The Mark of an Exotic Vacuum Object (EVO)

Total clarity

I hope these few images, which are a subset of a vast number of similar observations, can settle once and for all typical forms that an EVO can leave as it acts on a cathode and that it can produce when it strikes an anode.

The following images are imaged by myself from two HENK VEGA experiment samples.

Marks of EVO action on cathode in “Cardioid Infarction experiment”

Note the core, the surrounding more circular area and the often differently affected polygonal area surrounding that. Note also that EVOs close to each other may distort the field structures of their neighbours.

Fig. 1. Screen Grab from “Cardioid Infarction” - brass plate (L) and soft iron (R) Both are part of the cathode

Fig. 2. 50Mpix macro image of a section of the soft iron part of the cathode as seen in Fig. 1. (R) - Open image in new window to explore

Fig. 3. Top right detail from Fig. 2. with area appropriate colour adjustments from the 16bit source into 8bit Jpeg - Open image in new window to explore

Fig. 4. Bottom Left detail from Fig. 2. with area appropriate colour adjustments from the 16bit source into 8 bit Jpeg - Open image in new window to explore

Fig. 5. A section of the hole in the brass from Fig. 1. (L)

Fig. 6. Detail from centre right of Fig. 5. A hexagonal splat of material formerly entrained in an EVO

Fig. 7. Detail from top centre left of Fig. 5. Pentagonal deposit showing core also of material shifted by EVO field influence

Impact marks of EVOs on Silicon Dioxide anode stem sheath

Because of the momentary nature of the impact on the SiO2 of the anode sheath and often non-interaction of multiple EVOs at once (individual impacts), it can be easier to determine the various influences of the EVOs’ sub-structure more clearly.

Note, in most of these images, there appears to be little deposit in the strike mark, which implies that the EVOs were perhaps made mostly of gas ions or that the mark is just the damage caused by the EVO as it was repelled by the dielectric SiO2 as that became charged by the electrons emitted from the EVO.

Fig. 8.

Fig. 9.

Fig. 10.

Possibly the first crystal clear image of the vortical field running through the core of an EVO

Fig. 11. Section of Fig. 10. Showing an EVO from top view (above) and possibly for the first time, an EVO and its vortical core field from the side (below).

Note: The tail on the right is on a tight radii of the SiO2 tube as can be seen from the change in focus clarity. The vortical beam may be longer but the intersection with the glass becomes less.

You can download the image set here