Abstract: A method of manufacturing an aerosol generating rod includes providing a sheet of a first non-tobacco material by using at least one first conveying roller; crimping the sheet of the first non-tobacco material by using a first crimping device; applying an aerosol generating material to at least one surface of the sheet of the first non-tobacco material by using a first spray nozzle; applying a liquid containing a tobacco component to at least one surface of the sheet of the first non-tobacco material by using a slit nozzle; drying the sheet of the first non-tobacco material by using a drying device; and forming the aerosol generating rod by forming the sheet of the first non-tobacco material into a rod by using a rod forming device.

Abstract: Provided are a smoking article having improved flavor persistence and a manufacturing method thereof, the smoking article including: a smoking material portion: a filter portion: and a wrapper wrapping at least a portion of the smoking material portion, wherein flavor persistence of the smoking article is improved by applying a flavoring sheet including a hydrocolloid material and flavoring to the wrapper.

Abstract: A flavoring sheet with an enhanced flavor holding amount and flavor retention and a smoking article including the same are provided. The flavoring sheet according to some embodiments of the present disclosure may include a hydrocolloid material configured to form a sheet, an emulsifier, and a fat-soluble flavoring. The emulsifier may serve as a cross-link between the water-soluble hydrocolloid material and the fat-soluble flavoring and increase a flavor holding amount and flavor retention of the flavoring sheet.

Abstract: A charge trapping non-volatile organic memory device according to the present invention has a structure in which an organic matter-based blocking layer, a trapping layer, and a tunneling layer are sequentially positioned between a gate and an organic semiconductor layer positioned on an insulating substrate, the trapping layer including a metal oxide and a polymer, and has an organic-inorganic composite film in which the metal oxide is dispersed in a polymer matrix in units of atoms.

Abstract: A ceramic electronic component includes a body including a dielectric layer and an internal electrode; and an external electrode disposed on the body, wherein a first carbon material is disposed in the internal electrode. The first carbon material includes carbon black, which has conductivity, a substantially spherical shape, and a particle diameter of 0.05 ?m or less.

Abstract: A flavoring sheet with improved physical properties, a smoking article including the same, and methods of producing the flavoring sheet and the smoking article are provided. The flavoring sheet according to some embodiments of the present disclosure may include a hydrocolloid material configured to form a sheet, a flavoring, and a plasticizer. The plasticizer can improve physical properties of the flavoring sheet and thus enhance workability of a process of cutting the flavoring sheet.

Abstract: The present invention relates to an artificially manipulated unsaturated fatty acid biosynthesis-associated factor and use thereof to increase the content of a specific unsaturated fatty acid of a plant body. More particularly, the present invention relates to a system capable of artificially controlling unsaturated fatty acid biosynthesis and a plant body produced thereby, which include an artificially manipulated unsaturated fatty acid biosynthesis-associated factor to control unsaturated fatty acid biosynthesis and a composition capable of artificially manipulating the factor. In a specific aspect, the present invention relates to artificially manipulated unsaturated fatty acid biosynthesis-associated factors such as FAD2, FAD3, FAD6, FAD7 and FAD8 and/or an unsaturated fatty acid biosynthesis controlling system by an expression product thereof.

Abstract: A method of operating a memory system according to an aspect of the present disclosure includes storing first data in a memory controller; storing second data in the memory controller, wherein the second data is read from a selected page of a first memory block of a memory device; and performing a program operation for storing third data, that include the first data and the second data, in a selected page of a second memory block of the memory device.

Abstract: A method of programming a nonvolatile memory device includes sequentially programming first to (n?1)th logical pages of all the physical pages of a first memory block of the memory blocks in response to a first program command, a step of loading data of the first to (n?1)th logical pages stored in a first physical page of the first memory block and latching the loaded data in first to (n?1)th latches of each of the page buffers, respectively, when receiving a second program command after programming all the first to (n?1)th logical pages, and latching new program data, received along with the second program command, in an nth latch of the corresponding page buffer and programming the data, stored in the first to nth latches of the page buffer, into a first physical page of a second memory block of the memory blocks.

