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“As
long as there is breath in my body Lakhovsky's
In the 1925 Georges Lakhovsky in France developed
a coil for the protection of trees; copper wire was stuck into the ground,
turns were made around the tree, and the loose end was pointed towards
the sky as an aerial. In 1928 he formed a variation of this that was geared
to improve the health of humans, which he called the ‘multi-wave
oscillator’, based on his then new theory that cells are microscopic
oscillating circuits. What Lakhovsky discovered was simply mind boggling: He postulated that all living cells (plants, people, bacteria, parasites, etc.) possess attributes which normally are associated with electronic circuits. These cellular attributes include resistance, capacitance, and inductance. These 3 electrical properties, when properly configured, will cause the recurrent generation or oscillation of high frequency sine waves when sustained by a small, steady supply of outside energy of the right frequency. This effect is known as resonance. It's easiest to compare it with a child swinging on a playground swing. As long as the parent pushes the swing a little at the right moment (the correct 'frequency'), the child will continue to swing high and continuously. In electronics, circuits which generate these recurrent sine waves can be called electromagnetic resonators, but more commonly they are referred to as oscillators. |
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took it. Out in the corporate world, as an editor of textbooks, I presided
over the publication of a series of basic electronics books for the schools.
But, now, I confess: I never really understood how electricity works until
I read Tesla. I had to deschool myself to write this book. Tesla |
Tesla
called it a "powerhouse in a hat." One version developed 110
h.p. at 5000 RPM and was less than ten inches in diameter. Tesla believed
larger turbines could achieve 1000 h.p. The disk-turbine rotary engine
runs vibration free. It is cheap to manufacture because nothing but the
rotor bearings needs to be fitted to close tolerances. It requires little
maintenance. If necessary, the rotor can be replaced with ease. The turbine
can run on steam, compressed air, gasoline, or oil. how it works |
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A
hollow casting is bolted to the top of the turbine for the internal combustion
mode. A glow plug or spark plug screws into the top of this chamber. Sticking
out of the sides are the intake valves. Interesting thing about these
valves, there are no moving parts. They work on a fluidic principle. The
Tesla turbine's only moving part is its rotor. Imagine, a powerful internal
combustion engine with only one moving part. fluidics
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The disk turbine principle is employed in the speedometer, which presents the problem of having to turn the rotary motion of a vehicle's wheels to angular motion in order to push a spring-loaded indicator needle over a short arc. Tesla's solution: the speedometer cable connects to a disk which spins in interface with a second disk, imparting spin to the fluid in between and, hence, to the second disk which moves the needle. Interface two disks of different sizes in a fluid medium and "any desired ratio between speeds of rotation may be obtained by proper selection of the diameters of the disks," observes Tesla in his patent, thus anticipating in 1911 the fluid-drive automatic transmission. Tesla First worked on his turbine early in his career, believing it would be a good prime mover for his alternating-current dynamos, far superior to the reciprocal steam engines that were the work horses of that era. But he did not get down to perfecting and patenting it until after the collapse of his global broadcasting scheme (1909). By this time the internal-combustion piston engine was firmly rooted in Western power mechanics. Tesla referred to "organized opposition" to his attempts to introduce the superior engine, and so have others who have made the attempt since. But Tesla still saw a glorious future for his turbine. To his friend, Yale engineering professor Charles Scott, Tesla predicted, "My turbine will scrap all the heat engines in the world." Replied Scott, "That would make quite a pile of scrap." 2. Spark-Gap Oscillator Tesla was central in establishing the 60cycle a.c. power system still in use today. Yet he suspected that the more striking phenomena resided in the higher frequencies of electric vibration. To reach these heights, he first tried dynamos spun at higher speeds and having a greater number of poles than any that had existed before. One having as an armature a flat, radially grooved copper disk achieved 30,000 cycles, but Tesla wanted to go into the millions of cycles. It occurred to him that this vibratory capability was to be found in the capacitor. With a capacitor circuit, the spark-gap oscillator, he did indeed achieve the higher frequencies, and he did so by nonmechanical means. The circuit was promising enough for him to patent it as "A Method of and Apparatus for Electrical Conversion and Distribution," for Tesla saw in it the possibility of a whole new system of electric lighting by means of high frequencies. Though it was quickly succeeded by the tesla coil and is not numbered among the more famous of the lost inventions, the spark-gap oscillator is pivotal for Tesla as the invention that launched him into his career in high frequencies. how it works |
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The capacitor
There are only a few basic building blocks of electrical circuitry. The
capacitor is one of them. Tesla didn't invent it, it had been around for
some time, arguably for millennia, but he did improve upon it in three
of his patents. Also called condenser, the common capacitor is just a
sandwich of conductive and nonconductive layers that serves the purpose
of storing electrical charge. The simplest capacitor has just two conductive
sheets separated by a single sheet of insulation. In the capacitor shown,
the conductive elements are two metal plates. The insulation between them
is oil. In the official vocabulary, the plates are indeed called "plates"
and the insulative layer (oil, glass, mica, or whatever) is called the
"dielectric." Connect the two terminals of a capacitor into
a circuit where there is plus-minus electrical potential, and charge builds
on the plates, positive on one, negative on the other. Let this charge
build for a while, then connect the two plates through some resistance,
a coil, say, and the capacitor discharges. Very suddenly. Tesla said that
"the explosion of dynamite is only the breath of a consumptive compared
with its discharge." He went on to say that the capacitor is "the
means of producing the strongest current, the highest electrical pressure,
the greatest commotion in the medium." The capacitor's discharge
is not necessarily a single event. If it discharges into a suitable resistance,
there is a rush of current outward, then back again, as if it were bouncing
off the resistance, then out, and back and so forth until it peters out.
