DE102005006291A1 - Integration electrodes using method for use in e.g. electronics, involves combining integration electrodes, where new integration electrodes in design and new functions with hieroglyphic electronic surface properties are pointed - Google Patents

Abstract

The method involves combining integration electrodes, where new integration electrodes in design and new functions with hieroglyphic electronic surface properties are pointed. New electrode structures are permitted to align in circuits and are coupled to antenna amplifiers. The combined integration electrodes represent a closed function of the input of the frequency to the output of the frequency for assigned waves.

Description

method with dipoles at microwaves, that in the main patent already with some Examples is described here in this third additional patent with two integrated methods with "free energy", unmodulated or modulated, continued. With the classical mechanics one can do everything with further integration, however, the effects are complementary to each other, synchronous up to the quantum leap. This invention belongs last End in the quantum physics, also in consideration as a hologram and the tunnel effect, for use in control and regulation processes with higher Requirements as partial from known chips.

The Invention will be first in the first integration stage building on the basics with the Methods of previous patents of the same inventor described.

These The invention relates to an integration method with partially constitutive Effects of the main patent, which are even more minimized here. shown are first following new contoured function elements, The approximately on a support plate are applied. Microwaves that are unilateral, bilateral and antipotal act.

This Procedure closes well-known and new officials one, up to new circuits with increase in integration in switching element applications for the microwave utilization of hieroglyphic signs in the circuit action and another way of obtaining electrical energy from sunlight can.

gradual be first the existing unpublished Inventor findings of the main patent and other additional patents, which are also here as a basis for serve another description of the invention.

Of the Miniature dipole is receiver and transmitter at the same time. After the invention of the "limit conversion" on the transmitter side of the dipole becomes about 70 at the extended length of a dipole This limit value is recognized in two effects, as in the main patent described. At a length over 70 mm the dipole is considered a "large miniature dipole" and at a length below 70 mm as "smaller Miniature dipole ". In this invention, the classification is a "small and large miniature dipole" with a method of integration electrodes for Circuit functions also given. There are also usage and working procedures.

In Electronics are increasing interest in further reductions and simplifications of circuit functions for smaller waves, the manufacturing cost are of importance. - The from the inventor as "frequente Wave energy "designated energy, their use of unused weak energy in electronic operations now possible and on the other hand, the elimination of unwanted frequency energy areas, the so-called "smog", are with this Invention also achievable. It is known that this weak energy so far fizzled, because no use was known.

By the miniaturization in electronics will be more small dipole antennas used here in the high-frequency technology in the known technique with microwaves down to the millimeter range for wave guides, or lines are introduced on known substrates (printed circuit boards).

In In this technique, circuits, e.g. as resonators, comb-line bandpasses, interdigital transducers, Directional coupler, filter and phase shifter with modified coupling structures However, with this invention, by new electrodes with associated methods. Tesla already knew which resonance effects to use with little energy could accomplish.

In The electronics with miniature arrangements are also on chips yet much has been achieved. Creepage distances and voltage gaps can also in semiconductor devices cause problems. Static and temperature influences often determine the life of these integration groups or components, where the limits of known technology are reached.

The Interest continues in integrated circuits that still exist easier and as possible not so much dependent on creepage distances with temperature influences and not just determined by semiconductor functions what's easier on the way to low-energy recycling possible is.

aim The invention is with surface waveguides to circumvent the above technical disadvantages as best as possible. Be with claims solved these problems by that new integrated electrode structures with new circuit methods the possibilities and applications as set forth below. By the Invention are further circuits, as listed below, can be seen.

The task in the integrated low-energy range is achieved according to the invention in two steps with different features of the following claims. Both solutions open up a wide range minimization of switching groups (chips).

New ways open for the electronics. Starting from a method for antenna dipoles ( 2 and 5 ), integration electrodes according to an old hieroglyphic-like pattern are listed below in the first invention step ( 1 - 13 ) with circuits, antenna amplifiers and inventions circuits (according to 5 . 10 and 15 ).

This are amplifiers from the antenna as a receiver to the transmitter in the microwave range, where then the wave energy for a particular use, e.g. for energy use (control), to additional function as required to specific circuits coupled becomes. Other, now unrecognizable possibilities are not excluded.

