131results about "Resonant antennas" patented technology

The present disclosure provides a method for context-aware circuit design for a wearable device. The method includes determining a peak power requirement at a selected operating voltage for a rectifier circuit to be coupled between an antenna and system circuitry of the wearable device, the peak power requirement is based on a distance (d) between the wearable device and a power transmitter; determining a real value of at least on real circuit component of the rectifier circuit based on the peak power requirement; and determining a reactive value of at least one reactive component of the rectifier circuit based on the peak power requirement.

The application discloses an antenna pair with high isolation and low cross polarization level, which comprises a first radiation patch and a second radiation patch arranged as two half-circle ring structures, and the first radiation patch and the second radiation patch are connected through a first branch and a second branch; the first radiation patch and the second radiation patch work in a full-wave mode; the first branch and the second branch are arranged to overlap the resonant frequencies under differential and common mode excitation of two feed ports, and good matching is ensured, so that the isolation of the first radiation patch and the second radiation patch in the band is effectively improved; through the above arrangement, the mode Q value under differential and common mode excitation is close to the same, and the first radiation patch and the second radiation patch can further have high isolation in a wider frequency range. In addition, by introducing a first short pin group and a second short pin group, the polarization current in the x-axis direction can be effectively weakened, and the cross polarization level is reduced.

A coupled antenna module includes an antenna carrying substrate, a first antenna structure and a second antenna structure. The first antenna structure has a first radiation layer disposed on the upper surface of the antenna carrying substrate, a first extension layer disposed on the first side surface of the antenna carrying substrate, and a first conductive layer disposed on the lower surface of the antenna carrying substrate. The second antenna structure has a second radiation layer disposed on the upper surface of the antenna carrying substrate, a second extension layer disposed on the second side surface of the antenna carrying substrate, and a second conductive layer disposed on the lower surface of the antenna carrying substrate. The first antenna structure and the second antenna structure can be configured to be applied to a first antenna operating frequency range and a second antenna operating frequency range, respectively.

The application relates to the technical field of millimeter wave communication, in particular to an integrated waveguide slot coupling array antenna system based on artificial intelligence optimization and a control method.The system comprises a radiation unit array module, a feed network module, a dynamic adjustment module, an intelligent control module, a signal detection unit and an embedded processor.The application aims to provide an integrated waveguide slot coupling array antenna system based on artificial intelligence optimization and a control method, and solves the key problems of fixed antenna performance, limited bandwidth and insufficient flexibility in the prior art.

This invention provides a broadband, high-gain stacked metasurface packaged antenna and its fabrication method, comprising a driving antenna, a silicon support structure, a metasurface structure, and a high-resistivity silicon substrate. Both the driving antenna and the silicon support structure are disposed on the high-resistivity silicon substrate, and the metasurface structure is disposed above the driving antenna via the silicon support structure. The metasurface structure is disposed on the top support surface of the silicon support structure, and an air cavity is formed between the top support surface of the silicon support structure and the driving antenna. In this invention, the stacking of the driving antenna and the metasurface structure broadens the antenna's bandwidth and improves its gain. Furthermore, the metasurface structure and the driving antenna form a table-like silicon support structure, which is then integrated with the antenna. The silicon support structure not only provides mechanical support but also forms an air cavity with the driving antenna. The introduction of the air cavity increases discontinuity, thereby improving the antenna's gain and efficiency.

The present application provides an antenna unit, a filtering antenna, and a terminal device, comprising: a first dielectric substrate, a second dielectric substrate, a third dielectric substrate, a radiation structure and at least one set of transmission unit. Each transmission unit includes a first feed structure, a second feed structure and a filtering structure; the second dielectric substrate is arranged between the first dielectric substrate and the third dielectric substrate; the radiation structure is arranged on a side of the first dielectric substrate away from the second dielectric substrate; the second feed structure is arranged on the second dielectric substrate; the filtering structure is arranged on the third dielectric substrate; the first feed structure is connected to the second feed structure and the filtering structure; the first feed structure is used for transmitting an electromagnetic wave signal; the second feed structure is used to couple feed signals to the radiation structure; and the filtering structure is used to perform signal filtering. By integrating the antenna and filter into a unified design, this innovation reduces the device size, offering advantage of low cost, high stability and excellent filtering characteristics.