Abstract: A semiconductor memory device includes a first plane and a second plane each configured to include a plurality of memory cells, and a data transfer circuit configured to transfer first data, stored in the memory cells of the first plane, to the second plane and transfer second data, stored in the memory cells of the second plane, to the first plane when a copyback operation is performed and to transfer the first data or the second data to an I/O circuit when a read operation is performed.

Abstract: The program method of a nonvolatile memory device includes detecting temperature, setting a step voltage, corresponding to an increment of a program voltage in a program operation of an incremental step pulse program (ISPP) method, wherein the step voltage changes based on the detected temperature, and performing the program operation and a program verification operation based on the set step voltage.

Abstract: A method of operating a memory system according to an aspect of the present disclosure includes storing first data in a memory controller; storing second data in the memory controller, wherein the second data is read from a selected page of a first memory block of a memory device; and performing a program operation for storing third data, that include the first data and the second data, in a selected page of a second memory block of the memory device.

Abstract: A method of programming a nonvolatile memory device includes sequentially programming first to (n?1)th logical pages of all the physical pages of a first memory block of the memory blocks in response to a first program command, a step of loading data of the first to (n?1)th logical pages stored in a first physical page of the first memory block and latching the loaded data in first to (n?1)th latches of each of the page buffers, respectively, when receiving a second program command after programming all the first to (n?1)th logical pages, and latching new program data, received along with the second program command, in an nth latch of the corresponding page buffer and programming the data, stored in the first to nth latches of the page buffer, into a first physical page of a second memory block of the memory blocks.

Abstract: A method of programming a nonvolatile memory device includes sequentially programming first to (n?1)th logical pages of all the physical pages of a first memory block of the memory blocks in response to a first program command, a step of loading data of the first to (n?1)th logical pages stored in a first physical page of the first memory block and latching the loaded data in first to (n?1)th latches of each of the page buffers, respectively, when receiving a second program command after programming all the first to (n?1)th logical pages, and latching new program data, received along with the second program command, in an nth latch of the corresponding page buffer and programming the data, stored in the first to nth latches of the page buffer, into a first physical page of a second memory block of the memory blocks.

Abstract: A method of programming a nonvolatile memory device includes sequentially programming first to (n?1)th logical pages of all the physical pages of a first memory block of the memory blocks in response to a first program command, a step of loading data of the first to (n?1)th logical pages stored in a first physical page of the first memory block and latching the loaded data in first to (n?1)th latches of each of the page buffers, respectively, when receiving a second program command after programming all the first to (n?1)th logical pages, and latching new program data, received along with the second program command, in an nth latch of the corresponding page buffer and programming the data, stored in the first to nth latches of the page buffer, into a first physical page of a second memory block of the memory blocks.

Abstract: A flash memory device comprises a memory cell array having a plurality of blocks. An address register section is configured to receive a start block address of the first block to be erased among a plurality of blocks to be erased and a last block address of the last block to be erased among the plurality of blocks to be erased. A controlling logic circuit is configured to output an erase command signal and an erase block address corresponding to one of the blocks to be erased. A block address comparing section is configured to compare the erase block address output by the controlling logic circuit with the last block address, and output an erase progress signal based on the comparison of the erase block address and the last block address to the controlling logic circuit. The controlling logic circuit outputs an erase block address of to another block to be erased until the erase progress signal indicates that the last block to be erased has been or is being erased.

Abstract: A flash memory device comprises a memory cell array having a plurality of blocks. An address register section is configured to receive a start block address of the first block to be erased among a plurality of blocks to be erased and a last block address of the last block to be erased among the plurality of blocks to be erased. A controlling logic circuit is configured to output an erase command signal and an erase block address corresponding to one of the blocks to be erased. A block address comparing section is configured to compare the erase block address output by the controlling logic circuit with the last block address, and output an erase progress signal based on the comparison of the erase block address and the last block address to the controlling logic circuit. The controlling logic circuit outputs an erase block address of to another block to be erased until the erase progress signal indicates that the last block to be erased has been or is being erased.