Digital ray imaging voltage sensor

[0015] The specific implementation is as image 3 As shown, the isotope Sr90 radiation source [1] is placed in the vacuum glass body [2], the scintillation fiber bundle [3] is placed outside [2], [1] horizontally emits beta charged particles to [3] through a rectangular slit , bombarded with flashing fiber optic glow. The scintillation fibers are evenly arranged horizontally from top to bottom, the upper end is fixed with a reflective film [4] for reflecting photons, and the lower end is connected with an image intensifier [5]. The photons excited by the scintillation fiber are transmitted through the same fiber to [5] for enhanced amplification, and then to the image sensor [6] for signal processing. The voltage U to be measured is connected to the voltage plates [7] and [8], and [2] is placed between [7] and [8], and the electric field force between the plates drives the charged particles to generate the motion trajectory of the particles Change, bombarded to different pos...

[0016] The second specific embodiment is as follows Figure 4 As shown, the isotope Sr90 radiation source [1] is placed inside the vacuum glass body [2], the scintillation fiber bundle [3] is placed outside [2], and [1] vertically emits beta charged particles to [3] through a rectangular slit , bombarded with flashing fiber optic glow. The scintillation fibers are evenly arranged horizontally from left to right, the upper end of which is fixed with a reflective film [4] for reflecting photons, and the lower end is connected to an image intensifier [5]. The photons excited by the scintillation fiber are transmitted through the same fiber to [5] for enhanced amplification, and then to the image sensor [6] for signal processing. The voltage U to be measured is connected to the voltage plates [7] and [8], and [2] is placed between [7] and [8], and the electric field force between the plates drives the charged particles to generate the motion trajectory of the particles Change, b...