An antenna includes: a dielectric substrate; a feed conductor portion provided on the dielectric substrate; a first conductor portion that is provided on a substrate surface of the dielectric substrate, is connected to the feed conductor portion, and is linear or belt-like with one end as an open end; and a second conductor portion that is linear or belt-like and includes a first end portion and a second end portion on an opposite side to the first end portion. The first end portion is connected to an intermediate portion between both ends of the first conductor portion, the second end portion is an open end, and the second conductor portion protrudes from the intermediate portion.

The present application relates to a kind of W wave band single circular polarization glass-based antenna unit and its radiation method, belong to the technical field of feed antenna, solve the problem that existing antenna bandwidth and scanning performance are limited.The present application includes: first layer substrate, second layer substrate, third layer substrate, fourth layer substrate and coaxial feed port;Coaxial feed port is used for feeding, substrate material uses glass substrate, the structure of double-layer patch is designed to increase unit bandwidth;Design patch cut angle to realize the radiation of circular polarization, by designing the structure of H-type slot to realize the isolation of different polarization ports is reduced.The present application can realize that antenna array still has lower standing wave when scanning at large angle, lower polarization isolation, good axial ratio and radiation efficiency and other electrical performance indicators.

The application discloses a kind of super surface circularly polarized antennas, belong to wireless communication technical field, including: super surface, super surface includes a plurality of first super surface units and a plurality of second super surface units arranged in array, first super surface unit is located in the periphery of second super surface unit, and second super surface unit is the symmetrical structure formed by cutting first super surface unit;Dielectric substrate, dielectric substrate includes upper layer dielectric substrate and lower layer dielectric substrate;Driving patch, driving patch is located between upper layer dielectric substrate and lower layer dielectric substrate;Metal floor, metal bottom plate is arranged on the lower surface of lower layer dielectric substrate;Microstrip feed structure, through coupling gap and driving patch non-contact coupling;By unit array optimization, phase difference is generated in orthogonal radiation mode, and circularly polarized radiation is realized.50 ohm microstrip line feeding is used, and non-contact coupling excitation is realized by coupling gap and driving patch;Synergistic design realizes 31.5% impedance bandwidth, 20.4% axial ratio bandwidth, and full coverage WBAN5.15-5.825GHz frequency band.

The embodiment of the application provides a magneto-electric monopole antenna unit, a magneto-electric monopole antenna array, an antenna and equipment, and belongs to the technical field of wireless communication. The antenna unit comprises a first dielectric substrate, a monopole radiator, a microstrip feed line, a metal reflector plate, a short-circuit metal column and two ground patches. It generates an electric monopole mode through the monopole radiator excitation, and generates a magnetic monopole mode through the short-circuit metal column, the ground patch and the reflector plate, and the two modes work together to realize wideband radiation and widen the beam width. The coupled currents on the two ground patches produce two pairs of opposite electric field components in the far field and offset each other, thereby realizing low cross polarization. The array composed of multiple units is loaded with a metasurface above, which significantly improves the port isolation by introducing a reflection path opposite in phase to the original coupling path. The application solves the technical problem that it is difficult to simultaneously realize wide-angle scanning, low cross polarization and high isolation in a wide frequency band.

An antenna apparatus is disclosed. An antenna apparatus according to an embodiment includes a patch group including at least one patch arranged in a specific arrangement to radiate or receive an electromagnetic wave. The antenna apparatus may include a first port which provides a first feed path to the patch and is fed by a first signal having first power and a first phase. The antenna apparatus may include a second port which provides a second feed path to the patch and is fed by a second signal having second power and a second phase. Each of the first power, the first phase, the second power, and the second phase may be determined on the basis of the radiation direction of the patch group or the position, relative to the antenna apparatus, of a signal source transmitting a signal to the antenna apparatus.

