Abstract: The disclosed system may include a support structure, at least one lens mounted to the support structure, and a transparent antenna film layer that is disposed on at least a portion of the lens. The transparent antenna film layer may include at least one antenna, and placement of the transparent antenna film layer may form a gap between the support structure and the transparent antenna film layer. Various other apparatuses, wearable mobile devices, and methods of manufacturing are also disclosed.

Abstract: A system and method for estimating an angle of arrival. In some embodiments, the system includes an array antenna and a processing circuit. The array antenna may be curved, and may include a first radiator having a first resonant frequency and a second radiator having a second resonant frequency different from the first resonant frequency. The processing circuit may be configured to receive a signal from the array antenna and to calculate, from the signal, an estimated angle of arrival of electromagnetic radiation corresponding to the signal.

Abstract: An antenna arrangement (1), for use within a full-duplex communication channel. The antenna arrangement (1) having at least a first planar receiving antenna (4) and a transmitting antenna group with a first planar transmitting antenna (2) and a second planar transmitting antenna (3). The transmitting antennas (2, 3) and the first receiving antenna (4) are arranged with their respective main surfaces (6) parallel to a common base surface (7) around a common center of rotation (Z), wherein the planar transmitting antennas (2, 3) are arranged rotated 180° to one another around the center of rotation (Z). The first receiving antenna (4) has the same center-to-center distance (D) to both transmitting antennas (2, 3).

Abstract: An antenna structure at least includes a chip antenna. The chip antenna includes: a carrier, a first radiating unit, a second radiating unit, and an electric conductor. The first radiating unit is repeatedly designed with two or more periodic pattern layers to increase the bandwidth of the chip antenna and reduce the frequency point of the chip antenna, thereby improving the performance of the antenna. The first radiating unit is arranged on a top surface of the carrier to control the high-frequency band impedance, resonant frequency, and radiation effect, and use two or more periodic pattern layers to generate the frequency multiplication of the low-frequency band and control the frequency offset of the high-frequency band. The second radiating unit on a bottom surface controls the low-frequency band to achieve the predetermined target impedance, resonant frequency, bandwidth, and radiation effect. The size of the antenna is effectively reduced.

Abstract: A wireless communication device is provided with an in-device capability of characterizing the coupling between a pair of antennas. The wireless communication device determines the coupling through an operating gain measurement and through calibration gain measurements obtained through test ports.

Abstract: An antenna module includes: an antenna mounted to a mount surface; and an artificial magnetic conductor having a plate shape and arranged so as to be adjacent to the antenna, the artificial magnetic conductor having a first surface on which a plurality of first unit cells are regularly arrayed. The artificial magnetic conductor has a base end adjacent to the antenna, and the first surface extends from the base end along the mount surface.

Abstract: A communication device includes a metal mechanism element, a loop radiation element, a first radiation element, and a second radiation element. The metal mechanism element has a slot. The loop radiation element is coupled to the metal mechanism element. The first radiation element has a feeding point. The first radiation element is coupled to a first connection point on the loop radiation element. The second radiation element is coupled to a second connection point on the loop radiation element. Both the first radiation element and the second radiation element are disposed inside the loop radiation element. An antenna structure is formed by the metal mechanism element, the loop radiation element, the first radiation element, and the second radiation element.

Abstract: A mobile device supporting wideband operations includes a metal mechanism element, a feeding radiation element, a shorting radiation element, a main radiation element, a connection radiation element, and an auxiliary radiation element. The metal mechanism element provides a ground voltage. The feeding radiation element has a feeding point. The feeding radiation element is coupled through the shorting radiation element to the metal mechanism element. The main radiation element is coupled to the feeding radiation element. The connection radiation element is coupled to the main radiation element. The auxiliary radiation element is coupled to the connection radiation element. An antenna structure is formed by the feeding radiation element, the shorting radiation element, the main radiation element, the connection radiation element, and the auxiliary radiation element. The width of the main radiation element is greater than that of the auxiliary radiation element.

Abstract: Wireless communication device (WCD) for use in an unmanned aerial vehicle (UAV) includes a multi-purpose WCD accessory. The accessory is comprised of a first plate having opposed first and second major faces. The first major face includes a heat transfer surface configured to contact a body of the WCD interior of the UAV when the WCD is secured to the first major face. A second plate is attached to the second major face in a cantilever configuration and extends exterior of the fuselage in a direction away from the second major surface. The second plate comprises at least a portion of a ground plane for an antenna system utilized by the WCD, and together with the first plate forms a heat sink for the WCD.

Abstract: An antenna module includes a first substrate, a first component and a second component, a first radiating element and a second radiating element, and a second substrate that is arranged between the first substrate and the first component. The first component is thinner than the second component. The second substrate is arranged to overlap the first radiating element. The second component is arranged to overlap the second radiating element.

Abstract: A terminal device includes a radiator sharing antenna. The radiator sharing antenna includes a radiator that is divided into a first sub-radiator and a second sub-radiator through a gap, a first feeding point located on the first sub-radiator, and a second feeding point located on the second sub-radiator. The first feeding point is configured to pass a first radio frequency signal through resonance of the first sub-radiator and through parasitic resonance of the second sub-radiator, and the second feeding point is configured to pass a second radio frequency signal through resonance of the second sub-radiator and through parasitic resonance of the first sub-radiator.

