123results about "Antenna details" patented technology

A work machine includes a machine body, a first antenna and a second antenna, a first bracket, and a second bracket. The machine body includes an occupant unit capable of accommodating an occupant. The first antenna and the second antenna are disposed on the occupant unit to be separated from each other in a plan view. The first bracket is supported by the occupant unit and supports the first antenna. The second bracket is provided separately from the first bracket, is supported by the occupant unit, and supports the second antenna.

A phase-change integrated heat dissipation module for achieving asynchronous temperature uniformity of GaN, GaAs, and Si-based chips in a TR (Transient Transformer) module is disclosed. This module comprises a phase-change end cap, a high thermal conductivity core material, high thermal conductivity clamps, a side cover, and a phase-change cavity. The module is divided into a cold end and a hot end, with the phase-change cavity running through both ends. A high thermal conductivity core material is positioned at the center of the phase-change cavity, which is filled with a phase-change material with high volume enthalpy change to act as a heat sink. A high thermal conductivity clamp is positioned in the middle of the high thermal conductivity core material, allowing the central temperature to spread outwards, and heat to be conducted along the thickness direction, resulting in synchronous temperature uniformity across the top and bottom surfaces. The TR module is integrally mounted on the heat dissipation module. The high thermal conductivity core material with its clamps helps to evenly distribute the temperature of the GaN, GaAs, and Si-based chips within the TR module. Simultaneously, the phase-change material directly beneath the Si-based chip rapidly absorbs heat, reducing its temperature, lowering power consumption, and effectively protecting chip lifespan.

A radar level gauge system, for determining a filling level of a product in a tank, comprises a transceiver, an antenna assembly, and processing. The antenna assembly comprises a dielectric antenna body having a conical external surface facing an interior of the tank and an internal surface facing away from the interior of the tank, when the antenna assembly is arranged at the opening in the tank wall, and an antenna feed coupled to the transceiver, and configured to propagate the transmit signal towards the internal surface of the dielectric antenna body as electromagnetic waves with convex wavefronts. The internal surface of the dielectric antenna body is shaped to refract the transmit signal from the antenna feed in such a way that the transmit signal propagates towards the surface of the product in the tank as electromagnetic waves with substantially planar wavefronts, following passage through the dielectric antenna body.

It suppresses malfunctions caused by static electricity. [Solution] The electronic clock comprises a substrate having an antenna, a metal plate-shaped member, and a case having a metal side wall facing the end face of the plate-shaped member, and housing the substrate and the plate-shaped member. The plate-shaped member is electrically connected to the side wall of the case, and a gap is provided between a part of the plate-shaped member and the side wall. The electronic clock may also include a conductive member interposed between the plate-shaped member and the side wall of the case to electrically connect the plate-shaped member and the side wall.

A distributed power management apparatus is provided. The distributed power management apparatus includes an envelope tracking (ET) integrated circuit (ETIC) and a distributed ETIC separated from the ETIC. The ETIC is configured to generate a number of ET voltages for a number of power amplifier circuits and the distributed ETIC is configured to generate a distributed ET voltage(s) for a distributed power amplifier circuit(s). In a non-limiting example, the number of power amplifier circuits and the distributed power amplifier circuit(s) can be disposed on opposite sides (e.g., top and bottom) of a wireless device. As such, in embodiments disclosed herein, the ETIC is provided closer to the power amplifier circuits and the distributed ETIC is provided closer to the distributed power amplifier circuit(s). By providing the ETIC and the distributed ETIC closer to the respective power amplifier circuits, it is possible to reduce trace inductance and unwanted signal distortion.

This utility model discloses a multi-band antenna heat dissipation structure, including: a main body and an adjustment mechanism; the main body includes a base station frame and an antenna, the outer wall of the base station frame is provided with a main body box, the antenna is installed inside the main body box, and a plurality of heat sinks are provided inside the main body box; the adjustment mechanism includes a mounting base, a placement frame for clamping and fixing the heat sinks, and an adjustment pull plate for adjusting the position of the heat sinks. By setting the adjustment mechanism, this utility model not only facilitates the clamping and fixing of the heat sinks and facilitates the heat dissipation of the heat generated by the components, but also allows adjustment of the distance between the heat sinks and the components according to different heat dissipation conditions under different components, so as to meet the heat dissipation effect of different components, and ensure the heat dissipation protection of the components by the heat sinks, avoiding excessive internal temperature of the antenna from affecting the communication quality of the antenna.

