Abstract: A display device includes a substrate, a common electrode layer on the substrate where the common electrode layer includes a first common pad protruding in a second direction from a first reference side surface extending in a first direction and the second direction intersects the first direction, a driving layer between the substrate and the common electrode layer, a display layer between the driving layer and the common electrode layer, a first conductive via apart from the driving layer and between the substrate and the first common pad, and a driving chip at an opposite side of the first conductive via with reference to the driving layer.

Abstract: A method of removing a metal substance in a petrochemical product including: supplying a petrochemical product stream to an incoming tank through a supply pipe, circulating the petrochemical product stream through an incoming tank circulation pipe, and removing a metal substance included in the petrochemical product stream using a magnetic filter; transporting the petrochemical product stream to an outgoing tank through an incoming tank discharge pipe which is branched from the incoming tank circulation pipe and connected to an outgoing tank; circulating the petrochemical product stream through an outgoing tank circulation pipe provided in the outgoing tank and removing the metal substance included in the petrochemical product stream using a magnetic filter; and transporting the petrochemical product stream to a branch pipe branched from the outgoing tank circulation pipe to remove the metal substance using an ion exchange resin filter.

Abstract: An optical sensor includes a substrate, a photoelectric element disposed on the substrate and that includes a first electrode, an intermediate layer disposed on the first electrode, and a second electrode disposed on the intermediate layer, a barrier layer disposed on the second electrode, an insulating layer that covers the photoelectric element and the barrier layer, and a bias electrode disposed on the insulating layer and electrically connected to the second electrode. The barrier layer is spaced apart from the first electrode.

Abstract: Provided herein is an electronic device including: a host configured to judge a possibility of occurrence of an SPO based on driving information of a transportation device, and determine an operation mode of a storage device to be an SPO protection mode or a performance mode based on the possibility of an SPO occurrence; a buffer memory device configured to temporarily store user data received from the host; a memory device configured to store the user data output from the buffer memory device; and a memory controller configured to set a size of the buffer memory device depending on the determined operation mode and to control the buffer memory device to output at least a part of the user data temporarily stored in the buffer memory device to the memory device based on an amount of the buffer memory device used.

Abstract: A storage device includes: a memory device including a plurality of system blocks for storing system data; and a memory controller configured to control the memory device to store cyclic system data that is cyclically provided from a host, in an open system block among the plurality of system blocks, and control the memory device to perform a garbage collection operation on the plurality of system blocks, when a size of data stored in the open system block reaches a predetermined size. The cyclic system data may include a plurality of data slices provided from the host at predetermined cycles. The predetermined size may be determined based on size of the cyclic system data provided for a period of time corresponding to a common multiple of the predetermined cycles.

Abstract: Embodiments of the present disclosure relate to a memory system and an operating method thereof. According to the embodiments of the present disclosure, the memory system may completely scan each of one or more target memory blocks among the plurality of memory blocks, once in each scan period to detect an error in data stored in the corresponding target memory block and may block an attempted second scan of each target memory block in a scan period in which the corresponding target memory block has already been scanned until the scan period is completed.

Abstract: A storage device may include: a memory device including a plurality of memory blocks; a buffer memory device to store event information; and a memory controller configured to: upon occurrence of the predetermined event while a write operation, store, in the buffer memory device, the event information for the event page, and control the memory device to perform a test read operation to read at least one page in the plurality of memory blocks except the event page, based on the event information; upon failure of the test read operation, control the memory device to perform a migration operation of moving, to a replacement block, data stored in valid pages except a page on which the test read operation has fails among pages included in a memory block on which the test read operation fails.

Abstract: A storage device may include: a memory device including a plurality of memory blocks; a buffer memory device to store event information; and a memory controller configured to: upon occurrence of the predetermined event while a write operation, store, in the buffer memory device, the event information for the event page, and control the memory device to perform a test read operation to read at least one page in the plurality of memory blocks except the event page, based on the event information; upon failure of the test read operation, control the memory device to perform a migration operation of moving, to a replacement block, data stored in valid pages except a page on which the test read operation has fails among pages included in a memory block on which the test read operation fails.

