WO2017010894A1

WO2017010894A1 - Morphological antenna and method for the circuital translation thereof

Info

Publication number: WO2017010894A1
Application number: PCT/PE2016/000010
Authority: WO
Inventors: Edgar Del Aguila Vela
Original assignee: GONZALEZ TORO, Eduardo Eugenio
Priority date: 2015-07-13
Filing date: 2016-07-12
Publication date: 2017-01-19
Also published as: PE20160597A1

Abstract

The invention relates to a morphological antenna and to the method for the circuital translation thereof, for the transmission and/or reception of signals by means of rotational electromagnetic fields that expand and contract with morphological radiation patterns, by means of a circuit for the circuital translation of the forms, which are able to produce movement and to reproduce the specific movement of the forms which meet the conditions of morphological quality, characterised in that the circuit for the circuital translation of said antenna comprises a nested rounded surrounding body, morphological dipoles, dipolar morphological spaces, multiple topological supply arrangements, multiple topological supply distributions, and a morphological drain; all confined in morphological blocks with electrical and magnetic walls, constructed on the basis of material and metamaterials with plural electromagnetic properties, of a rigid or flexible nature.

Description

Morphological Antenna and its Circuit Translation Procedure, for the transmission and / or reception of signals through electromagnetic fields with morphological radiation patterns, capable of producing movement, and reproducing the proper movement of forms. l.-Background of the invention

The antennas are used in the transmission and reception of signals ranging from low frequencies to very high frequencies, according to technologies and needs, however, existing conventional antennas for military or commercial use, at the level of communications are: networks, satellite , radio, television, telephony, medicine, among others, are far from solving the problems of the antennas and their structures, and the environmental, social and economic problems that arise and cause with their use, if they are not sought natural alternatives for the propagation of the waves, since the antennas that exist, all without exception are based on radiation patterns with the isotropic ideal; since the losses, efficiencies among other parameters, are not only influenced by the type of antenna from the geometric point of view, but also by the environment where they operate (natural and artificial environmental conditions). According to the state of the art, there is a wide variety of antennas developed under defined criteria, techniques and models that refer to forms such as: rabbit type, tie type, grasshopper, butterfly, shark fin, snake scale, sunflower, fly , bat, among others; Although it is true that they mention certain characteristics of the forms, it is observed that they do not retain morphologies, with symmetries and proportions that approximate reality, in essence they often fulfill a decorative role, of aesthetic or ornamental purposes, however , many current researchers have ventured into the biomimetic branch, seeking to imitate some nature guidelines and that to date have not evidenced with concrete facts the differentiation of their operational and functional results in this branch, with respect to existing antennas . The manufacture of normally existing antennas, are constructed with different techniques such as geometric Euclidean or fractal. Through Fractal geometry, although it has many benefits such as staggering, they fail to reproduce the forms faithfully, but instead use repetitive (iterative patterns) in order to try to reach nature, which is why they look for forms that comply with the pattern, in such a way that those living or non-living forms, which do not respond to these requirements are exempt for these purposes, according to that criterion), at the antenna level they work with prefractals, and still meet those criteria, to antenna level, they fail to reproduce the forms. On the other hand through Euclidean geometry, which is valid for the non-iterative forms of the plane and space that we know, at the level of antennas they cannot reproduce the forms of nature either. The use of forms and energies, come from our ancestors, which are evidenced in the manifestation of their artistic expressions, for example: the Egyptians, the Chinese, Romanesque and Gothic civilizations, sought in the forms: harmony, health , peace and spirituality. In the 30s, researchers such as: Chaumery and Belizal, some years later of the Foyé and of Laforest, they implemented studies of Waves of forms, with purposes oriented to HEALTH, years later the French foundation Ark'all, refers to EDF (Emission due to forms), incorporating industrial purposes, and argue that these EDFs are linked to radiation of unknown origin, and that they may be

5 cosmic G. Lakhosvky in his theory of "Cellular Oscillation", maintains that our cells act as oscillating circuits to cosmic radiations. At present, advances in Histology already link resonant effects between cell elements. Viktor S. Grebennikov, in 1988 discovered the anti gravitational properties and invisibility of some insects such as beetle, bees, wasps, among others. To date there are no instruments that allow measurement

The EDF, which is why they appeal to radiesthetic and personal sensitivity devices. At present there are evolutionary optimization techniques, based on genetic algorithms, swarm of particles, at the level of antenna clusters they speak of Periodic Coherent Radiation Structures (CORPS), at the level of imitations of nature we talk about biomimetics, which they seek to imitate certain guidelines of mechanisms such as the auditory system, the system

L5 nervous, visual system, among others of certain beings, there are also the Multiple Input Multiple Antenna Systems (MIMO), among others, that use signal processing and manipulation processes, in order to eliminate the effects caused by the reception of a signal from several directions, however, it should be emphasized that in the HOLY BIBLE, it is where we need to reiterate precisely in his Holy Word, the need to look, learn

10 and incorporate EVOLUTION trend techniques based on CREATION. However, we must recognize Goethe's ability to observe and analyze, which transcend the facts, to warn that the path to do science does not have to be static but dynamic, just as nature does.

15 The typical problems present during the processes of transmission and reception of signals on existing antennas are those that have an impact on functionality such as: in the coupling between the feeder and the antenna, in the connection of the feeder to the antenna, in the elimination of parasitic antenna capabilities, in the stepping and sizing of the antenna to operate in a frequency or frequency range, in polarization and directionality

JO of the wavefront, and in the improvement of the gain. In this common sense it is to see antennas with configurations and invasive structures with many antennas arranged in the antenna towers, frequently located on the terraces and facades of houses, which despite having been mimetized (made up or camouflaged, such as as a tree, water tanks, among others) the impacts of environmental aggression from the spatial, visual and

$ 5 health are not adequate. Likewise, there is a great variety of equipment, artifacts, instruments, among others that make use of several antennas at the same time, in addition to requiring a series of accessory elements in order to try to improve their performance and coverage.

These technical problems have been appearing with the requirements of the generational progress \ 0 of the technologies, where lower energy consumption, greater speed and wide availability Band is what is most required at the communications level. To this end, conventional technology has developed a wide variety of systems, which apply techniques of evolutionary tendencies, biomimetic tendencies, in order to solve these problems, and precisely intelligent antennas as groupings of antennas, is what exists, without However, these have their functional and operational limitations, which are being treated by the CORP, among others. To this end, they attack the problem from the point of view of optimization of the antenna and its grouping with others, related to the gain directed to a point of interest (coverage) and the controlled coupling between the radiating elements, and usually seek to characterize the radiation pattern to control it (direct it), in its desire to reduce diffraction to increase gain in the direction of maximum radiation, using external parasitic elements. These evolutionary and biomimetic trends have also extended their application among others to the increase in angular resolution based on the organizational structure without preserving the shape of the systems such as: nervous, auditory and artificial vision (case of CORP, based on their structure in the configuration of the eye, but not in the faithful reproduction of the form as a structure in the radiation pattern and its corresponding propagation), as to the reduction of the complexity of the feeding networks in antenna clusters. Undoubtedly they have considered the criterion to control the radiation pattern in an arrangement consisting of identical elements of antennas [According to Balanis, 1982]: which has as factors the geometric configuration of the array (linear, circular, rectangular, triangular, etc.), the spacing between elements, the amplitude of excitation of the individual elements of the array, the excitation phase of the individual elements of the array, the radiation pattern in particular of each of the individual elements. There are also the MIMO systems, which seek to eliminate the effects of reflection by treating a signal from several paths, that is, when the same signal reaches the antenna through different paths specifically by reflection, harmful effects are generated on the signal. In such a way so that said system can discriminate these effects, it makes use of many antennas, provided with complex elements and processes in the treatment of the signal, where the multiple inputs and outputs applied by said system can only perform a single function at a time ( reception or transmission). In conclusion, existing antennas, such as those mentioned above, are managed under radiation patterns that pursue and refer to the isotropic ideal, with which the inconveniences and problems arisen in each of them, can only be corrected or improved with the increment of accessories or elements, which from the point of view of sustainability become unsustainable.

In order to overcome the difficulties and effects of conventional antennas, the MORPHOLOGICAL ANTENNA AND ITS CIRCUITAL TRANSLATION PROCEDURE have been developed, for the transmission and / or reception of signals in a natural way through the interaction of the electromagnetic fields present in the forms translated circuitally to produce patterns of morphological radiation, capable of producing movement, and reproducing the proper movement of forms. 2.-Brief description of the invention Object of the invention

The present invention generally refers to a new antenna and its circuit translation procedure, which has been referred to as a morphological antenna for the transmission and / or reception of signals by electromagnetic fields with morphological radiation patterns, capable of producing movement, and reproduce the proper movement of forms. It is based on the circuit translation of the antenna forms through its circuit translation procedure. The forms correspond to living and / or non-living entities, of external and / or internal structures, of small and / or large dimensions, that meet the conditions of morphological goodness, the antenna is delimited by the form through a wrapping body contoured, forming a nested system provided with morphological dipoles, dipole morphological spaces, multiple topological feeding arrangements, multiple topological feeding distributions, and morphological sump; all of them confined in morphological blocks of electric and magnetic walls; built on the basis of conductive, superconducting, dielectric and meta materials, with plural electromagnetic properties, of a rigid or flexible nature.