The discharge is oscillatory, a vibration. The vibration can be sustained
by recharging the capacitor at appropriate intervals. When Tesla talks
of the capacitor's discharge causing "commotion in the medium,"
he means a vibration or mix of vibrations. The character of this vibration
is determined in part by the capacity of the capacitor, that is, how much
charge it will hold. This is a function of it size, the distance between
plates, and the composition of the dielectric. Upon discharge there would
be, typically, a fundamental vibration, some harmonics, and perhaps other
commotion, maybe musical, maybe not. Additional circuitry can tame the
vibration to a "pure" tone. the "medium" |
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When Tesla speaks of "commotion in the medium," what is the "medium?"
In Tesla's time it was an article of faith that there existed a unified
field that permeated all being called the "ether." The ether
as the electric medium still is an article of faith in some circles, but
in official science its existence is presumed to have been disproved in
the laboratory. Nevertheless, this conviction about an ether ran very
deep, not only among scientists but among all thinkers, until only about
forty-some years ago when particle theory, E=MC^2, and, finally Hiroshima
firmly established the new faith. Tesla said the electron did not exist.
The materialistic concept of these little particles running through conductors
is alien to Tesla electric theory. Here is the Quaker writer Rufus Jones
on the ether in 1920: "An intangible substance which we call ether
- luminiferous (light-bearing) ether - fills all space, even the space
occupied by visible objects, and this ether which is capable of amazing
vibrations, billions of times a second, is set vibrating at different
velocities by different objects. These vibrations bombard the minute rods
of the retina... It is responsible also for all the immensely varied phenomena
of electricity, probably, too of cohesion and gravitation... The dynamo
and the other electrical mechanisms which we have invented do not make
or create electricity. They merely let it come through, showing itself
now as light, now as heat, now again as motive power. But always it was
there before, unnoted, merely potential, and yet a vast surrounding ocean
of energy there behind, ready to break into active operation when the
medium was at hand for it." Jones, who was not a scientist but a
religious thinker and communicator, was making a point about the nearness
of God's power and could do so by invoking the physics of his time. This
would be difficult using the Einsteinian physics in fashion today, which
W. Gordon Allen has called "atheistic science." Although the
ether is intangible, it is assumed to have elastic properties, so that
Tesla can say "a circuit with a large capacity behaves as a slack
spring, whereas one with a small capacity acts as a stiff spring vibrating
more vigorously." This elastic character of the ether, which you
experience palpably when you play with a pair of magnets, is due to the
medium's lust for equilibrium. Distorted by electrical charge (or by magnetism
or by the gravity of a material body), the ether seeks to restore a perfect
balance between the polarities of positive-negative, plus-minus, yangyin.
Voltage is the measure of ether strain or imbalance, called potential
difference, or just potential. Balance is not restored from this strained
condition in one swing-back. As we have seen with the capacitor, the disturbed
electric medium, like a plucked guitar string, over-swings the center
line of equilibrium to one side, then to the other, again and again, and
this we know as vibration. In this way of looking at nature, vibration
is energy, energy is vibration. So you could say that the commotion in
the medium caused by the capacitors discharge is energy itself. Thus,
you can speak of the capacitor as an energy magnifier. Even though a feeble
potential may charge it, the sudden blast of the capacitor's release plucks
the medium mightily. The capacitor is common in modern circuitry, but
Tesla used it with much greater emphasis on its capability as an energy
magnifier and on a scale almost unheard of today. It's difficult to find
commercial capacitors that meet Tesla specifications. Builders of tesla
coils and other high-voltage devices usually must construct their own
capacitors. Fortunately, this can be done using readily available materials.
how it works
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Tesla's best-known invention takes the spark-gap oscillator and uses
it to vibrate vigorously a coil consisting of few turns of heavy conductor.
