Abstract:
Systems and methods of producing video data and/or audio-photos from a static digital image are disclosed. One such method, among others, comprises receiving input from a user indicating sequentially, in real time, a plurality of regions of the static digital image. The method also includes processing the user input to determine the visual content of each of a sequence of video frames and generating output data representative of the sequence of video frames. The sequence and composition of the video frames are determined such that the visual content of the video frames is taken from the static digital image. For each region of the static image indicated by the user, a video frame is composed such that the said region occupies a substantial part of the video frame. The sequence of video frames shows the regions indicated by the user in sequential correspondence with the sequence in which the user indicated the regions and substantially in pace with the time in which the user indicated the regions.
Abstract:
A quad-core processor for a camera with a CMOS image sensor. The quad-core processor has an image sensor interface for receiving data from the CMOS image sensor and four processing units configured for operating in parallel to process the data from the image sensor interface. The four processing units and the image sensor interface are integrated onto a single chip.
Abstract:
A camera system including: a substrate having a coding pattern printed thereon anda handheld digital camera device. The camera device includes: a digital camera unit having a first image sensor for capturing images and a color display for displaying captured images to a user; an integral processor configured for: controlling operation of the first image sensor and color display; decoding an imaged coding pattern printed on a substrate, the printed coding pattern employing Reed-Solomon encoding; and performing an action in the handheld digital camera device based on the decoded coding pattern. The decoding includes the steps of: detecting target structures defining the extent of the data area; determining the data area using the detected target structures; and Reed-Solomon decoding the coding pattern contained in the determined data area.
Abstract:
A handheld imaging device includes an image sensor for sensing an image; a processor for processing the sensed image; a multi-core processing unit provided in the processor, the multi-core processing unit having a plurality of processing units connected in parallel by a crossbar switch; and an image sensor interface for converting signals from the image sensor to a format readable by the multi-core processing unit, the image sensor interface sharing a wafer substrate with the processor. A transfer of data from the image sensor interface to the plurality of processing units is conducted entirely on the shared wafer substrate.
Abstract:
A camera with a CMOS image sensor, an image sensor interface for receiving data from the CMOS image sensor and multiple processing units interconnected with each other for parallel processing of data from the image sensor interface. The multiple processing units and the image sensor interface are integrated onto a single chip.
Abstract:
A central processor for installation in an imaging device with a CMOS image sensor. The central processor had an image sensor interface for receiving data from the CMOS image sensor and multiple processing units configured to operate in parallel for processing data from the image sensor interface. Each of the processing units has rewritable memory for microcode that operatively controls that processing unit. The multiple processing units and the image sensor interface are integrated onto a single chip.
Abstract:
A hand-held apparatus is provided having a digital camera, a display, a miniature keyboard, a network interface, and four interconnected processing units arranged to jointly run programs for the operation of the digital camera, display, miniature keyboard, and network interface.
Abstract:
A portable hand-held device is provided having a network interface for sharing images between the device and a network, an image display for displaying the shared images, an orientation sensor for sensing an orientation of the device, and a processor for processing the displayed images based on the sensed device orientation and outputting the processed images to the image display.
Abstract:
A portable handheld device includes an image sensor for capturing an image; and a one-chip microcontroller having integrated therein a CPU for processing a script language and a multi-core processor for processing an image captured by the image sensor. The multi-core processor includes therein multiple processing units connected in parallel by a common crossbar switch. Each processing unit includes an arithmetic and logic unit (ALU), each ALU defining therein two internal crossbar switches for internal data transfer within one processing unit.
Abstract:
A handheld imaging device includes an image sensor for sensing an image; a multi-core processor for processing the sensed image; and a program memory provided external to the multi-core processor, and communicating therewith via a communication bus. The multi-core processor includes a bus interface for interfacing with the communication bus, and further includes an image sensor interface for interfacing with the image sensor separately from the communication bus and the bus interface. The multi-core processor includes a plurality of parallel processing units connected by a crossbar switch to form the multi-core.