Ultra-wideband continuous regulation and control antenna system

Abstract

The invention discloses an ultra-wideband continuous regulation antenna system, which comprises an ultra-wideband voltage control system, a spherical electrode pair and a rectangular ring electrode pair, wherein the electrode width voltage control system is connected with the spherical electrode pair and the rectangular ring electrode pair and used for providing voltage signals for the spherical electrode pair and the rectangular ring electrode pair, and the straight line where the spherical electrode pair is located is parallel to the rectangular ring electrode pair; a box is arranged below the rectangular ring electrode pair, a salt solution is loaded in the box, and the spherical electrode pair is arranged in the salt solution and at the two ends of the box; a piezoelectric film is arranged between the rectangular ring electrode pairs, and an alloy material film and a radiation patch are sequentially arranged on the sides, away from the spherical electrode, of the rectangular ring electrode pairs. By means of the technical scheme, continuous regulation and control over the ultra-wideband can be conducted, the requirement for covering the ultra-low frequency band to the millimeter wave band can be met, the working frequency can be adjusted and controlled, and integrated communication from water to air and ultra-wideband frequency spectrum sensing are achieved.

Description

Technical Field

[0001] The present invention belongs to the technical field of ultra-low frequency to millimeter wave propagation, and in particular relates to an extremely wideband continuously controllable antenna system. Background Art

[0002] In modern communication applications, more and more frequency bands have been used, resulting in increasingly scarce spectrum resources. Therefore, spectrum resources have become an important goal for both the military and civilians. Especially since the electromagnetic spectrum has been put on the agenda, the detection and utilization of spectrum resources has become an important research topic. Especially driven by the demand for 6G, spectrum resources below 6GHz almost cover all the spectrum, making it difficult to serve other new communications and radar resources. In recent years, communication technology has developed towards millimeter wave and very low frequency bands, even extending to terahertz in high frequency bands and ultra-low frequency in low frequency bands. The coverage frequency of electromagnetic waves is getting wider and wider, so realizing spectrum perception within an extremely wide frequency range and controlling the spectrum resources in operation have become important means of effectively utilizing spectrum resources. It is also an important way to perceive and detect unknown signals, which can lay the foundation for communication and perception security.

[0003] The current frequency has covered ultra-low frequency to millimeter wave, and even terahertz frequency band, and the design of traditional sensing antenna is directly proportional to the wavelength of the working frequency. In the low frequency band, the wavelength of the antenna is very long, resulting in a large size of the antenna. In this frequency band, the wavelength of the antenna decreases with the increase of frequency, so the size of the antenna becomes an electrically small antenna or even a few tenths of the wavelength relative to the low frequency band. Therefore, it is difficult to achieve the integration and integrated design of the antenna with extremely wide coverage bandwidth, covering low frequency to high frequency.

[0004] However, ULF covers lower frequencies, and antennas can directly penetrate the ground, walls, and water, and can achieve hidden communications and detection, so the development of ULF is of great significance. However, traditional ULF antennas are difficult to miniaturize, and it is difficult to achieve integrated design and integration with microwave bands. Summary of the invention

[0005] In order to solve the above technical problems, the present invention proposes an extremely wideband continuously control antenna system, which provides an extremely wideband antenna with an integrated design and multiple integration methods. It mainly adopts current excitation and voltage excitation to achieve control, and cooperates with the antenna structure to form an extremely wideband continuous control, which can meet the coverage of ultra-low frequency to millimeter wave bands, and the spectrum can be adjusted and controllable, realizing integrated communication from water to air and extremely wideband spectrum perception.

[0006] To achieve the above object, the present invention provides an extremely wideband continuously controllable antenna system, comprising:

[0007] An extremely wide voltage control system, a spherical electrode pair, and a rectangular ring electrode pair; wherein the extremely wide voltage control system is respectively connected to the spherical electrode pair and the rectangular ring electrode pair to provide voltage signals to the spherical electrode and the rectangular ring electrode respectively, and the straight line where the spherical electrode pair is located is parallel to the rectangular ring electrode pair;

[0008] A box is arranged below the rectangular ring electrode pair, wherein a saline solution is loaded inside the box, and the spherical electrode pair is arranged inside the saline solution and at both ends of the box;

[0009] A piezoelectric film is arranged between the rectangular ring electrode pair, and an alloy material film and a radiation patch are arranged in sequence on a side of the rectangular ring electrode pair away from the spherical electrode.