Abstract: A storage device includes: a memory device including a plurality of system blocks for storing system data; and a memory controller configured to control the memory device to store cyclic system data that is cyclically provided from a host, in an open system block among the plurality of system blocks, and control the memory device to perform a garbage collection operation on the plurality of system blocks, when a size of data stored in the open system block reaches a predetermined size. The cyclic system data may include a plurality of data slices provided from the host at predetermined cycles. The predetermined size may be determined based on size of the cyclic system data provided for a period of time corresponding to a common multiple of the predetermined cycles.

Abstract: Embodiments of the present disclosure relate to a memory system and an operating method thereof. According to the embodiments of the present disclosure, the memory system may completely scan each of one or more target memory blocks among the plurality of memory blocks, once in each scan period to detect an error in data stored in the corresponding target memory block and may block an attempted second scan of each target memory block in a scan period in which the corresponding target memory block has already been scanned until the scan period is completed.

Abstract: Embodiments of the present invention may provide a microchip applicable to an electrophoresis employing UV detection and a method of manufacturing the same. The microchip of the present invention has a glass channel plate, which is formed on an upper surface thereof with a loading channel and a separation channel and is provided on the upper surface thereof with an optical slit layer made of silicon except the channel region, and a glass reservoir plate, which is formed with sample solution reservoirs and buffer solution reservoirs. The loading channel and the separation channel are formed on the channel plate by deep reactive ion etching. The sample solution reservoirs and the buffer solution reservoirs are formed in the reservoir plate by sand blasting. The channel plate and the reservoir plate are combined by anodic bonding the optical slit layer and the reservoir plate. Electrodes for sample and electrodes for buffer are deposited by sputtering Pt with a shadow mask after anodic bonding.

Abstract: Embodiments of the present invention may provide a microchip applicable to an electrophoresis employing UV detection and a method of manufacturing the same. The microchip of the present invention has a glass channel plate, which is formed on an upper surface thereof with a loading channel and a separation channel and is provided on the upper surface thereof with an optical slit layer made of silicon except the channel region, and a glass reservoir plate, which is formed with sample solution reservoirs and buffer solution reservoirs. The loading channel and the separation channel are formed on the channel plate by deep reactive ion etching. The sample solution reservoirs and the buffer solution reservoirs are formed in the reservoir plate by sand blasting. The channel plate and the reservoir plate are combined by anodic bonding the optical slit layer and the reservoir plate. Electrodes for sample and electrodes for buffer are deposited by sputtering Pt with a shadow mask after anodic bonding.

Abstract: A system for manufacturing a print board assembly, which is implemented in a system having a computer for storing parts insertion instruction diagrams and displaying parts insertion instructions, and a soldering unit for soldering a printed circuit board, includes: assembling different types of the printed circuit boards from pieces of parts and inspecting them in a multitude of cells; installing different types of the printed circuit boards in carriers to assemble them separately according to the parts insertion instructions displayed by the computer of each cell, and moving them to the soldering unit through a transfer conveyor line; and returning the carriers having the printed circuit boards completely soldered to each cell identified for the carriers through a return conveyor line.

Abstract: A method of manufacturing a print board assembly, which is implemented in a system having a computer for storing parts insertion instruction diagrams and displaying parts insertion instructions, and a soldering unit for soldering a printed circuit board, includes the steps of: assembling different types of the printed circuit boards from pieces of parts and inspecting them in a multitude of cells; installing different types of the printed circuit boards in carriers to assemble them separately according to the parts insertion instructions displayed by the computer of each cell, and moving them to the soldering unit through a transfer conveyor line; and returning the carriers having the printed circuit boards completely soldered to each cell identified for the carriers through a return conveyor line.