Abstract: A bottom member includes a light-absorbing element; a top coupling layer disposed on the light-absorbing element; a first buffer element disposed under the light-absorbing element, where a first opening is defined in the first buffer element; a filling layer disposed in the first opening; and a vibrating acoustic element disposed below the first buffer element, where the vibrating acoustic element overlaps with the first opening and the light-absorbing element when viewed from a top, and the vibrating acoustic element is coupled with the first buffer element via the filling layer.

Abstract: A memory cell array includes memory cells that are formed in vertical channels extended in a vertical direction with respect to a substrate. The vertical channels are arranged in a zigzag manner in parallel to the first direction. A read-write circuit is connected to the memory cells via bit lines. An address decoder decodes an address to provide decoded address signals to the read-write, circuit. The memory cells include outer cells and inner cells. A distance between one of the outer cells and a common source node is smaller than a distance between one of the inner cells and the common source node. Data of the memory cells are distributed among ECC sectors and a data input-output order of the memory cells is arranged such that each ECC sector has substantially the same number of the outer cells and the inner cells. Each ECC sector corresponds to an ECC operation unit.

Abstract: A memory cell array includes memory cells that are formed in vertical channels extended in a vertical direction with respect to a substrate. The vertical channels are arranged in a zig-zag manner in parallel to the first direction. A read-write circuit is connected to the memory cells via bit lines. An address decoder decodes an address to provide decoded address signals to the read-write circuit. The memory cells include outer cells and inner cells. A distance between one of the outer cells and a common source node is smaller than a distance between one of the inner cells and the common source node. Data of the memory cells are distributed among ECC sectors and a data input-output order of the memory cells is arranged such that each ECC sector has substantially the same number of the outer cells and the inner cells. Each ECC sector corresponds to an ECC operation unit.

Abstract: A non-volatile memory device for selectively performing a recovery operation and a method of operating the same are provided. The method of operating a non-volatile memory device includes receiving a first read command, performing a first sensing operation in response to the first read command, and receiving a second read command. The method further includes completing a memory operation corresponding to the first read command without performing a recovery operation when the second read command is received before the first sensing operation is completed, and performing a second sensing operation in response to the second read command.

Abstract: A method of performing diagnostic communication with a vehicle using a diagnostic device includes: acquiring a certificate revocation list (CRL) corresponding to a certificate of the diagnostic device from an external device, verifying a validity of the certificate using the acquired CRL, performing authentication with the vehicle when the validity of the certificate is verified, and starting diagnostic communication between the diagnostic device and the vehicle when the authentication is performed.

Abstract: A method of programming a flash memory device, which is a nonvolatile memory device including a plurality of pages, includes executing an Nth program loop of a program operation by applying an Nth selected program voltage to a selected word line from among the plurality of pages, and performing a program verify operation by applying a program verify voltage to the selected word line, counting the number of memory cells having a threshold voltage which is greater than or equal to the program verify voltage, from among memory cells connected to the selected word line, generating a program voltage revision value based on a result of the counting and an operational condition of the Nth program loop, and adding the program voltage revision value to an Mth preset program voltage of an Mth program loop executed after the Nth program loop where M>N.

Abstract: A method of programming a flash memory device, which is a nonvolatile memory device including a plurality of pages, includes executing an Nth program loop of a program operation by applying an Nth selected program voltage to a selected word line from among the plurality of pages, and performing a program verify operation by applying a program verify voltage to the selected word line, counting the number of memory cells having a threshold voltage which is greater than or equal to the program verify voltage, from among memory cells connected to the selected word line, generating a program voltage revision value based on a result of the counting and an operational condition of the Nth program loop, and adding the program voltage revision value to an Mth preset program voltage of an Mth program loop executed after the Nth program loop where M>N.

Abstract: A non-volatile memory device for selectively performing a recovery operation and a method of operating the same are provided. The method of operating a non-volatile memory device includes receiving a first read command, performing a first sensing operation in response to the first read command, and receiving a second read command. The method further includes completing a memory operation corresponding to the first read command without performing a recovery operation when the second read command is received before the first sensing operation is completed, and performing a second sensing operation in response to the second read command.

Abstract: A memory cell array includes memory cells that are formed in vertical channels extended in a vertical direction with respect to a substrate. The vertical channels are arranged in a zig-zag manner in parallel to the first direction. A read-write circuit is connected to the memory cells via bit lines. An address decoder decodes an address to provide decoded address signals to the read-write circuit. The memory cells include outer cells and inner cells. A distance between one of the outer cells and a common source node is smaller than a distance between one of the inner cells and the common source node. Data of the memory cells are distributed among ECC sectors and a data input-output order of the memory cells is arranged such that each ECC sector has substantially the same number of the outer cells and the inner cells. Each ECC sector corresponds to an ECC operation unit.

Abstract: A non-volatile memory device receives a start command through a command line, receives an address through an address line, receives at least one setting value through the address line, receives a confirm command corresponding to the start command through the command line, sets at least one parameter of the non-volatile memory device as the setting value based on the start command, a number of the setting value, and the confirm command, and executes an operation that corresponds to the start command, on a memory cell that corresponds to the address, based on the set parameter.

