Abstract:
A method and apparatus for a computer-implemented adaptive automation module comprising an event recorder to store one or more events for a predetermined period, and a timeline pattern generator logic to create a timeline for the predetermined period. The module further comprising marker creator logic to generate a marker to abstract the timeline data from the event data for controlling a device.
Abstract:
A method to display a series of media objects containing one or more media objects is described. The method includes receiving a request to edit a media object, creating a new copy of the media object in response to the request, and applying the edit to the new copy of the media object. The method further includes for providing images associated with each of a series of edits applied to a media object.
Abstract:
A methodology for dynamic (i.e., run-time) uploading and execution of applications and drivers between devices (e.g., between “client” device and one or more (host) devices), in a fully automated manner, is described. The device which is to be hosted (e.g., the “client” device) initially probes its environment to determine which device or devices it is attached to (e.g., the “host” device(s)). Once it has correctly discerned the relevant host or target device(s), the client device includes the capability of immediately sending out (i.e., uploading) a particular driver or application (i.e., object or file of interest) for placement, and ultimately execution, at the host device. Once the particular object or file of interest has been “injected” into the host device and is executing, the client device may simply revert to a “listening mode” in which it waits to be told what to do (i.e., receive commands from the application or driver which is now executing at the host device). This approach is particularly well-suited for devices which serve as “add-on” devices (clients) to other devices (hosts) that are “smarter,” for instance, including more processing capability and/or memory. In this scenario, the client device enters into a dialog with a device with more resources for the purpose of harnessing the resources of the host device for operating the client or add-on device. The client device is, using this approach, able to start running (i.e., driver-directed operation) immediately upon attachment to a host device that can be identified.
Abstract:
A versatile adaptor device to connect together devices having built-in connectors or receptacles for interfacing with other devices is described. Many devices include built-in connectors, which usually consist of proprietary fittings and pinouts/lineouts. The adaptor device connects with the built-in connectors of two devices to enable communication between the two devices. Each end of the adaptor fits physically and electrically with the connectors to join both devices. The body of the adaptor is a double-ended molded plastic part that includes geometry to mate with a particular connector slot at one end and another specific connector slot at the opposing end. The adaptor device may be adapted to connect various different types of devices. For example, the adaptor accommodates connection to an array of brands and models of cellular phone devices at one end of the adaptor and an array of digital cameras at the other end of the adaptor. The manufacture of the adaptors is leveraged because the adaptor employs a minimum common denominator set of circuit lines available to interact with multiple different connectors.
Abstract:
An in-camera two-stage compression implementation is described that reduces the latency between snapshots to a fraction of that otherwise required by other systems that either process complete compression following each snapshot or that incorporate heavy, bulky, and expensive RAM hardware capable of maintaining several raw luminosity records (unprocessed file containing a digital image). In the 1st stage compression the raw luminosity record is quickly, yet partially, compressed to available RAM buffer space to allow a user to expeditiously capture a succeeding image. When the higher-priority processes, the user shooting pictures, and stage one compression subside, a 2nd stage compression, which is slower but more effective, decompresses the earlier partially-compressed images, and re-compresses them for saving in flash memory until they are distributed to a remote platform to be finally converted to the JPEG2000 format.
Abstract:
A method and apparatus for handling misdirected responses in a multi-media messaging environment is described. The system includes a third party originator that sends data to a recipient bypassing an MMSC for message notification and retrieval. The present system handles the responses sent by the recipient to the MMSC, to prevent error messages and possible delivery failures.
Abstract:
A media spooler system is described that provides a methodology for efficient transmission of media content from client devices, such transmission of digital images from wireless digital cameras. The media spooler or gateway addresses wireless transmission problems by acting as a protocol gateway between a thin-client device and a target host or server (supported by a server infrastructure). More particularly, the media spooler of the present invention acts as a protocol gateway between thin-client devices (e.g., “mobile visual communicator” in the form of a wireless digital camera) and server infrastructure (e.g., server-based computer systems or “Web servers” of a photographic service provider). This task entails accepting multiple, simultaneous connections from various client devices (e.g., wireless digital cameras), extracting information from those devices (e.g., digital photographs or other media content), and then uploading that information to the target server infrastructure. In basic operation, the media spooler queries each client device for the information (e.g., media, such as pictures) the client device thinks should uploaded, and then the media spooler queries the server infrastructure for the subset of pictures that have not been already uploaded. This improved coordination or synchronization of information between a device and target host allows for efficient recovery of dropped cellular data calls by essentially allowing the media spooler to “pick up where it left off.”
