Abstract:
Handheld electronic devices are provided that contain wireless communications circuitry. The wireless communications circuitry may include antenna structures. An antenna may be located in an upper right corner of the handheld device as the handheld device is operated in a portrait mode. When the handheld device is rotated counterclockwise and operated in a landscape mode, the antenna is located in an unobstructed upper left corner of the device. The antenna may be formed from a strip of conductor. A proximal end of the strip of conductor may be connected to a transmission line. A distal end of the strip of conductor may be routed away from housing surfaces by bends formed in the strip. A printed circuit board in the handheld electronic device may have a hole. The distal end of the strip of conductor may be located adjacent to the hole.
Abstract:
A microphone assembly for an electronic device is described. The microphone assembly can include a microphone, a microphone boot and a printed circuit board. The microphone boot can be a composite microphone boot that is formed from multiple materials. A hardness of the each of the materials used in the microphone boot can be selected to improve sealing integrity and reduce shock transmission. In one embodiment, the composite microphone boot can be formed using a double-shot injection molding process.
Abstract:
An electrical contact area on a printed circuit board (“PCB”), that would otherwise be subject to abrasion and possibly also corrosion, can be protected by covering it with another, more durable contact structure that is bonded to the first-mentioned contact area using an anistropic conductive adhesive (“ACA”). The more durable contact structure may include a member of PCB material or the like with electrically connected electrical contacts on its upper and lower surfaces. At least the upper one of these contacts (which is exposed for the service that involves possible abrasion and/or corrosion) may be given high durability by plating it with hard gold. The lower of these contacts is adhered to the main PCB via the above-mentioned ACA.
Abstract:
Apparatus, systems and methods for shock mounting glass for an electronic device are disclosed. The glass for the electronic device can provide an outer surface for at least a portion of a housing for the electronic device. In one embodiment, the shock mounting can provide a compliant interface between the glass and the electronic device housing. In another embodiment, the shock mounting can provide a mechanically actuated retractable. For example, an outer glass member for an electronic device housing can be referred to as cover glass, which is often provided at a front surface of the electronic device housing.
Abstract:
The disclosed embodiments relate to a technique for inductively charging an electronic device. This technique involves winding an audio cable for the electronic device around a charging mechanism multiple times so that one or more conductors in the audio cable form an inductive receiving coil. Next, a magnetic field is created through the charging mechanism to induce a current in the inductive receiving coil. Finally, the induced current in the inductive receiving coil is used to charge a rechargeable battery for the electronic device.
Abstract:
This application is directed to a shock sensor mounted in an electronic device. The shock sensor includes both active and passive shock detection methods that allow a technician to determine whether the electronic device was subjected to a shock event that exceeded an impact threshold level. The shock sensor may include shock detection contacts that form an electrical circuit that remains open in the absence of a shock event that exceeds an impact threshold level. In response to a significant shock event, a movable component or substance of the shock sensor may move from a first position to a second position, thereby closing the electrical circuit formed by the shock detection contacts. The change in circuit may be detected and used to provide active indication of whether the electronic device has been subjected to a substantial shock event. In addition, the shock sensor may be observed to passively determine whether the electronic device has been subjected to a substantial shock event.
Abstract:
An automatic hold switch is disclosed. The automatic hold switch provides a means for automatically switching a hold feature on and off. When the hold feature is on, one or more input devices of a portable electronic device are disabled or prevented from providing input signals. When the hold feature is off, one or more input devices of a portable electronic device are enabled or allowed to provide input signals. Because the user no longer has to manually control the hold feature, the number of actions that need to be taken by the user is reduced. In one example, the automatic hold switch is embodied with light sensors that detect when the device is in a dark environment and when the device is in a light environment. A dark environment indicates to the portable electronic device that the user wishes not to input and therefore the hold feature is turned on. A lighted environment indicates to the portable electronic device that the user wishes to input and therefore the hold feature is turned off.
Abstract:
Methods and apparatus for provide physical buttons for use on a touch surface are disclosed. According to one aspect of the present invention, an apparatus includes a display arrangement and a first button attachment structure. The display arrangement includes a first surface which has a first touch-sensitive area. The first touch-sensitive area is capable of sensing touch. The first button attachment structure includes a first attachment area and a first button actuation area. The first attachment area is mounted on the first surface such that the first button actuation is aligned at least partially over the first touch-sensitive area. The first button actuation area is arranged to deform when a force is applied to the first button actuation area to engage the first touch-sensitive area.
Abstract:
This invention is directed to several mechanical features of an electronic device. The electronic device may include a spring for simultaneously grounding several components. The electronic device may include several interlocking fences for protecting electronic device components from RF radiation. The electronic device may include an antenna assembly that includes distinct components for functional and aesthetic purposes. The electronic device may include a window for permitting RF transmissions. The electronic device may include a metal frame for stiffening the electronic device. The electronic device may include a bezel used for aesthetic purposes and to support numerous electronic device components. The electronic device may include a flexible housing operative to elastically deform to assemble the electronic device. The electronic device may include an unsupported button.
Abstract:
Sensor data indicating a user's response to an avatar experience in which the user experiences a rendered avatar model is obtained. A perceptual quality metric value corresponding to the rendered avatar model is determined based on the sensor data and a determined relationship between the sensor data and the perceptual quality metric value. The avatar model is re-rendered for display based on the perceptual quality metric value.