[0010] Optionally, the extremely wide voltage control system includes a filter and a variable resistor connected in sequence, the filter is connected to a voltage source, and the variable resistor is connected to the spherical electrode pair and the rectangular ring electrode pair respectively.

[0011] Optionally, the rectangular ring electrode pair includes a positive rectangular ring electrode and a negative rectangular ring electrode, wherein the negative rectangular ring electrode, the piezoelectric film, the positive rectangular ring electrode, the alloy material film and the radiation patch are arranged in sequence from bottom to top.

[0012] Optionally, the piezoelectric film is a barium titanate piezoelectric film.

[0013] Optionally, the alloy material film is a rare earth-iron alloy material film.

[0014] Optionally, the spherical electrode pair is made of silver chloride.

[0015] Optionally, the rectangular ring electrode pair and the spherical electrode pair are provided with corresponding electrode feeding end surfaces, wherein the electrode feeding end surfaces are coated with electroplated silver thin film.

[0016] Optionally, the radiation patch is a corrugated horn-shaped patch and is excited by a microwave signal.

[0017] Compared with the prior art, the present invention has the following advantages and technical effects:

[0018] The present invention provides an extremely wideband continuous control antenna system, which uses a variable resistor and a filter to design an extremely wide voltage control system, controls the voltage required by the electrode to excite the spherical electrode and the rectangular ring electrode, and provides a broadband excitation voltage for the spherical electrode and the rectangular ring electrode to achieve broadband frequency control. A pair of spherical electrodes placed inside a saline solution is used to form a conductive fluid field to achieve low-frequency communication, and the working bandwidth and frequency of the current field can be adjusted by adjusting the pressure difference between the positive and negative electrodes of the spherical electrode. A rare earth-iron alloy material film is bonded to the top of the rectangular ring electrode, and the micro-displacement deformation generated by the rectangular ring electrode under voltage drive is used to make the film produce a corresponding frequency, and broadband low-frequency radiation is formed by the low-frequency radiation driven by the current field and the micro-displacement deformation of the rare earth-iron alloy film. By adjusting the working voltage of the spherical electrode and the rectangular ring electrode, continuous control of ultra-low frequency to megahertz antennas can be achieved, and the corrugated horn-shaped patch bonded to the rare earth-iron alloy material film generates radiation in the gigahertz frequency band under the excitation of the microwave signal, thereby achieving extremely wideband electromagnetic radiation. Compared with traditional ultra-low frequency antennas, this antenna has extremely small physical size, and realizes integrated design and integration from ultra-low frequency to microwave frequency bands. It can perform continuous regulation of extremely wide frequency, can meet the coverage of ultra-low frequency to millimeter wave bands, and the operating frequency can be adjusted and controlled, realizing integrated communication from water to air and ultra-wideband spectrum perception. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The drawings constituting a part of the present application are used to provide a further understanding of the present application. The illustrative embodiments and descriptions of the present application are used to explain the present application and do not constitute an improper limitation on the present application. In the drawings:

[0020] Figure 1 A front view of the overall structure of the ultra-wideband continuous control antenna system according to an embodiment of the present invention;

[0021] Figure 2 A three-dimensional structural diagram of a rectangular ring electrode portion of an extremely wideband continuously controllable antenna system according to an embodiment of the present invention;

[0022] Among them, 1. radiation patch; 2. alloy material film; 3. positive rectangular ring electrode; 4. piezoelectric film; 5. negative rectangular ring electrode; 6. spherical electrode pair; 7. saline solution; 8. extremely wide voltage control system; 81. variable resistor; 82. filter; 31. first electroplated silver thin film coating; 32. second electroplated silver thin film coating. DETAILED DESCRIPTION

[0023] It should be noted that, in the absence of conflict, the embodiments and features in the embodiments of the present application can be combined with each other. The present application will be described in detail below with reference to the accompanying drawings and in combination with the embodiments.

[0024] It should be noted that the steps shown in the flowcharts of the accompanying drawings can be executed in a computer system such as a set of computer executable instructions, and that, although a logical order is shown in the flowcharts, in some cases, the steps shown or described can be executed in an order different from that shown here.