The structural characterization as a nested antenna confined in morphological blocks of electrical and magnetic walls, makes it possible to solve the problems and effects typical of conventional antennas from an operational and functional point of view, by virtue of configuring rotating electromagnetic fields that interact dynamically by expansion and contraction in the field of forms, translated circuitally into antenna. Specifically, the morphological antenna focuses on transmitting and / or receiving signals in a natural and sustainable way, through morphological radiation patterns, which pursue the forms, to produce movement and reproduce the movement of the forms. Consequently, the problems are solved: (I) the use of invasive configurations and structures of conventional antennas, thereby reducing the impacts of environmental and spatial aggression; also from the social point of view, the health of the population using these technologies considerably improves their relationship with the radioactive effects of the energy produced and consumed since the radiation pattern is dynamic and propagates in a natural way and not focused or aggressive static, (II) of the use of large amounts of complex antennas or antennas, established conventionally for the purpose of improving coverage, availability and bandwidth, these large amounts of antennas are considerably reduced since the morphological antenna allows the work of operation of several conventional antennas at the same time, with a single nested morphological antenna of "n" nests, where "n" antennas are available to perform the task of transmitter and / or receiver at the same time, where the structures of antenna towers.

Solve the problems and their effects of existing or conventional antennas, partly by propagating and receiving the signal dynamically, by structuring the pattern of radiation in a pattern of the forms that the movement of the forms pursues, that is to say reproduce the movement, to produce movement, for this purpose the present invention is based on the circuitry translation of the forms in antenna by means of its translation procedure circulates! The forms correspond to living and / or non-living entities, of external and / or internal structures, of small and / or large dimensions, that meet the conditions of morphological goodness.

For purposes of the invention, the morphological goodness construct is linked: To the organized, useful and pleasant structure with natural inclination to the treatise of the forms, to produce movement, and to reproduce the proper movement of the forms. It is expressed by the elements of proportionality, symmetry, referential position, and planar or spatial articulation, arranged in the forms. The conditions of morphological goodness are established in statistical assessments based on the elements mentioned as: proportionality of the X parts, symmetry with respect to the main axes XYZ, and secondary κ-yz, referential position to an axis (usually Z) , joint A¡; these valuations being included in: 0.5 ≤ quadratic mean ≤ 1.0, 0≤ standard error ≤ 10 ^"6 , proportion in expansion (E) and contraction (C).

The purpose of the morphological treatise of the forms, are oriented to the good management of energy resources and the reduction of negative impacts of current technologies linked to activities to produce movement, and reproduce movement. In essence the movement is of an energetic nature translated into morphological radiation pattern, useful for propagating and receiving information, electrical energy, and building space or aquatic vehicles moved by morphological radiation patterns. The Morphological radiation pattern construct is linked: with every morphological structure, subjected to fields confined in morphological blocks of electric and magnetic walls, which reproduce a radiation pattern similar to its shape. Useful for TX and / or RX signal with information, useful for generating forces capable of moving, rotating and / or moving a body. Morphological radiation patterns: they are radiation patterns that adopt the morphological structure's own forms translated circuitally by the antenna procedure, and reproduce the movements of the forms themselves, depending on the acting rotating fields that in turn expand and they contract in said structure.

The present invention has its application in the field of signal transmission and reception, by its nature it has the ability to produce movement and / or reproduce the movement of forms, where the movement is quantifiable in terms of electromagnetic expenditure, without any restriction of frequencies and protocols of the technologies that require the use of one or more antennas where you want to dispense with the use of antenna tower structures, and of numerous amounts of antennas. Specifically in telecommunications systems (mobile telephony, broadcasting, television, base station, mobile station), Hardvesting applications, MIMO applications, applications in signal filters, Medical instrumentation, wireless links of networks such as: Wifi, Wlan, WmanyWpan, Wimax, Bluetooth, among others. Specifically in e! transport area: transmission and / or reception of wireless electric energy, and construction of space or water vehicles moved by morphological radiation patterns.

5

The invention relates to a MORPHOLOGICAL ANTENNA AND ITS CIRCUITAL TRANSLATION PROCEDURE, which solves the technical problems present in conventional ones, in a natural way with operational aspects (where the radiation pattern is morphological, reproduces the forms and propagates dynamically with movements proper to the forms, by virtue of

LO configure rotating electromagnetic fields that interact dynamically by expansion and contraction in the field of forms, translated in circuits in antenna) and structural aspects of the design (centered on morphological goodness, the antenna is delimited by the shape through a contoured enveloping body , forming a nested system, confined in morphological blocks of electrical and magnetic walls, translated circuitry

L5 in antenna). In fact, it corresponds to a sustainable antenna, with reduced negative impacts with the environment, with significantly lower invasive spatial aspects, with an incidence of energy radiation favorable to health, with reduced economic costs structurally and operationally speaking. In the morphological antenna, as is the shape, as is the pattern, therefore the proper movement of the forms, the morphological antenna, is reproduced.

10 practically the structural trace of the forms translated circuitally into an antenna. Every form of morphological goodness is translatable into an antenna, and as such they reproduce the movement of forms.

For example: If the circuit translation corresponds to the morphological structure of a bird, any of its stages, according to the conditions of. Morphological goodness, translated í5 circuitally by the morphological antenna procedure, said antenna will be able to reproduce the movements of the bird electromagnetically using the morphological radiation pattern. Precisely if the circuit-translated form in antenna contains the structure of the body, part or all, in any of its manifestations: whether external and / or internal, small and / or large such as: of the wing, tail, legs, head, the eyes, the beak, its bones, its organs, etc.

50 Electromagnetically, the pattern of emitted and / or received radiation is reproduced in motion of the radiant energy, such as the bird, with the bird's own movements contained in the forms. A morphological structure, such as: the head that is part of a whole (the bird), organized with the other morphological structures that comprise the head, such as: the eyes, the ear, the beak, the tongue, the bones, the plumage, structure the head; together with

! 5 the structures of the wing, the legs, the tail and other organs make up everything that is the bird. This evidences that the radiant signal associated to planes and volumes, moves and rotates in space morphologically, with morphological radiation patterns, useful for transferring information, transmitting and receiving electrical energy wirelessly, and generating movements of objects or bodies, in a natural and different way, with solutions to the problems of conventional antennas.

Verbigracia: translating the shapes of the foot, in any of its manifestations, into a morphological antenna, the radiation pattern of this antenna acquires the shape of the structure of the foot, and also moves and / or rotates, with movements of its own One foot as if I was walking.

Verbigracia: translating the shapes of the eye in a morphological antenna, the radiation pattern of this antenna acquires the shape of the eye and also moves and / or rotates, as if looking or observing. Verbigracia translating the shapes of a fish's skeleton in a morphological antenna, the radiation pattern of this antenna acquires the shape of the fish and also moves and / or rotates, as if it were moving in the water.

Verbigracia: translating the shapes of a leaf in a morphological antenna, the radiation pattern of this antenna acquires the shape of the leaf and also moves and / or rotates, as if it were moving on the branches of a tree.

Verbigracia: translating the fingerprint shapes circuitarily into a morphological antenna, the radiation pattern of this antenna acquires the shape of the fingerprint and also moves and / or rotates, like the fingerprint.

Verbigracia: translating circuits the forms of a plant in any of its manifestations, in the stages of its morphology. Since it is seed, root, stem, branches, leaves Jlores and fruits, in a morphological antenna, the radiation pattern of this antenna acquires the form of each of the stages independently or together to move and / or rotate Like a tree

In conclusion: "The action is always movement": The patterns of morphological radiation in the reproduction of the movement of the forms, establish the link of electromagnetic expenditure with movement ", with which it is evidenced that the morphological goodness makes possible in a natural way and different, to solve the problems and effects present in conventional antennas, obstacles are overcome, the effects of negative impacts of the environmental, social and economic type are reduced, technically there is an antenna of morphological goodness, of dynamic behavior. Radiation is dynamic and propagates naturally, it is not focused or aggressive static, this implies that the signal propagates with its own and favorable characteristics that conventional antennas do not have, thus fulfilling the purposes according to the claims of the present invention. If the morphological pattern corresponds to the structure of a liquid drop, the pattern tends to implement actions of the drop, such as: drip, flow; . ^■ · ^{. .} . ^{■ ·} : ..

If the morphological pattern corresponds to the soil structure, the pattern tends to implement actions of the soil, such as: cracking, sliding;

If the morphological pattern corresponds to the structure of a leg, the pattern tends to implement actions of the foot and its joints, such as: walking, flexing;

If the morphological pattern corresponds to the structure of a hand, the pattern tends to implement actions of the hand such as: take, take, articulate;

If the morphological pattern corresponds to the structure of an eye, the pattern tends to implement actions of the eye, such as: look, observe;

If the morphological pattern corresponds to the structure of an ear, the pattern tends to implement actions of the ear, such as: hearing, listening;

If the circuit translation corresponds to the morphological structure of a butterfly, it must reproduce the movements of a butterfly such as: flapping, flying, compressing and decompressing its abdomen, etc., that is, it moves its wings and abdomen, therefore the pattern radiation tends to implement own actions such as the flight of the butterfly.

