10
Documentation on Scalar Wave Technology
Many parameters determine the functionality and natural
resonance of a scalar wave transmission, e.g. wire length, wire
thickness, insulation, winding direction and coil diameter. Only
by choosing identical parameters can perfect reproducibility of
the results be guaranteed. Realising this, I have refrained from
publishing a manual of instructions, since this would cause the
ability to reproduce the experimental results to depend solely on
the skill of the individual hobbyist. The credibility of the results
would suffer. Ultimately this is about the discovery and proof of a
new physical principle (and not about teaching amateurs).
All the parts that are required for operation are included inside
the aluminium carry case alongside the Tesla coils. This is not
only for practical purposes. If an operator wants to do without the
function generator, for example, because he has already a
suitable one available which operates up to 20 MHz, he should
ensure that it is able to provide sufficient drive current. If all
experimenters use the same function generator, all others ought
to be able to reproduce the same results.
Thankfully some experimenters have sent their test reports on
scalar wave transmission to the publisher. These are included
from the 4th edition of the documentation onwards and so are
available to other researchers. As many suggestions are included,
this greatly benefits all those concerned with the transmission of
electrical scalar waves.
It has been shown that the number of possible experiments is
virtually unlimited. This is a new, still largely unexplored type of
wave propagation, so there is still much to discover. What would
a discovery be worth if only the discoverer knew about it?
Although originally I was the author of this book, from the 4th
edition onwards I rank alongside the other authors whose names
are given if they have agreed to being mentioned. As editor, I was
left with the task of sorting the contributions according to the
significant technical, physical and biological characteristics of
scalar waves, and to comment where appropriate.
I. Preface
11
2. Notes on the experimental kit
A part of the inventory of the Experimental-Kit has always been a
frequency counter and other flat coils (type C with twice the wire
length). The function generator can also be adjusted for a wider
range of different waveforms (from 2014 with a digital DDS
function generator). It is assumed that mainly physicists,
engineers and those experienced in metrology will be interested in
the Experimental-Kit. They can of course reproduce all the
experiments given for the Demo-Kit and will receive the same
documentation. In addition, the kit offers all the settings they
would expect from other laboratory equipment. Test sockets have
been specially included for metrological procedures, for example
to measure currents and voltages.
Nevertheless, the set is even suitable for those with no experience
in metrology. Purchasers include doctors, lawyers, therapists,
environmentalists, teachers, politicians and journalists - in short,
it is intended for anyone who wants to verify or to convince
themselves or others of the existence of electrical scalar waves. In
the case of the digital set the optimal setting can be adjusted and
stored, so that after each power-up the demonstration can be
started immediately, just as we were so accustomed to the old
analog sets.
It is assumed that this set is purchased primarily for personal
study and demonstration purposes. Nevertheless, it is conceivable
that some experiments will go further than the specified
repertoire, for example in order to study biological reactions or
medical influences.
The coils (of type A (7Mhz), B (14 MHz) and C (3.5 MHz)) and the
ball electrodes as antennas may possibly also be ordered
separately (in the shop
www.etzs.de
"Kit & Devices" -
"Components"), e.g. for experiments with several receivers or with
the coil B for higher frequencies. In this case, a suitable function
generator would be necessary.
12
Documentation on Scalar Wave Technology
3. Aspects of experimental research
Anyone infected by research fever will continue to build and
tinker with their own equipment and the coils they have wound
themselves until they have found out everything their inquiring
mind wants to know. For them, my set can only provide a first
impetus. I am hoping for constructive and close cooperation from
these experimenters, and from all experimenters in general. Only
when all of those interested in progress pull in the same direction
can ignorance of facts a century old and the arrogance of
established science be overcome with the aspirational goal of
entering into an environmentally friendly era based on scalar
wave technology.
Physical proof is not complete until the results of a theoretical
derivation are confirmed by practical measurements. Certainly
some auxiliary statements of the measurements could be given in
individual cases if each experiment were considered in isolation,
and some people are satisfied with this.
The near-field description, for example, is one such auxiliary
statement. Only if the experiment still works at ten times the
near-field distance will the expert start to ponder.
The major revelation is evidently hidden when working with
auxiliary statements. A theory is needed which includes all the
aspects concerning scalar waves and reproduces all the
properties accurately and in full.
Such a field theory had not so far existed, so I was forced to look
for a suitable one. The Wave Equation to which I always refer [1,
see also page 239] provides the right answer. It originally comes
from D'Alembert, initially formulated one-dimensionally in terms
of time and space, and moulded into its present form by his
student Laplace, using the three-dimensional Laplace operator. If
this is broken down according to the rules of vector analysis, a
field pointer is found to diverge, which in mathematical terms
represents a scalar and gives the scalar wave its name. Now the
Wave Equation also requires a gradient to the scalar which,
mathematically, is a vector.
