47results about "Separate antenna unit combinations" patented technology

Provided in the present application are an antenna unit, an antenna device, a communication apparatus, and a communication system. The antenna unit comprises a balun structure and a radiation arm. The radiation arm comprises a first metal piece and a plurality of second metal pieces, wherein the plurality of second metal pieces are arranged at intervals, at least some of the plurality of second metal pieces are connected to each other by means of a metal wire, and at least one second metal piece is connected to the first metal piece by means of the metal wire. The antenna unit can reduce mutual interference between antenna portions at different frequency bands while simplifying the structure of the antenna unit.

This application describes multi-band antenna systems and base stations. An example antenna system a frequency selective surface (FSS); at least one radiating element array on a first side of the FSS; and at least one feeding network corresponding to the at least one radiating element array, wherein the at least one feeding network corresponding to the at least one radiating element array is connected to the FSS according to a direct current connection manner or a segmented direct current connection manner, or the at least one feeding network corresponding to the at least one radiating element array is integrated on the FSS.

A base station antenna sector includes: a first reflector comprising a first flat panel and a plurality of first radiating elements mounted thereon; a second reflector comprising a second flat panel and plurality of second radiating elements mounted thereon; a radome surrounding the first and second reflectors; wherein the second reflector is pivotally movable relative to the first reflector.

Adaptive tunable antenna system includes a first radiating element having an elongated length and a second radiating element extending from a distal end of the first radiating element. The first radiating element is for a high band of operation and the second radiating element is for a low-band of operation. The second radiating element is a helical member including a plurality of turns. A low-band circuit selectively bypasses one or more of the turns of the second radiating element in response to a control signal.

An antenna device is disclosed. According to one embodiment of the present disclosure, the provided antenna device comprises: one or more antenna boards which extend in the longitudinal direction, and which are formed such that each thereof has one or more circuit patterns; a dielectric formed such that a contact position for the one or more circuit patterns may be changed at the upper side of each of the one or more antenna boards; a connector protruding at the lower side of each of the one or more antenna boards from one surface thereof; and an antenna filter detachably coupled to the connector.

The application provides a co-bore dual-frequency antenna, which comprises a metal antenna ground, an antenna I and an antenna II, the antenna I and the antenna II are arranged on the metal antenna ground, the metal antenna ground is provided with an antenna I radiating patch and an antenna II radiating patch, the antenna I radiating patch and the antenna II radiating patch share one metal antenna ground, the antenna I radiating patch is provided with an antenna I feed line, the antenna II radiating patch is provided with an antenna II feed line, the antenna I radiating patch is provided with a medium I between the antenna I radiating patch and the metal antenna ground, and the antenna II radiating patch is provided with a medium II between the antenna II radiating patch and the metal antenna ground, the current path is prolonged by loading metal branches on four sides of the patch, and the miniaturization of the antenna is realized. The high-frequency antenna feed and the low-frequency antenna feed are respectively arranged on two sides of the ground metal, the influence of mutual coupling caused by surface wave coupling between the high-frequency antenna feed and the low-frequency antenna feed is reduced, and the antenna performance is improved.

An antenna and an electronic device are provided in the disclosure. The antenna includes a first radiator, a matching circuit, a first adjustment circuit, a signal source, and a second radiator. The first radiator has a first ground end, a first free end, and a feed point. The first adjustment circuit is electrically connected to the matching circuit. The first adjustment circuit includes a switch unit and multiple adjustment sub-circuits, and the switch unit electrically connects at least one adjustment sub-circuit to the matching circuit. The signal source electrically connects the matching circuit to the feed point. A gap is defined between the second radiator and the first radiator, the second radiator is coupled to the first radiator via the gap. The second radiator has a second ground end and a second free end, the second free end is closer to the gap than the second ground end, and the antenna has at least two resonant modes. Transmission / reception of electromagnetic wave signals in a middle band (MB) and a high-band (HB) is supported by the at least two resonant modes cooperatively at the same moment, or transmission / reception of electromagnetic wave signals in an MB of long-term evolution (LTE) and an MB of new radio (NR) is supported by the at least two resonant modes cooperatively at the same moment, or transmission / reception of electromagnetic wave signals in an HB of LTE and an HB of NR is supported by the at least two resonant modes cooperatively at the same moment.

Structures and systems for combined SDARS-GNSS antennas integrated within surfaces of vehicles are provided. In an example, a system onboard a vehicle comprises: a memory that stores computer executable components; and a processor that executes the computer executable components stored in memory, wherein the computer executable components comprise: an antenna component that receives GNSS signals and SDARS signals, wherein the antenna component further comprises a radiator for radiating electromagnetic waves, and is substantially planar and integrated between two material layers of a surface of the vehicle; and wherein the radiator comprises a GNSS port for feeding a GNSS signal to at least one receiver and an SDARS port for feeding an SDARS signal to the at least one receiver.