If the morphological pattern corresponds to the structure of an engine, the pattern tends to motorize, rotate;

If the morphological pattern corresponds to the structure of a rabbit, the pattern tends to implement the rabbit's own actions, such as: jumping, among others;

Of course, the morphological radiation pattern of the antenna in the present invention opens up to a spectrum of applications and solutions, which go beyond normal use in the processes of transmitting and receiving signals, for which the a new technological field of morphological antennas, where its requirement is favorable in terms of application to a need, such as those indicated in previous paragraphs.

Goodness of the morphological antenna: they produce morphological radiation patterns by virtue of the interaction of the electromagnetic fields present and participating in the forms, such fields, rotate up to a maximum speed of sixty times their frequency in a dipole, and expand and contract at value of its frequency to move; the antenna's operating frequency is set based on the number of participating dipole elements; the size of the antenna correlates with the operating power and the characteristic impedance of the antenna; the characteristic impedance of the antenna depends on the topological arrangement of the feeder, the number of independent antennas of simultaneous operation such as TX and / or RX, is a function of the number of nests established in the morphology. For this purpose the development of the invention has been structured, according to figures 11 to 25. 3.-Description of the figures

Figures 1-25, are applied in the present invention and correspond to the STATE OF THE TECHNIQUE the 5 figures 1-10; to the MORPHOLOGICAL ANTENNA AND ITS CIRCUITAL TRANSLATION PROCEDURE of the present invention, Figures 11-25, and correspond to the operational aspects, Figures 11-19, correspond to the structural aspects, Figures 20-22, correspond to the procedural aspects Figures 22-25.

LO Previous Art

The presentation of detailed information are indicative to address the purpose of the present invention.

Figure 1: Isotropic radiation pattern linked to conventional antennas.

L5 Figure 2: Radiation patterns of conventional classical antennas.

Figure 3: Radiation patterns of conventional modern antennas.

Figure 4: Accessory systems in conventional antennas, with the purpose of correcting functional technical problems.

Figure 4A: Spacing filling.

»0 Figure 4B: CORP, corporate, series, wilkinson networks (splitter or split ends, coupling use external load elements: (such as balun, substrates, the power lines themselves).

Figure 4C: Spatial diversity of smart antennas.

Figure 4D: Arrangement of antennas in tower structure.

Í5 Figure 5: Development of conventional antennas and accessories, with the purpose of correcting structural technical problems.

Figure 5A: Arrangement of invasive arrangements

Figure 5B: Use of splitter to distribute signal from one antenna to several loads.

Figure 5C, Typical use of inverter splitter mode to combine signals from several \ 0 antennas.

Figure 5D: Typical application of a device, which requires several antennas.

Figure 6: Antenna developed using fractal geometry techniques. Pre-fractal tri-scaled patch butterfly antenna configuration.

Figure 7: Antenna developed using Euclidean geometry techniques. Short-circuit antenna configuration 55 called butterfly.

Figure 8: Decorative butterfly-shaped antenna.

Figure 9: Mimetized antennas

Figure 10: EDF forms, typical of dowsing.

Figure 10A: Amiens Labyrinth

10 Figure 10B: Floor plan of EDF shapes Own of the present invention

The information detailed; correspond to the morphological antenna and its circuit translation procedure, to understand the invention, without restricting or limiting its field of action with respect to morphologies, for this the operational, structural and procedural aspects of circuit translation have been contemplated in morphological antenna.

• Operational aspects of the morphological antenna:

Figure 11: Morphological entity.

LO Figure 12: Morphological goodness.

Figure 13: Purpose of the morphological treatment of forms

Figure 14: Tangible morphological antenna

Figure 15: Rotating electromagnetic fields of the morphological dipole, which expand and contract on one axis, two axes and three axes.

L5 Figure 16: Morphological radiation patterns

Figure 16A: Morphological blocks

Figure 16B: Electromagnetic spending

Figure 16C: Energy balance of the morphological antenna

Figure 17: Radiation pattern of a morphological structure: butterfly of the Huánuco region 10 Figure 18: Radiation pattern of a morphological structure: rose of the Callao region

Figure 19: Spectrum of morphological entity

»Structural aspects of the morphological antenna

15 Dimensional:

Figure 20: Morphological antenna mode

Figure 20A: Planar mode

Figure 20B: Spatial mode

Figure 20C: Certain forms of elementary behavior

$ 0 Circuit:

Figure 21: Elements of circuit translation

Figure 22: Simple application of the present invention

Figure 22A: Butterfly morphological antenna

Figure 22B: Peruvian Hairless Dog morphological antenna

$ 5 Figure 22C: Mosquito morphological antenna

• Procedural aspects of circuit translation in morphological antenna

Figure 23: Block diagram of the circuit translation procedure

10 Figure 24: Sequence of circuit translation procedure

Figure 25: Goodness of the morphological antenna 4.-Detailed description of the invention

The information that is detailed within the state of the art, are indicative to be able to address the purpose of the present invention, in this sense it has focused on the following figures:

5 In Figure 1, the radiation pattern of a cluster of antennas is shown, with a single isotropic type element. This pattern corresponds to the isotropic ideal on which conventional antennas are referenced, radiation occurs in all directions with equal intensity, without losses and with a unit gain (OdB).

LO In Figure 2, the radiation pattern of conventional classical antennas is shown. The one that according to the radiation diagram there is a general classification of antenna types such as: isotropic antenna, omnidirectional antenna, directive antenna among others. An omnidirectional antenna of figure 2B, with brushed diagrams of figure 2C and rotations of antennas of figure 2D, where the radiation pattern is modified when the position is changed by rotation. The

L5 Figure 2A, corresponds to the radiation pattern of an elementary dipole antenna.

In Figure 3, the radiation patterns of conventional modern antennas are shown. The radiation patterns in Figure 3A correspond to the arrays (Array), typical of smart antennas (SMART), where it is observed that the radiation pattern is modifiable, and adaptable

10 according to applications and needs, through the use of many antennas, tower structures, and complex process and operation systems, at the hardware and software level. Figure 3B is related to the radiation pattern of photonic antenna arrays. In Figure 3C, the radiation pattern in an intelligent antenna is observed, where its optimization is based on clustering in order to be directed to a point of interest (coverage) and coupling

Í5 controlled between the radiating elements, seeking to characterize the radiation pattern to control it (direct it), using external parasitic elements. The 3D figure corresponds to the modifiable radiation pattern obtained in function of mathematically operationalizing the independent patterns of the participating antennas at a given frequency fl, f2.

! 0 Figure 4 shows the development of conventional antenna accessories, with the purpose of correcting operational technical problems. Figure 4A is related to Spacing Filling (SFC) what it does is fill in the spaces in order to reduce the antenna size. Figure 4B is related to Networks type Corp 4B1, Corporate 4B2, Series 4B3, Wiikinson 4B4. In Figure 4A: 4A1, 4A2, 4A3, the principle of space fill curve geometry is observed

Í5 (SFC), whose intention is to cover spaces with linear shapes or straight segments in order to compress and achieve small antennas. In Figure 4B1, a matrix matrix structure is observed that is capable of manipulating N antennas with inputs, arranged geometrically through layers L, that is at the transmission level, m signals of transmitting inputs can be routed to outputs (in this case an antennas), it is observed that to transmit a signal

10 in the provision oriented to an objective area or objectives many antennas of l, 2 ... n .; performing the reverse exercise in the case of Receiving signals, N receiving antennas (many antennas of 1, 2, ri) are needed to orient them-towards the loads located in M, it is observed that to receive signals of a certain arrangement requires Many antennas In Figure 4B2, there is a corporate power configuration consisting of branches 1 and 2 of the transmission line 3, essentially manipulating the Zo impedance of the line in terms of wavelengths (λ / 4), in order to obtain the characterization of amplitude and phase as parameters of interest. In figure 4B3, the typical scheme of grouping of antennas with serial feeding is shown, these configurations have the disadvantage of incorporating phase shifts between the antennas 1, 2, n-1, n, separated at a distance d, for which it tries to alleviate this effect through the use of discrete components such as coils and capacitors, among others. In Figure 4B4, there is a typical Spliter scheme based on the Wilkinson configuration, it is clearly seen that the signal at 3 at the power level is divided into 1 and 2, it is also noted that in order to reduce the effects of reflection , add elements of losses 4.

