Abstract: A system and a method are disclosed for device having a first and a second operating system communicatively coupled with each other. The first operating system is configured to manage a state of the mobile computing device, resources operable with the mobile computing device, and data management for the mobile computing device. The second operating system is a desktop-type operating system. In one embodiment, in response to coupling a docking station, the mobile computing device is configured to provide the second operating system access to peripherals. In addition, another embodiment the first operating system is configured to include an interface to access and execute applications executable through the second operating system.

Abstract: A system and a method are disclosed for device having a first and a second operating system communicatively coupled with each other. The first operating system is configured to manage a state of the mobile computing device, resources operable with the mobile computing device, and data management for the mobile computing device. The second operating system is a desktop-type operating system. In one embodiment, in response to coupling a docking station, the mobile computing device is configured to provide the second operating system access to peripherals. In addition, another embodiment the first operating system is configured to include an interface to access and execute applications executable through the second operating system.

Abstract: A mobile computing device comprises a housing, a telephony circuit and a relative positioning circuit. The housing is configured to be held in a hand during use. The telephony circuit is coupled to the housing and is configured to communicate wireless telephony signals. The relative positioning circuit is coupled to the housing and is configured to determine at least one of a distance and a bearing to an object based on wireless signals received from the object.

Abstract: A computing device including a housing, an input region, and a protrusion mechanism. The input region is provided with at least an exterior surface of the housing. The protrusion mechanism is operatively positioned within the housing to dynamically form one or more protrusions that extend from a corresponding one or more designated areas on the exterior surface of the input region. One or more detectors are structured to detect an occurrence of a condition or criteria to trigger the protrusion mechanism in dynamically generating the one or more protrusions.

Abstract: A network element is disclosed that provides redundancy within the network element that, in turn, provides fault tolerance for the failure of one or more processing units therein. In one embodiment, a network element according to the present invention includes N interface units, M processing units and a number of links. The value of N is an integer greater than 1. Each interface unit is coupled to L+1 processing units. The value of L is an integer greater than 0 and less than N, and the value of M equals N plus L. Each of the links is configured to couple one of the interface units and one of the processing units. Each of the interface units is configured to select one of the links that couples the interface unit and ones of the processing units, and the links include a primary link and a standby link.