Abstract: A nonvolatile memory device includes a block switching unit which transmits an operation signal to a memory cell array, and a voltage sustaining block which provides a voltage to sustain the operation signal to an arbitrary interconnection overlapping the block switching unit.

Abstract: A nonvolatile memory device includes a block switching unit which transmits an operation signal to a memory cell array, and a voltage sustaining block which provides a voltage to sustain the operation signal to an arbitrary interconnection overlapping the block switching unit.

Abstract: A semiconductor device includes a memory cell array includes a plurality of memory blocks, each of the memory blocks including a plurality of pages, wherein at least one of the plurality of memory blocks functions as a first storage unit to store a plurality of page addresses associated with the plurality of pages. A second storage unit loads a page address stored in the first storage unit. A control circuit is configured to cancel a program operation if an externally inputted page address is less than or equal to the page address loaded into the second storage unit, and perform the program operation and update the second storage unit with the externally inputted page address if the externally input page address is greater than the page address loaded into the second storage unit.

Abstract: The present technology relates to an electronic device, and more particularly, to a semiconductor device. The semiconductor device includes a peripheral circuit, a power output line connected to the peripheral circuit and configured to transmit an operation voltage to the peripheral circuit, a current compensator including an OP-amplifier connected to the power output line, and a capacitor connected between an output terminal of the OP-amplifier and the power output line.

Abstract: A semiconductor memory device includes a memory cell array configured to include memory cells, peripheral circuits configured to read out data stored in a selected memory cell in a read operation, and a controller configured to control the peripheral circuits so that the peripheral circuits sense a voltage level of the bit line when a first read voltage of the read voltages is supplied to the word line and the peripheral circuits sense voltage levels of the bit line when a second read voltage lower than the first read voltage by a specific level and a third read voltage higher than the first read voltage by the specific level are supplied to the word line in order to determine whether a threshold voltage of the selected memory cell falls within a set voltage distribution in the read operation.

Abstract: A non-volatile memory device includes a plurality of memory blocks, first block switches configured to correspond to the respective odd-numbered memory blocks of the plurality of memory blocks and couple the word lines of the odd-numbered memory blocks and first local lines, second block switches configured to correspond to the respective even-numbered memory blocks of the plurality of memory blocks and couple the word lines of the even-numbered memory blocks and second local lines, a local line switch unit configured to selectively couple the first local lines or the second local lines and global word lines, and a high voltage generator configured to supply operating voltages to the global word lines.

Abstract: A semiconductor device includes a memory cell array includes a plurality of memory blocks, each of the memory blocks including a plurality of pages, wherein at least one of the plurality of memory blocks functions as a first storage unit to store a plurality of page addresses associated with the plurality of pages. A second storage unit loads a page address stored in the first storage unit. A control circuit is configured to cancel a program operation if an externally inputted page address is less than or equal to the page address loaded into the second storage unit, and perform the program operation and update the second storage unit with the externally inputted page address if the externally input page address is greater than the page address loaded into the second storage unit.

Abstract: A semiconductor memory device is operated by, inter alia, sequentially inputting program data to page buffers coupled to selected pages of at least four planes in order to program selected memory cells included in the selected pages; performing a program operation on each of the four planes; performing a program verify operation on each of the four planes; and inputting new program data for next pages to the page buffers coupled to the next pages, after determining the selected pages of at least two of the four planes have passed the program verify operation, while performing the program operations and the program verify operations on the two remaining planes.

Abstract: The present technology relates to an electronic device, and more particularly, to a semiconductor device. The semiconductor device includes a peripheral circuit, a power output line connected to the peripheral circuit and configured to transmit an operation voltage to the peripheral circuit, a current compensator including an OP-amplifier connected to the power output line, and a capacitor connected between an output terminal of the OP-amplifier and the power output line.

Abstract: A nonvolatile memory device including a plurality of memory cells arranged at a region where a word line and a bit line cross each other, a voltage generator configured to generate a program voltage to apply to the word line by increasing the program voltage by an increment whenever a program loop is repeated, a current sensing check unit configured to compare a number of failed memory cells among the memory cells to first and second reference values, and a control logic configured to control the voltage generator to change the increment according to the comparison result of the current sensing check unit.

Abstract: A voltage supply circuit includes a high voltage generator configured to generate an operating voltage, a global word line switch configured to transfer the operating voltage to global word lines, a plurality of local line switches coupled to the global word lines and configured to transfer the operating voltage to corresponding local word lines, a precharge unit configured to supply a precharge voltage to an unselect local line switch adjacent to a select local line switch to which the operating voltage will be supplied, from among the plurality of local line switches, in a preparation section before an operation is started, and a coupling unit configured to couple the unselect local line switch and the global word line switch when the operation is started.

