34 results about "High-gain antenna" patented technology

The invention discloses a Terahertz broadband high-gain Vivaldi antenna based on a CPW (Coherent Plane Waveguide) rotary slot line structure, and belongs to the field of Terahertz communication. The antenna adopts an integrated single-layer metal structure on the top layer of a dielectric substrate, and is divided into a radiation arm and a CPW rotating slot line balun along the axial direction. The inner side edge of the radiation arm is a smooth exponential change curve, and the middle exponential gradual change groove forms a broadband traveling wave radiation channel. Periodic grid choke grooves are loaded on the outer side edge so as to suppress edge surface waves and improve a directional diagram. The feed part adopts a CPW to slot line balun structure to realize conversion from an unbalanced mode to a balanced mode, and a fan-shaped radial branch knot is utilized to form a broadband virtual short circuit boundary at a feed point to ensure unidirectional efficient transmission of energy. In addition, a group of string-shaped director patches are arranged in the opening area of the exponential gradual change groove along the central axis, and the wave beam is guided through phase correction. The terahertz planar antenna effectively solves the problems of limited bandwidth and insufficient gain of the terahertz planar antenna, and has the characteristics of compact structure, easiness in integration, excellent radiation performance and the like.

A radio communication route enables communication from an originating ground station to a destination ground station via one of multiple randomly orbiting satellites with no active attitude control. The ground stations and satellites include multi-feed parabolic antennas for receiving radio signals from and transmitting radio signals in multiple directions. The satellites store an address of a destination ground station from which an initial information signal is transmitted and antenna information identifying the satellite antenna feed on which the initial information signal was received. Plural satellite antennas transmit linking information identifying the satellite to the originating ground station. Data transmissions received at the originating ground station that designate a particular destination are transmitted by the originating ground station using the antenna on which the linking information was received and the satellite retransmits the data transmission using the satellite antenna feed identified by the stored antenna information.

This application proposes a sliding-window type electrically controlled beam scanning conical antenna array, comprising a conical antenna support, antenna elements, and a beam control network. The conical antenna support consists of 13 trapezoidal surfaces with an elevation angle of 5°. There are 14 antenna elements in total. Two antenna elements located on the same trapezoidal surface are fed to antenna elements on their adjacent trapezoidal surfaces via unequal phase feeding to form two high-gain antennas. These two high-gain antennas combine to form a high-gain beam. Simultaneously, the high-gain antennas combine with their adjacent antenna elements to form a directional beam. The remaining adjacent antenna elements can also combine to form directional beams. The conical antenna array has 12 directional beams, with a pointing angle difference of 30° between adjacent beams. The beam control network can achieve rapid switching between the 12 beams, realizing sliding-window type electrically controlled beam scanning and forming 360° azimuth coverage. This sliding-window type electrically controlled beam scanning conical antenna array significantly reduces costs while possessing sliding-window type electrically controlled beam scanning capabilities.

The invention provides a dual-frequency high-gain antenna and a network communication electronic device. The dual-frequency high-gain antenna comprises a substrate, a first radiation assembly, a second radiation assembly, a power division line assembly and a ground feed assembly. The first radiation assembly and the second radiation assembly are respectively arranged on two surfaces of the substrate, the power division line assembly is electrically connected with the first radiation assembly, and the feed ground assembly is electrically connected with the first radiation assembly and the second radiation assembly; the first radiation assembly comprises a plurality of groups of first dipole antennas, every two groups of first dipole antennas are connected in series to form a first dipole antenna pair, and the plurality of first dipole antenna pairs are connected in parallel by the power division line assembly. According to the dual-frequency high-gain antenna, the overall circuit structure of the antenna can be simplified, the overall radiation performance of the antenna can be effectively improved, the problems of interference and attenuation are effectively solved, and therefore the radiation gain and the radiation efficiency of the antenna are improved.

