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Metal Objects Detection by X-Ray-Shadows
This could be THE Breakthrough for metal detection at longer distances !!!
And you are very lucky to get this info from me here and for free!
The (My!) idea is the following:
Everywhere in the world there is x-ray (and other very short wave directional) background radiation.
Metal objects will block this more or less completely, like the bones on a x-ray roentgen picture.
Now the question is:
How high is the contrast if it comes to a larger distance and if buried in mineralized soil.
I doubt a little golden ring buried 20cm in the ground will be detectable this way,
but a large and thick metal object for shure.
But some high definition x-ray camera with zoom (what kind of lenses do you use for x-rays???
)
would be needed to show the "dark spots" which are probably metal-objects.
Since zoom will be not an option the x-ray sensitive sensors must have 10 Megapixels
or something like that for being able still seening very small buried metal objects.
btw. the stupid LRL-lunatics never have written about this idea anywhere because
they are just wanna fool around and are far away from realistic technology!
This is my own idea and it is simple but genious and perhaps the only way ever
for creating a real working long range detector!
Because either the metal-object sends out by itself some radiation or it was
turned on by some external energy to do that or it is passive and the surrounding
energy built up some contrast factor which is working good enough for detection.
Of course such a x-ray camera also would detect directly any radioactive objects!
The average screen would be grey or green while the shadows are black or blue
and the active energy radiating metal-objects white and shining or red.
Well - meanwhile we can detect the for the eyes invisible infrared-radiation
from remote-controls etc. with our digicams and handys but we are far away
from cheap X-ray cameras!
They would costs a huge amount of money!
So whats the simple solution?
A bundle of ion-chambers, very small and long so they are as directional as possible!
7 such chambers bound together in a circle and each connected with an output.
If the ion-tube in the middle gives a discriminated signal the user knows that the metal object
is exactly at the pointed direction. Because the metal-object blocks the highly directional x-rays
and therefore a weaker total signal will reach the tube.
Of course the main challenge will be making the detector perfectly adjustable exactly to the
very weak x-ray "background-noise". But we see it from the ultra-small digicam sensors
which collects the light and colors for the images that it is possible. With ISO 3200 per instance
a picture of a room can be made which receives its light by only one small candle.
btw. this discovery means that any so far ion-chamber-equipped-LRL-detectors do not detect
the metals ions but they are some sort of camouflaged directional geiger-counters!
But for shure they will not detect a little golden ring from 10m distance because
the x-ray-shadow is far to weak to get detected and the ring even has a hole.
However x-rays are the only rays which are really useful for long rang metal-detection!
As long as the metal objects do not produce heat by themselves like a shortcuted battery.
But even then if buried the infrared-radiation would get blocked by the soil.
And even x-rays do not travel through anything like a knife goes through butter!
If the buried treasure lies very deep and the soil is mineralized or full of metalic-salts
of course the x-rays also will become weakened.
Anyway:
Important is that the metal-object-shadow is clearly identifiable.
Either the metal object is large and thick enough for this task or the detectors sensitivity is!
Good luck and I warn you, damned LRL-liars!
Don't fool around with this knowledge and
betray the outside world with it!
I made it public so everyone can experiment first hand
with it or try to get it working!
For being highly directional very long and very small ion-tubes connected to an extremely
sensitive and highly adjustable and selective circuit will be needed. Don't forget this.
Otherwise you will have just built yourself a simple x-ray meter!
And the luxury version will be connected to a LCD screen or smartphone so even the
slightest signal changes are visible and not just audible or seen by some blinking LED.
And you are very lucky to get this info from me here and for free!
The (My!) idea is the following:
Everywhere in the world there is x-ray (and other very short wave directional) background radiation.
Metal objects will block this more or less completely, like the bones on a x-ray roentgen picture.
Now the question is:
How high is the contrast if it comes to a larger distance and if buried in mineralized soil.
I doubt a little golden ring buried 20cm in the ground will be detectable this way,
but a large and thick metal object for shure.
But some high definition x-ray camera with zoom (what kind of lenses do you use for x-rays???
)would be needed to show the "dark spots" which are probably metal-objects.
Since zoom will be not an option the x-ray sensitive sensors must have 10 Megapixels
or something like that for being able still seening very small buried metal objects.
btw. the stupid LRL-lunatics never have written about this idea anywhere because
they are just wanna fool around and are far away from realistic technology!
This is my own idea and it is simple but genious and perhaps the only way ever
for creating a real working long range detector!
Because either the metal-object sends out by itself some radiation or it was
turned on by some external energy to do that or it is passive and the surrounding
energy built up some contrast factor which is working good enough for detection.
Of course such a x-ray camera also would detect directly any radioactive objects!
The average screen would be grey or green while the shadows are black or blue
and the active energy radiating metal-objects white and shining or red.
Well - meanwhile we can detect the for the eyes invisible infrared-radiation
from remote-controls etc. with our digicams and handys but we are far away
from cheap X-ray cameras!
They would costs a huge amount of money!So whats the simple solution?
A bundle of ion-chambers, very small and long so they are as directional as possible!
7 such chambers bound together in a circle and each connected with an output.
If the ion-tube in the middle gives a discriminated signal the user knows that the metal object
is exactly at the pointed direction. Because the metal-object blocks the highly directional x-rays
and therefore a weaker total signal will reach the tube.
Of course the main challenge will be making the detector perfectly adjustable exactly to the
very weak x-ray "background-noise". But we see it from the ultra-small digicam sensors
which collects the light and colors for the images that it is possible. With ISO 3200 per instance
a picture of a room can be made which receives its light by only one small candle.
btw. this discovery means that any so far ion-chamber-equipped-LRL-detectors do not detect
the metals ions but they are some sort of camouflaged directional geiger-counters!
But for shure they will not detect a little golden ring from 10m distance because
the x-ray-shadow is far to weak to get detected and the ring even has a hole.
However x-rays are the only rays which are really useful for long rang metal-detection!
As long as the metal objects do not produce heat by themselves like a shortcuted battery.
But even then if buried the infrared-radiation would get blocked by the soil.
And even x-rays do not travel through anything like a knife goes through butter!
If the buried treasure lies very deep and the soil is mineralized or full of metalic-salts
of course the x-rays also will become weakened.
Anyway:
Important is that the metal-object-shadow is clearly identifiable.
Either the metal object is large and thick enough for this task or the detectors sensitivity is!
Good luck and I warn you, damned LRL-liars!
Don't fool around with this knowledge andbetray the outside world with it!
I made it public so everyone can experiment first handwith it or try to get it working!
For being highly directional very long and very small ion-tubes connected to an extremely
sensitive and highly adjustable and selective circuit will be needed. Don't forget this.
Otherwise you will have just built yourself a simple x-ray meter!
And the luxury version will be connected to a LCD screen or smartphone so even the
slightest signal changes are visible and not just audible or seen by some blinking LED.
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