In conclusion of the information of the state of the art, the purposes pursued by said configurations according to Figure 4B, are clearly splitters (Split), signal combination (inverted Split) and coupling using external load elements (such as balun, substrates , the power lines themselves, discrete elements such as resistors, coils and capacitors). Here you can see that the ends are nodal, this is for a signal that enters is divided into "n" times for "n" dividing branches, this means that the signal that is distributed on each branch falls in its power value and with consequences of mutual incidence between the loads connected in the branches, this is measured coupling, reflection, signal misalignment; if we do the reverse exercise, the effect is amplification, that is, if we enter "n" signals for each branch, all of them would converge to an output that would be amplified as long as all the input signals comply with characteristics that make this possible, as that does not this is how they are used as a signal combiner, however, the consequences of incidence are the same as the previous case, normally this has been attempted to correct with active amplifiers, although it is true that they amplify the signal, they also amplify the consequences, which They do not totally solve the problem. Reason why they are called SPLITTER (power dividers), fulfilling the role of distributor or signal combiner. In Figure 4C, the system applied by intelligent antennas is shown, in order to achieve different types of spatial diversity, using M transmitting antennas and N receiving antennas, according to Figure 4D, they employ complex units at the hardware level and software, including large tower structures, with countless antenna arrangements, such as the one detailed in Figure 5. Figure 5 shows the development of antennas and the use of conventional accessories, with the purpose of correcting structural technical problems. Figure 5A, is related to the arrangement of arrangements (base station) denoting how invasive they are with respect to the occupied space initiated in post 1, it is observed that several feeding signals are distributed in 3.1 to feed arrangements in 3.2.3.3.3.4 , 3.5.3.6 of antennas in 2.1 to 2.23, for the purpose of optimizing signal coverage towards a specific area in 4.1, 4.2, 4.3. Figure 5B, it is related to the typical use of the splitter to distribute signal from an antl antenna to several loads vi, ½2; logically with signal drop and no isolation. Figure SC is related to the typical use of the splitter in inverted mode to combine the signals of the antennas antl, ant2, ant3 and ant4 towards the load, with mutual coupling of the signals and without isolation. Figure 5D, is related to a typical application of a device that requires several antennas ant 1, ant2, ant3, ant4, ant5 and ant6 for operation, for coverage purposes and MIMO applications, it is also observed how invasive they are from The spatial point of view.

In Figure 6, an antenna modality developed by fractal geometry techniques 10 related to the tri-scaled pre-fractal configuration 6B, 6C, 6D of patch butterfly antenna is shown. It is noted that these fail to reproduce faithfully the shapes of a 6E butterfly using repetitive patterns 6A.

In Figure 7, an antenna modality developed by Euclidean geometry techniques 15 related to the short-circuit antenna configuration known as a butterfly is shown. It is observed that these fail to reproduce faithfully the shapes of a butterfly, using non-repetitive geometric patterns.

In figure 8, a butterfly-shaped decorative antenna mode is shown, 20 developed by Euclidean geometry techniques. It is observed that they fail to reproduce faithfully the shapes and their corresponding structure of a butterfly, using non-repetitive geometric patterns. We take the butterfly as a reference, as it is a very representative entity and disrupted by various researchers.

25 Figure 9 shows a modality of a mimetized antenna, where the camouflage and makeup of the base stations (BTS) is observed, using artificial trees 9A, towers are also used with provision of improvements in arrangements 9B, which are inserted in environments to simulate a low environmental impact. These structures are made on materials that operate in extreme weather conditions. These types of approaches in no way reduce the

JO impacts on the natural and artificial environment, for the benefit of future generations at the level of sustainability, specifically at the social level in health.

Figure 10 shows the typical EDF Forms, typical of dowsing. Figure 5A, is related to the labyrinth of Amiens, which begins at 1 and culminates in button 2, these forms 35 are present in many ancient constructions such as the Gothic churches. Figure 5B, which is related to the ground plane of the EDF forms, has an origin in 1, with the respective proportional diameters in 2, 3, 4 and 5. These forms that are not the only ones acquire importance because they use the Euclidean geometry deeply, and yet they are also close to certain forms that relate to fractal geometry.

^M) The information detailed below corresponds to the operational aspects of the m alogical antenna, in order to understand the invention, without restricting its field of action with respect to the shapes of morphological entities.

5 The Forms applied by the morphological antenna and its circuitry translation procedure, typical of the present invention, are related to the forms of living and / or non-living entities, including abstract ones, in all its expression whether external and / or internal, that is to say, all the existing forms can be translated circuitally into an antenna, addressing it as a morphological entity according to figure 11, which respond to the antenna behavior, be it emitter or receiver by virtue of its conformation of morphological radiation pattern linked to aspects of morphological goodness , according to Figure 12.

In Figure 11, it is shown how a specific morphology represents an entity, and it should be understood that every entity is macro or very small, in its dynamic development process

15 go through stages of staggering, that is, being very small as in 11A2 they become large in 11 Al, until reaching maturity, this is evidently done in those macro entities, however, in the small ones, to be observed they require an accessory step in 11A3. In 11A4, the operating frequency is higher with respect to 11A5, where the frequency becomes lower. In figure 11B, the morphological staging of the

20 internal structure of the body of the freshwater fish TOA. In figure 11C, the morphological staging of the external structure of the Huallaguino bean seed is shown, evolved every 10 minutes, according to the intervals from to to t4, in lime soil, where the seed expansion is appreciated, until germinating , for the end after producing its fruit it contracts again in seed. In figure 11D, the morphological entity of the

25 external cranial structure of the Peruvian dog without hair SHIKA, very fine and organized structure, with a morphological goodness of great value from the neck to the ears, such as the forehead and mouth.

In Figure 12: The conditions of morphological goodness are shown. For purposes of the invention, it is linked to the organized structure, with a natural inclination to the treatise of forms, to

JO produce movement, and reproduce the proper movement of forms. It is expressed by evaluating the elements of proportionality, symmetry, referential position, and planar or spatial articulation, arranged in the forms. Verbigracia evaluating the morphological goodness of the structure of an arm of figure 12A, statistical assessments were established on the basis of the elements mentioned above with proportionality of the parts λ), with symmetry

35 with respect to the main axes X-Y-Z, and secondary axes x-y-z, with reference position Z, and articulation A | according to figure 12B, of a quadratic mean in 0.9517, of standard deviation in 0.1873, standard error in 0.0003, with 359999 nodes analyzed, which has the goodness in favor to be considered as a potential structure. According to figure 12C, the vector trend of the structure is indicated, with articulated movement of the arms upwards.

00 Figure 13 shows the purpose of the morphological treatment of the forms, oriented to the good management of energy resources and the reduction of negative impacts caused by current technologies, eg Figure 4, Figure 5, with radiation patterns, Figure 1, Figure 2, figure 3. For According to figure 13A, produce movement capable of propelling any object 13A1, where the

5 movement 13A3, in planes of space 13A6, is given by impulse 13A5 caused by the morphological antenna of entity 13A2, located within object 13A1. According to figure 13B, the perspective of the reproduction of the movement of the shapes of the entity 13B1, translated into morphological antenna 13B2, 14A, to carry or receive energy is shown. In essence the movement is of an energetic nature translated into morphological radiation pattern 13B3,14B, which spreads

LO according to contraction and expansion 13B4, 14C, from the zero level reference where the morphological antenna 14A is located, to a height determined by the antenna characterization in 14E, regardless of any tower, and rotation 13B5, 14D to a maximum speed of Sixty times the frequency in a morphological dipole, with coverage from 0 to 360 degrees.

In figure 14, the morphological antenna 14A is shown, as the tangible element, for L5 to transmit and receive information, electrical energy, and build space or aquatic vehicles moved according to 13A, by morphological antennas type 14A, 13A2, 13B2, with patterns of morphological radiation 14B, which expand and contract in the direction of 14C, and rotate according to 14D, in the direction of A to B, B to C, C to D and D to A, with wide coverage when overcoming obstacles, and swept in the length of height 14E, disregarding the use of towers or supports with innumerable amounts of antennas 50. The images highlighted with ellipses stage details of the current reality associated with unsustainability and its effects within the state of the art, whose problem concerns solving by the present invention.

Figure 15 shows the configuration of the rotating electromagnetic field of the morphological dipole! 5 (dipole shaped element) on one axis, two axes and three axes. AND! rotating electromagnetic field produced by a dipole element of shape 15A5, proper in the conformation of the radiation pattern of figure 16 of the morphological antenna; The rotating electromagnetic fields, according to the arrangement of dipole elements of shape 15A1, 15A2, make the wavefront be on an axis 15A, on two axes 15B and on three axes 15C.

0

In 15A: the electromagnetic field supports a wave front on the Z axis, a dipole element of 15A5 shape, is that minimal and significant element called morphological dipole, which introduces two poles 15A1, 15A2, in the conformation of our antenna that is NDp = 1, and the geometry it adopts corresponds to the circuit translation of the forms that contain it. He

15 dipole element of form 15A5, supports forces of vector fields Fl and F2, in 15A1 and 15A2, respectively, on the X axis, and Y axis in the direction 15A3, 15A4, which drive to form a resulting vector FR, which travels by expansion and contraction in direction D, and turns in direction, to the electromagnetic field from 15A6 to 15A7, from 15A7 to 15An, on a single Z axis, referenced to the REF plane. The spin Wn taken by the resulting vector FR, which carries the energy in the wavefront,

M3 responds at most in the dipole element 15A5 in sixty times the frequency value "f", according to Wm in the dispersion curve shown, said velocity is greater than the lower NDp number of dipole elements.

In 15B: the rotating electromagnetic field, rotates the frequency "f" 60 times, on the X axis, according to the reference, and is made up of a dipole element NDp = 1. In 15C: the rotating electromagnetic field rotates the frequency 20 times " f ", in two axes: on the X axis and Y axis, and is made up of three dipole elements NDp = 3. In 15D: the rotating electromagnetic field _^ rotates the frequency "f" 60/7 times in three axes: on the X, Y, Z axis, and is made up of seven dipole elements NDp = 7. In Figure 15, the displacement of the rotating electromagnetic field of the morphological dipole in one axis, two axes and three axes is also shown. In 15B: the rotating electromagnetic field, rotates on the X axis, and moves on the Y axis or Z axis, by expansion and contraction in a number of times to the value of the frequency "f". In 15C: the rotating electromagnetic field rotates and displaces in the X and Y axes, by expansion and contraction in a number of times to the value of the frequency "f". In 15D: the rotating electromagnetic field, moves in the X, Y, Z axes, by expansion and contraction in a number of times to the value of the frequency "f".

