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October 19, 1992
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NEMES2.ASC
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--------------------------------------------------------------------
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This file shared with KeelyNet courtesy of Cal Newman.
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--------------------------------------------------------------------
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Article from
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||
MAGNETS In Your Future Magazine
|
||
1986
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||
|
||
Remarkable Nemescope
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Made Living Pictures
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of the Micro-World
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(c)1986 MAGNETS In Your Future Magazine
|
||
|
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|
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(Editor's Note: This is the kind of story that thrills even a
|
||
crusty old journalist who has spent nearly
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||
30 years scrounging around "unorthodoxy" in an
|
||
effort to dredge up facts that cause
|
||
consternation; in an effort to provoke the
|
||
"I'll be damned!" response from readers. In the
|
||
mid-70's I wrote about the Royal Rife microscope
|
||
-- a microscope that is still weaving its way
|
||
around the pages of underground and off-the-
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||
beaten-path journals. The "tuned light"
|
||
microscope of Royal Rife, who was financed by
|
||
the Timken steel dollars, was a beauty, no doubt
|
||
-- but when compared to the Nemescope, the Rife
|
||
device is a mere pretender. This is one of those
|
||
stories that this editor rates among the top
|
||
10 all-time yarns.
|
||
|
||
MAGNETS magazine is the perfect forum for this
|
||
story. We are on the cutting edge of the most
|
||
exciting technology of all -- the phenomena of
|
||
permanent magnetism -- and we have an audience
|
||
that has already indicated and ability to be open
|
||
and critical at the same time; to be scientific
|
||
and awed as well.)
|
||
|
||
By Tom Valentine
|
||
|
||
The inventor of the Nemescope was a brilliant brain surgeon.
|
||
His name was Elmer P. Nemes and he ran the Nemes Research
|
||
Laboratories, 4207 West Third Street, Los Angeles 5, California
|
||
during the middle 1950's. Unfortunately, he was also an alcoholic.
|
||
|
||
Page 1
|
||
|
||
|
||
|
||
|
||
|
||
He was killed in a drunken brawl in San Diego in the early 60's
|
||
-- he had hit rock bottom, and stayed there.
|
||
|
||
His invention, the Nemescope, which we are detailing on these pages
|
||
in an effort to entice others to recreate this vitally important
|
||
work, was stolen from a store called the Bryn Camera Shop on Melrose
|
||
Avenue in 1957, ending a remarkable series of experiments and
|
||
demonstrations. The device was in the shop to have an electric field
|
||
finder installed.
|
||
|
||
The person responsible for revealing this story to me is the grand
|
||
lady of health and nutrition, Betty Lee Morales, 80, a long time
|
||
resident of Topanga and an individual with unbridled curiosity who
|
||
has been involved in thousands of research projects during her
|
||
lifetime. She and her husband were directly responsible for the
|
||
remarkable photographs from the Nemescope screen, that you see on
|
||
these pages, and her incessant curiosity spurred the inventor to
|
||
extra efforts.
|
||
|
||
"We lost track of the stolen machine in New York," Betty Lee
|
||
explained, "and the technology has lain dormant all this time."
|
||
|
||
Who stole the machine? What role did the secretive segments of the
|
||
United States government play? Betty Lee herself was involved with
|
||
the Central Intelligence Agency in its earliest years after WWII,
|
||
and while representing Dr. Nemes she worked directly with the late
|
||
Congressman Craig Sheperd of San Bernardino, who had arranged a
|
||
major appropriation for in-depth and clandestine research on the
|
||
Nemescope just prior to its theft and subsequent disappearance.
|
||
|
||
The photographs in this issue were taken directly off a 12-foot by
|
||
12-foot screen where the images danced energetically in full color.
|
||
The Nemescope projected motion pictures of the micro-world onto the
|
||
screen. Every object, in a medium of distilled water on a quartz
|
||
slide, projected it's own natural colors -- no dyes were needed.