An antenna assembly is provided. The antenna assembly includes a ceramic carrier having a first surface and a second surface, the second surface being opposite the first surface. The antenna assembly further includes an antenna pattern. The antenna pattern includes a first antenna portion positioned at least partially on the first surface of the ceramic carrier. The antenna pattern further includes a second antenna portion comprising a plurality of conductive vias extending through the ceramic carrier from the first antenna portion to the second surface of the ceramic carrier.

Radio frequency feed line for connecting an HF radio tuner to a tunable antenna. Radio frequency feed line (1) for connecting an HF radio tuner to a tunable antenna, with a length between 0.7 m and 3 m, comprising: a central conductor wire (2); an electrically insulating sheath (3) surrounding the conductor wire (2); an electrically insulating layer (4) comprising nested frustoconical eyelets (4a) with a maximum radius between 2 and 3 cm; a heat-shrinkable sleeve (5) encasing the electrically insulating layer (4); and two self-amalgamating sleeves (6) at both ends of the electrically insulating layer (4). Figure for the abstract: [Fig. 1]

A built-in antenna includes a first printed circuit board (PCB) having antenna areas arranged so that at least one antenna area is arranged at each of the corners of the first PCB. The antenna areas are spaced apart from one another, and circuit components are arranged in areas other than the antenna areas. A second PCB has first antenna patterns respectively arranged at locations corresponding to the antenna areas on the first PCB. A third PCB is vertically coupled to the first and second PCBs to electrically connect them. The second PCB includes a second antenna pattern arranged in an area other than areas in which the first antenna patterns are arranged. This increases a degree of freedom in design and improves bandwidth and efficiency by arranging each antenna in a plate-shaped structure.

An electronic device is provided. The electronic device includes a first housing including a first plate including an opening and a slit formed along a surface of the first plate from a periphery of the opening, a second housing including a second plate spaced apart from the first plate and at least partially overlapping the opening, and coupled to the first housing to be movable along a first direction or a second direction that is opposite to the first direction with respect to the first housing, a wireless communication circuit electrically connected to the second plate, and a first printed circuit board electrically connected to the wireless communication circuit and extending along a periphery of the opening formed in the first plate to feed through an end connected to the slit, wherein the wireless communication circuit is configured to communicate with an external electronic device in a designated frequency band through the first plate and the second plate.

This invention discloses an integrated design of a millimeter-wave dual-polarization (DRA) wide-angle scanning phased array based on pattern reconfigurable units. The pattern reconfigurable unit includes a radiating element, a decoupling structure, and a feeding structure. The radiating element includes a dielectric substrate with a metal ground plane at its bottom. The feeding structure includes a coupling slot and a microstrip line. The coupling slot is located on the metal ground plane, and the microstrip line is located on the lower surface of the bottom dielectric substrate, which is situated at the bottom of the metal ground plane. The decoupling structure includes decoupling structures for orthogonal polarization ports and decoupling structures for co-polarization ports. The decoupling structure for orthogonal polarization ports includes a short-circuit metal via and a square patch on the short-circuit metal via. The decoupling structure for co-polarization ports includes an open-circuit metal via and a metal patch above the open-circuit metal via. The pattern reconfigurable unit is used to form the phased array. This invention achieves excellent wide-angle scanning performance and has strong application prospects in millimeter-wave communication systems.

