Abstract: The tactile feedback actuator generally has a stopper, a damper, a hammer path between the stopper and the damper, a coil element fixedly mounted relative to the hammer path, and a magnetic hammer guidingly mounted for movement along the hammer path. The magnetic hammer has two opposite ends. Each end of the magnetic hammer has a corresponding permanent magnet. The two permanent magnets have opposing polarities. The magnetic hammer is electromagnetically engageable by a magnetic field emitted upon activation of the coil element so as to be longitudinally slid along the hammer path in any one of two opposite directions depending on a polarity of activation of the coil element. The stopper has a striking surface adapted for stopping the magnetic hammer, and the damper is adapted for decelerating the magnetic hammer as the magnetic hammer is longitudinally slid towards the damper.

Abstract: There is described a tactile feedback actuator generally having a hammer path having a length extending between two opposite ends, a coil element fixedly mounted relative to the hammer path, a magnetic hammer guidingly mounted for movement along the hammer path. The magnetic hammer is electromagnetically engageable by a magnetic field emitted upon activation of the coil element so as to be longitudinally slid along the hammer path in any one of two opposite directions depending on a polarity of activation of the coil element. The tactile feedback actuator has at least one electropermanent magnet at at least one of the opposite ends of the hammer path, the electropermanent magnet having a magnetization direction aligned with the length of the hammer path, and at least one state toggling device configured for toggling a state of the electropermanent magnet between a magnetized state and an unmagnetized state.

Abstract: There is described a method of operating a tactile feedback actuator with a controller. The tactile feedback actuator has a magnetic hammer guidingly mounted for movement along a hammer path, a damper at a first end of the hammer path, a stopper at a second end of the hammer path, and a coil element. The method generally has receiving data indicative of coil activation instructions for moving the magnetic hammer to generate a sequence of haptic effects that simulate a real world event, the coil activation instructions including: a first instruction for generating a first haptic effect in which the magnetic hammer is accelerated towards the stopper, and a second instruction for generating a second haptic effect in which the magnetic hammer is accelerated towards the damper; and activating the coil element upon processing the data indicative of the coil activation instructions to generate the sequence of haptic effects.

Abstract: In an embodiment, a mobile electronic device comprises: a transceiver; at least one magnetic connector; connectedness detection circuitry operable to dynamically detect a connection event at each of the at least one magnetic connector; and a processor, coupled to the connectedness detection circuitry, operable to: automatically establish a communications link, via the transceiver, with an other electronic device upon detection, by the connectedness detection circuitry, of the connection event at a predetermined set of the at least one magnetic connector; send, from the mobile electronic device to a remote server, a request for access to a hardware resource of the other electronic device; and based on a positive response from the remote server, access, via the wireless communications link, a hardware resource of the other electronic device.

Abstract: A connector for an electronic device has a housing with a peripheral surface and guides defining first and second paths. The second path extends from a first location proximate the peripheral surface to a second location farther from the peripheral surface and closer to the first path. A magnetic contact assembly in the housing is magnetically movable along the first path between a first position for joining the connector in data communication with an adjacent connector, and a second position withdrawn from the peripheral surface. A magnet in the housing and is movable by attraction to an adjacent connector along the second path, to magnetically hold the connector to an adjacent connector. The guides are configured so that the magnet and the magnetic contact assembly magnetically bias one another inwardly along the first and second paths.

Abstract: A system comprises: a first electronic device; a mobile electronic device operable to detect a proximity of the first electronic device; a data store containing an inventory of electronic devices associated with a user including the first electronic device and a second electronic device; and a processor in communication with the data store. The processor is operable to: receive an indication, from the mobile electronic device, of the proximity of the mobile electronic device with the first electronic device; responsive to the receiving, process the inventory to identify a hybrid electronic device constructible, from the first electronic device, the second electronic device, and the mobile electronic device, by magnetically inter-attaching at least two of the devices using magnetic connectors in the respective devices; and send a user notification indicative of the hybrid electronic device. The user notification may be sent for display at the mobile electronic device.