Weak light rays, initially referred to as luminous flux, microscopic and in the telescope effect optically or via electrical lenses electron optics in the double parabolic mirror ( 11 ) strike; determine the construction of the light-receiving device for visualization, see basic arrangement ( 10 ) in the broader sense of the invention.

In the practical embodiment, a plurality of double parabolic mirrors are arranged side by side. For further explanation, with these integration electrodes, a light amplifier for very small frequency wave energy in ( 10 ).

On the basis of the drawing further integrated electrodes are explained: The dipole antenna is here a double parabolic mirror ( 11 ) from a stamped part, in which short wave energy ( 01 ) (Rays) is caught. These vibrations are transformed into a resonator ( 03 ) (Resonant circuit) forwarded. The emerging frequency wave energy ( 04 ) is converted into a narrowband amplifier ( 05 ) and radio-concentrated ( 06 ) into an electron double-layer lens ( 07 ) transfer. Further elements and circuits according to ( 07 ) to. Visualization ( 08 ), for example of rays (electromagnetic oscillations) coming from a luminous flux, do not belong to this invention, since this is a separate field of work, which is easier to solve than these previous findings or inventions.

This invention includes the dipole antenna ( 11 ) for light waves of various types according to the application. This dipole ( 11 ) considers the inventor in a broader sense as an optical waveguide, or receiver to supply this high light frequency electronic circuit utilization.

There are also suggestions for the optical communications technology available. In the construction of a viewing device for the captured light waves ( 01 ), several dipole antennas ( 10 and 11 ) juxtaposed, the rays ( 01 ) from a predetermined direction are bundled and amplified there, and then in the adjustable parabolic mirror ( 02 ) ( 10 ) broadband and fixed arranged to act.

This allows weak light ( 01 ) are detected optically or with electron lenses as well as tiny energy units such as tachyons, biophotons and light quanta that come from the living cell, and made visible.

As you can see from the basic circuit ( 10 ), the different reception of rays of gemstones is possible.

The Contemplation of free electrons and ions is finally known Way electronically and in further indication of task to task evaluated. These are possibilities for a broad field of development, followed by new manufacturing processes. The Selection and evaluation of these microwaves and light waves after of this kind belong here not for further description of the invention.

in the Main patent were the basic effects of geometric patterns, the in nature as "holy Find geometry, by a primal measure of 7.23 cm, which is then smaller in double or triple dipole length or larger is used. So here is also discovered that in our three-dimensional world, among other things, the division of the wave length almost lawfully one Interaction has, which is different from this primal high-frequency Effects shows in the shape that when sending with a small No dipole for human tissue is exposed to stressful wave energy, but an energy conversion to the dipole ends occurs with a so-called Buffer effect of harmonics without changing the fundamental wave, the their function in sending and receiving thus retains what is important in the wave-energy distribution.

in the Our main patents have been matched by the effects of miniature dipoles Details recognized.

The further meaning lies at this point in this invention in a broader sense in that in the second integration step of the dipole mirror ( 16 ) can be multiplied in order to convert more light energy, eg from the sun, into high-frequency electrical energy, as known in a similar manner. Also for other energy-using measures with thermoelectricity, Ther mokraft and the thermoelectric series are still open.

At the periphery, eg with small distances, four integration electrodes are arranged for coupling ( 15 ) with further wave conductors. The recovered converted energy is passed on as electrical energy to associated "electrode structures" for recovery.

With the second step of the inventive insights, a further quantum leap in quantum physics complements the conventional way of thinking from high-frequency technology. This is a departure from classical mechanics. All in all, there is a parallel to the universe. We are too attached to old ways of thinking. It is undoubtedly an art to abandon all existing opinions and these novelties 15 recognize.

Please note the drawn integration electrodes ( 16 - 25 ) with the heart of a mirror ( 16 ), which has already been mentioned under [0012], whereby it is possible to convert the ultra-high-frequency sunlight in another way in a way not yet known into electrical energy and to use this energy for other functions. On the one hand, it is fed to integration elements and, on the other hand, to energy consumers.

A kind of PCB after ( 15 ) is, for example, according to function desired with the indicated integration electrodes ( 17 - 25 ) printed on two sides by known methods, etched, etc ..

Several flat dipoles close together, are assembled as a common integration electrode for amplifier characteristics. 16 So it shows a mirror with which you can capture sunlight to convert the light energy into electrical energy. The well-known wave nature of the light is considered. The mirror ( 16 ) has a curved surface which is bent approximately concave convex, consisting of thin precious metal sheet. Frequent light pulses can also be used.