The application relates to the technical field of antennas, in particular to a wideband satellite communication antenna. The wideband satellite communication antenna comprises a grounding plate, a feeding device, a patch, a connecting device and a coupling branch. The grounding plate is arranged at the bottom of an antenna structure, the patches are arranged above the grounding plate at intervals, at least one coupling branch is arranged at the periphery of the patch at intervals, one end of the coupling branch is connected with the grounding plate, the other end of the coupling branch is an open circuit structure, the feeding device inputs a radio frequency signal to the patch or the coupling branch, the edge area of the patch and / or the open circuit end area of the coupling branch is provided with the connecting device, and the connecting device forms an impedance loading or electrical coupling path between the patch and the grounding plate and between the coupling branch and the grounding plate. The application can consider the wideband and miniaturization of the antenna, has strong orthogonal mode independent regulation and control ability, has a simple structure and is easy to implement in engineering, and has good engineering implementability and application value in the aspects of miniaturization, light weight, wideband and high-performance circular polarization radiation.

A radiator for an antenna, comprising a radiator head with an active radiation area having a first section and at least one second section, wherein the first section and the at least one second section are conductively connected forming a dual polarized radiator together, and wherein the first section lies within a first plane and the at least one second section lies within a second plane offset to the first plane. Further, an antenna and a mobile communication cell site.

An antenna module implemented as a multi-layered package includes: a printed circuit board (PCB) having a plurality of layers; an array antenna portion including a plurality of antenna elements disposed on the PCB; a radio frequency integrated circuit (RFIC) chip bonded to a second surface of the PCB, the second surface being another outermost surface of the PCB; and a plurality of signal connection lines connected from the RFIC chip to the array antenna portion. A length of each of the plurality of signal connection lines may be a length of a connection line connected between the RFIC chip and the array antenna portion, and the plurality of signal connection lines may have the same length.

A hearing device adapted to be worn by a wearer comprises a shell configured for placement on an exterior surface of an ear of the wearer. The shell comprises a first end, a second end, a bottom, a top, and opposing sides, wherein the bottom, top, and opposing sides extend between the first and second ends. Circuitry is provided within the shell comprising at least a microphone, signal processing circuitry, radio circuitry, and a power source. A folded antenna is coupled to the radio circuitry and extends longitudinally along one of the bottom and the top and along the opposing sides between the first and second ends. The folded antenna encompasses at least some of the circuitry and forms an elongated gap between the opposing sides. The elongated gap faces the other of the bottom and the top.

The radio device (10) comprises: - a support (12) including a first part (14) in the form of a truncated pyramid with polygonal bases of order N; - a plurality of antennas (20) mounted on the support (12), each antenna (20) comprising a planar radiating element (30) and a receptacle (50); the plurality of antennas (20) comprising: - a central antenna (20A) mounted on a principal face (14A) of the first part (14) of the support (12); - a first ring (22) of peripheral antennas (22A) each mounted on a peripheral face (14B) of the first part (14) of the support (12). The frame (54) of the receptacle (50) of the central antenna (20A) comprises: - a cylindrical wall with a circular cross-section; or - N planar walls corresponding to the N sides of the polygon of the base of the corresponding truncated pyramid.

A microstrip antenna which includes a substrate, a microstrip patch configured on a first side of the substrate, a ground configured on a second side of the substrate which is opposite to the first side, and a first shorting wall extending from a side of the microstrip patch toward the ground. The first shorting wall substantially overlaps with the substrate on a direction that is perpendicular to the microstrip patch. The first shorting wall is located at a first non-radiating edge of the microstrip antenna. Dummy elements are no longer needed in this design, which makes it compact.

This invention belongs to the field of semiconductor packaging and antenna technology, specifically an AiP packaged antenna structure and fabrication method that is easy to mass-produce, including a substrate layer, a redistribution layer, a molding insulating layer, and an antenna radiating layer; characterized in that a vertical coaxial interconnect component is embedded in the molding insulating layer, which includes a central signal conductor, an inner dielectric sleeve, and a metal shielding wall; the central signal conductor connects to the signal path, and the metal shielding wall connects to the ground plane to form a closed electromagnetic channel; through the above solution, this application achieves precise control of characteristic impedance, improves channel isolation, reduces transmission loss, and improves mass production yield through modular technology.

