Abstract:
Provided are embodiments of a method of synthesizing nano scale electrode materials using an ultrafast combustion technique and nano scale electrode materials synthesized using the method. The method does not require a process of annealing reaction products required for synthesis of electrode materials or any other additional processes, such as cleaning, filtering, and drying processes, so that it can take only several seconds to several minutes to obtain a resultant product.
Abstract:
Disclosed herein is an SRAM-compatible memory for correcting invalid output data using parity and a method of driving the same. In the SRAM-compatible memory, input data and a parity value obtained from the input data are written in data banks and parity bank, respectively. When invalid data is output from a specific memory bank due to the performance of a refresh operation or other factors, the invalid data are corrected by a data corrector using the parity value written in the parity bank, thus generating output data having the same logic value as the input data. The SRAM-compatible memory prevents a reduction in operation speed due to an internal operation, such as a refresh operation.
Abstract:
Provided are embodiments of a method of synthesizing nano scale electrode materials using an ultrafast combustion technique and nano scale electrode materials synthesized using the method. The method does not require a process of annealing reaction products required for synthesis of electrode materials or any other additional processes, such as cleaning, filtering, and drying processes, so that it can take only several seconds to several minutes to obtain a resultant product.
Abstract:
A method for manufacturing light emitting devices is provided. The method may reduce the inner pressure of a laminated image emitting device panel, thereby preventing failure of the panel. The method includes holding a first substrate with a lower chuck located in a vacuum chamber; holding a second substrate with an upper chuck located opposite the first chuck in the vacuum chamber; creating a high vacuum in the vacuum chamber; correcting positions of the first substrate and the second substrate; supplying gas having a temperature of about 50 to about 200° C. into the vacuum chamber; temporarily laminating the first substrate and the second substrate; venting the vacuum chamber; and bonding the first substrate and the second substrate. The panel is laminated after being filled with a heated gas and thus, when it is exposed to room temperature, the mobility of the gas decreases while reducing its initial inner pressure, thereby preventing panel failure.
Abstract:
Disclosed herein is a synchronous SRAM-compatible memory using DRAM cells. In the synchronous SRAM-compatible memory of the present invention, a refresh operation is controlled in response to a refresh clock signal having a period “n” times a period of a reference clock signal. The refresh operation is performed while a chip enable signal/CS is inactivated. A writing/reading access operation is performed in response to a writing/reading command generated while the chip enable signal/CS is activated. Therefore, in the writing/reading access operation of the synchronous SRAM-compatible memory of the present invention, no delay of time occurs that would otherwise occur due to the refresh operation of the DRAM cells.
Abstract:
A circuit or plug/play (P/P) in a PCI bus which can store information in a PCI master/target device so that an address input board or component installed in a PCI local bus necessary for developing an information processing system adopting the PCI bus can support complete automatic, the circuit including controlling means for generating a plurality of latch enabling signals having a predetermined delay time, in accordance with a PCI reset signal, a clock signal and an address signal for reading data, input generating means having a plurality of input generating blocks and generating a plurality of data to be written in corresponding latches, in accordance with the PCI reset signal, data latching means having a plurality of latches, constituted by a plurality of latch groups corresponding to the plurality of input generating blocks, for writing data applied from the input generating means, in accordance with the latch enabling signals from the controlling means; and a PCI interface for reading and outputting corresponding data written in the respective latch groups in the latching means, in accordance with the address signal for reading externally supplied data.
Abstract:
A blue fluorescent compound includes a host material being capable of transporting an electron or a hole; and a dopant material represented by following Formula 1: wherein at least two of the R1, the R2, the R3, and the R4 are selected from substituted or non-substituted aromatic group or substituted or non-substituted heterocyclic group, and the R5 is selected from substituted or non-substituted aromatic group or substituted or non-substituted heterocyclic group.
Abstract:
A method for manufacturing light emitting devices is provided. The method may reduce the inner pressure of a laminated image emitting device panel, thereby preventing failure of the panel. The method includes holding a first substrate with a lower chuck located in a vacuum chamber; holding a second substrate with an upper chuck located opposite the first chuck in the vacuum chamber; creating a high vacuum in the vacuum chamber; correcting positions of the first substrate and the second substrate; supplying gas having a temperature of about 50 to about 200° C. into the vacuum chamber; temporarily laminating the first substrate and the second substrate; venting the vacuum chamber; and bonding the first substrate and the second substrate. The panel is laminated after being filled with a heated gas and thus, when it is exposed to room temperature, the mobility of the gas decreases while reducing its initial inner pressure, thereby preventing panel failure.
Abstract:
A method for manufacturing light emitting devices is provided. The method may reduce the inner pressure of a laminated image emitting device panel, thereby preventing failure of the panel. The method includes holding a first substrate with a lower chuck located in a vacuum chamber; holding a second substrate with an upper chuck located opposite the first chuck in the vacuum chamber; creating a high vacuum in the vacuum chamber; correcting positions of the first substrate and the second substrate; supplying gas having a temperature of about 50 to about 200° C. into the vacuum chamber; temporarily laminating the first substrate and the second substrate; venting the vacuum chamber; and bonding the first substrate and the second substrate. The panel is laminated after being filled with a heated gas and thus, when it is exposed to room temperature, the mobility of the gas decreases while reducing its initial inner pressure, thereby preventing panel failure.
Abstract:
The synchronous SRAM-compatible memory includes a DRAM array, a data input/output unit, an address input unit, a burst address generating unit, a state control unit, a refresh timer, and a refresh control unit. The data input/output unit controls input and output of data. The address input unit inputs a row address and a column address. The burst address generating unit generates a sequentially varying burst address. The state control unit generates a burst enable signal that enables the burst address generating unit, controls the data input/output unit, and generates a wait indication signal while an access operation of a previous frame is performed with respect to the memory array. The refresh timer generates a refresh request signal activated at regular intervals. The refresh control unit controls the refresh operation with respect to the DRAM array in response to the refresh request signal.