Abstract: A semiconductor device may include a word line selector configured to generate an active signal for selecting a word line, based on a row address. The active signal may be divided into a read active signal generated based on a read command and a write active signal generated based on a write command.

Abstract: A semiconductor device may be provided. The semiconductor device may include a word line selector configured to generate an active signal for selecting a word line, based on a row address. The active signal may be divided into a read active signal generated based on a read command and a write active signal generated based on a write command.

Abstract: A semiconductor memory device includes a plurality of memory cell blocks each including a plurality of word lines and suitable for being selectively activated based on an active command and a row address, wherein word lines are selected from the respective activated memory cell blocks based on the active command and the row address, and a column decoding block sequentially accessing the activated memory cell blocks to input/output data thereof by decoding a column address based on the row address.

Abstract: A memory device includes a first memory bank comprising first and second memory blocks; a second memory bank comprising third and fourth memory blocks; and a bank selection unit suitable for selecting a memory bank corresponding to a bank address among the first and the second memory banks when an active command is applied, wherein the selected memory bank performs row access on a word line of an unselected memory block, while activating a word line of a memory block that is selected by a block address among memory blocks of the selected memory bank.

Abstract: A semiconductor memory device includes a plurality of memory cell blocks each including a plurality of word lines and suitable for being selectively activated based on an active command and a row address, wherein word lines are selected from the respective activated memory cell blocks based on the active command and the row address, and a column decoding block sequentially accessing the activated memory cell blocks to input/output data thereof by decoding a column address based on the row address.

Abstract: A semiconductor memory device includes a plurality of memory cell blocks each including a plurality of word lines and suitable for being selectively activated based on an active command and a row address, wherein word lines are selected from the respective activated memory cell blocks based on the active command and the row address, and a column decoding block sequentially accessing the activated memory cell blocks to input/output data thereof by decoding a column address based on the row address.

Abstract: A semiconductor memory apparatus may include a driving voltage-applying unit and a sub-word line-driving unit. The driving voltage-applying unit may be configured to generate a driving voltage in response to an active signal, a word line-enabling signal and a sub-word line selection signal. The sub-word line-driving unit may be configured to drive a sub-word line as a voltage level of the driving voltage in response to a main word line and the sub-word line selection signal.

Abstract: A semiconductor memory apparatus may include a driving voltage-applying unit and a sub-word line-driving unit. The driving voltage-applying unit may be configured to generate a driving voltage in response to an active signal, a word line-enabling signal and a sub-word line selection signal. The sub-word line-driving unit may be configured to drive a sub-word line as a voltage level of the driving voltage in response to a main word line and the sub-word line selection signal.

Abstract: A semiconductor memory device includes a plurality of memory cell blocks each including a plurality of word lines and suitable for being selectively activated based on an active command and a row address, wherein word lines are selected from the respective activated memory cell blocks based on the active command and the row address, and a column decoding block sequentially accessing the activated memory cell blocks to input/output data thereof by decoding a column address based on the row address.

Abstract: A memory device includes a first memory bank comprising first and second memory blocks; a second memory bank comprising third and fourth memory blocks; and a bank selection unit suitable for selecting a memory bank corresponding to a bank address among the first and the second memory banks when an active command is applied, wherein the selected memory bank performs row access on a word line of an unselected memory block, while activating a word line of a memory block that is selected by a block address among memory blocks of the selected memory bank.

Abstract: A data receiving circuit includes a delay unit for outputting a delayed control signal by delaying a control signal based on a CAS latency, an output driver for time-dividing parallel data based on the control signal and the delayed control signal to generate divided parallel data, and for writing and transmitting the divided parallel data, and a latch for receiving the parallel data from the output driver and sorting, by combining or dividing, the received parallel data in response to the control signal and the delayed control signal.

Abstract: A data receiving circuit includes a delay unit for outputting a delayed control signal by delaying a control signal based on a CAS latency, an output driver for time-dividing parallel data based on the control signal and the delayed control signal to generate divided parallel data, and for writing and transmitting the divided parallel data, and a latch for receiving the parallel data from the output driver and sorting, by combining or dividing, the received parallel data in response to the control signal and the delayed control signal.

Abstract: A data receiving circuit includes a delay unit for outputting a delayed control signal by delaying a control signal based on a CAS latency, an output driver for time-dividing parallel data based on the control signal and the delayed control signal to generate divided parallel data, and for writing and transmitting the divided parallel data, and a latch for receiving the parallel data from the output driver and sorting, by combining or dividing, the received parallel data in response to the control signal and the delayed control signal.

Abstract: Disclosed is a test mode control apparatus of a semiconductor memory having a plurality of banks divided into first and second bank groups, a plurality of pads, and a test mode controller. The test mode controller outputs data to the pads from one of the first and second bank groups and then outputs data to the pads from the other of the first and second bank groups.

Abstract: A data receiving circuit includes a delay unit for outputting a delayed control signal by delaying a control signal based on a CAS latency, an output driver for time-dividing parallel data based on the control signal and the delayed control signal to generate divided parallel data, and for writing and transmitting the divided parallel data, and a latch for receiving the parallel data from the output driver and sorting, by combining or dividing, the received parallel data in response to the control signal and the delayed control signal.

Abstract: A semiconductor memory apparatus includes a write driver that receives a reset signal, a write enable signal, and a data signal, and transmits data, which is input from the data signal, to an input/output (IO) line when the write enable signal is applied, and an overdrive unit that is connected to the IO line of the write driver and outputs a voltage larger than a driving voltage of the write driver when the write driver outputs a high level.

Abstract: An internal voltage generator of a semiconductor memory device is capable of changing driving abilities between standby and active modes, to respond faster in the active mode and prevent a leakage current in the standby mode. The internal voltage generator of a semiconductor memory device comprises a driving controller for generating drive control signals having information about standby and active modes, a first voltage generator enabled by the drive control signals for comparing an internal voltage with a reference voltage in the standby and active modes, a first driver for generating the internal voltage according to a comparison performed by the first voltage generator, a second voltage generator enabled by the drive control signal for comparing the internal voltage with the reference voltage in the active mode, and a second driver for generating the internal voltage according to a comparison performed by the second voltage generator.

Abstract: A semiconductor memory apparatus includes a write driver that receives a reset signal, a write enable signal, and a data signal, and transmits data, which is input from the data signal, to an input/output (IO) line when the write enable signal is applied, and an overdrive unit that is connected to the IO line of the write driver and outputs a voltage larger than a driving voltage of the write driver when the write driver outputs a high level.

Abstract: An internal voltage generator of a semiconductor memory device is capable of changing driving abilities between standby and active modes, to respond faster in the active mode and prevent a leakage current in the standby mode. The internal voltage generator of a semiconductor memory device comprises a driving controller for generating drive control signals having information about standby and active modes, a first voltage generator enabled by the drive control signals for comparing an internal voltage with a reference voltage in the standby and active modes, a first driver for generating the internal voltage according to a comparison performed by the first voltage generator, a second voltage generator enabled by the drive control signal for comparing the internal voltage with the reference voltage in the active mode, and a second driver for generating the internal voltage according to a comparison performed by the second voltage generator.

Abstract: Disclosed is a test mode control apparatus of a semiconductor memory having a plurality of banks divided into first and second bank groups, a plurality of pads, and a test mode controller. The test mode controller outputs data to the pads from one of the first and second bank groups and then outputs data to the pads from the other of the first and second bank groups.