[0025] The present invention discloses an extremely wideband continuous control antenna system, comprising an extremely wideband voltage control system 8, a spherical electrode pair 6, a piezoelectric film 4, a saline solution 7, a rectangular ring electrode pair, an alloy material film 2, and a radiation patch 1. The extremely wideband piezoelectric control system 8 is composed of a rheostat 81 and a filter 82 connected in sequence. The voltage value is changed by adjusting the resistance value of the rheostat 81, and filtered by the filter 82 to reach the voltage required by the control electrode to excite the spherical electrode pair 6 and the rectangular ring electrode pair. The positive and negative electrodes of the spherical electrode pair 6 are respectively connected to the positive and negative electrodes of the voltage, and are placed inside the saline solution 7. By controlling the voltage loaded on both ends of the spherical electrode pair, a conductive fluid field is formed inside the saline solution 7 to achieve low-frequency communication; the rectangular ring electrode pair generates micro-displacement under the drive of the voltage, causing the alloy material film 2 of the rare earth-iron alloy material to generate a corresponding resonant frequency, and broadband low-frequency radiation is formed through the current field and the radiation of the alloy material film 2, and a corrugated horn-shaped radiation patch 1 is coated on the alloy material film 2, and a microwave signal source is used to excite and generate extremely wideband radiation. An extremely wideband continuously controllable antenna system designed by the present invention can cover the ultra-low frequency to millimeter wave band, and the spectrum can be adjusted and controlled, realizing integrated communication from water to air and extremely wideband spectrum perception.

[0026] In order to solve the problems of integrated design and ultra-wideband bandwidth coverage of traditional ultra-wideband antennas, the present invention provides an ultra-wideband continuously control antenna system, which aims to achieve continuous frequency band control from ultra-low frequency to microwave through a combination of different excitation methods and antenna design methods based on different principles, covering ultra-low frequency to millimeter wave bands, and laying the foundation for ultra-wideband perception of the electromagnetic spectrum.

[0027] To achieve the above object, the present invention provides the following solution: an extremely wideband continuously adjustable antenna system.

[0028] It includes: an extremely wide voltage control system 8, a spherical electrode pair 6, a piezoelectric film 4, a box of saline solution 7, a rectangular ring electrode pair, an alloy material film 2, and a radiation patch 1; wherein the rectangular ring electrode pair includes a positive rectangular ring electrode 3 and a negative rectangular ring electrode 5.

[0029] The extremely wideband piezoelectric control system 8 is composed of a rheostat 81 and a filter 82. The voltage value is changed by adjusting the resistance value of the rheostat 81 and filtered by the filter 82 to achieve the voltage required by the control electrode to excite the spherical electrode pair 6 and the rectangular ring electrode pair;

[0030] The positive electrode and the negative electrode of the spherical electrode pair 6 are connected to the positive electrode and the negative electrode of the voltage respectively, and are placed inside the saline solution 7. By controlling the voltage loaded on both ends of the spherical electrode pair 6, a current field is formed inside the saline solution 7 to achieve low-frequency communication;

[0031] The rectangular ring electrode pair generates micro displacement under the driving of voltage, causing the alloy material film 4 of the rare earth-iron alloy material to generate a corresponding resonant frequency, and broadband low-frequency radiation is formed through the radiation of the current field and the alloy material film 4;

[0032] The radiation patch 1 is a corrugated horn-shaped patch, which is bonded to the alloy material film 2 and is excited by a microwave signal;

[0033] The rectangular ring electrode pair is installed above a box loaded with a saline solution 7, wherein the negative rectangular ring electrode 5 is arranged above the box as the negative electrode in the rectangular ring electrode pair, the positive rectangular ring electrode 3 is arranged away from the box as the positive electrode in the rectangular ring electrode pair, the piezoelectric film 4 is arranged between the negative rectangular ring electrode 5 and the positive rectangular ring electrode 3, and the straight line where the spherical electrode pair is located is parallel to the rectangular ring electrode pair;

[0034] The radiation patch 1 is excited by a microwave signal;

[0035] The rectangular ring electrode pair and the spherical electrode pair 6 are both connected to a voltage source, and both the rectangular ring electrode pair and the spherical electrode pair 6 include a positive electrode and a negative electrode; wherein the positive electrode in the rectangular ring electrode pair and the positive electrode in the spherical electrode pair 6 are connected to the positive electrode of the voltage source, and the negative electrode in the rectangular ring electrode pair and the negative electrode in the spherical electrode pair 6 are connected to the negative electrode of the voltage source;

