Abstract:
An electrically conductive coating of an automotive heatable windshield has a communication window having an enhanced frequency selective surface having arranged passing areas (uncoated areas) and blocking areas (coated areas) to pass and block, respectively, predetermined wavelengths of the electromagnetic spectrum. In one nonlimiting embodiment, the frequency selective surface includes a pattern having a first plurality of arcuate break lines on one side of a dividing break line and a second plurality of arcuate break lines on the other side of the dividing break line. An elongated continuous blocking area is between adjacent break lines. The arcuate break lines of a group are nested within one another with the arcuate break line having the largest radius of curvature adjacent the dividing break line. The break lines each have alternating blocking and passing areas. In another embodiment, the enhanced frequency selective surface has a plurality columns spaced from one another by a continuous elongated blocking area. Each of the columns includes passing areas with each of the passing areas have a perimeter with a blocking area in the perimeter spaced from the perimeter. The perimeters of the passing areas contact one another with the blocking area of adjacent passing areas spaced from one another. The elongated blocking area between the break lines and columns extend to the perimeter of the communication window. In this manner current passing through the coating, passes through the communication window to eliminate hot and cold spots around and within the perimeter of the communication window.
Abstract:
An automotive glazing panel having an electrically heatable solar control coating layer, spaced first and second bus bars adapted to relay electrical power to the coating layer and a data transmission window positioned at least partially in contact with the heatable solar control coating layer is arranged such that at least a portion of the periphery of the data transmission window is bounded by an electrically conductive band having an electrical resistance measured in ohms per square significantly less than the electrical resistance measured in ohms per square of the heatable solar control coating layer. This may be used to minimize perturbations to the heating of the glazing caused by the presence of the data transmission window and/or provide more even heating over the entire windscreen.
Abstract:
A bus bar arrangement for a heatable vehicle window. An electroconductive coating is divided into two separate coating portions which represent two different respective heating zones. A single bottom bus bar is common to both heating zones, while a first upper/top bus bar portion is provided for the first heating zone and a different second upper/top bus bar portion is provided for the second heating zone. The two upper/top bus bars are spaced apart and electrically insulated from one another. Conductive bus bar extension portions lead from the respective upper bus bars down to a bottom edge of the window (e.g., vehicle windshield) so that electrical connectors for all three bus bars can be located along or proximate a single edge of the window.
Abstract:
In a window glass for a vehicle comprising a glass sheet, a transparent conductive film and a pair of bus bars for feeding power to the film, this invention makes the amount of generated heat more uniform by providing a distribution in the surface resistance of the film, depending on the distribution of heat generated in the film. In one embodiment, the surface resistance of the conductive film decreases from the longer bus bar toward the shorter bus bar. In another embodiment, the surface resistance of the conductive film increases, as the spacing between the bus bars is smaller.
Abstract:
An automobile windshield covered with a transparent electrically conducting layer, on which some hollowed spaces are provided in the form of slots. The length of these slots is a function of the wavelength of the microwave radiation. The microwave radiation, as used for transmission of information in portable telephone sets or remote surveillance systems of toll roads, for example, is absorbed by the conducting layer to again be retransmitted by the slots which act as antennas. In this manner, vehicle windshields which are provided with an electrically conducting layer which reflects the infrared can allow microwave radiation to pass through.
Abstract:
The present disclosure relates to a ceramic susceptor. The ceramic susceptor of the present disclosure may include a ceramic plate having a heating element disposed thereon and at least one hole. The heating element may include a plurality of concentric circular patterns, each of the concentric circular patterns may include arc portions extending in a circumferential direction and a transverse portion interconnecting the arc portions, and among the arc portions of the plurality of concentric circular patterns, each of the arc portions, which face each other across the hole, may include, in a portion thereof, a protrusion protruding toward the hole.
Abstract:
The disclosure provides a camera module, a monitoring system and a vehicle camera, the camera module includes a lens barrel, a first lens and a heating element, the lens barrel includes a light entrance, the first lens is disposed at the light entrance, the first lens includes an image side surface, the heating element directly acts on the image side surface to heat the first lens. By directly applying the heating element to the image side surface of the first lens, the heating element can directly transmit heat energy to the first lens, thereby achieving the effect of defogging and defrosting automatically.
Abstract:
A heater for an aerosol generating device includes a substrate and a plane heating element formed on one surface of the substrate, wherein the plane heating element includes an electrically conductive track pattern including a sensor seating region formed of a planar track on which an undersurface of a temperature sensor is configured to be seated.
Abstract:
Disclosed are a transparent heating film and a heating glass including the transparent heating film. The transparent heating film includes a transparent supporting body, a conductive grid, and a penetration window. A side of the transparent supporting body is provided with a plurality of trenches interconnected to each other in a grid shape; the conductive grid is formed by filling the plurality of trenches with a conductive material; and the penetration window is located between and partitioned with the conductive grid. The penetration window located between the conductive grid may disrupt or weaken a shielding effect of the conductive grid, thereby facilitating penetration of a signal.
Abstract:
An electrostatic chuck includes a ceramic dielectric substrate; a base plate; and a heater unit which heats the ceramic dielectric substrate. The heater unit includes first and second heater elements. The second heater element has a plurality of main zones separated from each other in a radial direction. The first heater element has a plurality of sub-zones separated from each other. A number of the sub-zones is larger than a number of the main zones. The main zones include a first main zone. The first main zone has a main heater line and a first main power feeding portion. The sub-zones include a first sub-zone overlapping the first main zone. The first sub-zone has a central region and an outer peripheral region. The first main power feeding portion is provided at a position where the first main power feeding portion overlaps the central region.