Realization of sustainable care systems to overcome major diseases by 2040, for enjoying one’s life with relief and release from health concerns until 100 years old.
Lack of exercise causes lifestyle-related diseases, and conversely, exercise is a good preventive and therapeutic method for these diseases. We aim to establish exercise biomarkers by analysizing physiologically active substances that are secreted from the locomotory organs (muscles and bones) through exercise to regurate systemic metabolism of the entire body and are also related to the inflammation control.
We aim to explore the linkage between sleep and inflammation control and develop digital health that can respond to individualized needs, and construct lifestyle biomarkers and other inflammation control. We will explore the possibility of individualized feedback of inflammation control by understanding the correlation between sleep and exercise.
Body gases (mainly skin gases) can be evaluated non-invasively and are useful for remote biological monitoring. We aim to develop super-sensitive sensing technology for body gas to detect inflammatory biomarkers that may cause diseases, and establish an inflammation index that quantifies inflammation. Furthermore, we aim to develop a compact super-sensitive skin gas sensor that can be worn at all times and used repeatedly.
We aim to develop a method of inducing "controlled inflammation" through electrical stimulation devices and exercise-mimicking drugs as a means of controlling inflammation, and ensure that the solutions are available to all citizens including the "physically weak" who are unable to secure opportunities for exercise.
We will develop a new digital analysis method for measuring exercise biomarkers at home; develop a next-generation digital bioanalytical method by advancing the Digital Bioanalytical Method, which is a new bioanalytical technology with single molecule sensitivity. We will develop a portable and inexpensive next-generation digital bioanalytical technology (Digital Bio 2.0) by developing a reactor with active functions that has a molecular concentration function in the reactor itself. Furthermore, we aim to develop a sampling and processing method for specimens that is as non-invasive as possible in trace amounts. By integrating these methods, we will establish portable digital bioanalysis.
We aim to connect the sensing devices developed in Themes 1-5 with the living area data collection system, and build a network between these devices and the next-generation telehealth system.