Abstract:
Disclosed is a semiconductor memory device, comprising a plurality of sub-word line drivers arranged at all memory cell array blocks in the direction of bit lines and respectively shared by two memory cell array blocks, a plurality of block sense amplifiers arranged at all memory cell array blocks in the direction of word lines and respectively shared by two memory cell array blocks, a plurality of circuit blocks respectively arranged at conjunction areas where areas accommodating sub-word line drivers and block sense amplifiers are crossed; said conjunction areas comprising one or more LA drivers adapted to drive block sense amplifiers, one or more PXiD circuits adapted to generate driving control signals to control sub-word line drivers, and-one or more BSYD circuits adapted to selectively enables LA drivers in response to transmitted block control signals; and a plurality of block control units adapted to generate upper and lower block control signals by combining column and row block address decoding signals and simultaneously activating two or more BSYD circuits with the block control signals.
Abstract:
The semiconductor memory device includes a memory cell array, sense amplifying means for generating a sense output signal pair, and a data output buffer for providing the sense output signal pair. The data output buffer includes a level shifter for generating a first data output signal pair by shifting the level of the sense output signal pair responsive to the output buffer enable signal. A register inverts and latches the first data output signal pair, generating a second data output signal pair. A first transmission and latch means transmits and latches the second data output signal pair generating a third data output signal pair responsive to a first control signal. A second transmission and latch means transmits and latches the second data output signal pair generating a fourth data output signal pair responsive to a second control signal. A first inverter generates a fifth data output signal pair by inverting the third data output signal pair responsive to a first data output control signal. A second inverter generates the fifth data output signal pair by inverting the fourth data output signal pair responsive to a second data output control signal. A first latch generates a sixth data output signal pair by latching the fifth data output signal pair. A logical multiplication means manipulates the sixth data output signal pair responsive to an output enable signal.
Abstract:
Disclosed is a semiconductor memory device including a redundancy controller. The redundancy controller is structured using pass gate logic, dynamic inverter circuits, and a true/complement decoder scheme. The redundancy controller includes first and second redundancy enable circuits corresponding respectively to first and second redundant columns. A first and second fuse boxes are coupled respectively to the first and second redundancy enable circuits. The first and second fuse boxes each include a fuse box circuit corresponding to the column address signals and a fuse element. Each fuse box circuit receives a corresponding pair of true and complement column address signals and manipulates the true and complement column address signals responsive to the fuse element. A first decoding means decodes the manipulated versions of the true and complement column address signals and generates first and second true decoded pulse signals and first and second complement decoded pulse signals. A second decoding means decodes the manipulated versions of the true and complement column address signals and generates third and fourth true decoded pulse signals and third and fourth complement decoded pulse signals. A sense amplification control signal generating means produces the sense amplification control signal responsive to the first, second, third, and fourth true decoded pulse signals and the first, second, third, and fourth complement decoded pulse signals. A row select signal generating means produces the row select signal responsive to first, second, third, and fourth true decoded pulse signals. The above-described redundancy controller improves the redundancy speed.
Abstract:
A shuttlecock or butterfly is provided with an arrangement in which gliding feathers are readily arrayed or rearrayed, attached onto or detached from so as the shuttlecock or butterfly itself be adjusted in its flying range and speed. The arrangement comprises a plurality of pits formed along the upper brim of the bottom cup portion of the basket-like main hopper body, a riblike skirt portion, a plurality of vertical frames and a plurality of knob heads formed on the top of the vertical frames, protruding upwardly from the upper end of the skirt portion. The feathers are secured onto along the inner surface of the vertical frames with the foot portion of the quill inserted in the pits formed along the upper brim of the bottom cup portion and the upper portion of the quill at the middle of the feather tied onto the knob heads formed on the top of the vertical frames by such fastening means as string, wire or adhesive tape.
Abstract:
According to the present invention, disclosed is a pipe fluid heat exchange flat pipe, which has a cross section having a width direction size that is larger than the size in the height direction thereof, extends in a longitudinal direction, and has a plurality of flat parts and curved parts that are alternately formed, wherein a plurality of lower guides protruding from the inner lower surface of the flat pipe toward the upper side thereof and upper guides protruding from the inner upper surface of the flat pipe toward the lower side thereof are alternately provided in the width direction of the flat pipe, and either the lower guide or the upper guide has an overlapping part overlapped with the other from either of the adjacent lower guide or upper guide in the height direction of the flat pipe.
Abstract:
A method of generating a codebook for a multiple-input multiple-output (MIMO) system is provided. The codebook generation method includes: assigning a single-polarized precoding matrix to diagonal blocks among a plurality of blocks arranged in a block diagonal format in which a number of diagonal blocks corresponds to a number of polarization directions of transmitting antennas; and assigning a zero matrix to remaining blocks excluding the diagonal blocks.
Abstract:
Integrated processing of audio/video signals can eliminate unnecessary signal processors and converters without losing the functionality of typical home entertainment system components. The integrated system includes a main player that captures and processes signals digitally, a dummy display, and a dummy speaker. The dummy display may only have a display panel and a panel driver. The dummy speaker may only have a driving unit and no crossover logic. The main player may have a PC architecture and process all signals digitally for outputting signals tailored for the display device and the individual driving units of the dummy speaker. The integrated system may also provide dynamic signal adjustments based on the surrounding environment. The main player may include a storage device and can process media content stored therein to produce supplemental information to provide an optimal audiovisual experience. This supplemental information can be shared among users over a network connection.