An antenna comprises a first radiator, a second radiator, a third radiator located on a printed circuit board PCB. Operating frequency bands of the first radiator and the second radiator comprise a first frequency band, a resonance frequency band generated by the third radiator comprises the first frequency band. A current on the first radiator is orthogonal to a current on the second radiator, and a distance between the first radiator, the second radiator, and the third radiator is less than a half of a first wavelength, wherein the first wavelength is a wavelength corresponding to the first frequency band.

This invention discloses an electromagnetic lens based on a broadband tightly coupled structure and its dual-frequency dual-polarized lens antenna, belonging to the field of mobile communication. It includes an electromagnetic lens array and a dual-frequency dual-polarized feed antenna placed at the focal point of the lens array. The electromagnetic lens is positioned above the feed of the dual-frequency dual-polarized antenna. The broadband tightly coupled unit consists of two dipoles, two pairs of delay lines, a metal pillar, two metasurface matching layers, and a reflector; the overall structure is mirror-symmetrical about the reflector. This invention controls the phase of the control unit by adjusting the length of the phase delay lines of the broadband tightly coupled unit, performing phase compensation at different positions on the lens array, thereby realizing the design of the electromagnetic lens. This invention effectively avoids the narrow bandwidth defect of traditional dual-frequency metasurface lenses, achieving excellent dual-polarization and high-gain performance in both target frequency bands.

In a device for transmitting and / or receiving signals by means of electromagnetic waves, preferably a telematics unit of a truck, two antennas (100, 200) (preferably PIF antennas) are provided on both sides of a flat substrate, preferably a printed circuit board (300). By coupling the antennas, natural frequencies of the entirety, consisting of the first antenna (100) and the second antenna (200), can also be used, not just the natural frequencies of the two antennas individually.

Base station antennas include a first array having a plurality of first frequency band radiating elements and a second array having a plurality of second frequency band radiating elements, where the second frequency band being different than the first frequency band. A first of the first frequency band radiating elements includes a first feed stalk and a first of the second frequency band radiating elements includes a second feed stalk that extends through an aperture in the first feed stalk.

There is provided an antenna device 1 in which an antenna housing accommodates an antenna element that receives signals in the FM and AM bands. The antenna element includes a first element that receives signals in the FM band and a second element that surrounds the first element and receives signals in the AM band. Each of the elements includes a capacitance loading plate (a conductive plate) having a predetermined area and the capacitance loading plates are provided in an identical plane or a substantially identical plane. The first element includes a plurality of coils 14a and 14b, each coil having one end coupled to the capacitance loading plate 12 of the first element, and these coils operate, in conjunction with the capacitance loading plate 12, as a series resonance circuit in the FM band.

This application provides an electronic device including a functional device and a first antenna element. The first antenna element includes a first radiating stub, at least one parasitic stub, and a first feed source. The first radiating stub and the at least one parasitic stub are spaced apart and coupled. The first radiating stub includes a first feed point connected to the first feed source. Under the excitation of the first feed source, the first radiating stub supports the transmission and reception of electromagnetic wave signals in a first frequency band. The first radiating stub, in cooperation with the at least one parasitic stub, supports the transmission and reception of electromagnetic wave signals in a second frequency band. The functional device is positioned close to and spaced apart from the first radiating stub of the first antenna element. At least the projection of the edge of the functional device closest to the first radiating stub onto the first radiating stub is located within a target area outside the first feed point of the first radiating stub. This application also provides an antenna assembly. This application can fully utilize space and meet the needs of multiple frequency bands.

An electronic device according to an embodiment comprises: a housing including a frame, a support member, and a non-conductive structure; a printed circuit board; a conductive part formed along a portion of the frame and including at least one protrusion; a conductive pattern that is in contact with the at least one protrusion and extends along the outer surface of the non-conductive structure; a connection part that is in contact with both the printed circuit board and the conductive pattern, thereby electrically connecting the printed circuit board and the conductive pattern; and a wireless communication circuit that is connected to the printed circuit board and configured to wirelessly communicate with an external electronic device via at least a portion of the conductive pattern. Various other embodiments may also be possible.

A cavity antenna, a notebook computer, and a terminal are disclosed. The cavity antenna includes a conductive housing provided with a plurality of dielectric spaces inside. The conductive housing includes a conductive surface. A plurality of dielectric slots are provided on the conductive surface. Each dielectric space corresponds to at least one of the plurality of dielectric slots. The cavity antenna may be used in a terminal device including a metal housing, and radiates an electromagnetic wave of an operating frequency band through a dielectric slot of the metal housing, to transmit a radio signal.