In Figure 16, the morphological radiation pattern construct is shown, related to any morphological structure of Figure 11, which meets conditions expressed according to Figure 12, and purpose of the morphological treaty of the shapes of Figure 13, where the fields confined in Morphological blocks 16A, of electrical walls 16A1, and magnetic 16A2, in XY, XZ, YZ planes, reproduce a radiation pattern 13B3, 14B, 16B2, similar to the shape, that is, morphological radiation patterns: they are radiation patterns that adopt the morphological structure's own forms translated circuitally by the morphological antenna procedure, and reproduce the movements of the forms, depending on the rotating fields that in turn expand and contract in said structure, in terms expressed according to Figure 14, Figure 15. Also according to Figure ^" 16B, the rotational movement action 16B4, and translation 16B5, of the radius pattern Morphological ratio 16B2, in the reproduction of the movement of forms 16B1, establishes an electromagnetic expenditure link 16B7, with the movement such as 17C, 17D, 18C, which in terms of power 16C1.6, results in a percentage value 16C1 .5 of the electromagnetic torque of the morphological antenna and the quantification of its movement 16C1.4, by virtue of a source 16B3, which feeds it and closes loop with sink 16B6, being this dynamic and of natural propagation, not focused or static aggressive, This implies that the signal is propagated with its own characteristics, favorable in compliance with the purposes according to the claims of the present invention. In Figure 16C, the energy balance configuration of the morphological antenna 16C1, defined in morphological field elements 16C1.1, 16C1.2 and morphological armor 16C1.7, 16C1.8, 16C1.9, linked by the element is shown rotational 16C1.3; with morphological radiation pattern 16C2, which propagates at rotation speed 16C1.4 and frequency translation 16C1.1, power 16C1.6 and expense 16C1.5. Figure 17 shows the radiation pattern 17B, corresponding to the morphological structure of a butterfly 17A, native to the Peruvian jungle, where the movements of the butterfly itself are reproduced in a flight: this is flutter 17C established by the process of expansion 17C1 and contraction 17C2 positive 17C3 of wing 17C4, and rhythm of abdomen 17D established by the process of expansion 17D1 and contraction 17D2, positively and negatively in 17D1 +, 17D1-, 17D2 +, 17D2- of abdomen 17D. Consequently, flutter 17C is linked in cycles of expansion and contraction of the abdomen 17D with respect to the reference plane 17E, passing through the zero crossing 17F, that is, it moves its wings 17C in the direction 17C1 and 17C2, in a given period of expansion and contraction of the abdomen 17D, therefore the radiation pattern 17B, implements its propagation with own movement actions that make up the flight of the butterfly 17A. In Figure 17G, the expansion of the wings 17C is shown, in five cycles of expansion and contraction of the abdomen 17D, from tO to t6 through the zero crossing 17F. In Figure 17H, the contraction of the wings is shown in eighty cycles of expansion and contraction of the abdomen, from t7 to tO through the crossing at zero 17F. In effect, the flutter 17C corresponds to the accumulated cycles of the expansion according to figure 17G and contraction according to figure 17H of the abdomen 17D. It is important to denote that X corresponds to the radiation of the butterfly head 17A.

Figure 18 shows the radiation pattern 18B, corresponding to the morphological structure of a rose 18A, where the rotation and translation movements (expansion and contraction) 18C, typical of said rose, are reproduced, and by which it implements its propagation.

In Figure 19, there is a small sample of the broad population spectrum of morphologies, without limiting its scope of action of forms, which according to the purpose of the invention include living and / or non-living morphological entities, including the abstract ones, of external and / or internal structures, of small and / or large dimensions, with conditions of morphological goodness, that is, the forms applied by the morphological antenna and its circuitry translation procedure, are related to the forms of entities such as the ones shown, in all their expression where translated in a morphological antenna, respond to the detailed aspects according to the previous figures 11, 12, 13, 14, 15 16, 17, 18 and the subsequent figures. Living morphological entities imply favorable forms throughout their stages: ranging from matter to biomolecules, from biomolecules to cells, from cells to living beings such as: moneras, protists, fungi, plants and animals; likewise, non-living morphological entities imply favorable forms of inorganic matter, inanimate objects and beings. It is appropriate to mention some entities of peculiar morphological goodness referred to in Figure 19, such as: the SURI worm, the wonderful Peruvian hairless dog, stem cells, fingerprint, the human body, images of the Paracas culture, insects such as the butterfly of the Peruvian jungle, the AWIWA, the WHITE MANTA transmitter of the UTA, skeleton of the TOA freshwater fish, carachama, paiche and zúngaro, atmospheric phenomenon like lightning, the morphology of the cosmos like that of planet earth, diverse vegetables from Peru: lemon, sacha tomato, canton, caigua, aguaymanto, aguaje, zapote, papa m shua, yucca, maca, achiote, taperibal, pineapple bud, papaya, purple corn, avocado, cactus; diverse animals of Peru: the Peruvian step horse, the guinea pig, the llama, alpaca and vicuña, the SIRINGE internal bird singing organ such as, the PIPITO, the shicapa, shell structure of the mótelo, charapa and taricaya; diverse geographical structures of Peru: Amazon riverbed, Andes mountain range, SACANCHE hot springs, structural morphologies of the GRAN PAJATEN ruins and MACCHU PICCHU, among others.

The information detailed below corresponds to the structural aspects of the morphological antenna, in order to understand the invention, from the dimensional and circuital point of view.

In Figure 20, the arrangement of the morphological antenna is shown dimensionally in planar mode as a flat body according to 20A and spatial mode as a solid body 20B, linked to the conditions of morphological goodness and operational aspects indicated in the previous paragraphs. That is, the population of the treated morphologies correspond to structures of living and / or non-living entities, including abstract ones, be they of an external and / or internal nature, and large and / or small size; where all the forms that are circulated in a morphological antenna, configure rotating, alternating and / or transverse electromagnetic fields with morphological radiation patterns, where the wave moves dynamically, moving and rotating by expanding and contracting the rotating fields, with rotation in the axes, thus reproducing the forms and their movement in the radiation pattern, with the capacity to transmit and / or receive energy, in the form of a signal, and produce movement of objects. In Figure 20A, the planar modality of the morphological antenna, linked to the planar joint is shown in Figure 16A. This mode allows to manage the wavefront in two axes of the space planes (XY or XZ or YZ) referred to the morphological sink as 20A.1. The circuit translation of the morphological antenna forms is located in plane 20A.2, between the morphological sink plane 20A.1 and radiation plane 20A.3. The planes 20A.1 and 20A.2 form the morphological block of electrical wall 16A1; plane 20A.3 make up the morphological block of magnetic wall 16A2.

In Figure 20B, the spatial modality of the morphological antenna, linked to the spatial joint is shown in Figure 16A. This modality refers to the management of planar morphologies such as 20A in space to adopt a volumetric presence as a solid body. This mode allows the wavefront to be managed spatially, referring to the morphological sink 20B.1. The circuit translation of the morphological antenna forms is located in volume 20B.2, between the volume of morphological sink 20B.1 and radiation volume 2ΘΒ.3. Volumes 20B.1, 20B.2 and 20B.3, configure the propagation on the fronts up, down, left, right, back and forward. Volumes 20B.1. and 20B.2 make up the morphological block of electrical wall 16A1; volume 20B.3 make up the morphological block of magnetic wall 16A2, both blocks make up the morphological block of electromagnetic walls.

In Fig. 20C, an arrangement of certain forms of elementary behavior is shown with rotating field 5 «lOf, 30f, <10f,> 20f,> 30f, 20f, expansion and contraction" f ", 20cl, 20c2, 20c3, 20c4 , 20c5, 20c6, respectively, according to Figure 15A. Verbigracia all apply both modalities According to 20A and 20B.

In Figure 21, the circuit elements comprising the morphological antenna are shown,

LO from the point of view of the circuital translation of the morphological entity, and its relationship with the open and / or closed arrangement of the morphological sink. A contoured envelope body (edge) 21A constructed on the basis of conductive, superconductive and / or dielectric material, and metamaterials; with plural electromagnetic properties of a rigid and / or flexible nature determines the antenna as a nested system 21B, provided with morphological dipoles 21a.1, of

.5 dipolar morphological spaces 21a.2, with multiple topological feeding arrangements

21a.3, of multiple topological distributions of feeding 21a.4, and morphological sink 21a.5, where all of them are confined in morphological blocks of electrical walls 16A1 and magnetic 16A2 forming the circuit of circuit translation of the forms. The circuit translation circuit of the shapes of Figure 21, is delimited by the enveloping body

10 contoured 21A, of plural electromagnetic tracks circumscribing the shape silhouette in a nested system 21B; to radiate as TX, to capture as X and / or reflect energy in the conformation of the morphological radiation pattern. The morphological dipoles 21a.1, of plural electromagnetic tracks are subsumed and built into the contoured envelope body 21A, to form the morphological radiation pattern based on the walls of

! 5 electrical block 16A1 and magnetic 16A2, established in morphological dipoles 21a.l, when radiating as TX, when capturing as RX and / or reflecting energy. The dipole morphological spaces 21a.2, of plural electromagnetic tracks are subsumed and built between the contoured envelope body 21A and the morphological dipoles 21a.1, to form the morphological radiation pattern based on the electrical block walls 16A1 and magnetic 16A2, established in the

10 dipole morphological spaces 21a.2, when radiating as TX, when capturing as RX and / or reflecting energy.