An antenna includes a first substrate, a second substrate, a ground layer and a third substrate stacked from top to bottom, a driving patch disposed below the first substrate, and a first feed-in line and a second feed-in line disposed below the third substrate. The antenna further includes a first feed-out probe and a second feed-out probe, each of which extends from below the driving patch, and penetrates the second substrate, the ground layer and the third substrate. The first feed-out probe and the second feed-out probe respectively connects the first feed-in line and the second feed-in line to the driving patch, so as to transmit a first signal and a second signal received by the first feed-in line and the second feed-in line to the driving patch respectively through the first feed-out probe and the second feed-out probe for the driving patch to output an output electromagnetic wave.

The present invention relates to the field of wireless telecommunication and discloses a compact, high-performance, dual-polarized, quasi-omnidirectional Multiple-Input Multiple-Output (MIMO) antenna system for small cell wireless communications. It develops a flexible platform to realize different arrangements of antenna modules for different applications for 3G, 4G, and 5G wireless systems. It includes multi-band dual-polarized antenna arrays operating at 696 MHz-960 MHz, 1695 MHz-2700 MHz, 3300 MHz-4200 MHZ, 5150 MHz-5925 MHz, high gain antenna array modules, feeding networks, power dividers, reflectors, and a radome. The invention adopts a dual-polarized MIMO antenna structure with multiple radiating antenna arrays with high isolation between radiating elements to achieve compact size, good standing wave ratio, high gain, wide operating frequency range, quasi-omnidirectional antenna pattern, and spatial diversity with less interference. In addition, the antenna structure is fully customizable, highly reliable and durable, easy to manufacture, and easy to deploy in the field.

The utility model provides a high gain antenna, which comprises an antenna body and a metal baffle plate arranged around the antenna body, the antenna body comprises a feed pin, a dielectric substrate and a radiation electrode fixed on the surface of the dielectric substrate, the feed pin is electrically connected with the radiation electrode, and the height H of the metal baffle plate is not greater than the maximum height D of the antenna body. And the minimum distance L1 from the metal baffle plate to the center of the feed needle and the maximum side length L of the dielectric substrate meet the condition that L1 is greater than or equal to 1 / 2 * L. The unique structure that the metal baffle is arranged around the antenna is adopted, the electromagnetic environment around the antenna is effectively changed by means of the reflection, shielding and diversion effects of the metal baffle on electromagnetic waves, and the effect of remarkably improving the antenna gain in a limited space is successfully achieved. The dual requirements of modern electronic equipment for antenna miniaturization and high performance are fully considered, the bottleneck of gain improvement in a limited space in the traditional antenna design is broken through, and powerful support is provided for efficient and stable operation of a satellite navigation system in a complex environment.

The application provides a high-gain antenna implementation method based on a polarization-insensitive metasurface, wherein the polarization-insensitive metasurface is composed of a plurality of metasurface unit structures with the same structure arranged periodically; the metasurface unit structure comprises a dielectric substrate and a plurality of metal patches etched on a surface of the dielectric substrate; the key physical dimension of the cross-shaped metasurface unit is controlled to realize the electric resonance and magnetic resonance characteristics of the cross-shaped metasurface unit, and the wideband near-zero refractive index is realized. When the cross-shaped metasurface unit is loaded on a microstrip antenna as a coating, the gain of the antenna can be significantly improved by optimizing the loading height and increasing the number of layers, and the method is effective for linearly polarized antennas and circularly polarized antennas, and provides a new solution for improving the gain of antennas under various polarization conditions.

The utility model discloses a novel high gain UWB antenna, and specifically relates to the UWB antenna technology field, the novel high gain UWB antenna comprises a connecting mechanism, and also comprises an antenna body arranged on the top of the connecting mechanism, the antenna body comprises a substrate, a radiation body is fixedly installed on the outer wall of one side of the substrate, a microstrip line is fixedly installed on the bottom of the radiation body, and the microstrip line is provided with a microstrip line. The connecting mechanism comprises an inner core welded to the microstrip line, a connecting base is fixedly installed at the bottom of the inner core, and an external thread connector is fixedly installed at the bottom of the connecting base. According to the utility model, the inner core is welded with the microstrip line, so that the connecting mechanism is connected with the radiator, the U-shaped groove arranged at the inner side of the radiator can form a notch structure, 5G signals coincident with WiFi can be filtered out, antenna energy can be concentrated and antenna gain can be improved through the reflection cambered surface, and the distance and quality of signal transmission can be obviously improved.

