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October 18, 1992
NEMES1.ASC
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This file shared with KeelyNet courtesy of Cal Newman.
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Article from
Science and Mechanics
January 1964
First Photos of the Atom!
by David Legerman
A revolutionary new scientific instrument has been invented that
penetrates to the heart of matter, the atom, and photographs it in
color!
The incredible microscope is called the Nemescope, and it is the
culmination of years of research by Dr. Elmer P. Nemes, a 44-
year-old Hungarian-born physician presently living in Beverly
Hills, Calif. Prior to the development of the Nemescope, the most
powerful magnifying instrument known to science was the electron
microscope. But this has several drawbacks, not the least of which
is that it produces black-and-white or grey shadow photos with very
little internal structure shown.
The electron microscope has an effective magnification of about
60,000X which can be further magnified photographically. However,
there is no penetration of the structure of the examined material;
nothing can be seen inside the surface. The Nemescope, which uses a
ray of much shorter length than the electron, possibly below even
the neutron range, gives beautiful penetration and resolution of
internal structure.
The new microscope costs a fraction of the electron microscope and
requires specimen preparation no more complicated than that required
by a simple optical microscope. In addition to producing photographs
of sub-atomic structure in color, the Nemescope can also project the
image on a screen or reproduce it via television.
The secret of the Nemescope begins with the theory that if you can
cause radiation of any substance, it will emit an image that can be
converted to light, magnified, and photographed in color
corresponding to its spectrum characteristics. Any solid, liquid, or
gas could be excited by radioactivity in this manner and would
respond by emitting at its own resonant frequency an image in true
color, form, and spectrum.
Page 1
Working on this theory, Dr. Nemes constructed his first model, a
tank-like case shielded with lead that was a maze of knobs, wires,
pipes, and cables. At first all controls were hand-manipulated, but
the Nemescope is now ready for electrically driven controls with
motors that have recorded movement intervals of 1/75,000th of an
inch.
A full explanation of how this remarkable instrument works would
take many pages (it includes more than 20 original patents) but here
is a brief outline:
1. The first unit is a cold cathode lamp with multiple
units separately charged. The filaments are preheated by
an input of 18 volts amplified to 608 volts at the emitting
end. This cathode gun acts as the primary source of
illumination and bombarder of the specimen to be examined.
2. The second unit is a condenser under vacuum with
molecular nitrogen injected. In the condenser circuit are
placed two radium guns each yielding 5,400,000 electron
volts. The condenser includes a coil which carries by
interchangeable switch from 240 megacycles to 35,000
megacycles in magnitron arrangement which hits the
specimen to agitate or excite the molecular structure.
3. The resulting stream of energy is converted into light in
the front orthicon tube, actually consisting of two tubes
which pick up resonant frequencies in the high ranges.
After amplification, the imaging orthicon emits a
picture on the screen in color corresponding to the
nature of the substance under examination.
Results obtained with the Nemescope have been no less than
astounding. In 1955, working with patients in the hospitals of
Mexico City, Dr. Nemes succeeded in making pictures of cells from
the blood and urine of cancer patients which established a
relationship between human cancer and a virus.
In 1957, enzyme battery research started by Dr. Nemes resulted in
another breakthrough when for the first time enzymes were resolved
under a microscope. Through the Nemescope enzymes can be classified
and identified. When we realize that enzymes are the chemical
catalysts of living matter and that viruses share with bacteria the
responsibility for most infectious diseases, a microscope that will
enable man to study more closely these ultra-microscopic substances
is indeed a boon to mankind.
Another exciting discovery made by the Nemescope is in the field of
metallurgy. Behavior of metallic alloys under bombardment by the
Nemescope has indicated that the present makeup of widely used
alloys must be revised and new techniques developed to insure more
stable bonding elements. Where the electron microscope showed
perfect molecular alignment, the Nemescope photos showed fault lines
and distinct weaknesses among bonding elements.
Metal failure of hull welds or pipe welds may have been the cause of
the sinking of the "Thresher". It's obvious that a closer look at
the behavior of metals in the atomic or molecular regions must be
made. The Nemescope, with its great magnifying and resolving powers,
Page 2
will probably furnish the answers to these questions, as well as the
answers to how materials behave when exposed to vacuum, ions and
electrons, and the electromagnetic radiation known to exist in outer
space.
Nemescope photos of the structure of the atomic nucleus are
beautiful in their resolution. Perhaps the most surprising and
exciting sight is how the atomic particles are connected by "force
lines" or bands of energy. Nemescope photos of sub-atomic structure
have an amazing similarity to Rutherford models of the atom--those
three-dimensional models of vari-colored balls held together with
pencil-thin rods. Leukemia particles and the common cold virus, when
photographed by the Nemescope in full color, have a precision in
structure that can, perhaps, be appreciated only by a research
scientist or laboratory technician.
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