Emergence of Gloomy Eyelet inside DNA

J. Sabatier, Farzan Amini
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Abstract

The purpose of this article is to study gloomy eyelet (GE) inside the cell nucleus by using models of warp drive hydro (WDH), swinging spring, Rankine, co-moving reference frame, and Poincare. The beat wave frequency (ω) of blood pressure on the vessel and the swinging spring frequency (Ω) of DNA coincide together on the Rankine model. In this case, it leads to appearing as a sudden pressure drop and an accelerated cavity in the medium of the warp drive hydro (WDH) model. In transient conditions, the vortex flow inside WDH can generate gloomy eyelet (GE), and the tiny distortion of nano space–time revealed inside the gloomy eyelet (GE) inside DNA and the tiny distortion of nano space–time revealed inside the co-moving reference frame (CMRF) model of the gloomy eyelet (GE). The space–time distortion can act as a hidden potential for the cell nucleus and some behaviors of gloomy eyelet can be traced by the frequency responses of human body organs. The interactions between two adjacent different mediums such as the normal cells and abnormal cells, earth’s gravitational effects can lead to changes in the distortion of space–time inside the cell nucleus. Transient bonds between particles can be expected to appear in the gloomy eyelet inside DNA. Identifying the range of changes in the frequency responses and the transient bonds inside the cell nucleus can be introduced as one of the health indicators.
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DNA内暗孔的出现
本文采用曲速驱动水力模型、摆动弹簧模型、朗肯模型、共动参考系模型和庞加莱模型对细胞核内的暗孔进行了研究。在Rankine模型中,血管上血压的节拍波频率(ω)和DNA的摆动弹簧频率(Ω)重合在一起。在这种情况下,它导致在曲速驱动水力模型介质中出现突然的压降和加速空腔。在瞬态条件下,WDH内部的涡旋流动会产生暗孔(GE), DNA内部的暗孔(GE)内部显示出微小的纳米时空畸变,而暗孔(GE)的共动参照系(CMRF)模型内部也显示出微小的纳米时空畸变。时空畸变可以作为细胞核的隐藏电位,通过人体器官的频率响应可以追踪暗孔的某些行为。正常细胞和异常细胞等相邻的两种不同介质之间的相互作用,地球引力作用会导致细胞核内时空畸变的变化。粒子间的瞬态键可能出现在DNA内部阴暗的小孔中。识别频率响应的变化范围和细胞核内的瞬态键可以作为健康指标之一。
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