[0036] A spherical electrode pair 6 is fixedly installed in the saline solution 7;

[0037] The alloy material film 4 is made of a rare earth-iron alloy material film, and the alloy material film 4 is bonded above the negative rectangular ring electrode 5 and below the positive rectangular ring electrode 3, so that the rare earth-iron alloy material film is located between the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5;

[0038] The feeding end face of the electrode is a silver-plated thin film coating, which is respectively attached to the rectangular ring electrode and the spherical electrode pair 6, wherein the outer wall surface of the positive rectangular ring electrode 3 in the rectangular ring electrode is covered with, i.e. coated with, a first silver-plated thin film coating 31, and the outer wall surface of the negative rectangular ring electrode 5 is covered with, i.e. coated with, a second silver-plated thin film coating 32, and the outer surfaces of the positive spherical electrode and the negative spherical electrode of the spherical electrode pair 6 are all covered with or coated with a silver-plated thin film coating; the electrode is connected to the extremely wide-band piezoelectric control system 8 via the silver-plated thin film coating on the feeding end face of the electrode, so as to optimize the electrical connection and improve energy efficiency.

[0039] Voltage is simultaneously applied to the rectangular ring electrode pair and the spherical electrode pair 6, and the positive and negative electrodes of the rectangular ring electrode pair and the spherical electrode pair 6 are respectively connected to the positive electrode and negative electrode of the voltage source;

[0040] The spherical electrode pair 6 includes a positive spherical electrode and a negative spherical electrode as the positive electrode and the negative electrode of the spherical electrode pair 6 respectively, and both are made of silver chloride. The positive spherical electrode and the negative spherical electrode are respectively placed at both ends of the box containing the saline solution 7, and are respectively connected to the positive and negative electrodes of the voltage source;

[0041] The rectangular ring electrode pair is composed of a positive rectangular ring electrode 3 and a negative rectangular ring electrode 5 as positive and negative electrodes, and the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5 are respectively connected to the positive and negative poles of the voltage source, and the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5 are respectively bonded to the two sides of the piezoelectric film 4, and the piezoelectric film 4 is made of barium titanate film. Under the action of an applied voltage, the piezoelectric film 4 produces micro-deformation, and the micro-deformation drives the alloy material film 2 adhered to the top of the positive rectangular ring electrode 3 to generate electromagnetic waves consistent with the frequency of the micro-deformation, wherein the alloy material film 2 is made of rare earth-iron alloy material film.

[0042] The spherical electrode pair 6 in the box loaded with the saline solution 7 forms a current field under the action of the positive and negative electrode pressure difference due to the conductive effect of the saline solution 7. The positive and negative electrode pressure difference can be adjusted to adjust the working bandwidth and frequency of the current field.

[0043] The box containing the saline solution 7, the negative rectangular ring electrode 5, the piezoelectric film 4, the positive rectangular ring electrode 3, the alloy material film 2 and the radiation patch 1 are sequentially bonded together from bottom to top;

[0044] The positive and negative electrodes in the spherical electrode pair 6 and the rectangular ring electrode pair appear in pairs and the same voltage is applied. The spherical electrodes in the box loaded with the saline solution 7 form a current field in a conductive manner of the saline solution 7. The rectangular ring electrode pairs are arranged on both sides of the piezoelectric film 4 to drive the piezoelectric film 4 to produce micro-deformations and drive the alloy material film 2 to generate electromagnetic waves. Through two different resonance mechanisms, the radiation of different electromagnetic waves is achieved.

[0045] The operating voltages of the spherical electrode pair 6 and the rectangular ring electrode pair can be different or the same, so as to achieve continuous regulation of the ultra-low frequency to megahertz antenna, and the radiation patch 1 bonded to the alloy material film 2 generates radiation in the gigahertz frequency band under the excitation of the microwave signal, thereby achieving extremely broadband electromagnetic radiation.

[0046] In order to make the above-mentioned objects, features and advantages of the present invention more obvious and easy to understand, the present invention is further described in detail below with reference to the accompanying drawings and specific embodiments.