In a general aspect, a receiver is disclosed for sensing radio frequency (RF) electromagnetic radiation. The receiver includes a dielectric body having an array of cavities ordered periodically to define a photonic crystal structure in the dielectric body. The dielectric body also has a region in the array of cavities that defines a defect in the photonic crystal structure. An elongated slot through the region extends from a slot opening in a surface of the dielectric body at least partially through the dielectric body. The receiver also includes a vapor or a source of the vapor in the elongated slot as well as an optical window covering the elongated slot. The optical window has a window surface bonded to the surface of the dielectric body to form a seal about the slot opening.

A multiband antenna has an array face with closely spaced dipoles of multiple frequency bands in the low band, the mid band, and C-band or CBRS (Citizens Broadband Radio Service). The low band dipole has four dipole arms formed in a plurality of loops from a single piece of metal. In one embodiment, the loops successively decrease in dimension, resulting in a tapered dipole arm shape and has a bend that bends the dipole arms downward to accommodate radome curvature. In a second embodiment, the outermost loop of each dipole arm is larger in volume and has its lateral loop features bent downward.

The present invention relates to a system (1) for detecting antenna (3) orientation / alignment errors which may occur in antenna (3) blocks that are likely to malfunction due to environmental factors such as weather events within the radio equipment of telecommunication networks that interact with external environments, through integrated sensing and communication capability; compensating the detected alignment errors when they fall within the limit values set by field conditions; and providing information about the detected alignment error and the autonomous response.

A communication device for a hearing protection apparatus comprising a hearing protection device is disclosed. The communication device comprises a processing unit, a memory, a radio interface, and a hearing protection device interface. The communication device also comprises a modular button assembly comprising a wireless interface. The processing unit of the communication device is configured to obtain a first input from the hearing protection device and / or transmit a first output to the hearing protection device via the hearing protection device interface. The radio interface comprises a radio connector that comprises terminals for wired connection to a radio unit. The processing unit is configured to obtain a second input from the radio unit and / or transmit a second output to the radio unit via the radio interface.

The invention relates to a lighting device (5) for a motor vehicle, said lighting device comprising a stack including: - a protective panel (20), - an intermediate layer (30) including at least one radar antenna (100) configured to emit radar waves (R1, R2), the first radar waves emitted by the radar antenna propagating towards the protective panel, the second radar waves emitted by the radar antenna propagating towards a conductive layer (40), - the conductive layer adapted to form in part a ground plane of the radar antenna, the intermediate layer being positioned between the protective panel and the conductive layer, the radar antenna including a metallic mesh comprising a repeating pattern with a predefined mesh pitch, the mesh pitch being determined so as to prevent diffraction phenomena during the propagation of a light beam through the lighting device.Figure to be published with the abbreviation: Figure 2.

Provided is an integrated antenna device, which includes a substrate, at least one antenna, a radio-frequency integrated circuit (RFIC), multiple metal pillars, an encapsulation and a heat conducting structure. The antenna and the RFIC are respectively disposed on a first surface and a second surface of the substrate. A third surface of the RFIC is facing the second surface. Multiple first ends of the metal pillars that surround the RFIC are disposed on the second surface. The encapsulation is disposed on the second surface and encapsulates at least one portion of the RFIC and at least one portion of each of the metal pillars. The heat conducting structure is disposed above a fourth surface of the RFIC.

The present invention relates to a waveguide arrangement (1) for a radar sensor (16, 19a, 19b, 19c, 19d), comprising a circuit board (2) having at least one high-frequency component with at least one element for directly radiating or receiving radar signals, an antenna (3) having one or more individual antennas for transmitting and / or receiving radar signals with a definable wavelength, wherein the antenna (3) comprises at least one waveguide (4a, 4b) which is bounded by several side walls, and at least one side wall is formed by the circuit board (2) and the side walls comprise a metal layer, in particular a metal coating, wherein at least one recess (5) is provided in at least one side wall of the waveguide (4a, 4b), and a fence structure (6) is provided which is arranged around the recess (5).