|
||
The photo on the opposite page, for example, is a picture of
|
||
molecules of iron nucleate from the juice of a Jade plant,
|
||
squeezed for the filming experiment on the spur of the moment by
|
||
Betty Lee. The iron nucleates were linked together with a
|
||
sparkling, vibrant energy that formed patterns on the screen as the
|
||
living juice was photographed and projected.
|
||
|
||
"The flowing lines of force were clearly visible and very
|
||
symmetrical," Betty Lee explained, "but later, when the life forces
|
||
in the juice evidently died, there was no energy. The emissions of
|
||
energy were silver and gold luminescent and traveled, apparently at
|
||
the speed of light."
|
||
|
||
The Nemescope photos and explanations on these pages speak for
|
||
themselves. Now, how did these pictures come about?
|
||
|
||
Nuclear magnetic resonance had been firmly established a few years
|
||
before Dr. Nemes began his experiments with "radiation potentials,
|
||
wave lengths of emitted quanta and color spectra."
|
||
|
||
Here is Dr. Nemes' summary of the invention:
|
||
|
||
"The specimen which is to be examined by the multiple source
|
||
microscope, is bombarded, for example, with two sources of
|
||
|
||
Page 2
|
||
|
||
|
||
|
||
|
||
|
||
energy. One of these sources is energy at a frequency which
|
||
approximates the frequency of one of the radiation potentials
|
||
of the material forming the specimen, and the other source
|
||
produces energy at a frequency which is slightly different
|
||
from the first frequency.
|
||
|
||
"The energy from the first source impinging upon the specimen
|
||
causes the atoms to be excited and to emit quanta of energy of
|
||
a frequency which is dependent upon the frequency of the
|
||
energy of the first source. The energy from the second source
|
||
serves to spread out the frequency of the emitted energy over
|
||
a range of frequencies so that a colored light effect is
|
||
produced. The colored light effect, which is a highly
|
||
magnified image of the specimen being examined, may then be
|
||
photographed.
|
||
|
||
"If desired, for photographic purposes, the spectrum which is
|
||
emitted by the specimen being examined may be intensified by
|
||
ultra-violet or visible light, comparatively long wave
|
||
radiation. This combined light pattern is then enlarged by a
|
||
conventional optical system and projected on the screen or
|
||
some other suitable device and the composite is photographed
|
||
by a camera."
|
||
|
||
Betty Lee's description may add to our perspective. "The device was
|
||
an emission-type microscope -- it depended upon resolution, not
|
||
magnification. An electron microscope might get to 16,000X in
|
||
magnification, but not have much resolution. You can compare the
|
||
images of a gold grid taken with an electron microscope and with the
|
||
Nemescope. (Photos on page 28). We projected images that were 5
|
||
million X."
|
||
|
||
Betty Lee's recollection of the key feature of the device is as
|
||
follows:
|
||
|
||
"Dr. Nemes designed a radiation gun, which was the essence of
|
||
the machine. I recall that it was a steel pipe about 2 inches
|
||
in diameter and about 10 inches long. Holes were bored in it
|
||
and semiprecious stones, or jewels representing a different
|
||
wave band were set in the pipe. The jewels had to be imperfect
|
||
(see item 6 of the inventor's own summary coming up), so we
|
||
heated them in an autoclave up to 5,500 degrees F to cause
|
||
imperfections."
|
||
|
||
According to the Nemes papers, U.S. Patent #2,850,661 covers
|
||
the first unit of the "short and long wave radiation system,"
|
||
that he had devised. The inventor summarized the principles of
|
||
his Nemescope in August of 1956, and submitted an
|
||
amendment to his patent application, which had been filed in
|
||
July 1955.
|
||
|
||
The summary will be first printed verbatim, then his comments,
|
||
unfortunately without accompanying drawings, will also be verbatim.