[0047] refer to Figure 1 and Figure 2The present invention provides an extremely wideband continuous control antenna system, comprising: an extremely wide voltage control system 8, a spherical electrode pair 6 including a pair of positive and negative spherical electrodes, a piezoelectric film 4, a box of saline solution 7, a rectangular ring electrode pair including a pair of positive and negative rectangular ring electrodes, an alloy material film 2, and a radiation patch 1.

[0048] The rectangular ring electrode pair includes a negative rectangular ring electrode 5 and a positive rectangular ring electrode 3, the alloy material film 2 is a rare earth-iron alloy material film, the piezoelectric film 4 is a barium titanate film, and the radiation patch 1 is a corrugated horn-shaped patch.

[0049] The box loaded with saline solution 7, the negative rectangular ring electrode 5, the piezoelectric film 4, the positive rectangular ring electrode 3, the alloy material film 2 and the radiation patch 1 are bonded together in sequence from bottom to top; the radiation patch 1 is bonded to the alloy material film 2, the alloy material film 2 is bonded to the top of the positive rectangular ring electrode 3, the piezoelectric film 4 is arranged between the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5, the negative rectangular ring electrode 5 is installed on the top of the box loaded with saline solution 7, the spherical electrode pair 6 is installed in the saline solution 7, the rectangular ring electrode pair and the spherical electrode pair both include a positive electrode and a negative electrode, and the electrode feeding end faces are coated with an electroplated silver film, which are respectively attached to the rectangular ring electrode pair and the spherical electrode pair 6.

[0050] The extremely wideband piezoelectric control system 1 is composed of a rheostat 81 and a filter 82. The voltage signal applied to the electrode is dynamically adjusted by adjusting the resistance value of the rheostat 81. The filter 82 ensures the stability and purity of the voltage signal, thereby ensuring the high-frequency and low-frequency radiation operations of the antenna system.

[0051] The spherical electrode pair 6 includes positive and negative spherical electrodes, both made of silver chloride, which are respectively connected to the positive and negative poles of the voltage source through an extremely wide voltage control system and placed inside the saline solution 7. By controlling the voltage loaded at both ends of the spherical electrode pair, a conductive fluid field is formed inside the saline solution 7 to achieve low-frequency band communication.

[0052] The rectangular ring electrode pair is composed of a positive rectangular ring electrode 3 and a negative rectangular ring electrode 5 as positive and negative electrodes, and the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5 are respectively connected to the positive and negative electrodes of the voltage source through an extremely wide voltage control system, and the positive rectangular ring electrode 3 and the negative rectangular ring electrode 5 are respectively bonded to the two sides of the piezoelectric film 4. Under the action of the applied voltage, the piezoelectric film 4 produces micro-deformation, and the micro-deformation drives the alloy material film 2 bonded above the positive rectangular ring electrode 3 to generate electromagnetic waves consistent with the micro-deformation frequency. The introduction of this resonance mechanism significantly improves the system's operating frequency adjustment capability and radiation efficiency.

[0053] The spherical electrode pair 6 in the box loaded with saline solution 7 forms a conductive current field due to the conductive effect of salt water under the action of the pressure difference between the positive and negative electrodes of the spherical electrode. The pressure difference between the positive and negative electrodes of the spherical electrode can be adjusted to adjust the working bandwidth and frequency of the current field.

[0054] The positive and negative electrodes in the spherical electrode pair 6 and the rectangular ring electrode pair appear in pairs and the same voltage is applied. The spherical electrode pair in the box loaded with the saline solution 7 forms a current field in the form of conductivity of the saline solution. The rectangular ring electrode pair is arranged on both sides of the piezoelectric film 4 to drive the piezoelectric film 4 to produce micro-deformation and drive the alloy material film 2 to produce electromagnetic waves consistent with the micro-deformation frequency. Through two different resonance generation mechanisms, the radiation of different electromagnetic waves is achieved.

[0055] Based on the above-mentioned mechanism of electromagnetic wave radiation generation, the operating voltages of the spherical electrode pair 6 and the rectangular ring electrode pair can be different or the same, so as to achieve continuous regulation of the ultra-low frequency to megahertz antenna, and the radiation patch 1 bonded to the alloy material film 2 generates radiation in the gigahertz frequency band under the excitation of the microwave signal, thereby achieving extremely broadband electromagnetic radiation.