• a) Als Ausgangspunkt für ein Potential kann verglichen werden, dass das Grundgesetz über die Erzeugung von Feldern durch Ladung mit dem Satz von Gauß – Ostrogradski, der Folgendes formuliert: „Der elektrische Fluss, der aus einer beliebigen, in sich geschlossenen Fläche hervorquillt, ist proportional zu der Gesamtladung Q, die innerhalb dieser Fläche sitzt." Ende des Zitates
• b) Die zusätzliche Sonnenlichteinwirkung wirkt additiv mit der oben beschriebenen Elektronenemission, die schon gewöhnliches Licht auslöst. Auch hier muss die Wellenlänge beachtet werden mit der „Grenzwert-Wendung", wie beschrieben. Mehrere gewölbte Spiegel an- oder nebeneinander, ergeben eine Spannungsverstärkung.
• c) Eine weitere Maximierung wird je nach Anwendung sinnvoll, vermutlich in Einzelfällen, wenn die gewölbte Spiegelfläche wesentlich größer ist, z.B. 20 cm, bei der viele flache spiegelwirksame Stab-Dipole in dieser Wölbung nebeneinander angeordnet und elektronisch verbunden sind, als elektrische Energiequelle, so ähnlich wie sonnenempfangende Elemente.

From physics we know the electron emission, in which a metal plate positively charges itself. With a number of substances, ordinary light is enough to trigger this electron emission. As a negative potential, the mounting plate is used here. Here is also written by a cold potential in mass-like structures.

• a) As a starting point for a potential can be compared that the Basic Law on the generation of fields by charge with the Gauss - Ostrogradski theorem, which formulated the following: "The electric flow, which emerges from any self-contained surface proportional to the total charge Q sitting within that area. "End of quote
• b) The additional exposure to sunlight has an additive effect with the electron emission described above, which already triggers ordinary light. Here, too, the wavelength must be taken into account with the "limit turn" as described Several curved mirrors adjacent or next to each other provide a voltage gain.
• c) Further maximization is useful depending on the application, presumably in individual cases, if the curved mirror surface is much larger, for example 20 cm, in which many flat mirror-dipole dipoles arranged in this vault next to each other and electronically connected, as an electrical energy source, so similar to sun-receiving elements.

In the conception, a global thinking connects, where impact groups are joined together. For a better understanding of these circuits and known symbols, or electrode representations are listed in the drawing and referred to as known. That concerns 4 . 6 and 13 ,

A recognized possibility is here also given by the addition of appropriate effects, so new solutions arise, which add up and trigger new mechanisms of action.

at which smallest possible Dimension that is still effective and with which functional density you is another area of research and not an object this invention.

With symbolically known construction or functional elements and with the here newly added drawings of components and functional elements can, depending on the task, further new circuits or impact groups are designed become particularly important in communications engineering.

• a) Für den Empfang alter und neuer Dipol-Verfahren, kombiniert oder einzeln, für den Miniaturbetrieb.
• b) Verstärkereinheiten in bekannten und neuen dargestellten Ausführungen im Zusammenwirken oder nur mit den neuen Möglichkeiten aus dieser Erfindungsserie.
• c) Die Möglichkeiten durch diese Erfindung für aufgabenbedingte Miniatur-Sender, drahtlos oder drahtgebunden.

In summary:

• a) For receiving old and new dipole methods, combined or single, for miniature operation.
• b) amplifier units in known and new embodiments shown in cooperation or only with the new possibilities of this invention series.
• c) The capabilities of this invention for task-based miniature transmitters, wireless or wired.

A public announcement of this spiriti The inventor reserves the right, in accordance with the EU directives, as well as further copyrights and publishing rights, in particular vis-à-vis authors, journalists and publishers, in connection with the public interpretation by a patent application issued by the Patent Office Publishers, before.

A Such exploitation, including in the media, requires consent of the inventor. This refers to the main patent as well as all additional patents.