Abstract: There is provided an adapter for adapting an electronic device to a modular electronic device system. The adapter generally has a housing having two lateral edges, a cavity between the lateral edges and being adapted to receive the electronic device, each of the two lateral edges of the housing having at least one magnetic coupler electrically connectable with at least one magnetic coupler of the modular electronic device system by magnetically engaging the at least one magnetic coupler of the adapter with the at least one magnetic coupler of the modular electronic device system, and an internal electric conductor network electrically connected to the magnetic couplers of the adapter and electrically connected to an internal connector which is electrically connectable to the electronic device when received in the cavity of the housing.

Abstract: A system comprises: a first electronic device; a mobile electronic device operable to detect a proximity of the first electronic device; a data store containing an inventory of electronic devices associated with a user including the first electronic device and a second electronic device; and a processor in communication with the data store. The processor is operable to: receive an indication, from the mobile electronic device, of the proximity of the mobile electronic device with the first electronic device; responsive to the receiving, process the inventory to identify a hybrid electronic device constructible, from the first electronic device, the second electronic device, and the mobile electronic device, by magnetically inter-attaching at least two of the devices using magnetic connectors in the respective devices; and send a user notification indicative of the hybrid electronic device. The user notification may be sent for display at the mobile electronic device.

Abstract: An orientation sensor includes a sensor housing, a sensor actuator, and a motion sensor. The sensor housing has a cavity disposed therein. The sensor actuator is disposed within the housing and is configured for movement within the cavity in a direction that is influenced by a magnetic field between the sensor actuator and an electronic device external to the orientation sensor. The motion sensor is disposed within the housing and configured to detect the direction of movement of the sensor actuator within the cavity.

Abstract: There is disclosed magnetic connectors and electronic devices including such connectors. A connector may include a magnet rotatable about at least one axis of the magnet; wherein the magnet rotates to magnetically engage a magnet of another connector to form an electrical connection between the two magnets. A connector may also include a cylindrical magnet to magnetically engage a magnet of another connector; and a sleeve wrapped around at least part of the magnet, the sleeve comprising a contact for forming an electrical connection with a contact on the other connector. A connector may be adapted for selective connection with other connectors. A connector may be adapted such that a moveable magnet may move between an engaged position proximate a contacting surface of the connector and a disengaged position recessed from a contacting surface, wherein the moveable magnet is biased to the disengaged position.

Abstract: A method of configuring an electronic device capable of acting as a host or slave device to other electronic devices, and a corresponding electronic device are disclosed. The method includes determining a metric representative of the electronic device's readiness to assume the host mode among at least two electronic devices; initiating a timer that times an amount of time inversely proportional to the device's readiness to assume the host mode among the at least two electronic devices; prior to expiry of the amount of time, determining if another of the electronic devices has assumed its host mode, and in response thereto assuming the slave mode; and upon expiry of the amount of time, assuming the host mode.

Abstract: There is disclosed magnetic connectors and electronic devices including such connectors. A connector may include a magnet rotatable about at least one axis of the magnet; wherein the magnet rotates to magnetically engage a magnet of another connector to form an electrical connection between the two magnets. A connector may also include a cylindrical magnet to magnetically engage a magnet of another connector; and a sleeve wrapped around at least part of the magnet, the sleeve comprising a contact for forming an electrical connection with a contact on the other connector. A connector may be adapted for selective connection with other connectors. A connector may be adapted such that a moveable magnet may move between an engaged position proximate a contacting surface of the connector and a disengaged position recessed from a contacting surface, wherein the moveable magnet is biased to the disengaged position.

Abstract: There is described a method of operating an electronic device having a housing and a user interface mounted to the housing. The user interface includes force sensor(s) on an edge of the housing and a display screen. The method includes displaying, on the display screen, a graphical element having an edge portion; receiving an input from the force sensor(s) on the edge, the input being a measured value of a force applied on the force sensor(s); and in response to said input received, modifying the graphical element on the display screen in a manner to move, to a destination position, the edge portion depending on a direction of movement of the edge portion, the destination position of the edge portion depending on an amplitude of the measured value.

