Abstract: An apparatus and/or method discloses an automatic call-to-conference elevation (“ACE”) capable of facilitating a transition from a phone call to a video conference. An ACE process, in one embodiment, is able to activate an ACE application to elevate user devices from participating in an audio call to a video conference based on a conference selection selected by a meeting initiator, host, or attendee. After identifying the capabilities, attributes, and/or functionalities associated with the user devices in accordance with activation of ACE, a communication network coupling the user devices as meeting attendees is established for facilitating the video conference based on identified capabilities, attributes, and/or functionalities of the user devices. In one aspect, the process is capable of transitioning connections of the user devices from an audio call to a video conference.

Abstract: An apparatus and/or method discloses an automatic call-to-conference elevation (“ACE”) capable of facilitating a transition from a phone call to a video conference. An ACE process, in one embodiment, is able to activate an ACE application to elevate user devices from participating in an audio call to a video conference based on a conference selection selected by a meeting initiator, host, or attendee. After identifying the capabilities, attributes, and/or functionalities associated with the user devices in accordance with activation of ACE, a communication network coupling the user devices as meeting attendees is established for facilitating the video conference based on identified capabilities, attributes, and/or functionalities of the user devices. In one aspect, the process is capable of transitioning connections of the user devices from an audio call to a video conference.

Abstract: An apparatus and/or method discloses an automatic call-to-conference elevation (“ACE”) capable of facilitating a transition from a phone call to a video conference. An ACE process, in one embodiment, is able to activate an ACE application to elevate user devices from participating in an audio call to a video conference based on a conference selection selected by a meeting initiator, host, or attendee. After identifying the capabilities, attributes, and/or functionalities associated with the user devices in accordance with activation of ACE, a communication network coupling the user devices as meeting attendees is established for facilitating the video conference based on identified capabilities, attributes, and/or functionalities of the user devices. In one aspect, the process is capable of transitioning connections of the user devices from an audio call to a video conference.

Abstract: An apparatus and/or method discloses an automatic call-to-conference elevation (“ACE”) capable of facilitating a transition from a phone call to a video conference. An ACE process, in one embodiment, is able to activate an ACE application to elevate user devices from participating in an audio call to a video conference based on a conference selection selected by a meeting initiator, host, or attendee. After identifying the capabilities, attributes, and/or functionalities associated with the user devices in accordance with activation of ACE, a communication network coupling the user devices as meeting attendees is established for facilitating the video conference based on identified capabilities, attributes, and/or functionalities of the user devices. In one aspect, the process is capable of transitioning connections of the user devices from an audio call to a video conference.

Abstract: An apparatus and/or method discloses an automatic call-to-conference elevation (“ACE”) capable of facilitating a transition from a phone call to a video conference. An ACE process, in one embodiment, is able to activate an ACE application to elevate user devices from participating in an audio call to a video conference based on a conference selection selected by a meeting initiator, host, or attendee. After identifying the capabilities, attributes, and/or functionalities associated with the user devices in accordance with activation of ACE, a communication network coupling the user devices as meeting attendees is established for facilitating the video conference based on identified capabilities, attributes, and/or functionalities of the user devices. In one aspect, the process is capable of transitioning connections of the user devices from an audio call to a video conference.

Abstract: A data transmission system is provided. The data transmission system includes a source device having a source device controller and a register and a sink device having a sink device controller. The data transmission system also includes a transmission link coupling the source device and the sink device. The transmission link includes a unidirectional main line having a plurality of main link channels, a bidirectional auxiliary line configured to transmit data between the source device and the sink device at a first data rate, and a unidirectional interrupt line. The transmission link is configured to transmit data from the source device to the sink device over one of the main link lines at a second data rate and to transmit data from the sink device to the source device over the auxiliary line at the second data rate. The transmission link may comply with the DisplayPort standard, and the data may be transmitted in accordance with the USB standard.

Abstract: A docking system utilizing a single DisplayPort cable connection to a computer system is provided. In one embodiment, the docking system includes a single DisplayPort (“DP”) input, a management layer module coupled to receive video inputs from the single DP input and to provide video data to at least one video monitor output, and a USB layer module coupled to receive an AUX channel from the single DP input and to couple the AUX channel with a USB hub.

Abstract: An integrated controller for an integrated display and touch panel and its associated method provide (a) a DisplayPort or embedded DisplayPort interface for communicating control and data signals for both display and touch functions between a host system and the integrated controller, wherein the touch control and data signals are communicated over an auxiliary channel of the DisplayPort or embedded DisplayPort interface; (b) a display panel interface for communicating display data and control signals between the integrated controller and a display monitor; (c) a touch panel interface for communicating touch data and control signals between the integrated controller and a touch panel; and (d) a control circuit which processes the display and touch control and data signals of the DisplayPort or embedded DisplayPort interface, the display data and control signals of the display panel interface and the touch data and control signals of the touch panel interface.

Abstract: A video relay circuit is provided including an input channel to receive input video data packets; a first circuit to convert the input video data packets into data for a display device; a second circuit coupled to the first circuit to retime, recondition and re-drive the data channels; an output channel to couple the video data packets into an output stream. Also provided is a video data transmission link including a video relay circuit as above and a daisy chain of video display devices including a video source; a plurality of video display devices wherein a first video display device is coupled to the source of video data, and each further video display device receives the source signal from the previous display and provides the video signal to the next display; wherein at least one of the video display devices comprises a video relay circuit as above.