The multiple topological feeding arrangements 21a.3, are arranged jointly as feeding points of the type 21C of plural electromagnetic tracks located in the contoured housing 21A and / or morphological dipoles 21a.1, to specify the characteristic impedance Z ₀ of the antenna in Figure 21, in ohmic values of arrangement R, R / 2,

¡5 R / 4, R / 8, 2R / 4, 3R / 8, according to their solidarity location; thus forming the pattern of morphological radiation based on the walls of electrical block 16A1 and magnetic 16A2, established in the multiple topological feeding arrangements 21a.1, to radiate as TX, capture as RX and / or reflect energy. The multiple topological distributions of feeding 21a.4, are derived from! contoured envelope body 21A and / or morphological dipoles 21a.1, as the track

■ 0 plural electromagnetic that contains independent power points in a nesting referenced with the plane 20A.1 and volume 20B.1 of the morphological sump 21a.5 that feeds the antenna to form the morphological radiation pattern based on the 16A1 and magnetic 16A2 electrical block walls, established in the multiple topological distributions of feeding 21a.4; where the "n" number of nests 21B determines the ability of the antenna to operate as multiple "n" independent antennas to radiate and / or capture at the same time.

The morphological sump 21a.5 corresponds to the area 20A.1 and volume 20B.1 of plural electromagnetic tracks of open and / or closed arrangement, located in planes 21a5.1 and 21a5.2 in parallel, perpendicular and / or transverse established according to angular articulation

LO 21a5.5 of planes 21a5.3 and 21a5.4, referenced with axis 21a5.6, of vital importance to form the morphological radiation pattern 20A.3 on the fronts up, down, left, right, back and to in front of a, b, c, d, e and f in figure 20B, based on the walls of electric block 16A1 and magnetic 16A2 established in the morphological sink; said morphological sink 21a.5 contains the forms of the morphological entity located in plane 21a5.1 and 21a5.2,

L5 linked to its function of reflection or absorption, is not a simple earth system, associated only with a mass or reference, but incorporates morphological areas and volumes. In terms of connection, it is linked to the earth mesh of the Zo impedance feeder 21a5.7C of Figure 21, with open connection 21a5.7B when the earth mesh is isolated from the circuit elements 21al to 21a4, and / or closed connection 21a5.7A when the ground mesh is

! 0 physically linked with the 21al to 21a4 nested circuit elements.

In Figure 22, a simple application of the present invention is shown, where the treated morphologies correspond to living entity structures. Figure 22A corresponds to the butterfly morphological antenna, based on the morphological entity of a butterfly of Figure 17A, whose

! 5 sample has been obtained in the Peruvian jungle. In Figure 22A1, the arrangement of the butterfly morphological antenna in planar mode is shown dimensionally as the flat body according to FIG. 20A and spatial mode in Figure 22A2 as the solid body according to FIG. 20B, linked to the conditions of morphological goodness and operational aspects indicated in the previous paragraphs. According to Figure 21, said antenna in each nesting has: 14 NDp dipole elements

10 21a.1, about 80 dipole morphological spaces 21a.2, a topological supply arrangement 21a.3 of characteristic impedance Zo according to 21C, a topological distribution of feeding 21a.4 by nesting, a morphological sink by nesting 21a.5 of the closed type 21a5.7A or open type 21a5.7B, they are configurable by pins 1-cl, l'-cl, 2-c2, 2'- c2, 3-c3, 3 ^' -c3 and 1-1 ^' , 2-2', 3-3 ^' respectively in both modalities, with multiple nesting n,

5 21B of 1 to 3 nests, that is, with the capacity to operate as three independent antennas to transmit and / or receive simultaneously, and morphological propagation in 1 axis, 2 axes, 3 axes, with expansion-contraction of 2.4GHz at 5GHZ, at rotating field speeds between 144 * 10 ¹² Rpm / NDp at 300 * 10 ¹² Rpm / NDp, with wavelengths ranging from 0.06 m to 0.125 m, according to actual dimensions of said butterfly of Figure 17A, the same as are staggered in

\ 0 the frequency operating range according to the circuit translation procedure, in all three axes, of morphological radiation pattern of Figure 17, which reproduces the movement of the butterfly as well. Of wide utility for the transmission and / or reception of multiple signals at the telecommunications level in mobile phones and base stations, in devices, equipment and devices that require one or more antennas, where large antenna towers and bulky amounts of antennas With a positive impact from the point of view of sustainability, functionality and operationality; At the level of movement of spatial and aquatic objects, the development of morphological vehicles is possible. In Figure 22A3, the dispersion characteristics S12 and their corresponding antenna resonance frequency are shown, referenced with the plane E and H. The dispersion S21 in the frequency domain of the electric field E, of Figure 22A3.1, the minimum dispersion response of 0.00436 is given in 3.2785603 GHz. The S21 dispersion of the magnetic field H, of figure 22A3.2 with respect to the frequency of the butterfly morphological antenna, the minimum dispersion response is 0.004539 which is given in 3.2785603 GHz , the antenna is also resonant at 1 GHz with a dispersion of value 0.026025642, at 2.0015649 GHz with a dispersion of value 0.017036643, at 2.4084507 GHz with a dispersion of value 0.017265949, at 2.8403756 GHz with a dispersion of value 0.024769107, at 3.9295775 GHz with a dispersion of value 0.0099831991, at 4.3114241 GHz with a dispersion of value 0.0069612805, at 4.799687 GHz with a dispersion of value 0.0080901747, which makes it important from the point in view of the operation of frequencies, such as those mentioned, being a morphological antenna of multiband behavior, staggered by virtue of morphological goodness.

Figure 22B corresponds to the Peruvian Peruvian Hairless Dog morphological antenna, based on the morphological entity of the SHIKA Peruvian Hairless Dog of Figure 11D, essentially linked to the auditory organ and its integration with the dog's shape arrangement, whose sample has been obtained on the Peruvian coast of Callao. In Figure 22B1, the layout of the Peruvian Peruvian Hairless Dog morphological antenna is shown dimensionally, in planar mode as the flat body according to FIG.20A and spatial mode in Figure 22B2, as the solid body according to FIG.20B, linked to the conditions of morphological goodness and operational aspects indicated in the previous paragraphs. The Peruvian Hairless Dog morphological antenna of figure 22B1 and 22B2, according to Figure 21, said antenna is multi-nested, has: more than 150 dipole elements NDp 21a.1, about 150 dipolar morphological spaces 21a.2, a topological arrangement of supply 21a.3 of characteristic impedance Zo according to 21C, a topological distribution of feeding 21a.4 by nesting, a morphological sump 21a.5 by nesting, of the closed type 21a5.7A, configured by pin 1-cl, l ^' -cl , and 2-c2, 2 ^' -c2 with nesting n = lyn = 2, respectively, of the open type 21a5.7B, configured by pin 1-1 ^' , and 2- 2 ^' with nesting n = lyn = 2, respectively , that is, it is an antenna capable of operating as two transmitters and / or receivers at the same time, with morphological propagation in 1 axis, 2 axes, 3 axes, with expansion-contraction of 1 MHz, 1GHz to 1THZ, at field speeds Swivel between 60 * 10 ⁶ Rpm / NDp, 60 * 10 ¹² Rpm / NDp at 60000 * 10 ¹² Rpm / NDp, with lengths wavelengths ranging from 0.0003 m, 0.3 m, to 300 m, respectively, according to staggered and actual dimensions of the Peruvian dog's hairless ear, in the frequency operating range according to the translation procedure circuit, in all three axes, morphological radiation pattern, which reproduces the movement of the ear ^' tlel-'peffcv' fil Peruvian hair. Broad utility chirp ^{'transmission} and / or reception of signals in telecommunications in cell phones and base stations in appliances, equipment and appliances requiring a longer antenna, where it dispenses with large antenna towers 5 voluminous amounts of antennas With a positive impact from the point of view of sustainability, functionality and operationality; at the level of movement of spatial and aquatic objects, the development of morphological vehicles is possible; at an energy level useful for the transmission and reception of electrical energy.