[0056] Through the carefully designed layered structure and integrated components, the ultra-wideband continuous control antenna system has achieved integration, miniaturization and integration. The key components inside the system, such as the spherical electrode pair 6, the rectangular ring electrode pair, the piezoelectric film 4, and the alloy material film 2, all use precise bottom-up bonding technology to achieve a compact layout. The clever stacking of the box loaded with saline solution 7, the rectangular ring electrode and the piezoelectric film 4 not only reduces the space occupied, but also optimizes the electrical connection and improves energy efficiency through the electroplated silver film coating on the electrode feeding end face. On the whole, this highly integrated structural design and the application of fine control principles enable the antenna system to achieve miniaturization and lightness while maintaining ultra-wideband coverage capabilities, which is very suitable for applications with strict space requirements.

[0057] The antenna system of the present invention can achieve extremely wide frequency band coverage from ultra-low frequency to gigahertz frequency band, providing the possibility for multi-band communication. Due to the conductive fluid field formed by the spherical electrode pair 6 in the saline solution 7, the system can also achieve effective communication in an underwater environment. At the same time, the coordinated work of the rectangular ring electrode pair and the alloy material film 2 ensures the communication capability in the air environment, and realizes the seamless connection between underwater and air communications.

[0058] The antenna system of the present invention can be applied to intelligent spectrum management, by continuously regulating voltage, real-time monitoring and adjusting spectrum usage, and optimizing the allocation of spectrum resources. In addition, the wideband characteristics of the system also make it an ideal choice for electromagnetic compatibility testing, which can evaluate the electromagnetic interference and immunity of equipment at different frequencies.

[0059] To sum up, compared with traditional ultra-low frequency antennas, the ultra-wideband continuously control antenna system designed by the present invention has extremely small physical dimensions, and realizes integrated design and integration from ultra-low frequency to microwave frequency bands. It can perform continuous control of ultra-wideband, can meet the coverage of ultra-low frequency to millimeter wave bands, and the operating frequency can be adjusted and controlled, realizing integrated communication from water to air and ultra-wideband spectrum perception.

[0060] The above are only preferred specific implementations of the present application, but the protection scope of the present application is not limited thereto. Any changes or substitutions that can be easily thought of by a person skilled in the art within the technical scope disclosed in the present application should be included in the protection scope of the present application. Therefore, the protection scope of the present application should be based on the protection scope of the claims.

Claims

1. An extremely wideband continuously adjustable antenna system, characterized in that: include: Extremely wide voltage control system, spherical electrode pairs, rectangular ring electrode pairs; The extremely wide voltage control system is respectively connected to the spherical electrode pair and the rectangular ring electrode pair to provide voltage signals to the spherical electrode and the rectangular ring electrode respectively, and the straight line where the spherical electrode pair is located is parallel to the rectangular ring electrode pair; A box is arranged below the rectangular ring electrode pair, wherein a saline solution is loaded inside the box, and the spherical electrode pair is arranged inside the saline solution and at both ends of the box; A piezoelectric film is arranged between the rectangular ring electrode pair, and an alloy material film and a radiation patch are arranged in sequence on a side of the rectangular ring electrode pair away from the spherical electrode.

2. The system according to claim 1, characterized in that The extremely wide voltage control system comprises a filter and a variable resistor connected in sequence, wherein the filter is connected to a voltage source, and the variable resistor is connected to the spherical electrode pair and the rectangular ring electrode pair respectively.

3. The system according to claim 1, characterized in that The rectangular ring electrode pair comprises a positive rectangular ring electrode and a negative rectangular ring electrode, wherein the negative rectangular ring electrode, the piezoelectric film, the positive rectangular ring electrode, the alloy material film and the radiation patch are arranged in sequence from bottom to top.

4. The system according to claim 1, characterized in that The piezoelectric film is a barium titanate piezoelectric film.

5. The system according to claim 1, characterized in that The alloy material film is a rare earth-iron alloy material film.

6. The system according to claim 1, characterized in that The spherical electrode pair is made of silver chloride.

7. The system according to claim 1, characterized in that The rectangular ring electrode pair and the spherical electrode pair are provided with corresponding electrode feeding end surfaces, wherein the electrode feeding end surfaces are electroplated with silver thin film coatings.

8. The system according to claim 1, characterized in that The radiation patch is a corrugated horn-shaped patch.

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