The application relates to a high-gain co-aperture dual-polarized antenna array and belongs to the technical field of antennas. First, high-gain antenna units are adopted, so that the antenna arrangement is sparse and has high aperture efficiency; then, low-frequency and high-frequency antenna positions are staggered through 1:4 proportion; finally, the low-frequency antenna dielectric substrate is rotated by 45 degrees to stagger the radiation direction of the high-frequency antenna and reduce the dielectric loss of high-frequency energy. The antenna array has the advantages of convenient installation, stable structure, good grounding and wide bandwidth.

The application relates to the technical field of data collectors, in particular to a WIFI connection data collector which comprises a data collection module, a WIFI communication module, a protocol conversion module and a main control module; the main control module is electrically connected with the data collection module, the WIFI communication module and the protocol conversion module; the collector is connected with a local area network through the WIFI communication module to establish a multi-device communication connection; the protocol conversion module is adapted to multiple industrial data protocols, bidirectional data interaction with PLC or external management software is realized, and digital management after data collection is completed. The application realizes multi-end synchronous data transmission, completely solves the limitation of WIFI single-device point-to-point connection, is matched with a signal amplification unit and a high-gain antenna, the communication distance in an unobstructed environment can reach 100 m, the communication distance in an obstructed industrial environment can reach 50 m, the transmission distance limitation of the WIFI protocol is broken through, the device is loaded with a special protocol conversion module, is adapted to multiple mainstream industrial protocols, and can be directly connected with PLC and industrial management software.

The utility model discloses a signal amplifier and a radio frequency wireless system, the signal amplifier comprises a near-end display assembly and a far-end active amplification assembly, the near-end display assembly is in communication connection with the far-end active amplification assembly; the far-end active amplification assembly comprises a far-end communication module, a far-end monitoring module, a far-end controller, a far-end amplification module, a far-end power supply module and a far-end high-gain antenna; the far-end controller is used for generating a sending signal and receiving a radio frequency signal in a 2.4 G / 5.8 G frequency band; the far-end amplification module is electrically connected with the far-end controller, the far-end high-gain antenna is electrically connected with the far-end amplification module, the far-end monitoring module is electrically connected with the far-end controller and the far-end communication module, and the far-end power supply module is electrically connected with the far-end communication module, the far-end monitoring module, the far-end amplification module and the far-end controller. The antenna is stable in signal, has the advantages of high gain, high efficiency and high reliability, and can meet the remote control requirement.

The utility model relates to the technical field of antenna communication, and specifically relates to a polarization-adjustable FPC high-gain antenna. The LED lamp comprises a circuit board, a connecting wire is mounted on the surface of the circuit board, a fixing frame is fixedly connected to the surface of the circuit board, two mounting grooves are formed in the surface of the fixing frame, fixing rods are fixedly connected to the inner surfaces of the mounting grooves of the fixing frame, and an L-shaped Boron is rotationally connected to the arc surface of each fixing rod. A T-shaped plate is slidably connected to the surface of the fixing frame, a lead screw is inserted into the T-shaped plate in a threaded mode, a threaded groove is formed in the surface of the fixing frame, and the lead screw is in threaded connection with the inner surface of the threaded groove of the fixing frame. The problems that due to continuous pressure generated by winding and bending, microcosmic structural damage possibly occurs to a metal wire in the connecting wire, the conductive performance of the wire is reduced, resistance is increased, excessive heat is generated when current passes through, and normal work of the connecting wire is affected are solved.

