Abstract:
The present subject matter describes illuminating a display panel. In an example implementation, a plurality of light guide films is stacked together, with a light guide film positioned over another light guide film of the plurality of light guide films. Each of the light guide films of the plurality is associated with a light source. The light source for a respective light guide film is to launch light through at least one light incident surface of the respective light guide film, where the light guide assembly is to guide light from the light source to illuminate the display panel.
Abstract:
Various examples described herein provide for a substrate, or a method for preparing a substrate, including a first electroplated layer disposed over a metal substrate, a second electroplated layer disposed under the metal substrate, and an electrophoretic deposition layer disposed over the first electroplated layer.
Abstract:
One example provides a method. The method includes forming a substrate comprising a metal alloy comprising at least one of aluminium, magnesium, lithium, zinc, titanium, niobium, and copper. The method includes polishing a surface of the substrate using particles comprising chromium metal. The polished surface is electrically conductive.
Abstract:
A method is provided, in which an aluminum layer is deposited on a metal substrate, wherein, in the depositing process, aluminum powders are added into an aqueous polymer medium to form a suspension, the metal substrate and a counter electrode are immersed in the suspension, and a pulsed current is applied between the metal substrate and the counter electrode; and, the aluminum layer deposited on the metal substrate is anodized.
Abstract:
The present invention relates to a multi-layered sheet comprising Mg-based alloy substrate, micro-arc oxidized layers formed on two opposite surfaces of the Mg-based alloy substrate and graphene-based barrier coating on either one or both of the micro-arc oxidized layers, wherein said graphene-based barrier coating comprises 20-70 wt % of graphene based on the total weight of the graphene-based barrier coating, a process for preparing the multi-layered sheet and the use of the multi-layered sheet as a housing in laptop, tablet PC, desktop computer, smart phone and 3C electronic devices.
Abstract:
The present disclosure provides a color changing apparatus. The color changing apparatus includes a solar cell assembly to absorb solar energy and converse the solar energy to thermal energy or electromagnetic radiation. The color changing apparatus also includes a color changing element to be in contact with the solar cell and display different color features by absorbing the thermal energy or electromagnetic radiation provided by the solar cell assembly.
Abstract:
Example implementations relate to manufacturing multilayer coatings on substrates. In examples, a substrate with an electrically conducting surface may be provided. A first layer of a first material may be electrophoretically deposited on at least a portion of the electrically conducting surface of the substrate. A second layer of a second, electrically conducting material may be deposited on at least a portion of the first layer using physical vapor deposition. A third layer of a third material may be electrophoretically deposited on at least a portion of the second layer.
Abstract:
A vapor chamber to thermally contact a heat-producing component includes an opening. An airflow generator is at least partially mounted in the opening of the vapor chamber. A radial fin assembly extends at least partially around the airflow generator.
Abstract:
A substrate with a Micro-Arc Oxidation (MAO) layer or an electrophoretic deposition (ED) layer on a first side of the substrate and an electrically insulating layer on a second side of the substrate.
Abstract:
A casing for electrical devices is provided. The casing comprises an intermediate layer of less reactive light metal 120 sandwiched between a substrate layer of more reactive light metal 130 and a coat layer 110.