Abstract: Disclosed is a flow optimization method for non-real-time decoding systems, which is applied in a wireless communication system including a transmitter and a receiver corresponding thereto.

Abstract: An electronic device includes a rectangular ceramic package structure having opposite first and second sides, an interior cavity that extends to an opening in the second side, opposite third and fourth sides spaced along a first direction, opposite fifth and sixth sides spaced along an orthogonal second direction, and non-conductive indents extending into the third and fourth sides. The device also includes a semiconductor die in the cavity, a lid that covers the opening and seals the cavity, a conductive terminal having a planar side exposed along the first side that is electrically coupled to a circuit of the semiconductor die and extends to a first one of the non-conductive indents, and conductive pins spaced apart from the conductive terminal and extending outward from the first side of the ceramic package structure along a third direction.

Abstract: A method and system for testing of base stations of a mobile telecommunications network having a plurality of cells. A base station at its antenna is connected to a testing system by a radio frequency cable. Mobile terminals of a cell are emulated. The mobile terminals transmit data and sends/receives calls within the cell via the base station. A separate channel emulator is provided for each emulated mobile terminal.

Abstract: A method and system for testing of base stations of a mobile telecommunications network having a plurality of cells. A base station at its antenna is connected to a testing system by a radio frequency cable. Mobile terminals of a cell are emulated. The mobile terminals transmit data and sends/receives calls within the cell via the base station. A separate channel emulator is provided for each emulated mobile terminal.

Abstract: Various embodiments of a system, method, and memory-medium provide for configuration of a programmable waveform that allows for communication with one of a plurality of different target devices. The programmable waveform comprises one or more waveform parameters and one or more waveform lines. The waveform lines may comprise control lines and/or data lines. One or more of the waveform parameters may be set in response to user input, and corresponding signals based on the waveform lines may be generated in order to communicate with a target device selected from a variety of different possible target devices. Waveform parameters may include one or more of: setup time, hold time, lead time, trail time, idle time, clock frequency, clock duty cycle, number of data bits per transmission, number of data lines, pulse width, polarity, and phase.

Abstract: Various embodiments of a system, method, and memory-medium provide for configuration of a programmable waveform that allows for communication with one of a plurality of different target devices. The programmable waveform comprises one or more waveform parameters and one or more waveform lines. The waveform lines may comprise control lines and/or data lines. One or more of the waveform parameters may be set in response to user input, and corresponding signals based on the waveform lines may be generated in order to communicate with a target device selected from a variety of different possible target devices. Waveform parameters may include one or more of: setup time, hold time, lead time, trail time, idle time, clock frequency, clock duty cycle, number of data bits per transmission, number of data lines, pulse width, polarity, and phase.