731results about "Elongated active element feed" patented technology

A mobile terminal includes: a casing including a metal frame and a rear cover, wherein the metal frame is provided with a plurality of slots to divide the metal frame into a plurality of metal parts arranged at intervals; an antenna bracket being provided with a plurality of wirings; a first antenna assembly including a plurality of antenna structures, wherein the plurality of antenna structures are formed based on a plurality of metal parts arranged at intervals and a plurality of wirings, and a working frequency band of the plurality of antenna structures is a sub-6G frequency band; and a second antenna assembly including a plurality of millimeter-wave antenna modules, wherein a working frequency band of the plurality of millimeter-wave antenna modules is a millimeter-wave frequency band.

An antenna structure includes a ground element, a feeding radiation element, a connection radiation element, a grounding radiation element, a shorting radiation element, a first radiation element, a second radiation element, a third radiation element, a fourth radiation element, and a nonconductive support element. The feeding radiation element has a positive feeding point. The first radiation element and the second radiation element are coupled to the feeding radiation element. The second radiation element is at least partially surrounded by the first radiation element. The grounding radiation element has a negative feeding point. The grounding radiation element is coupled through the connection radiation element to the feeding radiation element. The shorting radiation element is coupled to the ground element. The third radiation element and the fourth radiation element are coupled to the shorting radiation element. The fourth radiation element is at least partially surrounded by the third radiation element.

A mobile device includes a feeding radiation element, a first radiation element, a second radiation element, a grounding radiation element, a shorting radiation element, and a third radiation element. The first radiation element is coupled to the feeding radiation element. The second radiation element is coupled to the feeding radiation element. The first radiation element and the second radiation element substantially extend in opposite directions. The first radiation element is further coupled through the grounding radiation element to a ground voltage. The shorting radiation element is coupled between the feeding radiation element and the grounding radiation element. A closed loop structure is formed by the feeding radiation element, the first radiation element, the grounding radiation element, and the shorting radiation element. The third radiation element is coupled to the ground voltage. The third radiation element is adjacent to the feeding radiation element and the second radiation element.

A multi-antenna structure may include a monopole and a first antenna array connected to the monopole at a first location via a first mounting apparatus and including a first cellular antenna and a first radio unit. The structure may also include a second antenna array connected to the monopole at a second location via a second mounting apparatus, with a second cellular antenna and a second radio unit. The structure may include a first set of fronds arranged about an outer surface of the monopole, forming a first respective angle with the monopole and configured to obscure the first antenna array from view. The structure may include a second set of fronds arranged about the outer surface of the monopole, each of the second set of fronds forming second respective angle with the monopole. The second set of fronds may be configured to obscure the second antenna array from view.

A monopole wideband antenna is provided. The monopole wideband antenna comprise a quartic monopole feed element connected to a center feed of a coaxial connector. A Vivaldi ground plane element is connected to a shield end of the coaxial connector, wherein the Vivaldi ground plane element comprises two vanes, each on opposite sides of the shield end of the coaxial connector. The quartic monopole feed element and Vivaldi ground plane element are in a common plane.

This application provides an electronic assembly and an electronic device. At least two antennas are formed on a metal frame of the electronic assembly, a circuit board and an electronic component are located on one side of the metal frame, and there is a gap between the metal frame and each of the circuit board and the electronic component. An orthographic projection of the electronic component on the metal frame covers a first antenna, a slit between the first antenna and a second antenna, and a part of the second antenna. One end of a first extension member is connected to one end of the first antenna which is close to the second antenna, the other end of the first extension member is electrically connected to a first feed point on the circuit board. The second antenna is electrically connected to a second feed point on the circuit board.

An antenna assembly can include an internal ground plane, a base PCB, and a plurality of antennas. The base PCB can be positioned above the internal ground plane. The base PCB can include a plurality of individual ground planes spaced circumferentially about a center of the base PCB, with the plurality of individual ground planes being electrically connected to the internal ground plane. Each antenna of the plurality of antennas can be electrically connected to an individual ground plane of the plurality of individual ground planes. The plurality of antennas can include a plurality of multi-band antennas and one or more WiFi antennas.

An antenna system is configured for use with an electronic device having a housing. The antenna system includes a first antenna element configured to be disposed at a first location adjacent to a side of the housing and a second antenna element configured to be disposed at a second location adjacent to the side of the housing. The first antenna element includes a first body extending between a first lower end and a first upper end. The first body includes a first flat portion, a first arcuate portion, and a first cutout configured to facilitate dual-band radiation associated with the first antenna element. The second antenna element includes a second body extending between a second lower end and a second upper end. The second body includes a second flat portion, a second arcuate portion, and a second cutout configured to facilitate dual-band radiation associated with the second antenna element.