The application provides a scissors deployable solar cell array system of a cubic satellite, which comprises a power supply box, a driving transmission device, a pressing release device, a connecting frame, a scissors deployable solar cell array, a deployment device and a locking device. The application is based on the principle of the scissors space deployable mechanism, adopts generalization and modularization design, has natural compactness, large face folding and unfolding ratio and high space utilization rate, has the modularization characteristic, is strong in expandability, can carry more solar cell panels in a unit volume, greatly improves the available power of the load, has strong functionality, and the special shape can provide the passive gravity gradient stabilization and high gain antenna integration advantages for the cubic satellite, the active driving deployment can customize the deployment time sequence, reduces the attitude influence on the cubic satellite in the deployment process, and is suitable for monitoring and communication task satellites and easy to complete orbit rapid deployment.

The utility model provides an integrated monitoring device for underground water seepage and soil settlement. A waterproof box is fixed on the ground; the pre-buried pipeline is arranged in a soil layer below the waterproof box; the settlement monitoring module comprises a datum point device, a horizontal displacement sensor and a settlement sensor, and the horizontal displacement sensor and the settlement sensor are both fixed to the bottom of the pre-buried pipeline; the seepage monitoring module comprises an optical fiber seepage sensor and an adjustable connecting seat, and the optical fiber seepage sensor is mounted in the pre-buried pipeline through the adjustable connecting seat; the data collector is mounted in the waterproof box; the data processing storage module comprises a microprocessor and a storage chip, and the microprocessor is connected with the data collector through a signal line; the wireless communication module comprises a communication chip and a high-gain antenna. Through integrated monitoring and real-time acquisition, the device can timely discover underground water resource change and soil settlement and displacement conditions, and has the characteristics of high precision, integration, stability and reliability.

The application discloses a multi-aperture high-gain antenna structure based on a millimeter wave radar and a detection enhancement method, which is suitable for a 77GHz frequency band and a 92GHz roadside millimeter wave radar scene. The high-gain antenna structure comprises a millimeter wave radio frequency unit, a multi-aperture antenna array, a synchronous phase feed network, a beam control module and a signal synthesis processing unit. The multi-aperture antenna array is arranged by multiple groups of different specification sub-aperture antenna units according to a preset spatial layout, so as to form an equivalent large radiation aperture. The synchronous phase feed network realizes synchronous excitation and phase calibration of sub-aperture signals. The beam control module controls and regulates a beam direction and suppresses a sidelobe. The signal synthesis processing unit coherently superimposes and suppresses noise of multiple received signals. The application realizes the enhanced detection effect of the high-gain antenna structure through multi-aperture cooperative arraying, synchronous phase feeding, differentiated beam optimization, signal coherent synthesis and special plate and feed structure design.

The application provides an omnidirectional antenna, which comprises a non-radiation grounding element, a radiation antenna element and a radiation grounding element, one end of the radiation antenna element is connected with the radiation grounding element, and the other end of the radiation antenna element is connected with the non-radiation grounding element; the radiation antenna element comprises a plurality of radiation units and a connecting unit for connecting the plurality of radiation units in series, the radiation unit comprises a first inner conductor and two first outer conductors symmetrically arranged outside the first inner conductor, and the first inner conductor in each radiation unit is connected with the first outer conductor of the adjacent radiation unit through the connecting unit. The omnidirectional antenna of the application is a rod-shaped omnidirectional high-gain antenna with simple structure and excellent performance, adopts a mode of arraying metal straight strip units, can improve the working gain of the antenna, and the maximum realized gain of the antenna can reach 5.5dBi; the working frequency band of the antenna is 2.39GHz-2.49GHz.