Claims (14)

Method with integration electrodes for waveguides and integrated circuit functions, preferably for planar waveguides, characterized in that dipole methods known and new integration electrodes ( 1 - 4 and 7 - 13 ) in form and new functions with hieroglyphic characters show electronic surface effects. Method with integration electrodes for waveguide circuit functions according to claim 1, characterized in that new electrode structures ( 1 - 3 and 7 - 12 ) can be arranged in other circuits and thus connect to other waveguides, eg as an antenna amplifier ( 2 . 5 and 10 ). Method with integration electrodes for waveguide circuit functions according to claim 1-2, characterized in that such integration electrodes are combined, which is a closed function from the input of the frequency to the output of the frequency for these transmitted waves, for example in the amplifier ( 2 . 5 and 10 ) and these thus provide a gain that can be switched in parallel or in series with other amplifier units. Method with integration electrodes for waveguide circuit functions according to claims 1-3, characterized in that in a light amplifier ( 10 ) the received short electromagnetic light waves ( 01 ) in the parabolic mirror ( 11 ) ( 02 ) and that the wave energy ( 01 ) received there from the focal point, in a resonator ( 03 ), which is also considered as a resonant circuit, where the wave energy ( 04 ) into a concentrated amplifier ( 05 ) and the amplified, even concentrated light wave energy ( 06 ), an electric lens ( 07 ), since reinforced and bundled ( 8th ) continues to be used. So it is possible, for example, electronically weak light sources, such as stars ( 13 ) to observe and record or to supply another, not described here microscopic and Fernrohreffektartigen use, according to a basic circuit design ( 10 ), also known as a section of a circular mirror ( 02 ) is to be regarded. Method with integration electrodes for waveguide circuit functions according to claim 1-4, characterized in that in the second integration arrangement the symbolically represented functional elements for waveguides ( 16 - 25 ) yield a further integration with a quantum jump through electrode structures, which relates to the quantum physics and thus obtains a symbolically displayed representation, a printed circuit board-like conductive placement on a plate ( 15 ), often of piezoelectric single crystals. Method with integration electrodes for waveguide circuit functions according to claim 1-5, characterized in that, for example, integration electrodes have amplifier characteristics ( 21 - 24 ), wherein the light received from the sun is converted into frequency wave energy and also serves as a supply voltage. It is energy (electricity) that is also forwarded to adjacent functional waveguide electrodes for recycling. Method with integration electrodes for waveguide circuit functions according to claim 1-6, characterized in that in a further Process step these electrodes e.g. on a piezoelectric Single crystal (plate) one-sided or two-sided from top to bottom couple with this or another surface wave energy. Method with integration electrodes for waveguide circuit functions according to claims 1-7, characterized in that the mirror ( 16 ) dome-like is an integration electrode, made of metallic sheet, correspondingly polished, in a functional size about 70 mm or below 70 mm, round or in another form, which the high vibrations collected as a frequency light wave energy on the circumference of about four Coupling integration elements (electrode structures) in order to exploit this effect as electrical energy or to couple other components for further functional purposes. Method with integration electrodes for waveguide circuit functions according to claims 1-8, characterized in that the mirror given here ( 16 ) in the surface wave technology several times (battery type) arranged and electronically connected, with the advantage of voltage and power increase, for different Uses. Method with integration electrodes for waveguide circuit functions according to claims 1-9, characterized in that the mirror ( 16 ) is composed as an energy-absorbing integration electrode of a plurality of dipoles areally, which are electrically interconnected with small spacings are present in addition to the dipoles, which visually appear a mirror-like total area, such as curved flat rod dipoles, with which one also from the Sun electrical energy gains and distributes, or dissipates. Method with integration electrodes for waveguide circuit functions according to claims 1-10, characterized in that the high-frequency amplifiers ( 1 . 5 . 10 and 15 ) can only be operated with one or more dipoles and perform their entire function without the introduction of other energy such as, for example, Karlotten Spiegel ( 16 ). Method with integration electrodes for waveguide circuit functions according to claim 1-11, characterized in that atmospheric energy, or radiation with a concave mirror or double concave mirror ( 11 ) is captured in this way and similar to ( 10 ) comes into action to utilize radiation or to promote or trigger mechanisms of action. Method with integration electrodes for waveguide circuit functions according to claim 1-12, characterized in that for increasing the power (sensitivity) a plurality of, for example punched out parabolic or double parabolic mirrors ( 11 ) are arranged side by side or one behind the other or are mounted in a circle next to each other, with appropriate interconnection or coupling. Method with integration electrodes for waveguide circuit functions according to claim 1-13, characterized in that the circuit or Switching elements functionally wireless or wired in use, or in the recovery are.