An antenna structure includes a grounding element, a first, a second and a third radiation portion, a shorting radiation portion, a grounding radiation portion, a dielectric substrate, and a first conductive via element. The first radiation portion and the second radiation portion are coupled to a feeding point. The second radiation portion is coupled to the grounding element through the shorting radiation element. The third radiation portion is coupled to the grounding element. A first coupling gap is formed between the grounding radiation element and the grounding element. The dielectric substrate has a first surface and a second surface which are opposite to each other. The first radiation portion is disposed on the first surface. The third radiation portion is disposed on the second surface. The third radiation portion is coupled to the first radiation portion through the first conductive via element.

An antenna structure includes a metal mechanism element, a ground element, a feeding radiation element, a connection radiation element, a shorting radiation element, a parasitic radiation element, and a dielectric substrate. The metal mechanism element has a slot. The feeding radiation element has a feeding point. The connection radiation element is coupled to the feeding radiation element. The connection radiation element is further coupled through the shorting radiation element to the ground element. The parasitic radiation element is coupled to the ground element. The parasitic radiation element is disposed between the feeding radiation element and the shorting radiation element. The dielectric substrate is adjacent to the slot of the metal mechanism element. The feeding radiation element, the connection radiation element, the shorting radiation element, and the parasitic radiation element are all disposed on the dielectric substrate.

This application relates to the field of communication technology, and discloses an antenna, its fabrication method, and a terminal device. The antenna includes a substrate and a radiator. The radiator includes a copper plating layer and a protective layer. The copper plating layer is formed on the surface of the substrate, and a passivation layer is disposed on the side of the copper plating layer facing away from the substrate. The passivation layer can protect the copper plating layer, reduce the risk of corrosion of the copper plating layer, and thus improve the reliability of the antenna. Furthermore, since the layer structure of the radiator is relatively simple, the antenna fabrication process is significantly simplified, and the manufacturing cost is reduced.

A multi-antenna solution for use in electronic devices is an intelligent multi-antenna solution that deploys antennas at the top, side, and bottom of the electronic device, forming three antenna groups at the top, middle, and bottom respectively. This solution takes into account antenna performance in various scenarios, such as free space scenarios, vertical screen holding scenarios (e.g., voice call scenarios), and horizontal screen holding scenarios (e.g., gaming scenarios), thereby improving antenna radiation efficiency.

A mounting system for communication equipment on monopole towers can include a first mounting assembly with upper and lower pole attachment mounts connected by multiple arms to face members. The system can include a plurality of antenna offset mounts, each featuring a coupler for removable attachment to the face members. The offset mounts can be end-user-adjustable, e.g., allowing precise positioning of antennas at specified offset distances from the face members. In an example, the antenna offset mounts can facilitate antenna placement at various angles and distances from the face plane of the mounting assembly, such as to provide versatile antenna placement options for optimizing signal coverage and performance in communication networks.

An antenna structure includes a feeding radiation element, a first radiation element, a second radiation element, an extension radiation element, and a dielectric substrate. The feeding radiation element has a feeding point. The first radiation element is coupled to a ground voltage. The first radiation element is adjacent to the feeding radiation element. The second radiation element is coupled to the ground voltage. The second radiation element is adjacent to the feeding radiation element. The extension radiation element is coupled to the first radiation element. The feeding radiation element and the second radiation element are at least partially surrounded by the first radiation element. The feeding radiation element, the first radiation element, the second radiation element, and the extension radiation element are all disposed on the dielectric substrate.

An antenna structure includes a ground element, a feeding radiation element, a connection radiation element, a conductive via element, a first radiation element, a second radiation element, a third radiation element, and a nonconductive support element. The feeding radiation element is coupled through the connection radiation element to the ground element. The conductive via element is coupled to the feeding radiation element. The first radiation element, the second radiation element, and the third radiation element are coupled to the conductive via element. A slot is formed between the first radiation element and the second radiation element. The nonconductive support element has a first surface and a second surface which are opposite to each other. The conductive via element penetrates the nonconductive support element. The ground element, the feeding radiation element, and the connection radiation element are disposed on the first surface of the nonconductive support element.

An electronic device may include a processor, a wireless communication circuit configured to provide a signal of a specified frequency band, a switching circuit, a first housing including a first conductive portion, and a second housing which includes a second conductive portion and is rotatable relative to the first housing, and may be configured to control the switching circuit such that the signal is transmitted through the second conductive portion, in an unfolded state where the distance between the first conductive portion and the second conductive portion is a predetermined distance or more. The electronic device may be configured to control, in a folded state where the distance between the first conductive portion and the second conductive portion is less than the predetermined distance, the switching circuit to transmit the signal through each of the second conductive portion and a third conductive portion, and in the folded state, the second conductive portion may be arranged to face at least a portion of the first conductive portion. In the folded state, the third conductive portion may be disposed at a position spaced apart from the second conductive portion by a specified distance or more.

Piezoelectric materials, particularly ones with high quality factor used for mechanical antenna implementations, are sensitive to environmental conditions including temperature swings, humidity, vibration. Under the varying environmental conditions, the resonant frequency of the piezoelectric antenna can drift, and this results in the dampened piezoelectric radiator performance due to the mismatch between RF source' excitation frequency and piezoelectric antenna's resonant frequency. The frequency drift can be detrimental to the operation of the communication system that involves piezoelectric transmitter / receiver as a system component. In embodiments, the piezoelectric antennas may be integrated into a crystal oscillator to lock a drive frequency of the piezoelectric antennas to a resonant frequency of the piezoelectric antennas.