Inside of this primary coil sits another secondary coil with hundreds
of turns of slender wire. In the tesla coil there is no iron core as in
the conventional step-up transformer, and this air-core transformer differs
radically in other ways. Recounting the birth of this invention, Tesla
wrote, "Each time the condenser was discharged the current would
quiver in the primary wire and induce corresponding oscillations in the
secondary. Thus, a transformer or induction coil on new principles was
evolved Electrical effects of any desired character and of intensities
undreamed of before are now easily producible by perfected apparatus of
this kind." Elsewhere Tesla wrote, "There is practically no
limit to the power of an oscillator." The conventional step-up transformer
(short primary winding, long secondary on an iron core) boosts voltage
at the expense of amperage. This is not true of Tesla's transformer. There
is a real gain in power. Writing of the powerful coils he experimented
with at his Colorado Springs lab, coils with outputs in excess of 12 million
volts, Tesla wrote, "It was a revelation to myself to find out that
... a single powerful streamer breaking out from a well insulated terminal
may easily convey a current of several hundred amperes! The general impression
is that the current in such a streamer is small." how it works |
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Tesla invented his resonant
transformer. as the tesla coil is sometimes called, to power a new type
of high-frequency lighting system, as his 1891 patent drawing shows. This
was the first tesla coil patent. There followed a series of other patents
developing the device. All of these are for bipolar coils: both ends of
the secondary are connected to the working circuit (usually lamps), as
opposed to the monopolar format favored by today's basement builders in
which the top is connected to a ball or other terminal capacitor, the
bottom to ground. The monopolar format emerges later in patents for radio
and wireless power, including Tesla's magnifying transmitter. The 1896
patent drawing shows an evolved bipolar coil using tandem chokes to store
energy for sudden release into the capacitor, enabling the device to be
powered by relatively modest inputs. Chokes are coils wound on iron cores.
They store energy as magnetism. When the charging current is interrupted,
the magnetic field collapses inducing current in the coils which rushes
in to charge the capacitors. superconductive With the backing of J. P. Morgan, Tesla began, soon after returning from
Colorado Springs, the construction of a magnifying transmitter tower at
Wardencliff, near Shoreham, Long Island. Though closely related to a wireless
power propagator and intended for further experimentation in that area,
the tower was built specifically as the first station in Tesla's proposed
World System of broadcasting. The system was to carry programming for
the general public as well as private communications. Tesla was the first
to suggest the broadcasting of news and entertainment to the public; only
point-to-point signalling had been experimented with up to then. The fully
realized World System was to serve as a multi-frequency wireless interconnect
for all existing telephone, telegraph, and stock ticker services around
the planet. Exclusivity and noninterference of priority private communications
was to be assured by multiplex techniques. The giant transmitter was also
to carry a universal time register, navigation beacons, and facsimile
transmissions. This was in 1902. As we shall see, Tesla's massive contribution
to radio is still largely unrecognized. The Wardencliff tower's rugged
wooden structure, designed by Stanford White, stood at 187 feet. It was
topped by a mushroom-like terminal 68 feet in diameter. A separate brick
building at the foot housed generating and other equipment. The entire
project was to cover 200 acres and include housing for 2,000 employees
of the facility. Tesla estimated that the tower would "emit a wave
complex of a total maximum activity of 10 million horsepower." The
top of the tower was outfitted with a platform that may have been intended
to accommodate powerful ultraviolet lamps which Tesla could have used
for an experimental beam system of electric power transmission that was
on his mind. The tower structure and building beneath were built and partially
equipped, but they never saw operation. father of radio? |
Tesla was not a theoretician by calling, but he made plenty of observations
on the electrical nature of the universe that put him at odds with of
official theory. In fashion then (and even now) was the theory of Heinrich
Hertz, an interpreter of the physics of James Maxwell. Hertz explained
radio propagation as transverse waves akin to light. Tesla was convinced
that radio disturbances were standing waves in the ether akin to sound.