This invention provides a radiating component, an antenna, and a base station. The radiating component includes: a high-frequency vibrator comprising a high-frequency base and a high-frequency radiating arm supported on the high-frequency base, the bottom surface of the high-frequency base protruding downwards to form an extension; and a low-frequency vibrator comprising a low-frequency base and a low-frequency radiating arm supported on the low-frequency base, the low-frequency base having a through hole, and the bottom surface of the low-frequency base protruding downwards to form an annular support seat, the annular support seat being coaxially arranged with the through hole; the high-frequency vibrator is nested within the low-frequency vibrator, and the extension portion passes through the through hole. The radiating component is disposed on a reflector plate. By increasing the distance between the radiating component and the reflector plate, the antenna bandwidth is expanded, the coupling between the radiating component and the reflector plate is reduced, and the mutual coupling between high and low frequencies is reduced, thereby improving the antenna's communication performance.

This application discloses an antenna assembly and an electromagnetic detection device for simultaneously detecting magnetic and electric fields. The antenna assembly for simultaneously detecting magnetic and electric fields includes: a substrate; a feed port disposed on a side wall of the substrate; a first antenna disposed on the substrate and electrically connected to the feed port, the first antenna being used to detect the electric field; and a second antenna disposed on the substrate and electrically connected to the first antenna, the second antenna being used to detect the magnetic field. By setting the first and second antennas on the substrate, both electric and magnetic fields can be detected simultaneously using the first and second antennas, solving the problem of the inability to simultaneously detect electric and magnetic fields in the prior art, reducing the amount and difficulty of subsequent data processing, and improving detection efficiency.

The application relates to the technical field of antennas, and provides a low-profile dual-frequency UWB antenna and electronic equipment, wherein the low-profile dual-frequency UWB antenna comprises a plurality of radiator units, each of the radiator units comprises a low-frequency radiator unit and a high-frequency radiator unit, the low-frequency radiator unit and the high-frequency radiator unit are separated by a row of short-circuit metal columns, and the low-frequency radiator unit and the high-frequency radiator unit are respectively fed by a feed microstrip line. The low-profile dual-frequency UWB antenna provided by the application has controllable thickness, low profile, single current flow direction, high horizontal polarization purity of the antenna, is favorable for receiving surrounding UWB signals of the same polarization, and improves bidirectional working efficiency.

An electronic device, and the electronic device includes: a frame body, a display, and an antenna coupling structure. The display is disposed on the frame body, and a display control line is disposed on a side, close to the frame body, of the display. An antenna resonant arm is disposed on the frame body, and the antenna resonant arm includes a first antenna and a second antenna. Operating frequency bands of the first antenna and the second antenna are different, and a gap is formed between the antenna resonant arm and the display control line. A clearance area is provided at a position, close to the gap, on the frame body, the antenna coupling structure is disposed in the clearance area, and the antenna coupling structure is coupled to an antenna reference ground on the frame body.

The present disclosure provides a dual-frequency antenna and an electronic device, and belongs to the technical field of communication. The dual-frequency antenna comprises a first antenna unit and a second antenna unit arranged oppositely, and a filter unit arranged between the first antenna unit and the second antenna unit. The working frequency of the first antenna unit is a first frequency band; the working frequency of the second antenna unit is a second frequency band; the filter unit is configured to reflect electromagnetic waves of the first frequency band and transmit electromagnetic waves of the second frequency band; the first antenna unit is configured to receive electromagnetic waves of the first frequency band and reflect the received electromagnetic waves of the first frequency band through the filter unit; and the second antenna unit is configured to receive electromagnetic waves of the second frequency band transmitted through the filter unit and reflect the electromagnetic waves of the second frequency band.

An apparatus, comprising: a first antenna array comprising a plurality of first antenna array elements configured to transmit signals comprising encoded data in a first frequency band; a second antenna array comprising a plurality of second antenna array elements configured to receive signals comprising encoded data in the first frequency band; a third antenna array comprising a plurality of third antenna array elements; a suppression signal generator configured to generate first suppression drive signals in the first frequency band for the third antenna array elements to generate a compensating electromagnetic field to reduce interference received by the plurality of second antenna array elements in the first frequency band from the plurality of first antenna array elements; and a transceiver coupled with the third antenna array and configured to convey signals comprising encoded data in a second frequency band, wherein the second frequency band differs from the first frequency band.