Abstract: A power divider network includes a cover plate, a reflection plate, a support component, and a feed line. The reflection plate is arranged separately from the cover plate. A first surface of the reflection plate is a reflection surface. A plurality of connectors protrude from a second surface of the reflection plate opposite to the reflection surface. The plurality of connectors are arranged at intervals. The plurality of connectors are coupled with the cover plate and divide the space between the reflection plate and the cover plate into at least one hollow chamber. The support component is at least partially arranged in the hollow chamber. The feed line is arranged in the hollow chamber and mounted at the support component.

Abstract: An antenna device includes a polarization conversion unit in which a conversion space is formed to propagate radio wave. A first waveguide extends from the conversion space to one side in a longitudinal direction, and a second waveguide extends from the conversion space to the other side in the longitudinal direction. The first waveguide is extended in a height direction in a cross-section perpendicular to the longitudinal direction, and a second waveguide is extended in a width direction in the cross-section. Plural antenna apertures are connected to the second waveguide.

Abstract: A communication device includes a ground plane, an antenna structure, a cable, a connection metal element, and a dielectric substrate. The antenna structure has a feeding point. The cable includes a feeding conductor and a grounding conductor. The feeding conductor is coupled to the feeding point. The grounding conductor includes a first conductive region and a second conductive region. The connection metal element is coupled between the first conductive region and the second conductive region of the grounding conductor. The antenna structure and the connection metal element are disposed on the dielectric substrate. The cable is adjacent to the ground plane. Neither the first conductive region nor the second conductive region of the grounding conductor is coupled to the ground plane.

Abstract: The invention is an improved mounting system that can be installed on a support structure, such as a water tank or water tower. The system includes a series of mounting discs and associated brackets cooperate to attach each disc to an antenna. The antenna is then coupled with a mounting pole an attached to a support structure for use. Advantageously, the mounting structures maintain their mechanical integrity, even after long periods of use and exposure to weather elements (rain, wind, snow, sleet). As a result, the disclosed system can effectively extend the life of the mounting poles by preventing rust and associated deterioration seen with current mounting systems.

Abstract: An antenna structure includes a feeding radiation element, a first radiation element, a second radiation element, a third radiation element, a fourth radiation element, a fifth radiation element, and a sixth radiation element. The first radiation element and the second radiation element are coupled to the feeding radiation element. The third radiation element is coupled to a ground voltage. The third radiation element is adjacent to the feeding radiation element. The fourth radiation element is coupled to the third radiation element. The fourth radiation element is adjacent to the first radiation element. The first radiation element is partially surrounded by the fourth radiation element. The fifth radiation element is coupled to the third radiation element. The fifth radiation element is adjacent to the second radiation element. The sixth radiation element is coupled to the ground voltage. The sixth radiation element is adjacent to the feeding radiation element.

Abstract: The present invention relates to an antenna board assembly and an antenna apparatus including same. In particular, the antenna apparatus comprises an antenna board assembly including: a reflecting panel which is provided to reflect forward antenna beams radiated from a plurality of array antenna elements provided in front; a rear panel which is stacked and coupled to the rear surface of the reflecting panel and composed of a non-conductive material; and a front panel which is stacked and coupled to the front surface of the reflecting panel and composed of a non-conductive material, wherein the rear panel and the front panel are formed as a single body through dual injection molding so as to be stacked and coupled with respect to the reflecting panel. Therefore, the present invention provides the advantage of making it possible to improve system performance through the reduction of insertion loss.

Abstract: An antenna device includes a first substrate, a second substrate, an excitation component, rectangular radiation components, circular radiation components and an impedance matching component. The first substrate has a first bottom surface and a first top surface facing away from each other. The second substrate is stacked on the first substrate and has a second bottom surface and a second top surface facing away from each other. The second bottom surface is connected to the first top surface. The excitation component is disposed on the first bottom surface. The rectangular radiation components and the circular radiation components are disposed on the second top surface. The rectangular radiation components surround the circular radiation components. The impedance matching component is disposed on the second top surface. The circular radiation components surround the impedance matching component. The circular radiation components are spaced apart from the impedance matching component by identical distances.

Abstract: An electronic device including an antenna structure is provided. A side frame between a first position and a second position of the electronic device is configured as a first radiator of the antenna structure. A side frame between the second position and a third position of the electronic device is configured as a second radiator of the antenna structure. A first slot is provided at the second position of the side frame. A second slot is formed between the second radiator and a ground. The first radiator extends in a first direction, and is spaced from the third radiator in a second direction. Projections of the third radiator and the first radiator in the second direction at least partially overlap. A first feed point is disposed on the third radiator or the first radiator, and the first feed point is configured to feed the antenna structure.

Abstract: A double-axis rotating antenna structure includes a base, a yawing mechanism and an antenna module. The yawing mechanism includes a yawing bracket movably disposed at the base and yawing relative to the base. The antenna module includes a pitching assembly and an antenna assembly. The pitching assembly includes a pitching bracket movably disposed at the yawing bracket and pitching relative to the yawing bracket. The antenna assembly is disposed at the pitching bracket and includes an antenna dish. The yawing bracket and the pitching bracket drive the antenna dish to yaw and pitch, thereby adjusting a yawing angle and a pitching angle of the antenna dish.