Abstract:
An enhanced “Camel-back” or “Companion” Digital Organizer (CDO) is described that is designed to interface to a cellular telephone. The CDO is preferably implemented as an add-on component which can be easily attached and detached from a phone by a user and, once in place, can dramatically enhance the phone's functionality by converting the phone into a “smart” phone. Exemplary features of the CDO include an ability for the user to initiate a voice call on the phone from the CDO. Preferably, the user may initiate the voice call from any of multiple modules of the user's data, and not merely from a phone-book module. The CDO is also capable of stand-alone use as a personal organizer device, apart from the phone. The CDO preferably includes a docking unit that removably mates to particular model(s) of phones, and a main unit that removably docks to the docking unit. The docking unit preferably includes substantially all phone-model-specific geometries and features to thereby allow the main unit to be configured for stand-alone use as an organizer with few compromises made to accommodate specific model(s) of phones. Furthermore, the same main unit is suitable for use with multiple docking units that are respectively adapted for different models of phones. Note that some phones have an “automatic hang-up” feature in which the phone unilaterally hangs up a phone call that was initiated by an external device (e.g., a modem or the CDO) upon detaching of the device by the user. For such phones, the docking unit remains attached to the phone during a call initiated by the user via the CDO, even if the user should detach the main unit for stand-alone use as an organizer. The still-attached docking unit contains sufficient circuitry and physical features to prevent automatic hang-up. The main unit includes many features such as a choice of both left- and right-handed modes and the capability for handling electronic mail, remote browsing, remote synchronization, caller identification, and the like.
Abstract:
An enhanced “Camel-back” or “Companion” Digital Organizer (CDO) is described that is designed to interface to a cellular telephone. The CDO is preferably implemented as an add-on component which can be easily attached and detached from a phone by a user and, once in place, can dramatically enhance the phone's functionality by converting the phone into a “smart” phone. Exemplary features of the CDO include an ability for the user to initiate a voice call on the phone from the CDO. Preferably, the user may initiate the voice call from any of multiple modules of the user's data, and not merely from a phone-book module. The CDO is also capable of stand-alone use as a personal organizer device, apart from the phone. The CDO preferably includes a docking unit that removably mates to particular model(s) of phones, and a main unit that removably docks to the docking unit. The docking unit preferably includes substantially all phone-model-specific geometries and features to thereby allow the main unit to be configured for stand-alone use as an organizer with few compromises made to accommodate specific model(s) of phones. Furthermore, the same main unit is suitable for use with multiple docking units that are respectively adapted for different models of phones. Note that some phones have an “automatic hang-up” feature in which the phone unilaterally hangs up a phone call that was initiated by an external device (e.g., a modem or the CDO) upon detaching of the device by the user. For such phones, the docking unit remains attached to the phone during a call initiated by the user via the CDO, even if the user should detach the main unit for stand-alone use as an organizer. The still-attached docking unit contains sufficient circuitry and physical features to prevent automatic hang-up. The main unit includes many features such as a choice of both left- and right-handed modes and the capability for handling electronic mail, remote browsing, remote synchronization, caller identification, and the like.
Abstract:
A computer system having a “browse” connected to an on-line service (e.g., Internet) is providing with a “Quick” marks utility, which lets a user easily organize programs, Web sites, and other items in tabs, and start them with a single click. The utility provides an interface having a manageable lists of marks organized by tabs, folders, and visual icons. Buttons on the Quick marks utility let the user start programs or jump to a Web site. When the user clicks an Internet Quick marks button, the system launches the user's Web browser and connects the user to that Web site. After the browser is launched, the user can continue to click different Quick marks buttons to connect quickly to desired sites. The utility includes an abstraction layer which operates in conjunction with various drivers. The abstraction layer provides an interface allowing applications to communicate with the system and request Quick mark services. The workhorse routines, on the other hand, are encapsulated within the various drivers. The particulars of a Quick mark item are handled by a Quick mark (QMX) driver, which provides an extension—driver-specific API—for handling the item. With this architecture, the particular details of handling a mark (i.e., whether it is a URL, whether it is a pointer to a file, whether it is a document, or the like) are abstracted to a level which removes or decouples it from the management of the mark.