LO Figure 22C corresponds to the mosquito morphological antenna, based on the morphological entity of the white blanket mosquito, whose sample has been obtained in the Peruvian jungle of Tingo María. In Figure 22C1, the arrangement of the mosquito morphological antenna is shown dimensionally, in planar mode as the flat body according to FIG. 20A and spatial mode in Figure 22C2 as the solid body according to FIG. 20B, linked to the conditions of morphological goodness and aspects

Operational L5 indicated in the previous paragraphs. The mosquito morphological antenna of Figure 22C1 and 22C2, according to Figure 21, said simple nesting antenna, has: 16 dipole elements NDp 21a.1, about 16 dipole morphological spaces 21a.2, two topological provisions of impedance 21a.3 Zo characteristic of R and R / 2 values according to 21C, a topological distribution of feed 21a.4, a morphological sink 21a.5 of the closed type

! 0 21a5.7A, configured by pin 1-cl, 1 ^' - el, with nesting n = l, that is, it is an antenna capable of operating as a transmitter and / or receiver at the same time, with morphological propagation in 1 axis, 2 axes, 3 axes, with expansion-contraction of 1GHz to 1THZ, at rotating field speeds between 60 * 10 ¹² Rpm / NDp to 60000 * 10 ¹² Rpm / NDp, with wavelengths ranging from 0.0003 m to 0.3 m, according to staggered and actual dimensions of the mosquito, in the operating range

5 frequencies according to the circuit translation procedure, in all three axes, of morphological radiation pattern, which reproduces the movement of the mosquito. Of wide utility for the transmission and / or reception of signals at the telecommunications level in mobile phones and base stations, in devices, equipment and devices that require one or more antennas, where large antenna towers and bulky amounts of antennas are dispensed with . With impact

10 positive from the point of view of sustainability, functionality and operationality; at the level of movement of spatial and aquatic objects, the development of morphological vehicles is possible; at an energy level useful for the transmission and reception of electrical energy.

The information detailed below corresponds to the structural aspects of the morphological antenna, in order to understand the invention, from the procedural point of view of the morphological antenna circuit translation.

Figure 23 shows the Block diagram of the morphological antenna circuit translation procedure, linked to the operational and structural aspects indicated in the [0 previous paragraphs correlated with the claims. The procedure of circuital translation of the morphological antenna is established in the following embodiments: Morphological Translation 23A, structuring of the Morphological Antenna 23B, transfer of the Circuit Translation of Antenna 23C. By means of the Morphological Translation 23A, the forms are translated into a circuit, included in the stages: Obtaining the Morphological Footprint 23A-1, the Sensitization of the Morphological Footprint 23A-2, the Drawing of the Morphological Tracks 23A-3, and Definition of Morphological Blocks 23A-4 in electromagnetic operating configurations. Through the structuring of the Morphological Antenna 23B: the design modes in planar and / or spatial 23B-1 are defined, in terms of the proportionality staggering, the symmetry, the reference position, the articulation of the shapes in the plane and / or space, to operate on the frequencies of the devices, equipment, instruments that require one or more antennas; antenna parts 23B-2 are sized and structured, depending on the frequency or operating range; The corresponding characterization of the morphological radiation pattern 23B-3 is defined, and evidences the quantification of the morphological electromagnetic torque 23B-4. By means of the transfer of the circuit translation of antenna 23C: the circuit translation of the forms properly structured in the previous stage 23B, becomes tangible as morphological antenna 23C-1; constructed on the basis of conductive, superconducting and / or dielectric material, and metamaterials, with plural electromagnetic properties, of a rigid and / or flexible nature, of planar mode or spatial mode 23C-2; by means of plural techniques 23C-3 of conductive ink printing, 3D modeling, milling, CNC engraving, fabric with conductive wire, PCB, laminate and draft, among others, worked independently or together. The materials and metamaterials on which the morphological antennas are built, are those that favorably as a conductive, superconductive and / or dielectric material, in any of its metal, liquid or gas manifestations, incorporate a high electrical conductivity, with good magnetic and dielectric capabilities , for example a relative dielectric constant € _r ≤ 10, with values of tangential losses δ <0.030, and metamaterials such as graphene, allow to sustain a highly efficient antenna.

The procedure for the circuital translation of the morphological antenna forms, in its realization: Morphological Translation (23A), Obtaining the morphological footprint (23A-1), consists in tangibly sampling the faithfully acquired forms of target populations, respecting the morphological benefits, to be sensitized as a morphological footprint (23A-2), where the forms are sensitized as a standard sample and are referenced for staggering by virtue of the operational range characteristic of morphology in terms of frequency, and then plotted as morphological tracks (23A-3), established circuitally with the layout of the contours of the contoured envelope body (21A), of the morphological dipoles (21a.1), of the dipole morphological spaces (21a.2), of the multiple topological feeding arrangements (21a.3), of the multiple topological distributions of feeding (21a.4), and the morphological sink (21a.5), by nesting. To finally establish morphological blocks (23A-4) in electromagnetic operating configurations, of the forms established circuitry in stage (23A-3), and produce electromagnetic fields with morphological radiation patterns. These morphological blocks are configured as elements of electrical blocks: contoured housing, morphological dipoles, distributions and multiple topological arrangements of feeding, morphological sink, and magnetic blocks: with incidence on the dipole resonant spaces to produce morphological radiation patterns, by virtue of the interaction of the morphology's own fields, where dipolar resonant spaces useful for producing rotating fields and / or are identified transverse, at rotating field speeds ranging from a few rpm values. For a morphological dipole at ultra low frequencies, maximum values of the rotating field of 0.06 rpm are produced, for the same stepped morphological dipole for very high frequencies, maximum values of the rotating field of the order 6E + 13 rpm are produced, said field being reduced as the participation of dipolar elements in morphology.f / procedure for the circuital translation of morphological antenna forms, in its realization: Structuring of the morphological antenna (23B), in the Definition of the design mode (23B-1), the antenna of embodiment (23A) is modeled in planar mode as a flat body and / or in spatial mode as a solid body. The Sizing and structuring of the antenna parts (23B-2), after the design mode (23B1) has been defined, the structured parts of the antenna at (23A) are sized in terms of the staggering of the proportionality of the morphology, obtained in sensitizing the morphological footprint (23A-2); for in the stage of Characterization of the pattern of morphological radiation (23B-3); reference the pattern of morphological radiation in terms of the process of expansion and contraction of the forms, which implies movement and show the dynamic nature of the propagation to move and rotate according to morphological properties at the proper operating frequencies, that is, the Quantification of the torque Morphological electromagnetic (23B-4) are evidenced by the presence of rotating and / or transverse fields capable of reproducing the movement of the shapes in the radiation pattern, and consequently generating movement. The parts confined in morphological blocks of electromagnetic walls defined in step (23A-4) cause the electromagnetic fields to interact to produce movement of translation and rotation, by expansion-contraction of the field how often the frequency is assessed, and by the presence of the rotating field The procedure for the circuital translation of the morphological antenna forms, in its realization: Transfer of the antenna circuit translation (23C), in the Tangibilization as a morphological antenna (23C-1), the materials and metamaterials of plural electromagnetic properties are defined , of a rigid or flexible nature, participants in the conformation of the morphological antenna. The Modeling of the morphological antenna (23C-2), consists of having the behavior of the morphological radiation pattern and its corresponding evidence of application, for this the operating behavior of the forms provide significantly contrast and discussion elements. The Manufacture of the morphological antenna (23C-3), is deeply correlated with the materials and metamaterials defined in (23C1), and modeled according to (23C-2), these are worked independently or together on the operational and functional basis of the antenna established in embodiments 23A and 23B.

Figure 24 shows a sequence of circuit translation procedure (23) related to the Peruvian Hairless Dog Morphological Antenna (22B), based on the morphological entity of the SHIKA Peruvian Hairless Dog (a) of Figure 11D, essentially linked with the auditory organ (b) of realization (23A) and its integration with the dog's shape arrangement (c), with the operational and structural aspects of realization (23B) as morphological antenna (d, e) of realization (23C) . Figure 25 shows some aspects of Goodness of the morphological antenna (a), of morphological entities (b), with characteristics of a sustainable antenna (25A), because they are oriented to the good management of energy resources and reduction of negative impacts caused by current technologies. From the social point of view (25B), the energy that is propagated through morphological radiation patterns (c), is dynamic and not harmful, because they reproduce the movement of forms; which makes it possible to dispense with the use of large towers or supports (f) with innumerable amounts of antennas (d, e) reducing the negative impacts at a visual level (25D), In 25C, the images highlighted with X stage details of the current reality associated with unsustainability and its effects on antennas, whose problem is a concrete reality to solve.

Claims

1.-A MORPHOLOGICAL ANTENNA, for the transmission and / or reception of signals by means of rotating electromagnetic fields that expand and contract (13B4, 14C, 15, 17C1, 17C2, 17D1, 17D2) with morphological radiation patterns (13B3, 14B, 16B2,16C2, 17B, 18), by means of a circuit translation circuit! (21) of the forms of morphological entities (13A2, 13B1, 19, 20C) living and / or non-living, of external and / or internal structures, of small and / or large dimensions, that meet the conditions of morphological goodness, characterized in that the circuit of circuit translation of said antenna comprises a contoured enveloping body (21A) nested (21B), morphological dipoles (21a.l), dipole morphological spaces (21a.2), multiple topological feeding arrangements ( 21a.3), of multiple topological distributions of food (21a.4), and morphological sink (21a.5); all of them confined in electromagnetic morphological blocks (16A) of electrical walls (16A1) and magnetic walls (16A2); built on the basis of conductive, superconducting, dielectric and meta materials, with plural electromagnetic properties, of a rigid or flexible nature.

2. - A MORPHOLOGICAL ANTENNA, in accordance with claim 1, characterized by having a circuit of circuit translation (21) of the forms delimited by a contoured enveloping body (21A), of plural electromagnetic tracks circumscribing the shape silhouette for form a nested system (21B) of "n" nests; to radiate, capture and / or morphologically reflect energy in the conformation of the morphological radiation pattern.

