerates the process of new composite materials moving from the laboratory to industrialization.
2、 Micro control, breaking through the technological barriers of nanomaterial research and development
Nanomaterials have shown great potential in fields such as electronics, biology, and energy due to their unique size and surface effects, but they pose extremely high requirements for hybrid devices. The SMIDA planetary centrifugal mixer, with its powerful micro dispersion ability, has become a "weapon" for the development of nanomaterials.
During the dispersion process of nanoparticles, the SMIDA mixer can generate centrifugal force of up to several thousand revolutions, effectively breaking the agglomeration phenomenon between nanoparticles and achieving uniform distribution in the matrix material. For example, in the preparation of nano silver wire conductive ink, traditional equipment is difficult to avoid entanglement and agglomeration of nano silver wires, while SMIDA mixer can ensure that nano silver wires are fully stretched and uniformly dispersed in the solvent, significantly improving the conductivity and stability of the conductive ink. In addition, in response to the strict requirements of sterile and pollution-free environment for nanobiomaterials, SMIDA mixers adopt a fully enclosed and easy to clean design to avoid cross contamination and provide guarantees for the safe research and development of nanobiomaterials. This precise regulation of the micro level of nanomaterials has laid a solid foundation for breakthroughs in cutting-edge fields such as high-performance nanoelectronic materials and nanodrug carriers.
From laboratory formula exploration to industrial technology verification, SMIDA planetary
centrifugal mixers have always been deeply involved in every key link of new material research and development with their high-precision mixing and micro control capabilities. In today's world of continuous breakthroughs in new material technology, SMIDA is driven by innovation to assist researchers in overcoming technical difficulties, accelerating the transformation of new material achievements, and injecting a continuous stream of power into the development of global materials science.