The utility model relates to patch antenna technical field provides a kind of high gain antenna and base station, wherein antenna includes: dielectric substrate;Metal floor, set on the side surface of dielectric substrate;Metal radiation patch, set on the other side surface of dielectric substrate away from metal floor;Feed structure, connect with metal radiation patch;Curly flow slit structure, set in metal radiation patch, curly flow slit structure includes at least one group of center symmetry arrangement's curly flow slit, and curly flow slit structure is used to excite high order mode and reduce resonant frequency.Based on curly flow slit structure, it can reduce resonant frequency, under the same frequency, smaller structure size can be used, it is favorable to realize the miniaturization of antenna, and curly flow slit structure makes the radiation signal generated by metal radiation patch have higher gain, let signal can transmit farther distance, it is favorable to improve signal coverage range, applicable to 4.9GHz etc. High frequency band base station improves the application scene of coverage range.

This invention discloses a multimodal terminal antenna intelligent scheduling system, method, and terminal with AI scene recognition. The system includes: a multimodal perception module for collecting perception data from four layers: radio frequency, attitude, application, and positioning; an AI scene recognition module for identifying the current scene of the terminal through an AI model; an intelligent antenna scheduling engine for calling preset antenna scheduling strategies according to the scene; and an antenna hardware execution layer for executing the strategy and configuring radio frequency hardware. The method integrates multi-dimensional information to enable the terminal to "understand" that it is in a specific scene such as a call, game, or weak field, and dynamically matches the optimal antenna configuration. For example, it avoids obstructed antennas during calls, switches to unobstructed antennas and tunes in real time during games, and enables high-gain antennas and uplink beam pre-switching in weak fields. This invention solves the problems of slow response, mis-switching, and inability to deeply optimize traditional antenna scheduling that relies solely on signal strength switching, and achieves adaptive improvement of terminal antenna performance and energy efficiency.

The utility model belongs to but not limited to the technical field of charging devices, and particularly relates to a charging device of a real-time monitoring system for superficial implantation of a human body, which comprises an external function device and an in-vivo energy receiving device, the external energy supply device is divided into two types, namely a fixed charging station and a movable charging station; the movable charging station comprises a plurality of high-gain antennas, each antenna is independently controlled by an independent switch to be opened and closed, and a 180-degree radiation angle can be realized by controlling the combination of different antenna powers; the movable charging bench is designed to be in a wrist band shape, and only half of the movable charging bench is provided with the high-gain directional antenna. The in-vivo energy receiving device is partially implanted under the skin of the trunk of the patient and is used for measuring the physical state of the patient in real time and sending part of signals to the in-vitro information transfer station; and meanwhile, the wireless radio frequency energy from an external fixed or handheld portable charging table can be received and the battery in the wireless radio frequency energy charging device can be charged.

The application discloses a terahertz broadband high-gain Vivaldi antenna based on a CPW slot line structure and belongs to the field of terahertz communication. The antenna adopts an integrated single-layer metal structure of a top layer of a dielectric substrate, is divided into a radiation arm and a CPW slot line balun along an axial direction, and the inner side edge of the radiation arm is a smooth exponential change curve; a middle exponential gradual change slot forms a broadband traveling wave radiation channel; the outer side edge is loaded with periodic grid choke slots to suppress edge surface waves and improve a directional diagram; a CPW slot line balun structure is adopted in a feeding part to realize conversion from unbalanced to balanced mode; a broadband virtual short-circuit boundary is formed at a feeding point by using a sector radial branch to ensure unidirectional and high-efficient energy transmission; and a group of "string" type director patches are arranged along a central axis in an exponential gradual change slot opening area to guide a beam by phase correction. The application effectively solves the problems of limited bandwidth and insufficient gain of a terahertz planar antenna, and has the characteristics of compact structure, easy integration and excellent radiation performance.

