Omura Y
Acupunct Electrother Res. 1986;11(2):127-45. doi: 10.3727/036012986816359193.
The author hypothesizes that the mechanism of the "Bi-Digital O-Ring Test Molecular Identification and Localization Method" is due to an electro-magnetic wave resonance phenomenon between two identical substances having an identical resonance frequency and separated by a known distance. Such a hypothesis was tested and proved by using two identical sets of electro-magnetic resonance circuits, each consisting of a fixed inductance (L) and variable capacitance (C), in place of two identical substances or molecules. When one of the resonance circuits was connected or placed close to the body surface and when the frequency of the other resonance circuit was made identical to the one placed next to the body, a maximal weakening response of the "Bi-Digital O-Ring Test" was observed only when the axes of the coils of the two separate sets of resonance circuits were oriented perpendicular to each other; when the axes of the coils of the two separate sets of resonance circuits were oriented parallel to each other, no "Bi-Digital O-Ring Test" weakening response was observed, even when both resonance circuits had an identical resonance frequency. The information about the molecular structure and quantity of any molecule is contained in the specific electro-magnetic field emitted by the particular molecule. These electro-magnetic waves, containing information about the particular substance, can be propagated through a metal wire, through a "concentrated electro-magnetic field projector," or through a light beam with wavelength longer than green color (particularly a monochromatic, collimated light beam or soft laser beam). In the cases in which a light beam is used, the monochromatic light beam (including laser beam) acts as a very high frequency carrier of the electro-magnetic waves emitted from a particular substance placed near the source of the light beam or near the end of the light beam, and information on the molecular structure and amount of the substance is carried by the light beam (including laser beam) in both forward and backward directions (bi-directional propagation of information). Even reflected light from any molecule or substance in the visual field that reaches the eyes carries information on the substance to the eye ground, particularly when the individual is gazing at the substance; simultaneously, information on a substance not normally existing in the body that happens to be in the body is sent out from the eye ground in electro-magnetic waves to the object being gazed at by the individual.
作者推测,“双指O型环测试分子识别与定位方法”的机制是由于两个具有相同共振频率且相隔已知距离的相同物质之间的电磁波共振现象。通过使用两组相同的由固定电感(L)和可变电容(C)组成的磁共振电路来代替两个相同的物质或分子,对这一假设进行了测试并得到了证实。当其中一个共振电路连接到体表或靠近体表放置,且另一个共振电路的频率与靠近体表放置的那个共振电路的频率相同时,仅当两组独立的共振电路的线圈轴相互垂直时,才会观察到“双指O型环测试”的最大减弱反应;当两组独立的共振电路的线圈轴相互平行时,即使两个共振电路具有相同的共振频率,也不会观察到“双指O型环测试”的减弱反应。任何分子的分子结构和数量信息都包含在该特定分子发出的特定电磁场中。这些包含特定物质信息的电磁波可以通过金属线、通过“集中电磁场投影仪”或通过波长比绿色光长的光束(特别是单色、准直光束或软激光束)进行传播。在使用光束的情况下,单色光束(包括激光束)充当从放置在光束源附近或光束末端附近的特定物质发出的电磁波的非常高频的载体,物质的分子结构和数量信息通过光束(包括激光束)在向前和向后两个方向上传播(信息的双向传播)。即使视野中任何分子或物质的反射光到达眼睛,也会将该物质的信息传递到眼底眼,特别是当个体注视该物质时;同时,体内碰巧存在的、通常不存在于体内的物质的信息会以电磁波的形式从眼底眼发送到个体正在注视的物体上。