When you drop a pebble into water, the disturbances you see in the form
of concentric circles are standing waves. Both Tesla and Hertz assumed
the existence of an etheric medium, but differed as to its energy transmitting
properties. Tesla believed that the ether was a gaslike medium, that electric
propagation was very much like that of sounds in air, "alternate
compressions and rarefactions of the medium," and that Hertzian waves
could only take place in a solid medium. Tesla once said that Hertz waves
are "radiations" and that "no energy could be economically
transmitted to a distance by any such agency." He said, "In
my system, the process is one of true conduction which can be effected
at the greatest distance without appreciable loss." When quantum
physics and particle theory came into vogue, the etheric medium was dropped
out of electric theory altogether, but Hertz's theory was more compatible
with the new concepts of propagation and therefore survived. By way of
rubbing this in, the unit of frequency, formerly cycles per second (cps),
was renamed in honor of Hertz (hz), while Tesla is remembered only by
an obscure unit of magnetic flux density. It is in respect to Tesla that
I have reverted to the old unit in this book. Hertzian radio is straight-line,
light-like radiations that bounce off hills and mountains. Long distance
Hertzian transmissions are explained in terms of radiations bouncing off
a radio reflective upper layer called the ionosphere. Tesla thought this
was all nonsense and declared in 1919 that Hertzian thinking "has
stifled creative effort in the wireless art and retarded it for 25 years."
Hertzian radio is aerial. Most of us are conditioned to thinking in terms
of aerial radio; "the air waves," "on the air." Tesla's
radio is grounded; the lower end of the energized coil is rooted in the
earth. Pure Hertzian radio has no such natural load. Tesla doesn't speak
of antennas as such; the element he places aloft is an "elevated
capacity." Tesla said radio devices "should be designed with
due regard to the physical properties of this planet and the electrical
conditions obtaining in same." Grounded radio is indeed more powerful
than the Hertzian aerial. But this is true particularly for the. frequencies
Tesla was using. The higher frequencies do behave in a Hertzian manner.
Yet grounding is all but a lost concept in consumer electronics. Up through
the 1940's, AM radio receivers customarily had a terminal one was encouraged
to connect to a cold water pipe or other deep earth connection. Ground
the chassis of any of today's receivers, and, unless there is some kind
of interference coming up through the ground (from fluorescent circuits,
light dimmers, which are oscillators, or from the local tesla coil), you
will usually improve signal strength and range. Among Tesla's contributions
to radio was remote control. Tesla demonstrated a radio-controlled boat
before crowds at Madison Square Gardens and sent another robot craft 25
miles up the Hudson River. Grounded radio works particularly well through
water. Tesla's basic radio tuning "tank" circuit for receiving
(coil plus capacitor between antenna and ground) is, all by itself, a
powerful signal amplifier and a beautifully simple one. But as radio developed
over the years, the tank circuit shrank in size and the result was a loss
in gain. This was compensated for by the addition of stage upon stage
of complex amplification circuitry. Tesla watched this development with
bewilderment. Tesla knew that the most efficient long-distance radio took
place in the lower frequencies, especially those close to the earth-resonant
frequency. Frequencies well below the AM broadcast band were the favored
ham frequencies in the early days prior to World War I. In fact, waves
of 600 meters (500 kc) were considered "short" while considered
"fairly long" were the waves of 1200 meters (25 kc). Like a
lot of good real estate, many of these more radio-effective frequencies
below the AM broadcast band have been appropriated for military use, but
also for navigation beacons, weather stations, and time registers. underground
radio In 1891 Tesla said that existing methods of lighting were "very
wasteful," that "some better methods must be invented, some
more perfect apparatus devised." Tesla went and did just that, yet
here we are today in a world lit predominantly by the same Edison bulb.
Edison's bulb burns with six percent efficiency, the rest going off as
heat, while the high resistance filament cooks at 4,000 degrees and eventually
breaks without warning. Today's fluorescent tube, though inspired by Tesla,
is no model of efficiency either. Its inner surfaces are stimulated to
phosphorescence by energy-consuming filament-like cathodes that also burn
out, and the lit-up tube would present a dead short to the current if
it were not for the so-called "ballast transformer," an inductance
placed in the circuit to oppose and thus eat up yet more current. What
sent Tesla into an exploration of high frequency phenomena was his conviction
that these rapid vibrations held the key to a superior mode of lighting.