An apparatus includes: a first antenna array including a plurality of first antenna array elements configured to transmit a signal including coded data in a first frequency band; a second antenna array including a plurality of second antenna array elements configured to receive a signal including coded data in the first frequency band; a third antenna array including a plurality of third antenna array elements; a suppression signal generator configured to generate a first suppression drive signal in the first frequency band for the third antenna array elements to generate a compensating electromagnetic field for reducing interference received by the plurality of second antenna array elements from the plurality of first antenna array elements in the first frequency band; and a transceiver coupled to the third antenna array and configured to transmit a signal including coded data in a second frequency band, wherein the second frequency band is different from the first frequency band.

A hearing aid comprising a housing. The housing comprises a first substrate comprising a slot antenna configured to transmit and / or receive wireless signals, a second substrate electrically connected to the power source, and a connecting section electrically connecting the first substrate to the power source via the second substrate. The connecting section comprises a feed line for feeding the slot antenna.

A terahertz imaging system is disclosed. The terahertz imaging system includes a terahertz antenna array, made up of a plurality of antenna elements. Each antenna element includes a patch antenna, a one bit phase shifter, and a plurality of storage elements. The storage elements are used to store a plurality of phase states that are supplied to the one bit phase shifter. The one bit phase shifter is configured to either shift the phase of the incoming signal by 90 or 270, depending on the value of the phase state. The one bit phase shifter is also bidirectional, allowing it to phase shift transmitted signals and reflected signals. A plurality of these antenna elements are disposed in a semiconductor device, where the top metal layer is exposed. This top metal layer is used to create the patch antennas.

A method for satellite searching and tracking in a phased array antenna may include: an initial configuration step of determining a theoretical azimuth and theoretical elevation for the phased array antenna; an attitude setting step of determining an azimuth adjustment and elevation adjustment based on the theoretical azimuth and theoretical elevation; a compensation determining step of determining an azimuth compensation and elevation compensation if one or more of the azimuth adjustment and elevation adjustment lies beyond an electronic scanning range of the phased array antenna; a compensation adjustment step in which an angle control platform adjusts the azimuth and elevation of the phased array antenna by the azimuth compensation and elevation compensation; and a tracking step of maintaining communication by performing a conical scan with the phased array antenna and continuously tracking a satellite.

Method for manufacturing a module (2) for a chip card (1), wherein a polymer material (13) comprising conductive particles is deposited in two connection wells (12) or on two conductive tracks which are formed from a conductive sheet arranged at the rear face of the module (2). After being deposited, this polymer material (13) forms, at the rear face, an excess thickness which comes, during the insertion of the module (2), into contact with the ends of an antenna (10). Between the manufacture of the modules (2) and their insertion, the modules are arranged on a band which can be rolled up for storage.

This invention relates to a test system for testing a device under test (JCAS-DUT) with joint communication and sensing capabilities, comprising: a first subsystem configured to: transmit at least one first JCAS signal to an environment; receive at least one second JCAS signal from the environment; receive at least one sensing information from the environment; and generate at least one channel and environmental parameter based on the at least one first JCAS signal, the at least one second JCAS signal, and the sensing information. The test system further comprises: a second subsystem communicatively connected to the first subsystem, wherein the second subsystem is configured to: receive at least one channel and environmental parameter from the first subsystem; adjust at least one signal waveform according to the at least one channel and environmental parameter and transmit the adjusted signal waveform to the JCAS-DUT; receive at least one communication and sensing information output by the JCAS-DUT in response to the adjusted signal waveform; and generate at least one performance information based on the at least one communication and sensing information.

A switchable antenna system for a two-piece device is provided. The switchable antenna system includes a first antenna, a second antenna, a third antenna, a first wireless communication module, a second wireless communication module, a first switching circuit, a second switching circuit, and a control device. In the switchable antenna system, the first antenna, the second antenna, and the third antenna support a wireless communication frequency band and a 2.4GHZ proprietary frequency band. The control device is electrically connected to the first wireless communication module, the second wireless communication module, the first switching circuit, and the second switching circuit to control the first switching circuit and the second switching circuit to electrically connect the first wireless communication module to two of the first antenna, the second antenna, and the third antenna selectively via the first switching circuit and the second switching circuit.