An electronic device may include a first housing (210), a second housing (220) configured to slide to be at least partially drawn into and out of the first housing (210), a flexible display (230) configured to be supported by at least the first housing (210) and / or the second housing (220), and a protective cover (280) disposed to protect the extension (232) from external impact. The protective cover (280) and the extension (232) are spaced apart from each other so that the protective cover (280) does not contact the extension (232).

This application provides an antenna and an electronic device. The antenna includes: a radiator, and a first feed point and a second feed point that are disposed on the radiator. One end of the radiator is an open end, and the first feed point is located between the open end and the second feed point. The radiator includes a first position and a second position, where a distance between the first position and the open end along the radiator is a quarter of a target wavelength, and a distance between the second position and the first feed point along the radiator is a half of the target wavelength. The first feed point is disposed at a position that deviates from the first position by a first preset value, and the first preset value is greater than or equal to 0, and less than or equal to one sixteenth of the target wavelength. The second feed point is disposed at a position that deviates from the second position by a second preset value, and the second preset value is greater than or equal to 0, and less than or equal to one sixteenth of the target wavelength. In the foregoing technical solution, two antenna modes with high isolation can be implemented by disposing a same radiator, so that space of the electronic device can be saved.

A wearable electronic device is provided. The wearable electronic device includes a first antenna structure disposed on an antenna carrier, a printed circuit board, a semiconductor packaging substrate packaged with the printed circuit board, a second antenna structure disposed on at least a portion of a surface of the semiconductor packaging substrate, and a contact structure electrically connecting the first antenna structure and the second antenna structure.

The vehicle comprises: a metal frame having an opening formed therein; a glass panel including a transparent area and an opaque area; and an antenna assembly disposed on the glass panel. The antenna assembly comprises: a first dielectric substrate which is disposed on the transparent area of the glass panel, and which has a first transparent antenna and a second transparent antenna formed on one surface thereof; a second dielectric substrate which includes a first ground area and a second ground area, and which is disposed in a recessed portion of the metal frame and in the opaque area of the glass panel; and a slot pattern formed in a pattern area arranged between the first ground area and the second ground area.

An antenna includes a first base substrate, a radiation patch on the first base substrate, a second base substrate, a feed structure, and a ground structure on the second base substrate. The first base substrate and the second base substrate are substantially perpendicular to each other. The radiation patch and the ground structure are substantially perpendicular to each other. The ground structure includes a conductive mesh structure. The radiation patch includes a conductive mesh structure. The antenna includes one or more irregularly shaped slots extending through the radiation patch, wherein a contour of at least one of the one or more irregularly shaped slots includes at least one curved edge.

A radio frequency identification tag component includes a metal plate with an upper surface and a lower surface; a radiation element comprising a tag housing, the tag housing is arranged along a side of the upper surface of the metal plate, the tag housing contain therein an IC chip, an antenna and a circuit board electrically connecting the IC chip with the antenna, wherein, the antenna is made of metal, and the antenna has a first segment and a second segment parallel to the upper surface of the metal plate, there is a first spacing between the first segment and the upper surface of the metal plate, and there is a second spacing between the first segment and the second segment, and the upper surface of the metal plate is at an angle to the plane in which the antenna is located.

A multi-resonant antenna comprises a main antenna and an additional radiation element. The main antenna comprises a main portion and a feeding portion. The main portion forms a split ring. The feeding portion extends outward of the main antenna from the main portion. The additional radiation element extends outward of the main antenna directly from the feeding portion.

A filter device includes an insulating body including a first outer electrode and a second outer electrode, a first inductor coupled to the first outer electrode, and a resonant circuit including a second inductor and a capacitor. The first inductor is coupled to the second outer electrode and to the resonant circuit. The first inductor and the second inductor are stacked in the insulating body. At least one of the first inductor and the second inductor includes a plurality of inductor patterns. The first inductor and the second inductor are alternately disposed in a stacking direction and are magnetically coupled.

An antenna structure includes a metal mechanism element, a feeding radiation element, a first radiation element, a second radiation element, a third radiation element, a fourth radiation element, a fifth radiation element, a sixth radiation element, and a tuning circuit. A slot is formed in the metal mechanism element. The first radiation element is coupled to the feeding radiation element. The tuning circuit is coupled to the first radiation element. The second radiation element is coupled to the feeding radiation element. The third radiation element is coupled to a first grounding point on the metal mechanism element. The fourth radiation element is coupled to a second grounding point on the metal mechanism element. The fifth radiation element is coupled to a third grounding point on the metal mechanism element.

A retrofittable enclosure for storing a deployable antenna 120 on the outer surface of an underwater vessel 160 (e.g submarine, AUV), the retrofittable enclosure comprising: a protective housing 110 f