Abstract: A method and apparatus for receiving an input by a user on an interactive touchscreen display based, electronic data and communication device, the input comprising a contact gesture, which further comprises touchscreen single or multiple simultaneous contacts. The contact gestures are classified as primary, secondary, tertiary, universal and non-universal contact gestures. The method further includes performing an operation or entering an operational mode based on the user input.

Abstract: Portable devices for synchronizing configuration states across a plurality of computing platforms, as well as providing interactivity between the platforms. In one aspect, a portable device comprises a processor and a memory. The memory associates a plurality of computing devices with a plurality of synchronization protocols. The portable device detects a presence of a first computing device on a network; connects to the first computing device on identifies the type of the first computing device; identifies a synchronization protocol associated with the type of the first computing device; sends a configuration state from the portable device to the first computing device according to the identified synchronization protocol, wherein the first computing device updates the configuration state according to user input on the computing device; receives an updated configuration state from the first computing device; and stores the updated configuration state on the portable device.

Abstract: A gesture-based user interface comprises a wearable portable device storing a gesture profile for each of a plurality of different applications on the wearable portable device to define different gestures for the different applications, wherein each of the gesture profiles includes at least one gesture and a predetermined function associated with the at least one gesture; and a profile web service, wherein the portable device is in communication with the profile web service and is configured to download from the profile web service to the wearable portable device a customizable gesture profile for a particular one of the applications, wherein the customized gesture profile modifies at least one of the different gestures, the customized gesture profile comprising personal preferences of the user regarding the modified gesture, including physical attributes of the user.

Abstract: A touchscreen-enabled wearable computer includes a multi-axis user interface provided by at least one software component executing on a processor. The multi-axis user interface comprises at least two user interface regions displayed on the touchscreen one at a time, each displaying a series of one or more application screens; and a combination of a vertical navigation axis and a horizontal navigation axis, wherein the vertical navigation axis enables a user to navigate between the multiple user interface regions in response to vertical swipe gestures made on the touchscreen, and the horizontal navigation axis enables the user to navigate the application screens of a currently displayed user interface region in response to horizontal swipe gestures across the touchscreen.

Abstract: Methods and systems for providing gesture-based power management for a wearable portable electronic device with display are described. An inertial sensor is calibrated to a reference orientation relative to gravity. Motion of the portable device is tracked with respect to the reference orientation, and the display is enabled when the device is within a viewable range, wherein the viewable range is a predefined rotational angle range in each of x, y, and z axis, to a user based upon a position of the device with respect to the reference orientation. Furthermore, the display is turned off if an object is detected within a predetermined distance of the display for a predetermined amount of time.

Abstract: In an example embodiment, a computing module includes a case, an optical display subsystem coupled to the case, a circuit element assembly, a power cell and an interface connector. The case includes a bottom portion and multiple lateral sidewalls. The case defines an enclosure. The circuit element assembly is positioned within the enclosure and is coupled to the optical display subsystem. The power cell is coupled to the circuit element assembly. The interface connector is defined in the case and includes multiple side openings, multiple bottom openings and multiple connector pads. The side openings are defined in at least one of the lateral sidewalls. The bottom openings are defined in the bottom portion of the case. The connector pads include multiple side pads coupled to the case and in communication with the side openings and multiple bottom pads coupled to the case and in communication with the bottom openings.

Abstract: A method for manufacturing an interchangeable movement includes assembling parts into a movement subassembly, such that the subassembly is a complete working mechanism; enclosing the subassembly in a body; integrating a glass with the body, wherein the body comprises a single shell with only an opening that receives the glass, sealing the glass and the single shell to enclose the body, thereby creating a water resistant modular movement; and wherein the modular movement is insertable into a case of a portable device having a receptacle for removably receiving the modular movement without tools and in a manner where the glass of the modular movement is visible through the case when the modular movement is inserted.

Abstract: Methods and systems for providing a gesture-based user interface for a wearable portable device are described. A gesture including a movement of the wearable portable device is received, and at least one character associated with the gesture is identified and displayed on the wearable portable device, thereby allowing entry of characters on the user interface of the wearable portable device using the gestures.

Abstract: Methods and systems for transferring an object from a sending device to a recipient comprises determining at least one catching device associated with the recipient for receiving the object; receiving on the sending device a user gesture representing a flick of a displayed object; transferring the object from the sending device directly to the catching device of the recipient when the catching device is in proximity of the sending device; and when the catching device is not in proximity of the sending device, transferring the object to a server for forwarding the object to the recipient.

Abstract: A self-configuring wearable electronic data and communication device comprising a self-contained module comprising means for self-configuring based on a user's activity and context an operational mode in a plurality of operational modes, wherein the self contained module further comprises intelligent situational awareness derived from at least one of pre-programmed criteria, a sensing ability, a user-specified lifestyle theme, a communication functionality, an accessory, and a user motion pattern. The self-contained module further comprises a display, a processor, a memory, and a battery, and is capable of configuring itself according to an accessory to which it is attached or connected.

Abstract: In an example embodiment, a computing module includes a case, an optical display subsystem coupled to the case, a circuit element assembly, a power cell and an interface connector. The case includes a bottom portion and multiple lateral sidewalls. The case defines an enclosure. The circuit element assembly is positioned within the enclosure and is coupled to the optical display subsystem. The power cell is coupled to the circuit element assembly. The interface connector is defined in the case and includes multiple side openings, multiple bottom openings and multiple connector pads. The side openings are defined in at least one of the lateral sidewalls. The bottom openings are defined in the bottom portion of the case. The connector pads include multiple side pads coupled to the case and in communication with the side openings and multiple bottom pads coupled to the case and in communication with the bottom openings.

Abstract: A method for manufacturing an interchangeable movement includes assembling parts into a movement subassembly, such that the subassembly is a complete working mechanism; enclosing the subassembly in a body; integrating a glass with the body, wherein the body comprises a single shell with only an opening that receives the glass, sealing the glass and the single shell to enclose the body, thereby creating a water resistant modular movement; and wherein the modular movement is insertable into a case of a portable device having a receptacle for removably receiving the modular movement without tools and in a manner where the glass of the modular movement is visible through the case when the modular movement is inserted.

Abstract: A portable device comprising a modular movement is disclosed. The modular movement has a body housing a plurality of layers that include a top layer of glass, and a movement subassembly for displaying information, including time, wherein the modular movement includes all parts necessary for power and operation, including the displaying of the information, such that the modular movement is fully functional standalone. The portable device further includes a case, which includes a receptacle for removably receiving the modular movement without need for a tool, such that the modular movement is user-interchangeable with another case of another portable device.