Abstract: A non-volatile memory device receives a start command through a command line, receives an address through an address line, receives at least one setting value through the address line, receives a confirm command corresponding to the start command through the command line, sets at least one parameter of the non-volatile memory device as the setting value based on the start command, a number of the setting value, and the confirm command, and executes an operation that corresponds to the start command, on a memory cell that corresponds to the address, based on the set parameter.

Abstract: A non-volatile memory device receives a start command through a command line, receives an address through an address line, receives at least one setting value through the address line, receives a confirm command corresponding to the start command through the command line, sets at least one parameter of the non-volatile memory device as the setting value based on the start command, a number of the setting value, and the confirm command, and executes an operation that corresponds to the start command, on a memory cell that corresponds to the address, based on the set parameter.

Abstract: A non-volatile memory device receives a start command through a command line, receives an address through an address line, receives at least one setting value through the address line, receives a confirm command corresponding to the start command through the command line, sets at least one parameter of the non-volatile memory device as the setting value based on the start command, a number of the setting value, and the confirm command, and executes an operation that corresponds to the start command, on a memory cell that corresponds to the address, based on the set parameter.

Abstract: A method is provided for reading data in a nonvolatile memory device. The method includes performing a first read operation on multiple multi-level memory cells (MLCs), performing a first sensing operation on at least one flag cell corresponding to the MLCs, selectively performing a second read operation on the MLCs based on a result of the first sensing operation, and performing a second sensing operation on the at least one flag cell when the second read operation is performed. Read data is output based on results of the first read operation and the first sensing operation when the second read operation is not performed, and the read data is output based on result of the first read operation, the first sensing operation, the second read operation and the second sensing operation when the second read operation is performed. The read data corresponds to programmed data in the MLCs.

Abstract: Provided is a flash memory device including a wordline voltage generating unit, a switch unit, a row decoder and a control circuit. The wordline voltage generating unit generates at least one wordline voltage for read operations of a multi-level cell in the flash memory device. The switch unit receives the at least one wordline voltage and an initialization voltage, and selectively outputs the at least one wordline voltage and the initialization voltage through a switching operation. The row decoder operates the wordline of the multi-level cell based on an output of the switch unit. The control circuit provides at least one control signal to the switch unit, which outputs the initialization voltage in at least one section of the read operation in response to the at least one control signal.

Abstract: A method is provided for reading data in a nonvolatile memory device. The method includes performing a first read operation on multiple multi-level memory cells (MLCs), performing a first sensing operation on at least one flag cell corresponding to the MLCs, selectively performing a second read operation on the MLCs based on a result of the first sensing operation, and performing a second sensing operation on the at least one flag cell when the second read operation is performed. Read data is output based on results of the first read operation and the first sensing operation when the second read operation is not performed, and the read data is output based on result of the first read operation, the first sensing operation, the second read operation and the second sensing operation when the second read operation is performed. The read data corresponds to programmed data in the MLCs.

Abstract: Provided is a flash memory device including a wordline voltage generating unit, a switch unit, a row decoder and a control circuit. The wordline voltage generating unit generates at least one wordline voltage for read operations of a multi-level cell in the flash memory device. The switch unit receives the at least one wordline voltage and an initialization voltage, and selectively outputs the at least one wordline voltage and the initialization voltage through a switching operation. The row decoder operates the wordline of the multi-level cell based on an output of the switch unit. The control circuit provides at least one control signal to the switch unit, which outputs the initialization voltage in at least one section of the read operation in response to the at least one control signal.

Abstract: According to example embodiments, a semiconductor memory device may include a write voltage generator configured to generate a write voltage to perform the write operation to at least one of a plurality of banks where the write voltage generator generates the write voltage to have a voltage level of a read voltage before the write operation changes to a read operation. The semiconductor device may also include a read voltage generator configured to generate a read voltage to perform the read operation to at least one of the other plurality of banks and/or a plurality of switches configured to switch a voltage applied to at least one of the banks to one of the write voltage and the read voltage in response to a plurality of control signals.

Abstract: Provided is a flash memory device including a wordline voltage generating unit, a switch unit, a row decoder and a control circuit. The wordline voltage generating unit generates at least one wordline voltage for read operations of a multi-level cell in the flash memory device. The switch unit receives the at least one wordline voltage and an initialization voltage, and selectively outputs the at least one wordline voltage and the initialization voltage through a switching operation. The row decoder operates the wordline of the multi-level cell based on an output of the switch unit. The control circuit provides at least one control signal to the switch unit, which outputs the initialization voltage in at least one section of the read operation in response to the at least one control signal.

Abstract: A nonvolatile semiconductor memory device and a programming method thereof are provided. The programming method includes first programming a cell among a plurality of adjacent memory cells to the highest threshold voltage distribution corresponding to a data state, and subsequently programming the other adjacent cells to the lower threshold voltage distributions corresponding to second and third data states. The second data state and the third data state may have the second highest threshold voltage distribution and the third highest threshold voltage distribution, respectively, or the third highest threshold voltage distribution and the second highest threshold voltage distribution, respectively.