Abstract: A data storage device includes a storage including a buffer zone and a data zone and a controller for exchanging data with the storage by allocating at least one zone namespace (ZNS) in the data zone, a ZNS being a data storage region that is physically and logically divided and allocated to each of application programs driven in a host. The controller opens one or more sub buffer zones in the buffer zone, divides write data from the host into one or more segments respectively corresponding to sizes of the one or more sub buffer zones, buffers each of the one or more segments in a corresponding one of the one or more sub buffer zones, opens a ZNS corresponding to a length of the write data in the data zone, and migrates the one or more segments buffered in the sub buffer zones to the opened ZNS.

Abstract: A data storage device includes a storage including a buffer zone and a data zone and a controller for exchanging data with the storage by allocating at least one zone namespace (ZNS) in the data zone, a ZNS being a data storage region that is physically and logically divided and allocated to each of application programs driven in a host. The controller opens one or more sub buffer zones in the buffer zone, divides write data from the host into one or more segments respectively corresponding to sizes of the one or more sub buffer zones, buffers each of the one or more segments in a corresponding one of the one or more sub buffer zones, opens a ZNS corresponding to a length of the write data in the data zone, and migrates the one or more segments buffered in the sub buffer zones to the opened ZNS.

Abstract: A memory device includes a memory unit comprising one or more storage regions, and a control logic suitable for generating status information representing individualized states for the one or more storage regions.

Abstract: A memory device includes a memory unit comprising one or more storage regions, and a control logic suitable for generating status information representing individualized states for the one or more storage regions.

Abstract: Disclosed is a method for reducing booting time of a wireless terminal by decreasing the time taken for copying the codes of the NAND memory to the RAM, and thus shortening the time taken for readying the wireless terminal. The method includes executing a program counter of the code region of a virtual memory, determining whether a page table contains the physical address of a first physical memory mapped by the corresponding virtual address of the virtual memory reached by the program counter, causing an abort handler to assign the physical address mapped by the corresponding virtual address to the page table if the page table does not contain the physical address mapped by the corresponding virtual address, copying the code of the corresponding virtual address for performing the booting mode at the corresponding physical address of the first physical memory, and repeating the previous steps to copy all the codes for performing the booting mode to the first physical memory.

Abstract: Disclosed is a method for reducing booting time of a wireless terminal by decreasing the time taken for copying the codes of the NAND memory to the RAM, and thus shortening the time taken for readying the wireless terminal. The method includes executing a program counter of the code region of a virtual memory, determining whether a page table contains the physical address of a first physical memory mapped by the corresponding virtual address of the virtual memory reached by the program counter, causing an abort handler to assign the physical address mapped by the corresponding virtual address to the page table if the page table does not contain the physical address mapped by the corresponding virtual address, copying the code of the corresponding virtual address for performing the booting mode at the corresponding physical address of the first physical memory, and repeating the previous steps to copy all the codes for performing the booting mode to the first physical memory.