Abstract: A device may comprise a housing having a straight rounded edge. A self-aligning connector at the straight rounded edge may comprise a cylindrical magnet oriented with its axis substantially parallel to the straight rounded edge. The cylindrical magnet is for magnetically engaging a magnet of another connector so as to align and connect the self-aligning connector with the other connector. The self-aligning connector may comprise mounting structure configured to mount the cylindrical magnet at the straight rounded edge of the housing with the axis of the cylindrical magnet being substantially parallel to the straight rounded edge of the housing. The device may include two such self-aligning connectors, spaced apart from one another, along a single straight rounded edge of the device housing.

Abstract: A device may comprise a housing having a straight rounded edge. A self-aligning connector at the straight rounded edge may comprise a cylindrical magnet oriented with its axis substantially parallel to the straight rounded edge. The cylindrical magnet is for magnetically engaging a magnet of another connector so as to align and connect the self-aligning connector with the other connector. The self-aligning connector may comprise mounting structure configured to mount the cylindrical magnet at the straight rounded edge of the housing with the axis of the cylindrical magnet being substantially parallel to the straight rounded edge of the housing. The device may include two such self-aligning connectors, spaced apart from one another, along a single straight rounded edge of the device housing.

Abstract: A mobile electronic device may comprise a wireless transceiver and at least one magnetic connector. The mobile electronic device may further comprise connectedness detection circuitry operable to dynamically detect a connection event at each of the at least one magnetic connector. A processor, coupled to the connectedness detection circuitry, may be operable to: automatically establish a wireless communications link, via the wireless transceiver, with another electronic device upon detection, by the connectedness detection circuitry, of the connection event at a predetermined set of the at least one magnetic connector evidencing a magnetic attachment of the mobile electronic device to the other electronic device; and access, via the wireless communications link, a hardware resource of the other electronic device. The at least one magnetic connector may be a plurality of magnetic connectors. The predetermined set of magnetic connectors may be all of the magnetic connectors or a subset thereof.

Abstract: A powered wall mount includes a cover plate and a mount head in electrical communication with one another. The cover plate is configured to cover an electrical outlet in a wall without blocking any sockets. The cover plate includes a pair of resilient contacts that resiliently contact respective terminals of a pair of terminals of the electrical outlet upon mating of the cover plate with the electrical outlet. The mount head, which may be attached to the wall near the electrical outlet, includes a device mounting surface, at least one connector configured to hold a portable electronic device at the device mounting surface, and a power transfer mechanism configured to transfer power to the device when held at the device mounting surface. The connector(s) may be magnetic. Conveniently, the device may be attached to the mount head, used indefinitely while drawing power as needed, and then detached.

Abstract: There is described a method of operating an electronic device having a housing and a user interface mounted to the housing. The user interface includes force sensor(s) on an edge of the housing and a display screen. The method includes displaying, on the display screen, a graphical element having an edge portion; receiving an input from the force sensor(s) on the edge, the input being a measured value of a force applied on the force sensor(s); and in response to said input received, modifying the graphical element on the display screen in a manner to move, to a destination position, the edge portion depending on a direction of movement of the edge portion, the destination position of the edge portion depending on an amplitude of the measured value.

Abstract: An electronic device includes a plurality of magnetic guide rails proximate its surface. The electronic device may be interconnected to a second electronic device in a configuration in which the second electronic device is located at a pre-defined position relative to the electronic device. The plurality of magnetic guide rails in the electronic device interact with at least one magnetic element on the second electronic device to magnetically guide relative movement of the two electronic devices. As one electronic device is urged along a surface of the other toward the pre-defined position, the electronic devices are positioned in the configuration of the pre-defined position.

Abstract: A device may comprise a housing having a straight rounded edge. A self-aligning connector at the straight rounded edge may comprise a cylindrical magnet oriented with its axis substantially parallel to the straight rounded edge. The cylindrical magnet is for magnetically engaging a magnet of another connector so as to align and connect the self-aligning connector with the other connector. The self-aligning connector may comprise mounting structure configured to mount the cylindrical magnet at the straight rounded edge of the housing with the axis of the cylindrical magnet being substantially parallel to the straight rounded edge of the housing. The device may include two such self-aligning connectors, spaced apart from one another, along a single straight rounded edge of the device housing.