|
||
|
||
1. The first unit is a cold cathode tube (lamp) (U.S. Patent
|
||
2850661) with multiple filaments directly but separately
|
||
charged. The filaments preheat the platinum, gold,
|
||
germanium and tungsten targets. The function of this
|
||
invention is explained in "Additional Claims on Lamps, Cold
|
||
|
||
Page 3
|
||
|
||
|
||
|
||
|
||
|
||
Cathode Tube, Reissued to United States Patent Office to
|
||
Patent 2850661."
|
||
|
||
The cathode gun acts as the primary source of illumination
|
||
and bombarder of the specimen.
|
||
|
||
2. The second part of the instrument, which is called the long
|
||
and short wave high frequency condenser, contains high
|
||
frequency coils, quartz window, filters and radio-
|
||
active emitters, electrostatic or electro-magnetic coils,
|
||
and also quartz prisms or lenses to focus the relatively
|
||
long wave rays.
|
||
|
||
3. When the specimen is bombarded with a multiple source of
|
||
radiation and the proper excitation potential arranged,
|
||
the organic or inorganic matter emit an ultra-spectral
|
||
image in true colors. Concerning the molecular structure,
|
||
diffusion, cohesion and wave length of the examining matter,
|
||
the rays can be arranged so that the primary source of
|
||
radiation, by adjusting the condenser by wave length or
|
||
potential, will induce the appearance of the true image.
|
||
|
||
4. The radio-active emitter or gun maintains a radium filament
|
||
with individual filters for Alpha, Beta and Gamma rays.
|
||
Also we could use, if so desired, isotopes such as
|
||
carbon 14, cesium and cobalt. The Gamma ray could be
|
||
emitted also by interchangeable extra tubes. The radium
|
||
crystals and other isotopes also can be melted into the
|
||
quartz condenser lens.
|
||
|
||
Furthermore, shields of very thin plates of gold, aluminum
|
||
or platinum can be used to control the radiation.
|
||
|
||
5. The specimen is under a quartz cover slide, or in the cases
|
||
of gases or liquids, is in capillary attachment,
|
||
emission attachment or between mica plates or other
|
||
transparent useable material. The specimen also could be
|
||
examined by the capillary system across high voltage and
|
||
temperature changes could be measured indirectly concerning
|
||
the examined specimen.
|
||
|
||
6. Pick-up unit. Fine grain fluorescent screen is incorporated
|
||
to a system of optically corrected quartz lenses, thereby
|
||
the invisible radiation can be picked up and transferred to
|
||
longer rays. The lens could be coated with evaporated
|
||
metallic silicate, aluminum, magnesium, boron, etc., with
|
||
the mixture of the impure sphalerite single crystals,
|
||
activated phosphides of zinc sulphide, zinc cadmium
|
||
sulphide, etc. If the pick-up quartz or diamonds have
|
||
impurities such as single micro-crystals of metallic
|
||
silicate, phosphides of zinc sulphate or zinc cadmium
|
||
sulphate, these impurities act as fine grain fluorescent
|
||
material. In that case the resolving power could be
|
||
increased by such fluorescent impurities that the single
|
||
crystals or particles act not only as a fine grain screen
|
||
but as individual 360 degree emitters and resolution is
|
||
theoretically unlimited and the magnification increases
|
||
in proportion. Therefore a single molecule can be
|
||
picked up individually and reproduced by spectrum and
|
||
|
||
Page 4
|
||
|
||
|
||
|
||
|
||
|
||
lines and structure. The single image is directed by
|
||
focusing plates or prisms to the reflectors, mirrors, or
|
||
single or double prism system and through this set-up only
|
||
the preferred image will be picked up by the image amplifying
|
||
tube.
|
||
|
||
7. The amplification system contains: (A) deflecting cathode,
|
||
(B) deflecting prism, adjustable by axis. In the
|
||
amplification system the amplifying units contain concave
|
||
shaped cathodes and plates, silver or rhodium coated,
|
||
where not only amplification but further magnification can
|
||
be obtained. The plates relative to the cathode are more
|
||
positively charged.
|
||
|
||
The amplification units can be individually separated by
|
||
perforated mica sheets (See drawings) and further
|
||
correction of the image can be maintained with secondary
|
||
and tertiary correcting screens. The final image is
|
||
directed to the prism and reflecting system.
