Abstract:
A VR system for vehicles that may implement methods that address problems with vehicles in motion that may result in motion sickness for passengers. The VR system may provide augmented or virtual views that match visual cues with the physical motions that a passenger experiences. The VR system may project virtual content so that the content appears as a distant object stabilized or fixed in the external environment. The VR system may aid in productivity, as passengers may perform work while riding in the vehicle without experiencing motion sickness. In addition, the VR system may provide enhanced virtual experiences to passengers in moving vehicles by matching accelerations and motions of the vehicle to accelerations and motions in the virtual experiences.
Abstract:
An enclosure having an indicium (e.g., logo) and a method for securing an indicium to an enclosure is disclosed. The enclosure includes an aperture extending through an interior portion and an exterior portion of the enclosure. The aperture may include concentric portions. For example, the aperture may include a first opening formed on an interior portion and a second opening smaller than the first opening formed on the exterior portion. The indicium may include a flange member such that the indicium may extend through the first opening but not the second opening. Also, in some embodiments, a plate is adhesively secured to the indicium and the enclosure; however, the indicium is not directly adhesively secured to the enclosure. This may prevent adhesives from protruding from an interface region between the indicium and the enclosure.
Abstract:
Input members with capacitive sensors are disclosed. In one embodiment of an electronic button, a first circuit is configured to capture a fingerprint of a user's finger placed on the electronic button, and a second circuit is configured to sense a force applied to the electronic button by the user's finger. The first circuit is further configured to provide temperature information to compensate for temperature sensitivities of the second circuit, and the second circuit is further configured to provide force information to the first circuit.
Abstract:
A method and system for securing a flexible circuit to a mounting structure is disclosed. The system can include a surface-mount device, flexible circuit, stiffener, and bracket. The stiffener is used as an intermediate coupling device between the flexible circuit and bracket. The flexible circuit is coupled to the stiffener with a heat-activated adhesive. Next, the surface-mount device is mounted to the flexible circuit with surface-mounting techniques. A peripheral area of the stiffener is then welded to the bracket. The bracket in turn can be fastened to the enclosure of an electronic device.
Abstract:
An electronic device may be provided with a display mounted in a display frame assembly that includes a plastic structure overmolded over a display frame. A housing midplate may be used to provide the electronic device with mechanical rigidity and strength, and may also be used as a sensor plane. For sensor plane applications, accurate placement and assembly of the midplate in the housing can be critical. The housing midplate may be accurately assembled to the display frame using connections formed using welded tabs, welded and screwed nuts, overmolded plastic heat stake structures, or overmolded plastic structures and adhesive. Rework and repair operations may be performed by disconnecting connections such as welds using cutting equipment, by using solvent to dissolve adhesive, by unscrewing welded nuts, or by removing heat stake structures. Following rework or repair, a fresh midplate and associated components may be attached to the display frame.
Abstract:
This application relates to efficiently distributing heat within a portable computing device. More specifically an apparatus for conducting heat between internal components of the portable computing device is disclosed. The apparatus, referred to as a thermal gap pad, is configured to bridge a variably sized gap between internal components. This is accomplished by wrapping a resilient core in a layer of highly thermally conductive material. The resilient core allows a shape of the thermal gap pad to vary in accordance with a size of the gap. A resilience of the thermal gap pad can be adjusted to account for an amount of variance in the gap. In some embodiments, an electrically conductive layer can be added to facilitate the passage of electrical current through the thermal gap pad.
Abstract:
Electronic devices may be provided that contain conductive paths. A conductive path may be formed from an elongated metal member that extends across a dielectric gap in an antenna. The antenna may be formed from conductive structures that form an antenna ground and conductive structures that are part of a peripheral conductive housing member in the electronic device. The gap may separate the peripheral conductive housing member from the conductive structures. A conductive path may also be formed using one or more springs. A spring may be welded to a conductive member and may have prongs that press against an additional conductive member when the spring is compressed. The prongs may have narrowed tips, curved shapes, and burrs that help form a satisfactory electrical contact between the spring prongs and the additional conductive member.
Abstract:
An electronic device may have a printed circuit to which electrical components are mounted. The electrical components may include a thermal sensor and a pressure sensor. A through hole in the printed circuit may receive the shaft of a standoff The standoff may be soldered to plated metal on the sides of the through hole. A screw or other fastener may secure the printed circuit to a housing for the electronic device. A ring-shaped metal member may be soldered to the printed circuit. The ring-shaped metal member may form a bumper that surrounds the screw or other fastener and the thermal sensor. The pressure sensor may have a port through which ambient pressure measurements are made. A dust protection cover such as a fabric or other porous layer may cover the port.
Abstract:
Electronic devices may be provided that contain conductive paths. A conductive path may be formed from an elongated metal member that extends across a dielectric gap in an antenna. The antenna may be formed from conductive structures that form an antenna ground and conductive structures that are part of a peripheral conductive housing member in the electronic device. The gap may separate the peripheral conductive housing member from the conductive structures. A conductive path may also be formed using one or more springs. A spring may be welded to a conductive member and may have prongs that press against an additional conductive member when the spring is compressed. The prongs may have narrowed tips, curved shapes, and burrs that help form a satisfactory electrical contact between the spring prongs and the additional conductive member.
Abstract:
An electronic device has circuitry mounted within an electronic device housing. The electronic device housing may have housing walls such as metal sidewalls. Openings are formed in an electronic device housing wall to accommodate buttons. A button may have a switch with a switch housing mounted to the housing wall. A movable button member that extends from the switch housing may protrude through a housing opening. Switch terminals are coupled to signal lines on structures such as flexible printed circuits. The switch terminals may be formed from portions of elongated switch leads supported by support structure that are mounted to the housing wall or may be formed on an inner surface of the switch housing. Support structures may be molded into engagement with features on a housing wall or may be mounted to a housing wall using a fastener such as a screw.