For any material individual in the world, it is the basic material that constitutes a higher material individual, and is composed of lower-level material individuals. Moreover, vibration is the essential attribute of the material individual, so the vibration of any material individual or any level of material individual is the same. Here, the same vibration refers to the same vibration frequency of . The vibration frequencies of all material individuals are the same, but the vibration domain or vibration range of different material individuals is different, so the vibration intensity of different material individuals is also different.
The reason for the change in vibration intensity is that the vibration domain of the individual substance has changed. The material individual that constitutes the lowest layer of the material individual has the largest vibration domain, which means that in the original case, the lower-level material individual has a larger vibration domain than the vibration domain of the higher-level material individual. But the reality is that low-level material individuals are contained within high-level material individuals, or in other words, vibrations with a larger range are contained within high-level vibrations with a smaller range. Therefore, the vibration of the individual substances that constitute higher levels has a higher compression rate, and the higher the compression rate, the higher the intensity of the vibration. This means that self-vibration has a higher vibration intensity than common vibration. In this way, the level of matter has a directionality, and the strength of the material individual with a multi-level structure gradually decreases from the inside out, and gradually strengthens from the outside to the inside.
If a measurer wants to measure the position of an individual substance, he must first measure the volume of the individual substance, because there is no position. Therefore, the measurement of the volume of a material individual is the measurement of the low-level self-vibration that removes the self-vibration of the material individual or the common vibration. This means that the volume of a certain material individual is the sum of the vibration domains of all the lower-level material individuals that make up this material individual. This means that measuring the volume or position of an individual substance is to distinguish and distinguish vibrations of different intensities, or to detect vibrations of higher intensity and peel off low-intensity vibrations.
The problem now is that individuals of matter always have lower levels of vibration domains or higher intensity vibrations than observation methods. Observers can only observe individuals of matter at a certain level with or using certain certain observation methods. The substance individual observed by a certain observation method is composed of low-level common vibration and low-level self-vibration, and low-level self-vibration is contained in low-level common vibration. When the scale of the observation means is greater than the scale of the vibration domain, the measurer's measurement of the volume or position of the individual substance is accurate; when the scale of the measurement means is less than the scale of the vibration domain, the measurer's measurement of the volume or position of the individual substance is inaccurate. This means that the larger the ratio of the measurer's scale to the vibration domain scale to the measured person, the more accurate the measurement is; the smaller the ratio of the measurer's scale to the vibration domain scale to the measured person, the less accurate the measurement is.
So we can say that the principle of inaccurate measurement is common, but the principle of inaccurate measurement is easier to be noticed by the measurer under certain scales.