|
||
|
||
8. Additional interchangeable filters can be incorporated to
|
||
filter out undesirable rays. Skiatron or equivalent
|
||
color sensitive projecting tube is indirectly energized.
|
||
Additional lenses can be added for different types of
|
||
projection. The previously mentioned amplification
|
||
unit, if further magnification or amplification is
|
||
desired, can be repeated.
|
||
|
||
Technically and theoretically, by this system,
|
||
resolution depends on the wave length of the selected
|
||
short wave radiation sources and the ultra-microscopic
|
||
size single crystal-screen. Magnification of such is
|
||
unlimited and the instrument is able to maintain images
|
||
in full color and spectrum.
|
||
|
||
Following that summary, Dr. Nemes wrote of his "additional
|
||
claims on lamps and the cold cathode tube." His comments may
|
||
serve to further our understanding of the technology.
|
||
|
||
(A) Multiple illuminator filed with the U.S. Patent Office
|
||
in 1955. (Docket No. 2470 in 1955 by Harris, Kiech,
|
||
Foster, Etc., Patent Attorneys Ser. No. 540, 740 Oct.
|
||
17, 1955 Illuminator Mailed Aug. 9, 1956.) Claiming
|
||
that the continuous flow of energy can be maintained
|
||
by creating an ion differential between two poles of
|
||
different materials (metals, gases and some other
|
||
elements) which exhibit the K factor, as Boron,
|
||
Magnesium, Tungsten, Titanium, Wolfram, Beryllium,
|
||
Krypton, Hard Carbon, Zirconium, Gold,
|
||
Platinum, Nickel, Aluminum-Sulphate, etc.
|
||
|
||
As stated in the Work Book, page 47, (between July 11 and
|
||
October 10, 1955) a chain reaction takes place and maintains a
|
||
continuous electron flow or shorter ray flow after preheating the
|
||
cathode with an electric current. The two elements involved
|
||
have different behavior and charge. (Ref. page 42; Merk index:
|
||
listed 55 different elements, possessing the K factor, as
|
||
possible sources of continuous energy production plus a second
|
||
element, Magnesium, Aluminum Sulphate, etc., and maintain the flow
|
||
without any further charge.)
|
||
Page 5
|
||
|
||
|
||
|
||
|
||
|
||
On page 50 of the same Work Book, the inventor shows a drawing of a
|
||
Magnesium coated Platinum cathode, energized by a Zirconium arc.
|
||
A continuous flow of energy was produced even after the electric
|
||
current was cut off. This setup was tested in October 26, 1955.
|
||
The enclosed picture from the next page shows schematically the
|
||
principle of the cold cathode tube.
|
||
|
||
The drawing under M 2599, October 26, 1955 explains the
|
||
working of the principle by using a set of multiple cathodes and
|
||
anodes that can be adjusted to different distances of the emitters.
|
||
Therefore, a chain reaction, which can be adjusted to various
|
||
frequencies, takes place without further use of external energy.
|
||
Drawing No. 13351, Fig. 1 and 2 show the construction of the
|
||
instrument.
|
||
|
||
Said patent application mentions also a gas inlet to the
|
||
chamber through which various gases could be injected as
|
||
Argon, Helium, Nitrogen, Xenon, Hydrogen or combinations of such.
|
||
These could create the same effect as the various coatings of
|
||
Magnesium, Boron, Aluminum, Sulphate, etc.
|
||
|
||
(B) In the construction of the Nemescope the incandescent
|
||
energy source was used further only to create a
|
||
broader spectrum since the cold cathode radiation was
|
||
tested as to its efficiency without the combination of
|
||
the primary charge. The presence and maintenance of
|
||
the chain reaction was proven as existing between
|
||
cathode, anode, and grid without the primary energy
|
||
source.