This invention discloses a two-dimensional phased array antenna, comprising a plurality of antenna elements, wherein the antenna elements are low-profile traveling-wave medium antenna elements, and the plurality of low-profile traveling-wave medium antenna elements are arrayed in an M-row N-column configuration, where 3≤M≤5 and 3≤N≤5; the array spacing is 0.5~0.8λ, where λ is the wavelength of the electromagnetic wave at the operating frequency of the low-profile end-fire antenna element. The array antenna of this invention solves the problems of high-gain antenna array densification and small aperture, resulting in a compact antenna structure with a small lateral area. For the same aperture, the two-dimensional array antenna of this invention has higher radiation gain than traditional array antennas, i.e., higher aperture efficiency. The two-dimensional phased array antenna of this invention can achieve high-gain two-dimensional ±20° beam scanning, and is suitable for platforms requiring miniaturized, high-gain antennas, such as aircraft side-mounted antennas or mobile communication base stations.

The utility model provides an electric power overhaul field personnel management and control device based on UWB, and belongs to the technical field of electric power overhaul. Comprising a butt-joint assembly, the butt-joint assembly comprises a shell and a butt-joint seat, a sliding groove is formed in the butt-joint seat 20, the butt-joint seat is slidably connected with a magnet through the sliding groove, a magnetic proximity switch is fixedly installed in the shell, and the magnet is used for being attracted to one side of the magnetic proximity switch to enable a circuit of the butt-joint assembly to be connected; the positioning assembly comprises a UWB (Ultra Wideband) positioning chip arranged on the circuit board, and the UWB positioning chip is connected with an antenna; the acquisition module acquires position information of the positioning assembly in real time; the sensing component is used for acquiring whether the device is separated from field personnel; and the controller is used for controlling the positioning assembly to work when the circuit assembly is connected and is used for sending an abnormal separation signal. The system has the advantages that the UWB positioning chip and the high-gain antenna are adopted, real-time positioning with centimeter-level precision is realized in a complex environment, and the reliability of personnel position information is ensured.

The invention provides a large-spacing thinned array flexible multi-beam reflector antenna, which comprises a reflector and a feed source array, the reflector is a standard single-bias parabolic reflector, and the feed source array is composed of a plurality of feed source units which are the same in size and are arranged in a Fibonacci spiral array; and the feed source array is placed at a defocusing plane of a connecting line of the focus of the antenna and the center of the parabolic reflecting surface. According to the reflector antenna, grating lobe suppression of the large-spacing array feed reflector antenna can be realized. And the large spacing is that the spacing of the feed source unit is greater than or equal to 2.6 wavelengths. According to the optimized large-spacing disordered arrangement based on the annular sparse array, the beam gain and the C / I performance can be improved, and meanwhile, the grating lobe interference problem of a high-gain antenna during wide-angle scanning can be solved.

The utility model discloses a double-frequency broadband large-angular-domain high-gain antenna based on a cavity structure, and mainly solves the problems that the existing antenna cannot meet the requirements of wide frequency band, high gain of a large angular domain near an end-fire direction and conformal installation at the same time. The antenna comprises a radome (1), a metal cavity (2), three sealing rings (3, 7 and 8), two radiators (4 and 5) and a connector (6), the radome comprises a radome front end, a radome flange and an air conditioning cavity from top to bottom, and the influence of the size non-uniformity of the radome on the antenna performance can be eliminated by changing the shape and size of the air conditioning cavity; the two radiators are located in the metal cavity and jointly adjust the angular domain range of the antenna; the first sealing ring (3) is positioned between the antenna housing and the metal cavity; second and third sealing rings (7, 8) are located between the metal cavity and the connector. The antenna has the characteristics of wide frequency band, high gain of a large angular domain near an end-fire direction and easy conformal performance, is high in water pressure resistance and sealing performance, and is suitable for ground radar equipment and submarine radar equipment.