The scalar wave therefore propagates directed like any wave.
Everyone is familiar with this property of sound waves.
Nonetheless, some confusing reports on the Internet assume that
a scalar wave is undirected in order to go on to prove that what is
not there does not exist.
I. Preface
13
Terms such as "scalar field" are misleading, since they more or
less describe the opposite. That is why it is so important to apply
the laws of physics, because laws are there to be respected.
Within the chain of evidence the experiments described here form
the experimental section in proof of the existence of electrical
scalar waves, because only the correspondence of theory and
practice counts as real proof.
4. Relevant aspects of vortex physics
The most important new component of the field description is the
vortex of the electric field discovered by me in 1990 which I call,
in accordance with fluid mechanics, the "potential vortex" [2].
These field vortexes are capable of carrying a pulse, will spread as
a longitudinal shock wave in space and possess all the properties
of a scalar wave. From the perspective of my books, this
documentation is an important practical addendum. Conversely,
the experimenter will surely find my reference books a great help.
The book entitled "Scalar Wave Transponder" is particularly
recommended.
Before I published this and other books and articles, diverse
aspects of my work were recorded in a collection of material in the
three-part series of books on electromagnetic environmental
compatibility (available under the title “Scalar Waves” from the
shop at
www.etzs.de
). The basics of vortex physics are not
available in any other textbook, but are presented in the first part
of the book, with an examination of the causes, phenomena and
scientific consequences of the potential vortex of the electric field.
The second book in the series includes a section on free energy
and the interaction of neutrinos. It is mainly about the design
details of the technical side of scalar wave energy and questions
concerning its practical application. The operation of the Tesla
coil previously mentioned in the first part is developed in more
detail in the second part. The field theory from the first part is
also developed further and considered in the context of existing
constructions.
14
Documentation on Scalar Wave Technology
5. Structure of the documentation
The derivation of scalar waves from the Wave Equation which is
key to understanding the experiment and a discussion of the
properties and the consequences for information technology can
be found in the third part of the book series that was not
published until two years after the documentation. The reason for
this was that until the 3rd edition the relevant chapters had been
included in the documentation. This no longer matters in the case
of the 4th edition onwards because the 3rd part of the collection
is now available [3].
I have also held some hands-on lectures in which I have
demonstrated the scalar wave transmission path. At the INET
conference in Bregenz 2000, the journalist Inge Schneider took
the trouble to make a typescript of my lecture. In this way,
something could be captured of the live atmosphere and the
crackling tension in the room, and I have decided to include this
essay (in the "Review" chapter on page 250 of the German issue,
not translated).
Naturally the instructions for the experiments form the core of
this documentation and at the same time are intended to serve as
patterns for further descriptions of experiments.
I now wish you every success in carrying out the experiments
yourself and hope you achieve high efficiencies.
INDEL-Publishing Department
Konstantin Meyl
Villingen, June 2000 (in German)
www.meyl.eu
and 2014 in English translation
I. Preface
15
6. Preface to the 6
th
edition
New discoveries usually take decades until they finally find their
way into practical use. Considering that I first began in 1990 with
the publication of my work to the discovery of potential vortexes
and to the practical use of scalar waves, I've already come quite
far; so tell me friends in their own estimation.
The world of electronics, however, is changing much faster than
that of physics. Thus the Experimental-Kit is offered virtually
unchanged since 2000. 14 years is an eternity for the
components used, since production of the analog function
generator chip was stopped by the manufacturer. We were forced
to modernize the technology.
From the year 2014 a digital DDS signal generator replaces the
analog technology yet originally made by hand. It is a purchased
part that is rebuilt at our premises for the operation of the
extremely low impedance flat coils and extended. The frequency
signal is crystal stable, up to 8 MHz adjustable and storable. For
the connection of the flat coils (of type A or C) is a dedicated
connection available.
The coils (type B) with a resonance frequency of about 14 MHz are
unfortunately not operable anymore and hence no longer
included in the suitcase. But they will further on be offered in the
shop (of
www.meyl.eu
) for those who use their own generators,
which allow higher frequencies and have low enough impedance.
Besides that the experimental suitcase and particularly the coils
have remained the same. This is particularly important in terms
of reproducibility and comparability of results.
Almost unnoticed this documentation has become a volume 1.
The planned volume 2 will be devoted to medicine and the Scalar
Wave Device, as the "Documentation 2 for Scalar Wave Medicine".