|
||
|
||
The cooling coil as reported in the cold cathode tube
|
||
served the purpose of prolonging the life of the
|
||
filaments in the tube. Our setup with the special
|
||
arrangement of the targets proved to be capable of
|
||
keeping the temperature slightly above room temperature,
|
||
whereas, otherwise the temperature would rise to 100<30>C
|
||
or higher.
|
||
|
||
NEMESCOPE ADDITIONAL CLAIMS
|
||
|
||
In Patent 2850661, Paragraph 39: "It is preferred that the
|
||
target be made of platinum or other material having the
|
||
property of absorbing oxygen as its temperature increases and
|
||
giving off oxygen as its temperature decreases. The absorption of
|
||
oxygen by the platinum when the platinum is heating up produces a
|
||
cooling action in the surrounding atmosphere and materially reduces
|
||
the operating temperature of the filaments of the lamp." An
|
||
essential factor in the cooling process was therefore achieved
|
||
through the basic nature of the targets and their arrangement.
|
||
|
||
In the Nemescope the principle of the cold cathode tube has
|
||
existed for several years and has been called "black body
|
||
energy." The targets (cathode) energized through indirect
|
||
heating by the Zirconium arc, consisted of gold and platinum,
|
||
tungsten, germanium, etc., and were different in weight (ratio
|
||
1.5; 1.01). The Grid consisted of 2 antennae and one rhodium
|
||
coated concave mirror in an electromagnetic field, directed
|
||
the cathode rays to the center of the beam going through the
|
||
axis of the specimen.
|
||
|
||
Page 6
|
||
|
||
|
||
|
||
|
||
|
||
In the patent of the cold cathode tube No. 2850661 is also
|
||
demonstrated a rhodium coated concave mirror behind the target
|
||
and the filaments arrangement which serve a double purpose:
|
||
|
||
(1) to focus the visible ultraviolet rays, etc., to the center
|
||
of the spectrum and (2) act as a focusing grid for the cathode
|
||
rays.
|
||
|
||
Finally, in 1959, two years after the prototype unit had been
|
||
stolen, Dr. Nemes was encouraged by Betty Lee and his other partners
|
||
to write a "construction guide" for his Nemescope. We now reprint
|
||
the complete documentation for the first time:
|
||
|
||
The multiple frequency source called, "Cold Cathode Tube or
|
||
Lamp," (A) contains a radium SH and platinum plates S'L & SL.
|
||
The wave lengths of the gun become ineffective long before
|
||
they reach the specimen, but they do modulate the carrier
|
||
frequencies composed of shorter wave lengths of light
|
||
radiations. The low frequency light is obtained from filaments
|
||
H1 H2 H3 heated to incandescence by 110VAC. The heat produced
|
||
by this incandescence is used to indirectly heat the gold and
|
||
platinum which starts a reaction between each other. This is
|
||
self-sustaining, once started.
|
||
|
||
These gold and platinum sources must be adjustable. It is
|
||
suggested, that they be mounted on screw-mounts, the heads of
|
||
which have a 90<39> arm with magnetic tips, to be turned
|
||
magnetically through the glass envelope of the cold cathode
|
||
tube. To reflect most of the radiation of the chain reaction
|
||
between the gold and platinum plates, a coated concave mirror
|
||
Mfoc is placed behind the filaments. The focal length of this
|
||
mirror is to be such as to focus correctly to the suspended
|
||
quartz lenses FL1 in the condenser. This mirror may be
|
||
compared to the cathode in the somewhat similar cathode ray
|
||
tube, hereinafter referred to as CRT. Therefore it is to be
|
||
negatively charged or at 0 reference potential. The subsequent
|
||
elements are the intensity control G1 and the focusing grids
|
||
or anodes.
|
||
|
||
At the radiating end of the cold cathode tube a window of
|
||
quartz maintains the low vacuum within the cold cathode tube.
|
||
The function of subsequent quartz windows QzW1 through QzW5 is
|
||
similar. The presence of the following gases is suggested:
|
||
helium, Argon, nitrogen, Xenon or a mixture thereof. The
|
||
radium gun, opposite the cathode reflector CREF emanates
|
||
Alpha, Beta and Gamma radiations, comprising the higher
|
||
frequencies.
