シーエムシー・リサーチ Company Profile

Recently, fine bubbles, which are tiny bubbles smaller than 100 μm and are referred to as "fine bubbles," have attracted attention in various fields such as the environment, agriculture, food, fisheries, and medicine, due to their ability to impart various functions to liquids. Fine bubbles are classified into two types based on their size: microbubbles and ultrafine bubbles. Recently, there has been a growing interest in ultrafine bubbles, which have a lifespan of several weeks to months. However, listening to the voices of researchers and users reveals some skepticism, which has become one of the issues hindering the spread of fine bubble technology. On the other hand, we have challenged the elucidation of the stabilization mechanism of ultrafine bubbles from a new perspective by enabling the control of number density exceeding 10 billion particles/mL without pressure or concentration operations using our ultrafine bubble generation technology. In this seminar, we will provide a fundamental explanation of fine bubble technology, including the basic physical properties, characteristics and functions, device technology, measurement and evaluation methods, and case studies, to promote research and utilization of fine bubbles based on a correct understanding.

The non-contact power supply system is a technology that spans multiple fields, making it impossible to address with fragmented knowledge from individual areas. Measured data and simulation results will be handled uniformly and shared among stakeholders from various fields. This will facilitate an easier understanding of the development challenges and product trends related to non-contact charging technology using the MIT method. 【Target Audience for the Seminar】 Technical sales representatives and product planners, as well as product developers for non-contact charging systems (MIT method). 【Knowledge Gained from the Seminar】 Participants will understand the technical positioning of non-contact charging technology (MIT method) based on resonance and will be able to explain why the MIT method enables high-efficiency energy transfer. Additionally, they will be able to consider countermeasures for electromagnetic noise associated with non-contact charging.