Provided is a multilayer structure for a tire excellent in both the communication performance of an embedded transponder and the durability of the multilayer structure. The above problem is solved by providing a multilayer structure for a tire including a transponder, a coating rubber layer that coats the transponder, and an adjacent rubber layer layered adjacent to at least one surface of the coating rubber layer, the transponder having an IC board and antennas provided at both end portions of the IC board, a linear distance between terminals of the antennas provided at both end portions of the IC board being 30 mm or more and 60 mm or less, the coating rubber layer containing a rubber component, carbon black, calcium carbonate, and oil, and containing 1 to 15 parts by mass of the carbon black and 1 to 80 parts by mass of the calcium carbonate with respect to 100 parts by mass of the rubber component, and an oil extraction amount of the coating rubber layer and an oil extraction amount of the adjacent rubber layer satisfying a predetermined relationship.

A radio frequency identity (RFID) tag reader. The reader comprises an antenna; a radio transceiver coupled to the antenna, wherein the radio transceiver is configured to transmit and receive in a cellular radio frequency band; a memory; a processor coupled to the radio transceiver and to the memory; and an application stored in a non-transitory portion of the memory. When executed by the processor, the application sends a query message via the radio transceiver and the antenna to a plurality of RFID tags; and receives a plurality of query response messages via the radio transceiver and antenna from the plurality of RFID tags, wherein at least some of the query response messages are encoded using different pseudo-random number (PN) codes and receiving the plurality of query response messages comprises demodulating at least some of the query response message using different PN codes.

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.

The present invention provides an integrated antenna device and a phase calibration method that can be assembled as a large antenna array and that can obtain the phase error between each patch antenna unit in the integrated antenna device through a simple calculation. [Solution] The integrated antenna device 100 includes an antenna array formed by a plurality of patch antenna units and a beam shaping integrated circuit. The patch antenna units, which are installed on the first surface of the substrate, are arranged symmetrically around the center of the antenna array, and each patch antenna unit includes a first feed point and a second feed point. The beam shaping integrated circuit, which is installed on the second surface of the substrate, is connected to the first and second feed points of the patch antenna units. The first and second feed points of the patch antenna units are located outward relative to the array center of the antenna array of the patch antenna units, and the beam shaping integrated circuit overlaps with the central region of the antenna array.

A method of operating an access point using Dynamic Frequency Selection (DFS) includes selecting an operating mode of a reconfigurable antenna that is configured to operate in both a low cross-polarization mode and in a depolarization (high cross-polarization) mode, listening, when the antenna is operating in the depolarization mode, for transmissions / receiving from other entities on a DFS communication channel, and transmitting on the DFS communication channel if it is determined that the DFS communication channel is free of high priority users. Related access points are also discussed.

A system, apparatus, or device comprising a sample sensor for monitoring sample levels. The system, apparatus, or device may include a printed circuit board. The system, apparatus, or device may also include a connector configured to connect to the printed circuit board and establish an electrical connection between the proximal portion of the sample sensor and the printed circuit board. The system, apparatus, or device may also include a battery configured to connect to the printed circuit board and supply power to the printed circuit board. The system, apparatus, or device may also include a processor configured to connect to the printed circuit board and process data associated with one or more monitored sample levels. The sample sensor may have a proximal portion and a distal portion, the distal portion configured to extend beneath the user's skin to monitor one or more sample levels in body fluids.

Apparatus, comprehensive: an integrated circuit chip; a packing substrate to support the integrated circuit chip, wherein the packing substrate has conductive connectors for connecting the integrated circuit chip to external components; a radio coupled to the integrated circuit chip to receive data from the integrated circuit chip and modulate the data onto a radio frequency carrier; and an antenna on the packing substrate that is coupled to the radio to send the modulated data via the radio frequency carrier to an external device, wherein the radio is formed in a radio chip on the packing substrate, which is coupled to the integrated circuit chip through the packing substrate.

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.

In some embodiments, a radio frequency identification (RFID) system may include at least one Ultra High Frequency (UHF) antenna component, a conductive loop having a largest dimension that is smaller than the wavelength of radiation transmitted at a Microwave Frequency (MW). The conductive loop may define a gap and an RFID chip may be electrically coupled to the conductive loop. The conductive loop may be configured to be resonant at an Ultra High Frequency (UHF) and less resonant at Microwave Frequency (MW). The antenna component may be selected from the group consisting of a dipole antenna, a monopole antenna, a loop antenna, or a slot antenna.