The application discloses a heart-shaped broadband circularly polarized patch antenna, which comprises a dielectric substrate, a heart-shaped radiation patch, a microstrip feed line and a ground plate. A characteristic mode analysis method suitable for irregular geometric shapes is proposed, that is, a plurality of non-orthogonal characteristic modes are used to realize a broadband circularly polarized antenna. The application has the advantages of simple structure, beauty, compactness, simple feed mode, wide impedance and axial ratio bandwidth, and stable radiation pattern. The new method has clear physical mechanism, simple steps and wide application prospect.

A method of forming an antenna device includes: receiving a substrate formed of glass; and forming a redistribution layer (RDL) over the substrate. The formation of the RDL includes: depositing a first metallization layer over a first surface of the substrate; depositing a first patterned dielectric layer over the first metallization layer, wherein the first patterned dielectric layer has a first thickness; depositing a second metallization layer over the first patterned dielectric layer; and forming a second patterned dielectric layer over the second metallization layer. The second dielectric layer comprises a photoimageable dielectric (PID) material. The second patterned dielectric layer has a second thickness at least twice the first thickness.

An electronic device may be provided with peripheral conductive housing structures, a first antenna, and a second antenna. A gap may divide the housing structures into a first segment forming an arm of the first antenna and a second segment forming an arm of the second antenna. A first feed terminal may be coupled to the first segment and a second feed terminal may be coupled to the second segment. Switchable components may be coupled in parallel between the first and second feed terminals across the gap. The switchable components may be adjusted to tune the frequency response of the first and / or second antenna. The switchable components may have a first state in which only the first feed terminal feeds the first antenna and may have a second state in which both the first and second feed terminals feed the first antenna.

This invention discloses a broadband dual-circularly polarized phased array antenna with a loaded hybrid decoupling structure, relating to the field of antenna technology. The antenna includes a first metal layer comprising a star-shaped metal strip and four pairs of concave metal strips. The first metal layer is disposed on the upper surface of a top dielectric substrate, and a second metal layer is disposed on the lower surface of the top dielectric substrate. The star-shaped metal strips are connected to the second metal layer via grounded metal pillars. A third metal layer is disposed on the upper surface of a bottom dielectric substrate, and a metal base plate is disposed on the lower surface of the bottom dielectric substrate. The second metal layer and the metal base plate are connected via insulating metal pillars that pass through an intermediate prepreg adhesive sheet and the bottom dielectric substrate. The third metal layer and the metal base plate are connected via metal probes. The third metal layer and the second metal layer are bonded together via the intermediate prepreg adhesive sheet. This invention provides a high-performance, low-cost, and easily integrated decoupling solution.

In embodiments, an electronic device is provided. The electronic device includes: a printed circuit board (PCB); a support member including a first portion coupled to the PCB, a second portion opposite to the first portion, and a side portion between the first portion and the second portion; a wireless communication circuit disposed on the PCB; and a plurality of conductive patches disposed on one surface of the side portion. The plurality of conductive patches are electrically connected to the wireless communication circuit. Each conductive patch of the plurality of conductive patches is configured to transmit or receive circularly polarized signals in the frequency band of the wireless communication circuit. The first portion of the support member or the second portion of the support member is coupled to a metal layer.

This invention provides a dual-frequency circularly polarized satellite antenna and a terminal electronic device. The first radiating component and the second radiating component are each composed of two or more radiators. A first feeding structure component and a second feeding structure component are correspondingly connected to the first and second radiating components, feeding the first and second radiating components in a sequentially rotated phase manner based on a feeding network to achieve dual-frequency circularly polarized radiation. The first radiating component is configured to resonate in a high-frequency band, and the second radiating component is configured to resonate in a low-frequency band. A first short-circuit structure component and a second short-circuit structure component are correspondingly connected to the first and second radiating components, used to short-circuit the first and second radiating components to a metallic ground. An isolation structure, including a spatial isolation structure and a port isolation structure, is configured to improve the isolation between the first and second radiating components.