Abstract: The disclosed visible-light barrier may include a light-scattering layer that preferentially scatters visible light over infrared light. The light-scattering layer may include (1) a substantially transparent or translucent material and (2) at least one of TiO2 or ZnO particles dispersed within the substantially transparent or translucent material at a concentration of from approximately 0.02 wt % to approximately 2 wt %. Various other articles, devices, systems, and methods are also disclosed.

Abstract: Some embodiments relate to a method for performing a battery power-based control of an in-call experience based on shared battery power information. Some embodiments relate to a coating of a headset that has a first emissivity over an ultraviolet band and a near-infrared band, a second emissivity over a visible band, and a third emissivity over a mid-to-far infrared band. Some embodiments relate to an aggregate coating of a headset. A thin films is applied to a surface of the headset, and a paint coating is applied to a surface of the thin film to form the aggregate coating. Some embodiments relate to a method for a high-definition multimedia interface derived network timing for distributed audio-video synchronization. Some embodiments relate to a battery containment structure with a metal chassis having surfaces coated with electrical insulators configured to receive a battery, and a lid coupled to the metal chassis.

Abstract: A method for synthesizing parts using a die comprising: providing a three-dimensional model; converting the three-dimensional model into G-code; executing the G-code to deposit a metal die; determining whether one or more dimensions of the metal die are within predetermined tolerance levels; based on the determination, milling the die if the one or more dimensions are not within predetermined tolerance levels or depositing additional metal if the one or more dimensions are not within predetermined tolerance levels; and synthesizing a part using the metal die.

Abstract: In one embodiment, a method includes receiving light signals from an interaction device, where the captured light signals are processed into one or more images that include illumination patterns associated with one or more objects, accessing light signals only within a particular spectrum range, detecting one or more tracking patterns from the accessed light signals within the particular spectrum range, where each of the one or more tracking patterns indicates a particular portion of a first object, and where the first object is a part of the one or more objects, determining one or more characteristics of the first object based on the detected one or more tracking patterns, and sending one or more content items and instructions causing a projector to project the one or more content items on the first object to the interaction device.

Abstract: In one embodiment, a method includes determining an ornamental pattern to be transferred to a substrate. The ornamental pattern is specific to a particular user, and one or more parameters of the ornamental pattern are based at least in part on social-graph information of the user. The method also includes generating one or more instructions for controlling a laser-treatment system to transfer the ornamental pattern to the substrate; sending the instructions to the laser-treatment system to transfer the ornamental pattern to the substrate; and transferring the ornamental pattern to the substrate.

Abstract: A video messaging device includes a levitating unit and a base unit that each have one or more electromagnets and one or more magnets that are positioned such that when the device is in use and the electromagnet(s) are activated, the electromagnet(s) repel each other or the magnet(s), causing the levitating unit, which includes a camera, to levitate above the base unit. The levitating unit may include a top member and a bottom member, in which the top member, which includes the camera, is configured to rotate relative to the bottom member of the levitating unit to counteract rotation of the bottom member of the levitating unit about a vertical axis relative to the base unit. Alternatively, the levitating unit may include a camera configured to capture a 360-degree field of view and software may be used to eliminate the effect of rotation of the camera about the vertical axis.

Abstract: In one embodiment, a method includes determining an ornamental pattern to be transferred to a substrate. The ornamental pattern is specific to a particular user, and one or more parameters of the ornamental pattern are based at least in part on social-graph information of the user. The method also includes generating one or more instructions for controlling a laser-treatment system to transfer the ornamental pattern to the substrate; sending the instructions to the laser-treatment system to transfer the ornamental pattern to the substrate; and transferring the ornamental pattern to the substrate.

Abstract: An electronic device chassis is manufactured with a multi-step molding process. The process includes at least two separate injection molding steps. During the first step, an electronic component is placed in a first mold, and a first material is injected into the first mold to create a first chassis that surrounds part of the electronic component. In the second step, the first chassis is placed in a second mold, and a second material is injected into the second mold to create a second chassis that surrounds part of the first chassis. The second step can be performed at a higher pressure than the first step, which can produce a smoother exterior surface. Furthermore, the first chassis shields the electronic component from the higher pressure of the second step, which reduces the likelihood of damage to the electronic component.

Abstract: Embodiments relate to a type of aluminum alloy with grains visible to naked eyes. The aluminum alloy may have an average grain size of at least 100 ?m. The aluminum alloy can be produced by a process such as casting, extrusion, solutionizing, aging, and etching. The solutionizing causes recrystallization of aluminum and causes grains of the aluminum to grow. Compared with the solutionizing, the aging is performed at lower temperature but enhances strength of the aluminum alloy. The etching makes grain boundaries of the aluminum alloy more prominent, rendering the grains of the aluminum alloy visible to a naked human eye.

Abstract: A method of forming a part includes: inserting a blank into a die, the die comprising a mold mounted above a sealing counterpart; clamping the blank between the mold and the sealing counterpart; applying first pressure on the blank from the sealing counterpart so the blank is pressed upward to form a shaped part corresponding to the mold; applying a vacuum to the shaped part to hold it against the mold also after separating the mold and the sealing counterpart, the vacuum applied through at least one opening in the mold located in a corner of the mold that the blank does not reach when the first pressure is applied; and discontinuing the vacuum to allow the shaped part to be released from the mold.

Abstract: A method for synthesizing parts using a die comprising: providing a three-dimensional model; converting the three-dimensional model into G-code; executing the G-code to deposit a metal die; determining whether one or more dimensions of the metal die are within predetermined tolerance levels; based on the determination, milling the die if the one or more dimensions are not within predetermined tolerance levels or depositing additional metal if the one or more dimensions are not within predetermined tolerance levels; and synthesizing a part using the metal die.

Abstract: A method of forming a part includes: inserting a blank into a die, the die comprising a mold mounted above a sealing counterpart; clamping the blank between the mold and the sealing counterpart; applying first pressure on the blank from the sealing counterpart so the blank is pressed upward to form a shaped part corresponding to the mold; applying a vacuum to the shaped part to hold it against the mold also after separating the mold and the sealing counterpart, the vacuum applied through at least one opening in the mold located in a corner of the mold that the blank does not reach when the first pressure is applied; and discontinuing the vacuum to allow the shaped part to be released from the mold.