Abstract: At least one inductive charging coil is encapsulated within one or more walls of the enclosure of an electronic device. The inductive charging coil or coils may be insert molded into the enclosure of the electronic device. The electronic device can be a transmitter device or a receiver device in an inductive charging system.

Abstract: Circuitry such as electrical components and wires and traces on flexible printed circuits can be embedded within injection-molded plastic structures. The electrical components can include integrated circuits, connectors, and system-in-package circuit modules. The system-in-package circuit modules may include components mounted on a substrate and covered with plastic. The connectors may include a connector for mating with a corresponding connector on an electronic device or a battery. The injection-molded plastic structures may form a housing. The housing may form part of an electronic device, an external case that receives an electronic device, or other structures. A near-field communications antenna may be embedded within a plastic housing. Signal wires and plastic fibers may be interlaced to form a mesh that is embedded in the plastic housing or other injection molded plastic structure.

Abstract: A docking station configured to mate to an electronic device enables methods of interacting with the electronic device by impacting (e.g., knocking) on a table on which the device and/or the docking station are disposed and by means of contactless gestures. The electronic device may remain in a powered off state while the docking station continuously monitors for user input. The docking station may have a processor that is capable of detecting a user's impact and contactless gesture inputs.

Abstract: An electrical connector system for communication or power transfer between a two connectors in which the first of the two connectors may be inserted into a receptacle of a second connector in order to align a coil within the first connector with a coil within the second connector to promote inductive communication between the first and second connector. In many embodiments, at least one of the two coils may also be used as a spring, providing a mechanical force. The mechanical force may assist in joining or separating the connectors. For example, the spring coil may be used in conjunction with a push-push mechanism to retain the first connector within the second connector and to eject the first connector when the connectors should be separated.