Abstract: A data transmission system is provided. The data transmission system includes a source device having a source device controller and a register and a sink device having a sink device controller. The data transmission system also includes a transmission link coupling the source device and the sink device. The transmission link includes a unidirectional main line having a plurality of main link channels, a bidirectional auxiliary line configured to transmit data between the source device and the sink device at a first data rate, and a unidirectional interrupt line. The transmission link is configured to transmit data from the source device to the sink device over one of the main link lines at a second data rate and to transmit data from the sink device to the source device over the auxiliary line at the second data rate. The transmission link may comply with the DisplayPort standard, and the data may be transmitted in accordance with the USB standard.

Abstract: An integrated controller for an integrated display and touch panel and its associated method provide (a) a DisplayPort or embedded DisplayPort interface for communicating control and data signals for both display and touch functions between a host system and the integrated controller, wherein the touch control and data signals are communicated over an auxiliary channel of the DisplayPort or embedded DisplayPort interface; (b) a display panel interface for communicating display data and control signals between the integrated controller and a display monitor; (c) a touch panel interface for communicating touch data and control signals between the integrated controller and a touch panel; and (d) a control circuit which processes the display and touch control and data signals of the DisplayPort or embedded DisplayPort interface, the display data and control signals of the display panel interface and the touch data and control signals of the touch panel interface.

Abstract: A video relay circuit is provided including an input channel to receive input video data packets; a first circuit to convert the input video data packets into data for a display device; a second circuit coupled to the first circuit to retime, recondition and re-drive the data channels; an output channel to couple the video data packets into an output stream. Also provided is a video data transmission link including a video relay circuit as above and a daisy chain of video display devices including a video source; a plurality of video display devices wherein a first video display device is coupled to the source of video data, and each further video display device receives the source signal from the previous display and provides the video signal to the next display; wherein at least one of the video display devices comprises a video relay circuit as above.

Abstract: A docking system utilizing a single DisplayPort cable connection to a computer system is provided. In one embodiment, the docking system includes a single DisplayPort (“DP”) input, a management layer module coupled to receive video inputs from the single DP input and to provide video data to at least one video monitor output, and a USB layer module coupled to receive an AUX channel from the single DP input and to couple the AUX channel with a USB hub.

Abstract: Structured ASIC circuitry that is intended to be functionally equivalent to a programmed block of FPGA circuitry (e.g., a programmed FPGA LUT) is verified for such functional equivalence by using the specification (logical or physical) for the structured ASIC circuitry as a starting point for an FPGA design project. If the design project results in the same FPGA circuitry as it was intended that the structured ASIC circuitry would be functionally equivalent to, the structured ASIC circuitry has been verified and can be added to one or more libraries of structured ASIC modules that are available for use in providing structured ASIC products that are functionally equivalent to programmed FPGA products.

Abstract: Structured ASIC circuitry that is intended to be functionally equivalent to a programmed block of FPGA circuitry (e.g., a programmed FPGA LUT) is verified for such functional equivalence by using the specification (logical or physical) for the structured ASIC circuitry as a starting point for an FPGA design project. If the design project results in the same FPGA circuitry as it was intended that the structured ASIC circuitry would be functionally equivalent to, the structured ASIC circuitry has been verified and can be added to one or more libraries of structured ASIC modules that are available for use in providing structured ASIC products that are functionally equivalent to programmed FPGA products.

Abstract: A method is provided for creating and using a library of known logic elements for facilitating the design of equivalent FPGA, structured ASIC, or other integrated circuits. Each cell in the library corresponds to a circuit element and contains equivalent circuit models of the element for implementation in different integrated circuit technologies. The cells are named and indexed using a library cell key that contains a fixed set of cell properties which uniquely characterize the function of the cell. The cell key can be used to locate cells in the library or in circuit designs, and to verify that the circuit models contained in the cell implement the correct logic function.

Abstract: Provided are an apparatus and a method for a low power AES cryptographic circuit for an embedded system. The apparatus and method allows each round operation to be performed in an order of an add round operation, a sub byte operation, a shift row operation, and a mix column operation in order to realize a small circuit area by making maximum reuse of designed element modules. When data is input, on the first place, operations are repeated in the above order from a first round to a round right before a last round. During a last round, only an add round key operation and a sub byte operation, and a shift row operation are performed, and then an add round key operation using a secret key is performed. At this point, each operation is performed on data by a 8-bit unit.

Abstract: In one embodiment of a method of decoding a first frame sequence layer, at least one motion vector of an image block in a frame of the first frame sequence layer is determined based on a motion vector for an image block in a frame of a second frame sequence layer. Here, the frame of the second frame sequence layer is temporally separated from the frame of the first frame sequence layer. The image block in the frame of the first frame sequence layer is decoded based on the determined motion vector.

Abstract: Disclosed is a 3D vehicle simulator system for an ECU embedded system comprising an external input apparatus 130, to which signals of one or more external sensors are inputted, an ECU embedded system 120 for processing and executing signals inputted form the external input apparatus 130, an external output apparatus 140 for receiving and outputting the output signals of the ECU embedding system 120, a vehicle simulator 110 for calculating at real time the signals inputted from the ECU embedded system 120, and for 3D-modeling and outputting the status of the vehicle, and a display 150 for displaying the 3D-modeled vehicle outputted form the vehicle simulator 110.

Abstract: In one embodiment of a method of decoding a first frame sequence layer, at least one motion vector of an image block in a frame of the first frame sequence layer is determined based on scaling a motion vector for an image block in a frame of a second frame sequence layer. The motion vector for the image block in the frame of the second frame sequence layer is scaled based on a display size difference between frames in the second frame sequence layer and frames in the first frame sequence layer. A display size of frames in the second frame sequence layer is different than a display size of frames in the first frame sequence layer, and the second frame sequence layer does not include a frame temporally coincident with the frame of the first frame sequence layer. The image block in the frame of the first frame sequence layer is decoded based on the determined motion vector.