|
||
|
||
The structure of the cathode is as follows: if the structural
|
||
metal of the cathode is tungsten, molybdenum, platinum, gold,
|
||
a plating of rhodium, magnesium, aluminum or beryllium is
|
||
suggested; the object being to make the sum total molecular
|
||
weight of the structural and coated metal as high as possible,
|
||
keeping the ratio of molecular weight as low as possible with
|
||
the coating having the lower molecular weight.
|
||
|
||
The focusing coil Lfoc and the deflecting plates of gold and
|
||
platinum Adef1 and Adef2 help insure focus. The mass of the
|
||
deflecting plates is not altogether critical, but the ratio of
|
||
|
||
Page 7
|
||
|
||
|
||
|
||
|
||
|
||
masses is critical in that it must be a ratio of 1.01 of gold
|
||
to 1.5 of platinum.
|
||
|
||
Between the cold cathode and the next component, the condenser
|
||
"B", a slot must be left open to allow the insertion of
|
||
interchangeable filters. These consist of four different
|
||
types. First, a gold and silver leaf (a thickness of
|
||
1/10,000th of an inch), transparent filters; third, an
|
||
infra-red filter which can be constructed of carborundum, or
|
||
any other suitable material; fourth, a blue filter. It is
|
||
advised that these be structurally supported by quartz on both
|
||
sides, and that these be mounted on a motor-driven circle
|
||
which has one position for a neutral filter, composed of
|
||
either nothing or black carbon.
|
||
|
||
Since it is desirable to obtain variable resolutions and since
|
||
resolution is directly governed by the wave length of the
|
||
radiation passing through the specimen, it is necessary to
|
||
vary the wave length. This can be most easily done by
|
||
modulating the constant wave length radiations of the cold
|
||
cathode tube with a wave length from an electronic oscillator.
|
||
|
||
For this purpose a coil Mmod has been constructed 90<39> to the
|
||
radiation beam. There are plates appropriately connected to
|
||
this coil which seem to act as deflecting plates for the
|
||
shorter wave length radiations.
|
||
|
||
There are also focusing lenses mounted adjustably to focus the
|
||
radiations. All optical components must be optically
|
||
corrected. If these lenses are radium impregnated, the radium
|
||
guns would no longer be necessary.
|
||
|
||
The coating of the lens of the gun can be of any suitable
|
||
radio-active material or isotope which emits Alpha, Beta and
|
||
Gamma radiations. These are otherwise necessary because the
|
||
effective range of Alpha, Beta and Gamma rays is only 3.9c. if
|
||
unaccelerated artificially. Around the assembly of the cold
|
||
cathode tube and condensers must be constructed a radiation
|
||
shield of lead approximately 1/8" in thickness.
|
||
|
||
After the shield, the sample slide can be inserted. This slide
|
||
must be of quartz glass, or some other material more pervious
|
||
to short wave length. Here are also mounted two high frequency
|
||
parabolic antennae to radiate the electromagnetic frequencies
|
||
from the oscillator. These antennae are encompassed radially
|
||
(only) by focusing coils.
|
||
|
||
Close to the axial center of the radiation beam, yet outside
|
||
the beam itself, should be mounted one or two small (1/4 watt)
|
||
fluorescent bulbs If1. The output of these is not critical,
|
||
for through the amplification of three x 1,000,000 their wave
|
||
lengths become strong enough to project the image to almost
|
||
any distance.
|
||
|
||
The next unit called image amplifier, "C", contains first some
|
||
gold and platinum deflection plates Adef3 and Adef4 and then a
|
||
quartz prism P1 unto which the beam is focused by the focusing
|
||
lenses FL2.
