Abstract: Methods and devices for sensor-based user interface control are disclosed. In one embodiment, a method for determining a characteristic of handedness includes sensing a rotation of a mobile device, determining a direction of rotation based at least in part on accessing information indicative of a first position state prior to sensing the rotation and accessing information indicative of a second position state subsequent to sensing the rotation, and determining the characteristic of handedness based at least in part on the direction of rotation, the first position state, and the second position state. The characteristic of handedness includes one of a left handedness or right handedness. The method further includes determining a user interface mode based on the characteristic of handedness determined, and controlling the mobile device in accordance with the user interface mode determined.

Abstract: Methods and devices for sensor-based user interface control are disclosed. In one embodiment, a method for determining a characteristic of handedness includes sensing a rotation of a mobile device, determining a direction of rotation based at least in part on accessing information indicative of a first position state prior to sensing the rotation and accessing information indicative of a second position state subsequent to sensing the rotation, and determining the characteristic of handedness based at least in part on the direction of rotation, the first position state, and the second position state. The characteristic of handedness includes one of a left handedness or right handedness. The method further includes determining a user interface mode based on the characteristic of handedness determined, and controlling the mobile device in accordance with the user interface mode determined.

Abstract: Methods and devices for sensor-based user interface control are disclosed. In one embodiment, a method for determining a characteristic of handedness includes sensing a rotation of a mobile device, determining a direction of rotation based at least in part on accessing information indicative of a first position state prior to sensing the rotation and accessing information indicative of a second position state subsequent to sensing the rotation, and determining the characteristic of handedness based at least in part on the direction of rotation, the first position state, and the second position state. The characteristic of handedness includes one of a left handedness or right handedness. The method further includes determining a user interface mode based on the determined characteristic of handedness, and controlling the mobile device in accordance with the determined user interface mode.

Abstract: Methods and devices for sensor-based user interface control are disclosed. In one embodiment, a method for determining a characteristic of handedness includes sensing a rotation of a mobile device, determining a direction of rotation based at least in part on accessing information indicative of a first position state prior to sensing the rotation and accessing information indicative of a second position state subsequent to sensing the rotation, and determining the characteristic of handedness based at least in part on the direction of rotation, the first position state, and the second position state. The characteristic of handedness includes one of a left handedness or right handedness. The method further includes determining a user interface mode based on the determined characteristic of handedness, and controlling the mobile device in accordance with the determined user interface mode.

Abstract: A smart card connector with a card slot 10 for receiving a smart card employs an end position switch comprising a single resilient contact 14 engaging a stationary post 16 to detect full insertion of a smart card. The resilient contact 14 and the post 16 are mounted in the rear of a housing base 4 which includes resilient data contacts 12 mounted in contact cavities 38 located at the front and rear of the housing base. Contact arms 88 on the data contacts are preloaded so that each contact engages the smart card with a prescribed force and extends into the housing slot for a prescribed distance. The contact arms 88 are located in channels 34 in the housing base and lateral protrusions 36 extending from separator ribs 32 defining the contact channels 34 engage the contacts to preload them.

Abstract: A PCMCIA receptacle connector 2 for use with a PCMCIA card includes a plurality of receptacle contact terminals 34 positioned in two rows of cavities 18 in a housing 12. Each of the cavities has two cavity sections 20, 28. Mating pin terminal are received through the first cavity section 20 and the contact terminals are inserted from the rear face 16 of the housing 12 into the second housing cavity 28, which has smooth interior walls 32. Each stamped and formed contact terminal 34 has a forward mating section 36, a central contact support section 48, and a rear conductor contact section 42 including surface mount solder tails 44. The contact support section 48 includes resilient spring members 50 in the form of edge stamped cantilever spring members that engage the interior smooth walls 32 of the second cavity section 28 to retain the contacts in the housing 12 and to properly position the mating contact section 36 and the solder tails 44.

Abstract: A connector 60 for disk-shaped batteries 40 including a housing 62 with a battery receiving cavity 74, opposed endwalls 66 having spring arms 68 that extend outwardly from the cavity 74 for retaining the battery 40 in the housing 62, a surface mountable positive terminal 77, and a surface mountable negative terminal 79. The positive and negative terminals 77,79, are disposed in respective terminal receiving passageways 72 of the housing with spring arm contact sections 80 opposing each other along the housing sidewalls and with surface mountable connecting sections 84 of both the terminals 77,79, extending outwardly from respective the housing sidewalls 64 at the bottoms thereof.