This invention discloses an outdoor Wi-Fi fingerprint positioning method and system based on high-gain antenna anchor point assistance, relating to the field of wireless communication technology. It addresses the problems of high workload in offline data acquisition and poor positioning accuracy and stability under limited signal information in outdoor Wi-Fi fingerprint positioning. The method involves acquiring offline outdoor Wi-Fi signal acquisition data, extracting Wi-Fi fingerprint information to form an offline information database; using a high-gain antenna to select several acquisition points within the target area as graph anchor points, extracting WAP names and multi-directional signal strength antenna acquisition information from the acquisition data to form an anchor point information database; constructing a multi-source relationship graph structure based on the offline and anchor point information databases; building and training a multi-source graph neural network positioning model based on the multi-source graph to form a usable positioning system; acquiring online outdoor Wi-Fi signal acquisition data and updating it based on the constructed multi-source graph; using the updated multi-source graph and the trained model for positioning, and extracting the positioning results of online nodes from the positioning output.

The invention relates to the technical field of wireless communication and electronic anti-lost, in particular to a long-distance orientation and low-power-consumption tracking method for UWB anti-lost equipment, the UWB anti-lost equipment comprises master equipment and slave equipment, and the method comprises the following steps: step 1, link establishment: after the master equipment and the slave equipment are powered on and initialized, the master equipment and the slave equipment are powered on and initialized; an encrypted wireless link is established through the UWB communication module, and pairing binding is completed; 2, self-adaptive power consumption scheduling: the master device dynamically switches working modes based on the real-time distance between the master device and the slave device, wherein the working modes comprise a low-power-consumption monitoring mode and a high-precision tracking mode; through cooperation of the TWR and the high-gain antenna, UWB communication of 150 meters or above is achieved, dependence on external networks such as a GPS and Wi-Fi is not needed, the method is suitable for indoor and outdoor full scenes, TWR centimeter-level distance measurement and AoA degree-level direction finding technologies are fused, IMU motion compensation is combined, accurate and stable direction guidance is provided, and the problem of inaccurate finding is solved.

The application discloses a kind of excavator long-distance communication control systems and methods, system includes: control control unit, with the control control unit communication excavator execution unit;Control control unit includes operating device, transceiver, rotating platform, directional high gain antenna;Excavator execution unit includes transceiver, camera, monopole antenna;Control control unit sends request signal, and receives the upload data of excavator execution unit response request signal, real-time generation control instruction is sent to excavator execution unit, output excavator operating state data, excavator execution unit collects excavator operating state data, and response request signal will current excavator operating state generation upload data, and receive the control instruction of control control unit transmission.The application is transmitted signal by directional high gain antenna high efficiency, no interference, large flow, for the operator remote control excavator provides comprehensive, accurate, real-time data support and reference.

This utility model relates to the field of wireless communication technology and discloses a high-gain antenna applicable to UAV terminals. It includes a substrate one, a feed line at the top of the substrate one, a metal ground plane at the bottom of the substrate one, a metal via hole one inside the metal ground plane, a metal layer one at the bottom of the metal ground plane, a substrate two at the bottom of the metal layer one, a plurality of metal via holes two inside the substrate two, and a metal layer two at the bottom of the substrate two. In this utility model, through the cooperation of substrate one, feed line, metal ground plane, metal via hole one, substrate two, metal layer one, metal layer two, square slot, and metal via hole two, a high gain of 13.93dBi can be achieved at a center frequency of 5.2GHz, resulting in an attenuation rate of <20% over 1km. This improves the communication quality and operational reliability of UAVs, effectively solves the problem of long-distance communication, and significantly enhances the communication quality and operational reliability of UAVs.

This invention discloses a dual-polarized high-gain antenna and electronic device, relating to the field of electronic device technology. The dual-polarized high-gain antenna includes: a dielectric layer having a first side surface; at least two first radiating elements electrically connected through a first feed layer and spaced apart along a first direction on the first side surface for radiating electromagnetic waves in a first polarization direction; at least two second radiating elements electrically connected through a second feed layer, spaced apart along the first direction on the first side surface, and arranged one-to-one opposite to the at least two first radiating elements along a second direction for radiating electromagnetic waves in a second polarization direction; the second polarization direction is orthogonal to the first polarization direction, and the first direction intersects the second direction; this invention can achieve small size, high isolation, and low-cost integration of the dual-polarized high-gain antenna.