The radome (10) for vehicles comprises a substrate (18) formed of a radio transmissive resin, the substrate (18) having a proximal face and a distal face and a decoration layer (20) applied to the proximal face, the decoration layer (20) comprising a metalloid or a metalloid alloy deposited on the surface of the proximal face, wherein said metalloid or metalloid alloy is combined with at least one oxide. It improves the metalloid decoration layer adhesion on the substrate and its corrosion resistance.

Cascaded metasurfaces can control the phase, amplitude and polarization of an electromagnetic beam, shaping it in three dimensional configuration not achievable with other methods. Each cascaded metasurface has dielectric or metallic scatterers arranged in a period array. The shape of the scatterers determines the three dimensional configuration of the output beam and is determined with iterative calculations through computational simulations.

A cover element is provided for a radome in a vehicle, which has an at least partially metallised film which is over-moulded on a front side with a layer of a first plastic and back-moulded on a back side with a cover layer of the second plastic, wherein a heating element is provided on the back side or front side of the at least partially metallised film.

A dynamic aperture is disclosed. A dynamic aperture includes a base layer, a conductive structure disposed on the base layer, and a layer of a material having a dynamically controllable electrical conductivity that is disposed over the base layer and the conductive structure. A transmission profile of the dynamic aperture is determined by a combination of the conductive structure and the layer of the material. The transmission profile is dynamically alterable by controlling the electrical conductivity of the layer of the material.

A reconfigurable antenna systems includes a set of envelopes of active metamaterial panels, each envelope in the set being shaped to approximate a surface of at least partial revolution of a curve about an axis, wherein the surface defines a focal locus; a wideband antenna array disposed within the focal locus; and a controller, coupled to the panels, configured to activate each one of the panels, so as to control a property of each of the panels, the property selected from the group consisting of transmissivity, reflectivity, absorption, phase, polarization, bandwidth, angle sensitivity, resonant frequency, and combinations thereof.

An antenna assembly may include an antenna element, a radome structure disposed proximate to the antenna element and including a plurality of plasma elements, a driver circuit operably coupled to the plasma elements to selectively ionize individual ones of the plasma elements, and a controller. The controller may be operably coupled to the driver circuit to provide control of plasma density of the individual ones of the plasma elements. The plasma elements may include respective enclosures. At least some of the enclosures may have at least two peripheral edge surfaces substantially fully contacted by corresponding peripheral edge surfaces of adjacent enclosures at at least one section along a longitudinal length thereof.

A housing assembly, an antenna device, and an electronic device are provided. The housing assembly includes a dielectric substrate, a bearing layer, and a coupling structure. The dielectric substrate has a first transmittance to a radio frequency (RF) signal in a preset frequency band. The bearing layer is stacked with the dielectric substrate. The coupling structure is disposed at the bearing layer. An orthographic projection of the coupling structure on the dielectric substrate at least partially covers the dielectric substrate. The coupling structure includes one or more array layers of coupling elements. The one or more array layers having resonance characteristic s in the preset frequency band. The housing assembly has a second transmittance to the RF signal in the preset frequency band in a region corresponding to the coupling structure. The second transmittance is greater than the first transmittance.

Examples disclosed herein relate to a multi-layer, multi-steering (“MLMS”) antenna array for millimeter wavelength applications. The MLMS antenna array includes a superelement antenna array layer comprising a plurality of superelement subarrays. In some aspects, each superelement subarray of the plurality of superelement subarrays includes a plurality of phase compensated slots for radiating a transmission signal. The MLMS antenna array also includes a power division layer configured to serve as a feed to the superelement antenna array layer. The MLMS antenna array also includes a top layer disposed on the superelement antenna array layer. The top layer may include a superstrate or a metamaterial antenna array. Other examples disclosed herein include a radar system for use in an autonomous driving vehicle.

Disclosed are an electromagnetic-wave transmitting cover that transmits electromagnetic waves transmitted/received by an LF antenna and an RF antenna and an electric field generated from a capacitance touch sensor while realizing a metallic texture, and a door outer handle including the same. The electromagnetic-wave transmitting cover includes: a substrate; a primer layer formed on a surface of the substrate; and a first metal layer formed by depositing and having a plurality of first microcracks penetrating in a thickness direction.

A microwave antenna includes an antenna housing and a radome fabric attached to the housing, which is configured to pass microwave electromagnetic signals therethrough. The radome fabric has an opening formed therein. A vent component is attached to the radome fabric so as to cover the opening in the radome fabric when the radome fabric is viewed from an elevation view in a direction parallel to an axis extending through and perpendicular to the opening in the radome fabric. The vent component is configured to allow air to pass between the atmosphere and the antenna housing.