Abstract: A nonvolatile memory device including a plurality of memory cells arranged at a region where a word line and a bit line cross each other, a voltage generator configured to generate a program voltage to apply to the word line by increasing the program voltage by an increment whenever a program loop is repeated, a current sensing check unit configured to compare a number of failed memory cells among the memory cells to first and second reference values, and a control logic configured to control the voltage generator to change the increment according to the comparison result of the current sensing check unit.

Abstract: Programming a semiconductor memory device includes: performing a program loop using a blind program operation until the selected cell threshold voltages reach a first verification level; upon detecting a cell having the threshold voltage reaching the first verification level, verifying whether a cell having the threshold voltage reached a second verification level higher than the first verification level; upon verifying a cell having the threshold voltage reaching the second verification level, continuously performing program loops on cells having the first verification level as a target level and on cells having the second verification level as a target level; and upon verifying no cell having the threshold voltage reaching the second verification level, performing a program loop on memory cells having a target level higher than the first verification level, after programming the memory cells having the first verification level as the target level.

Abstract: A memory system includes a flash memory device including a first memory block group on which a least significant bit (LSB) program operation has been performed and a program operation on another bit has not been performed and a second memory block group on which both the LSB program operation and a most significant bit (MSB) program operation have been performed and a memory controller configured to check which of the first and second memory block groups a memory block selected for an LSB data read operation belongs to and set a level of a read voltage for the LSB data read operation of the selected memory block.

Abstract: A semiconductor memory device is operated by, inter alia, sequentially inputting program data to page buffers coupled to selected pages of at least four planes in order to program selected memory cells included in the selected pages; performing a program operation on each of the four planes; performing a program verify operation on each of the four planes; and inputting new program data for next pages to the page buffers coupled to the next pages, after determining the selected pages of at least two of the four planes have passed the program verify operation, while performing the program operations and the program verify operations on the two remaining planes.

Abstract: A voltage generation circuit comprises a voltage generation control unit configured to output one of a first voltage level determination signal having a fixed data value and a second voltage level determination signal having a varying data value in response to a selection signal, and a voltage generation unit configured to generate a voltage having a single pulse form or a voltage having a pulse form whose rising edge portion rises in incremental voltage steps in response to the voltage level determination signal outputted from the voltage generation control unit.

Abstract: A voltage supply circuit includes a high voltage generator configured to generate an operating voltage, a global word line switch configured to transfer the operating voltage to global word lines, a plurality of local line switches coupled to the global word lines and configured to transfer the operating voltage to corresponding local word lines, a precharge unit configured to supply a precharge voltage to an unselect local line switch adjacent to a select local line switch to which the operating voltage will be supplied, from among the plurality of local line switches, in a preparation section before an operation is started, and a coupling unit configured to couple the unselect local line switch and the global word line switch when the operation is started.

Abstract: A non-volatile memory device includes a plurality of memory blocks, first block switches configured to correspond to the respective odd-numbered memory blocks of the plurality of memory blocks and couple the word lines of the odd-numbered memory blocks and first local lines, second block switches configured to correspond to the respective even-numbered memory blocks of the plurality of memory blocks and couple the word lines of the even-numbered memory blocks and second local lines, a local line switch unit configured to selectively couple the first local lines or the second local lines and global word lines, and a high voltage generator configured to supply operating voltages to the global word lines.

Abstract: A semiconductor memory device includes a memory cell array configured to include memory cells, peripheral circuits configured to read out data stored in a selected memory cell in a read operation, and a controller configured to control the peripheral circuits so that the peripheral circuits sense a voltage level of the bit line when a first read voltage of the read voltages is supplied to the word line and the peripheral circuits sense voltage levels of the bit line when a second read voltage lower than the first read voltage by a specific level and a third read voltage higher than the first read voltage by the specific level are supplied to the word line in order to determine whether a threshold voltage of the selected memory cell falls within a set voltage distribution in the read operation.

Abstract: Programming a semiconductor memory device includes: performing a program loop using a blind program operation until the selected cell threshold voltages reach a first verification level; upon detecting a cell having the threshold voltage reaching the first verification level, verifying whether a cell having the threshold voltage reached a second verification level higher than the first verification level; upon verifying a cell having the threshold voltage reaching the second verification level, continuously performing program loops on cells having the first verification level as a target level and on cells having the second verification level as a target level; and upon verifying no cell having the threshold voltage reaching the second verification level, performing a program loop on memory cells having a target level higher than the first verification level, after programming the memory cells having the first verification level as the target level.