Dynamic-BIA
DynamicBIA
This module analyzes conductivity and microcirculation disturbances in tissues using specific dosed stimuli. Additionally, DynamicBIA can identify hidden foci of tissue conductivity violations and their impact on the functional reserves of the subject being examined.
The module can:
- Automatically conduct sequential scanning of head and limb areas with impulses of negative and positive polarity (20 leads) at a following frequency of 10 Hz. The electrical test signal is physiological and does not cause discomfort.
- Adjust the received signal using constant or alternating current exposure in the measurement area to exclude the effect of tissue electrolysis.
- Use sequential application of frequency-wave information to the object under examination along diagonals, in accordance with the distribution of energy meridians.
- Conduct early prediction of neoplastic and fibrous-dystrophic processes in selective foci.
- Identify hidden foci of tissue conductivity violations and their influence on the functional reserves of the subject being examined.
Principle of Operation
It allows for the analysis of conductivity and microcirculation disturbances in tissues using specific dosed stimuli. It can also reveal hidden foci of tissue conductivity violations and their impact on the functional reserves of the subject being examined. This is undoubtedly highly informative, visualized, and safe for the subject, as the effect of tissue electrolysis is excluded, and the results are based on a comparative analysis of reliable reference pathological processes, totaling at least 17,000 spectrograms.
This module applies the analysis of electrophysiological dynamic characteristics of the electrical conductivity of the human biological medium when electric current passes through it, based on the measurement of active and reactive resistance. The active component is caused by the presence of bodily fluids and indicates the dynamic resistance obtained during the passage of a dosed frequency-wave load within the cell. The reactive or capacitive component is due to the presence of cell membranes, indicating the extent to which a cell can accumulate an electric charge during the research process.