This is a significant aspect which is mentioned in the
Documentation 1 for Scalar Wave Technology only marginally,
but builds on in direct connection.
Villingen, May 2014
www.meyl.eu
(The 6
th
edition in German, 1
st
edition in English)
Document Outline - Documentation on
- II. Description of the devices for scalar wave transmission 16
- III. Experiments with scalar wave transmission (Manual) 27
- IV. Measuring reports for the Over-Unity-Effect . 70
- V. Experiments concerning the “earthing connection” . 90
- VI. Experiments concerning the Transmission Path . 110
- VII. Experiments on the shielding cage and mobile phoning. 151
- VIII. Research on biological and medical effects . 183
- IX. Scalar wave reports . 212
- 2. Notes on the experimental kit
- The coils (of type A (7Mhz), B (14 MHz) and C (3.5 MHz)) and the ball electrodes as antennas may possibly also be ordered separately (in the shop www.etzs.de "Kit & Devices" - "Components"), e.g. for experiments with several receivers or with the coil...
- Descripction of the devices for scalar wave transmission
- 5 windings/
- Doible connection HF coil (according to Tesla)
- the oscillograph GND reference potential
- Scalar wave transmission with two identical pancake coils:
- „Transmitter“ „Receiver“
- GND
- Fig. 3: The aluminium suitcase with content
- With that you can build an energy transmission according to Tesla, as has already been demonstrated by the First Transfer Center of Scalar Wave Technology at various exhibitions and congresses.
- Springs
- ├─ U, (I)
- U
- Generator for Load resistance
- sinusoidal signal Transmitter Receiver
- Fig. 3.2: DC measurement with multimeter
- (jumper position: “DC”)
- It will be shown that scalar waves, normally remaining unnoticed, are very interesting in practical use for information and energy technology for reason of their special attributes. The mathematical and physical derivations are supported by practical ...
- „Transmitter“ „Receiver“
- Transmitter Receiver
- no Jumper if
- Jumper necessary
- Function generator LF- active
- amplitude modulatable carrier speaker
- audio- 10 µH 1 µF 220 ( 1 K Transmitter-PCB
- Jumper position „DC“
- Voltage multiplier +
- TBA 820
- 1 N 4148 120( 1(
- Receive PCB + +
- 5K 1K 100µF 47µF 220nF LS
- Fig, 4.1: 10K BC 517 1N4148
- 5 + DC
- 10K receiver plate
- LF- + with Jumper on
- audio- 0,1 µF 10K setting „DC“
- HF transmitter HF-receiver
- no Jumper
- Jumper set “DC”
- HF-Function LF-audio circuit
- generator carrier in 4.8
- However, no final research results will be presented in this book. Without exceptions, this only happens in selected and peer-reviewed science journals. The mainly expectations are to spread the experimental instructions and to give suggestions for fu...
- Fig. 3: Scalar wave transmission line according to Tesla (1999); from left to right: M.Andresen (MSc), author (TZ-head), Dipl.Ing.M.Rehm (project leader)
- Fig. 4: Measurement record for scalar wave transmission line
- 4 André Kurs, Aristeidis Karalis, Robert Moffatt, J. D. Joannopoulos, Peter Fisher, Marin Soljacic: Wireless Power Transfer via Strongly Coupled Magnetic Resonances, Science 7 June 2007
- 6 D.J.P.Morris et al: Magnetische Monopole in magneti-schem Festkörper entdeckt, Pressemitteilung vom 3.9.09 der Helmholtz-Gemeinschaft e.V. Berlin, und:
- Dirac Strings and Magnetic Monopoles in the Spin Ice Dy2Ti2O7 , Science 16 October 2009, Vol. 326. no. 5951, pp. 411 - 414
- 9 K. Meyl, “Task of the introns, cell communication explained by field physics”,
- Journal of Cell Communication and Signaling, Vol. 6, No. 1, 2012, pp. 53-58. DOI: 10.1007/s12079-011-0152-0
- 10 K. Meyl, “DNA and Cell Resonance, Communication of cells explained by field physics including magnetic scalar waves”, INDEL Publ. Villingen, 2nd ed. 2011.
- 11 K. Meyl, “DNA and Cell Resonance: Magnetic Waves Enable Cell Communication”, DNA and Cell Biology, Vol.31, No. 4, 2012, pp. 422-426. doi:10.1089/dna.2011.1415.
- O
- COOH
- HO
- CO
- H
- OH
- 16 A. Waser: Elektrische Skalarwellen Review zum Meylschen Experiment, Raum & Zeit 107, 2000
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