Abstract: An example device for providing device information to a device management infrastructure includes a memory subsystem; a communication interface to: receive, from a first device, first device information in a first device-native format; receive, from a second device, second device information in a second device-native format different than the first device-native format; transmit the first device information to a remote server in a device-agnostic format; and transmit the second device information to the remote server in the device-agnostic format; and a device information processor to convert the first device information and the second device information into the device-agnostic format.

Abstract: An example device for providing device information to a device management infrastructure includes a memory subsystem; a communication interface to: receive, from a first device, first device information in a first device-native format; receive, from a second device, second device information in a second device-native format different than the first device-native format; transmit the first device information to a remote server in a device-agnostic format; and transmit the second device information to the remote server in the device-agnostic format; and a device information processor to convert the first device information and the second device information into the device-agnostic format.

Abstract: An example device for providing device information to a device management infrastructure includes a memory subsystem; a communication interface to: receive, from a first device, first device information in a first device-native format; receive, from a second device, second device information in a second device-native format different than the first device-native format; transmit the first device information to a remote server in a device-agnostic format; and transmit the second device information to the remote server in the device-agnostic format; and a device information processor to convert the first device information and the second device information into the device-agnostic format.

Abstract: A method of transferring images captured by a digital capture device to a remote memory location over a channel includes capturing a plurality of digital images using the digital capture device and storing the plurality of images in a local memory. The method also includes providing a plurality of user selectable times for the transfer of images over the channel from the local memory to the remote memory location and a user selecting one of the user selectable times, and transferring the plurality of images over the channel to the remote memory location at the user selected time.

Abstract: A dual mode digital imaging system has a still processing mode that produces an output image in a first color space and a motion processing mode that produces an output image in a second color space, in particular a first color space that is RGB and a second color space that is YUV. The digital imaging system includes a dual mode digital camera for use with a computer and a processing application for running on the computer, wherein the motion mode processing is relatively less complex than the still mode processing although at least one common control parameter is used to control both modes. The motion mode processing, which is performed using algorithms and software approaches designed to minimize processing time, nonetheless produces an entirely adequate relatively low resolution YUV image appropriate for applications such as videoconferencing. The still mode processing, on the other hand, uses more elaborate algorithms to optimize the image quality of a relatively high resolution RGB output image.

Abstract: A method for simultaneously recording motion and still images, includes the steps of: capturing a motion image sequence and accompanying audio of a scene with a digital video camera adapted to record both motion and higher resolution still images; simultaneously capturing a still image sequence having a higher resolution and lower frame rate than the motion capture sequence; compressing the motion image sequence using interframe compression and the accompanying audio and storing the compressed motion image and audio data; and compressing the still images using intraframe coding and storing the compressed still image data.

Abstract: A method of selecting images from a plurality of images previously stored in a local digital memory, ordering services to be provided utilizing the images, and transferring such images over a channel to a remote digital memory where the services are to be provided includes storing a plurality of images in the local memory location along with corresponding thumbnail images and displaying at least a subset of the thumbnail images for viewing by a user. The user selects those images to be transferred after viewing the displayed thumbnail images and provides image identifiers for each selected image to be uploaded to the remote location and a service order which specifies the services to be provided utilizing such selected images. The remote location confirms the receipt of the service order. The images are transferred over the channel to the remote memory location at a suitable time for effective data transfer whereby the ordered services can be subsequently provided.

Abstract: The present invention is directed to a system, method, and software product for linking a user/requester to a service provider selected from a plurality of different service providers. The system includes providing a services directory which includes entries for a plurality of services, each service associated with at least one of the plurality of different service providers. A user selects a criterion for selection of a service provider. The system automatically provides the requester with a list of one or more of the plurality of different service providers based on the criterion. The requester then selects one of the plurality of different service providers from the list. The user then submits a request for a desired service to the selected service provider and the provider provide the desired service.

Abstract: A dual mode digital imaging system has a still processing mode that produces an output image in a first color space and a motion processing mode that produces an output image in a second color space, in particular a first color space that is RGB and a second color space that is YUV. The digital imaging system includes a dual mode digital camera for use with a computer and a processing application for running on the computer, wherein the motion mode processing is relatively less complex than the still mode processing although at least one common control parameter is used to control both modes. The motion mode processing, which is performed using algorithms and software approaches designed to minimize processing time, nonetheless produces an entirely adequate relatively low resolution YUV image appropriate for applications such as videoconferencing. The still mode processing, on the other hand, uses more elaborate algorithms to optimize the image quality of a relatively high resolution RGB output image.

Abstract: A digital camera, which captures images and transfers the captured images to a host computer, includes an image sensor exposed to image light for capturing the images and generating image signals; an A/D converter for converting the image signals into digitized image data; a digital interface for transferring the digitized image data to the host computer; means for controlling the image sensor in at least two different camera configurations, each configuration including configuration information defining a plurality of camera parameters; and means for communicating at least part of the configuration information along with the digitized image data to the computer via the digital interface.

Abstract: A digital camera is designed to capture images and transfer the captured images to a host computer. The camera includes an image sensor exposed to image light for capturing the images and generating image signals; a timing generator, incorporating a line request control signal, for controlling the readout of lines of photosites from the image sensor; an A/D converter for converting the image signals into digital image data; a digital memory for storing at least one line of digital image data; and a digital interface for providing the digital image data read from the digital memory to the host computer. By initiating a new line readout in response to the line request control signal indicating the fullness of the digital memory, the camera is able to use the image sensor as an analog frame memory, instead of having a full digital frame memory in the camera, so that only a small line store is required.

Abstract: An processing system having a disk storage unit which acts as physical RAM storage. A disk controller, disk and small RAM unit are controlled by a separate CPU and MMU using a virtual memory scheme. This assembly is connected to a set of processing nodes by way of a bus, such that each of the nodes can access the memory directly through the MMU as virtual memory. The CPU controls the transfer of data to and from the disk as it is requested from the nodes. The nodes may then proceed to process the image data without any interaction with the host system.

Abstract: A multi-processor apparatus is disclosed which includes an array of separately addressable memory units and an array of separately addressable processors. A first unidirectional bus delivers data from a selected processor to a selected memory unit. A second unidirectional data bus delivers data from a selected memory unit to a selected processor. Arbitor circuits control the flow of data to these data buses.