3. A MORPHOLOGICAL ANTENNA, in accordance with claims 1 and 2, characterized by having a circuit translation circuit (21, 22A1, 22B1, 22C1) of the forms that includes morphological dipoles (21a.1), of plural electromagnetic tracks subsumed and built into the contoured envelope body (21A), to form the morphological radiation pattern based on the electrical and magnetic walls of the morphological blocks (16A), established in the morphological dipoles, when radiating, when capturing and morphologically capturing energy .

4.-A MORPHOLOGICAL ANTENNA, in accordance with claims 1 and 3, characterized by having a circuit translation circuit (21, 22A1, 22B1, 22C1) of the forms that includes dipole morphological spaces (21a.2), of dielectric tracks plurals subsumed and built between the contoured envelope body (21A) and the morphological dipoles (21a.1), to form the morphological radiation pattern based on the electrical and magnetic walls of the morphological blocks (16A) established in the dipole morphological spaces , when radiating, when capturing and / or morphologically reflecting energy.

5. A MORPHOLOGICAL ANTENNA, in accordance with claims 1 and 4, characterized by having a circuit translation circuit (21, 22A1, 22B1, 22C1) of the forms that includes multiple topological feeding arrangements (21a.3) incorporated as power points of plural electromagnetic tracks located and arranged jointly in the contoured envelope body (21A) and / or morphological dipoles (21a.l), separated by the dipole morphological spaces (21a.2), to specify the characteristic impedance Z ₀ ( 21C) of the antenna, in ohmic values of arrangement R, R / 2, R / 4, R / 8, 2R / 4, 3R / 8, according to their solidarity location; and conform the morphological radiation pattern based on the electrical (16A1) and magnetic (16A2) walls of the morphological blocks (16 A) established in the multiple topological feeding arrangements, when radiating, capturing and / or morphologically reflecting energy.

6. A MORPHOLOGICAL ANTENNA, in accordance with claim 1 and 5, characterized by having a circuit translation circuit (21, 22A1, 22B1, 22C1) of the forms incorporating multiple topological feed distributions (21a.4), which are derived from the contoured envelope body (21A) and / or morphological dipoles (21a.l); subsumed in the multiple topological power arrangements (21a.3), such as the plural electromagnetic track containing the points

D independent feeding in a nesting, and is referenced with the plane of the morphological sump (21a.5), which feeds the antenna to form the morphological radiation pattern based on the electrical (16A1) and magnetic (16A2) walls of the morphological blocks (16 A) established in the multiple topological feeding distributions; the number of nests "n" determines the ability of the morphological antenna to operate as "2n"

> Multiple independent antennas to transmit and / or receive at the same time.

7.-A MORPHOLOGICAL ANTENNA, in accordance with claim 1 and 6, characterized by having a circuit translation circuit (21, 22A1, 22B1, 22C1) of the forms incorporating a morphological sink (21a.5) as the nested area of plural electromagnetic tracks arranged in an open and / or closed form, configurable, to form the radiation pattern

3 morphological based on the walls of electrical block (16A1) and magnetic (16A2) established in the morphological sump; a morphological sump (21a.5) of the closed type (21a5.7A) and open (21a5.7B) are configured using connection pins 1, n-1. n, Ci, i = l, .., n.

8.-A MORPHOLOGICAL ANTENNA, of previous claims, characterized in that the morphological goodness is valued in the intervals: 0.5≤ quadratic mean≤ 1.0, 0≤ standard error≤ 10 ^'6 , and is conditioned, by the elements of proportionality of the parts λ ,, of symmetry with respect to the main axes XYZ, and secondary axes xyz, of normal reference position with the Z axis, of planar articulation or space! (A¡), all arranged in the forms (13A2, 13B1), to produce movement (13A3), and reproduce the movement (13B4, 13B5) proper to the forms (13A2, 13B1, 19, 20C) in morphological radiation patterns (13B3, 14B).

3 9-A MORPHOLOGICAL ANTENNA, of previous claims, characterized in that the morphological radiation patterns (13B3, 14B, 16B2,16C2, 17B, 18), pursue, are configured and manifest as are the shapes (13A2, 13B1, 19 , 20C) with their respective movement reproduced by the circuit translation circuit (21) whose parts confined in morphological blocks of electromagnetic walls (16A) make the electromagnetic fields interact to produce translational movement (13B4, 16B5) and rotation (13B5, 14D, 16B4), by expansion-contraction of the field (13B4, 14C, 15) how many times the frequency is assessed, and by the presence of the rotating field respectively, up to a maximum speed of sixty times its frequency in a dipole (15A5) of poles 15A1 and 15A2, on one axis (15B-X); up to twenty times the value of its frequency on two axes (15C-X, Y1, Y2) with three dipoles, up to a maximum speed of 60/7 times its frequency in three axes (15D-X, Y1, Y2, Z1, Z2, Z3, Z4) with seven dipoles; express dynamic behavior in propagation. handling and good treatment of energy.

10.-CIRCUITAL TRANSLATION PROCEDURE OF THE MORPHOLOGICAL ANTENNA, for the transmission and / or reception of signals by electromagnetic fields with morphological radiation patterns, according to the preceding claims, characterized in that it consists of the following embodiments: a) Morphological Translation (23A) , whereby the forms are translated into a circuit in the following stages:

* Sensitized morphological footprint (23A-2);

»Tracing the morphological tracks (23A-3) and;

© Definition of morphological blocks {23A-4). b) Structuring of the morphological antenna (23B), whereby the morphological translation, of the previous embodiment (23A), is structured as an antenna in the following stages:

® Definition of the planar and / or spatial design mode (23B-1);

• Sizing and structuring of the antenna parts (23B-2); ® Characterization of the morphological radiation pattern (23B-3);

© Quantification of the morphological electromagnetic torque (23B-4). c) Transfer of the antenna circuit translation (23C), whereby the circuit translation of the forms properly structured in the previous stages (23A and 23B), are transferred in the following stages:

Tangibilization as a morphological antenna (23C-1);

® Morphological antenna modeling (23C-2);

e Manufacture of the morphological antenna (23C-3)

11.-CIRCUIT TRANSLATION PROCESS OF MORPHOLOGICAL ANTENNA, for the transmission and reception of signals, according to claim 10, characterized in that in the performance of Morphological Translation (23A) in the stages of:

The OMéñaóñ de la Wellá morfológica (23Ά-1), the physical forms acquired from objective populations of entities, are tangibly sample and faithfully respecting the morphological benefits; going to the sensitized of the morphological footprint (23A-2), where the tangible sample of the forms of the stage (23A-1), are sensitized as a standard sample and is referenced for the operational staggering characteristic of the morphology in terms of frequency; being traced as morphological tracks (23A-3), here the forms sensitized in stage (23A-2), are established circuitry as the path of the contoured envelope body (21A), of the morphological dipoles (21a.1), of morphological spaces dipolar (21a.2), of the multiple topological feeding arrangements (21a.3), of the multiple topological feeding distributions (21a.4), and the morphological sump (21a.5) by nesting. Being structured within morphological blocks (23A-4) in electromagnetic operating configurations, the circuit forms of the stage (23A-3), and that by drawing the morphological tracks, are configured and grouped into electrical blocks and magnetic blocks to produce Electromagnetic fields with morphological patterns.

12.-CIRCUITAL TRANSLATION PROCEDURE OF THE MORPHOLOGICAL ANTENNA, for the transmission and reception of signals, according to claim 10 and 11, characterized in that in the realization of Structuring the morphological antenna (23B), in the steps of:

Definition of the design mode (23B-1), the embodiment antenna (23A) is modeled in planar mode as a flat body and / or in spatial mode as a solid body, for the dimensioning and structuring of the antenna parts (23B -2), which occurs after defining the design mode (23B1) where the structured parts of the antenna at (23A) are sized in terms of the staggering of the morphology proportionality obtained by sensitizing the morphological footprint (23A- 2). And the consequent characterization of the morphological radiation pattern (23B-3); It characterizes the pattern of morphological radiation in terms of the process of expansion and contraction of the forms, which demonstrate the dynamic nature of the propagation to move and rotate according to morphological properties in the frequencies proper to operation.

Moving on to the quantification of the morphological electromagnetic torque (23B-4), the presence of rotating and / or transverse fields capable of reproducing the movement of the shapes in the radiation pattern is evident, and consequently they generate movement. The parts confined in morphological blocks of electromagnetic walls defined in step (23A-4) make the electromagnetic fields interact to produce movement of translation and rotation, by expansion-contraction of the field how often the frequency is assessed, and by the presence of the rotating field

23.-CIRCUITAL TRANSLATION PROCEDURE OF THE MORPHOLOGICAL ANTENNA, for the transmission and reception of signals, according to claim 10 and 12 characterized in that in the realization of Transfer of the antenna circuit translation (23C), in the steps of:

Tangibilization as a morphological antenna (23C-1); the materials and metamaterials of plural electromagnetic properties, of a rigid or flexible nature, participating in the mologic antenna, the Wodélizáción d the morphological antenna (23G-2), are defined to have the behavior of the morphological radiation pattern and its corresponding application evidence, so the Manufacture of the morphological antenna (23C-3), correlates with the materials and metamaterials defined in (23C1), being modeled according to (23C-2) independently or together on the operational and functional basis of the antenna established in embodiments 23A and 23B.