The explorations were not Tesla's first venture into lighting. His very
first U. S. patent (1885) is for an improvement in the arc lamp. He used
an electromagnet to feed carbons to the arc at a uniform rate to produce
a steadier light (No. 335,785). Early arc lamps produced a brilliant blue-white
light, good for street lighting but not for the home, and they emitted
noxious fumes. Home lighting was by gas. Street arc lighting used series
circuits. Edison introduced the parallel circuit, and designed his lamp
for such a circuit. Edison introduced the bigscale production and sale
of electric power itself on the model of gas lighting, a major industry
at the time. He wanted to be first in the business and announced to the
press that he had an operable bulb before he actually had a bulb that
worked. When Tesla's a.c. system was established, it was grafted on to
Edison's, greatly extending its range and efficiency. But, essentially,
it was still Edison's parallel circuit, high consumption, incandescent
lighting system, and this is what we have to live with today. a better
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Tesla took an evacuated incandescent type lamp globe, suspended within it at dead center a conductive element, stimulated that element with high voltage currents from an induction coil, and thus created a beam-like emanation, a "brush" discharge that was so eerily sensitive to disturbances in its environs that it seemed to be endowed with an intelligent life of its own. The device works best if there is no lead-in wire. In the bulb shown, every measure has been taken to construct it so it is free from its own electrical influence. The bulb could be stimulated inductively by applying energy to metal foil wrapped around its neck. Thus excited, "an intense phosphorescence then spreads at first over the globe, but soon gives place to a white misty light," observes Tesla. The glow then resolves into a directional "brush" or beam that will spin around the central element. So responsive is it to any electrostatic or magnetic changes in its vicinity that "the approach of an observer at a few paces from the bulb will cause the brush to fly to the opposite side." A small, inch-wide permanent magnet "will affect it visibly at a distance of two meters, slowing down or accelerating the rotation according to how it is held relatively to the brush." Tesla never patented the rotating brush or used it in any practical application, but he believed it could have practical applications. He saw one use in radio where the device could conceivably be adapted to being a most sensitive detector of disturbances in the medium. The rotating brush appears to be a precursor of the plasma globe toys now in fashion; these are sometimes called "Tesla globes." Tesla's new lighting was famous in its time. Tesla, the promoter, saw to it. He conducted demonstrations at lectures before the electric industry associations, before large audiences in rented halls, and before select groups of influential New Yorkers in his Manhattan lab. His articles about the new lighting were published in the popular scientific press and it was reported in the newspapers. Still, it did not catch on with the powers-that-be who no doubt saw in it Tesla's perennial pile-of scrap problem. But, I wonder, would the whole electric distribution system have to be scrapped to implement the efficiencies of Tesla lighting? Conceivably, the new lighting could be run off of local oscillators at the consumer end, the old power distribution system remaining intact. This is still a possibility, as it has been for about one hundred years. 7. Transport Tesla speculated,"Perhaps the most valuable application of wireless
energy, will be the propulsion of the flying machine, which will carry
no fuel and be free from any limitations of the present airplanes and
dirigibles." The possibility of electric flight intrigued Tesla,
though he never did patent an electric aircraft. But he did patent an
electric railway using his high-frequency, high-potential electricity
in a by-wire mode, and also patented a radical aircraft that, while not
electric, did have an advanced power plant: his disk turbine. Tesla's
railway and aircraft can be numbered among the lost inventions. The closest
transport technology has come to putting any of Tesla into actual practice
is with diesel-electric power using Tesla polyphase motors, an early and
notable example of which was the ocean liner Normandie. In the field of
transport Tesla is more commonly identified with antigravity flight and
UFO's. Although this identification is based upon nothing more than a
few public utterances, his suggestions charge the imagination with possibilities.
high-frequency railway |
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From the electric
potential that exists between the elevated plate (plus) and the ground
(minus), energy builds in the capacitor, and, after "a suitable time
interval," the accumulated energy will "manifest itself in a
powerful discharge" which can do work. The capacitor, says Tesla
should be "of considerable electrostatic capacity" and its dielectric
made of "the best quality mica," for it has to with stand potentials
that could rupture a weaker dielectric. Tesla gives various options for
the switching device. One is a rotary switch that resembles a Tesla circuit
controller. Another is an electrostatic device consisting of two very
light, membranous conductors suspended in a vacuum. These sense the energy
build-up in the capacitor, one going positive, the other negative, and,
at a certain charge level, are attracted, touch, and thus fire the capacitor.
Tesla also mentions another switching device consisting of a minute air
gap or weak dielectric film which breaks down suddenly when a certain
potential is reached. The above is about all the technical detail you
get in the patent. Although I've seen a few cursory references to Tesla's
invention in my sampling of the literature of free-energy, I am not aware
of any attempts to verify it experimentally. Plauson's converter
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