|
||
|
||
|
||
Page 8
|
||
|
||
|
||
|
||
|
||
|
||
The optical system components can be made of either quartz or
|
||
commercial diamond. The quartz must be coated with metallic
|
||
silicates, phosphides, etc. The commercial diamond must be
|
||
electrostatically charged so as to procure current
|
||
amplification due to the inherent impurities in commercial
|
||
diamonds. This electrostatic charge has to be in sequential
|
||
order of positive-going electrodes in reference to ground; to
|
||
avoid repelling the radiation beam. The reverse side of prisms
|
||
P1 and P2 are to be mirror coated with conventional materials.
|
||
The focusing coil Lfoc in the vicinity of prism P1 should be
|
||
adjustable as well as all other focusing coils; that is they
|
||
are to be constructed so as to permit axial movement.
|
||
|
||
The dynodes D1 to D9, inclusive, are the amplifying electrodes
|
||
between which a voltage of not less than 18 VDC is to be
|
||
maintained. The curvature of the dynodes is to decrease
|
||
successively from Dynode 1 to 9.
|
||
|
||
The correcting screens Rs1 and Rs2 are to be constructed of
|
||
mica or quartz which is to be perforated by electro-static
|
||
breakdown of the mica, across a spark gap. The holes on the
|
||
two screens are to be located so that the beam which passes
|
||
through a hole on screen Rs1 does not pass through a hole of
|
||
Rs2. The screens are to be coated with suitable phosphorescent
|
||
material, then activated by a radio-active source prior to
|
||
installation.
|
||
|
||
The screen Rs1 is to be positioned so that the beam will first
|
||
strike the mica and then the coating. This screen is also to
|
||
be located at a 90<39> angle to the beam, half way between dynode
|
||
D2 and D3. This screen is also to be located in the magnetic
|
||
field of the second focusing coil in the vicinity of dynode
|
||
D3.
|
||
|
||
The screen Rs2 is to be so located as to present the coating
|
||
first. Prism P2 is to refract the beam from Dynode 9 through
|
||
quartz window QzW5 and quartz filter QzFIL which is
|
||
interchangeable much like the before mentioned quartz filter.
|
||
The lens projecting system FL3 is to project the amplified
|
||
image onto the screen.
|
||
|
||
For further amplification, repeated stages of amplifying tubes
|
||
can be used, the only limitation being the supply of voltage.
|
||
After sufficient amplification, the image can be photographed
|
||
from the screen, or directly from the instrument. For
|
||
television closed circuitry, a camera need only be directed
|
||
towards the image end of the image amplifying tube and either
|
||
color or monochromatic television can be projected.
|
||
|
||
It is suggested that no orthodox color tube be used for
|
||
projection, but that one be used which has been modified with
|
||
a radium gun directed toward the cathode of said tube, thusly
|
||
the heater of said tube can be eliminated after having heated
|
||
the cathode sufficiently. This is to achieve scale resolution
|
||
finer than that perceptible by the naked eye.
|
||
|
||
It is in the interest of science and technology that MAGNETS
|
||
has resented this feature. Should the Nemescope, or a comparable
|
||
device be forthcoming because of this information, our
|
||
|
||
Page 9
|
||
|
||
|
||
|
||
|
||
|
||
ability to understand the universe around us will be
|
||
considerably enhanced.
|
||
|
||
Perhaps we might even learn to focus and analyze variations
|
||
in magnetic fields, thereby expanding our knowledge
|
||
considerably.
|
||
|
||
|
||
--------------------------------------------------------------------
|
||
|
||
If you have comments or other information relating to such topics
|
||
as this paper covers, please upload to KeelyNet or send to the
|
||
Vangard Sciences address as listed on the first page.
|
||
Thank you for your consideration, interest and support.
|
||
|
||
Jerry W. Decker.........Ron Barker...........Chuck Henderson
|
||
Vangard Sciences/KeelyNet
|
||
|
||
--------------------------------------------------------------------
|
||
If we can be of service, you may contact
|
||
Jerry at (214) 324-8741 or Ron at (214) 242-9346
|
||
--------------------------------------------------------------------
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
|
||
Page 10
|
||
|
||
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