Provided is an antenna assembly mounted on a vehicle, according to an embodiment. The antenna assembly comprises: a first housing; a second housing; a PCB on which electronic components are arranged; a first antenna unit disposed between the first housing and the PCB and connected to a first point on a first surface of the PCB; and a second antenna unit disposed between the second housing and the PCB and connected to a second point on a second surface of the PCB. The first point and the second point may be connected by a via.

An antenna element, an antenna, and a communication device are provided. The antenna element includes a radiation arm, a feed line, and a decoupling stub, wherein the radiation arm is connected to the feed line. The decoupling stub includes a first stub and a second stub, the first stub is parallel to the feed line, and an end of the first stub is connected to the feed line. The second stub is located on a first side of the first stub away from the radiation arm, the second stub is connected to the first stub, the second stub extends from the first stub to a second side away from the feed line, and the second stub is perpendicular to the feed line.

This application relates to the field of communication technologies, and provides an antenna system, a base station, and a frequency selective architecture. The antenna system may include a frequency selective architecture, a first antenna array, and a second antenna array. The first antenna array operates on a first operating band, and the second antenna array operates on a second operating band. The first antenna array and the second antenna array are disposed opposite to each other in a third direction, and the frequency selective architecture is located between the first antenna array and the second antenna array. The frequency selective architecture includes a frequency selective structure and a shielding shell. The shielding shell is mounted on the frequency selective structure. The frequency selective architecture in the antenna system is appropriately designed, so that coupling between components in the antenna system can be reduced, and electromagnetic induction between the components in the antenna system can be reduced. This reduces induced currents on components such as a feed network and the frequency selective structure, and reduces design difficulty of the antenna system.

Embodiments of this application provide an antenna array feeding network, a feeding system, and a communication device. The antenna array feeding network includes a power division ratio-adjustable power division component, a first power division component, a second power division component, and a hybrid component. The power division ratio-adjustable power division component outputs two beam vectors, and beam amplitudes of the two beam vectors are adjustable. The first power division component and the second power division component output X first beam signals and Y second beam signals respectively for received signals. The hybrid component mixes the first beam signals and the second beam signals to form an output signal. In this way, a beam width of an antenna array can be adjusted in a large range, the feeding system is simplified, and conventional-technology problems of a complex antenna array feeding system and a limited adjustment range of a beam width that are for making an antenna beam width adjustable are resolved.

This invention discloses a single-port dual-band dual-polarization integrated antenna, comprising a dielectric substrate, a feed port, and a radiating element. The feed port is electrically connected to the radiating element, which is printed on the upper surface of the dielectric substrate and includes two transverse dipoles and two longitudinal annular narrow strip dipoles. The two transverse dipoles are symmetrically arranged on both sides of the feed port for radiating horizontally polarized waves in the first frequency band. One end of each of the two longitudinal dipoles is connected to the feed port for radiating vertically polarized waves in the second frequency band. The longitudinal dipoles and transverse dipoles are arranged perpendicularly and electrically connected at their intersection, forming an integrated composite radiator. Through the synergistic design of the composite radiating structure and orthogonal polarization, dual-band operation is achieved under a single feed port, naturally blocking signal coupling between frequency bands, eliminating the need for additional duplexers and isolation circuits, and suppressing cross-polarization interference. This solves the problems of traditional dual-band dual-polarization antennas, such as a large number of ports, strong mutual coupling interference, and significant cross-polarization.

Antenna system and beamforming method The present invention relates to an antenna system (10) comprising: - an array (12) of spatially distinct sources in pairs, each source being capable of emitting a signal decomposed into a plurality of sub-bands distributed on either side of a central band centered on a center frequency of said signal; - a planar array (14) of elementary cells (16), and a digital processing module (18), upstream of said array of sources, configured to determine, by sub-band, a digital control phase of each source, and to digitally compensate, via said digital control phase, both: - the sum, previously calculated, of the phase shifts to be generated between each source and the output of each elementary cell; - the sum, previously calculated, of the path differences to be generated by each phase-shifting element of each elementary cell.Figure for the abbreviation: Figure 1.

This invention provides an antenna module that can overcome radiation space constraints by utilizing a coupling radiation section. [Solution] The antenna module 100 includes a first radiating section 110 and a second radiating section 120 to which current is applied via at least one feed line, a first coupling radiating section 130 which is separated from the first radiating section 110 by a predetermined distance and coupled to the first radiating section 110, and a second coupling radiating section 140 which is separated from the second radiating section 120 by a predetermined distance and coupled to the second radiating section 120, wherein the frequency bands of the signals radiated by the first radiating section 110 and the second radiating section 120 are different from each other.