Hyundai Motor Company

Samsung Electronics Co., Ltd.

Kia Motors Corporation

Kia Corporation

Ki Hyun Choi

Sang Heon Lee

Jun Hyuk Yim

Sang Woo Pae

June Kyun Park

Hyung Sik Choi

Hyun Chul Sagong

Jin Woo Kim

Kyung Ho Kim

Soo Hyun Kim

Hyun Jin Kim

Sung Eun Kim

Jin-hwan Park

Dong Gun Kim

Jai Hak Kim

Min-Chul Kim

Sun-Mi Yoo

Ji Hyun Song

Bo Mi Kim

Won Chan Lee

Min Gon Shin

Hyun Su Jang

Seung Yeun Jeong

Yong Gil Song

Sagar Uttarwar

Uk Jin Jung

Sun In You

Pil Chang Son

A docking system for a vehicle and a building and a control method therefor, include a plurality of vehicle doors provided to enter the vehicle, a roof connected to an upper portion of each of the vehicle doors, and configured to be vertically lifted and lowered above and below the plurality of vehicle doors, wherein when the roof is lifted, an indoor space expands upward to connect the indoor space of the vehicle to an indoor space of the building into one space, and a sealing door respectively provided inside each of the vehicle doors, when the roof is lifted, which is rotated toward each of the vehicle doors to seal each of the vehicle doors and the roof.

Docking system for vehicle and building and control method therefor

A vehicle-building docking system and a method of controlling the same include a lower weather strip coupled to a lower door frame, an upper weather strip coupled to an upper door frame and configured to slide upwards or downwards together with the upper door frame with respect to the lower weather strip, and a sealing tube provided between the lower weather strip and the upper weather strip and configured to inflate after the upper weather strip slides upwards or downwards to seal the gap between the lower weather strip and the upper weather strip.

Vehicle-building docking system and method of controlling the same

A docking system between a vehicle and a building and a control method therefor include an entrance frame configured to extend in a direction towards a vehicle door, an external door provided at a side of the vehicle door to be opened, an internal door spaced from the external door and provided at a side of the building to be opened, and a sealing unit inserted into the entrance frame to be provided between the external door and the internal door, and configured to selectively extend in the direction toward the vehicle door to connect an internal space of the vehicle and an indoor space of the building into one space.

Docking system between vehicle and building and control method therefor

A hemming structure may include a door, in which the door has an internal panel and an external panel made of different materials, the hemming structure being configured such that each of the internal panel and the external panel is provided with a contact area with end portions of the internal panel and the external panel contacting with each other at the contact area, wherein the contact area includes a first contact area with a sealer applied onto a contact surface between the internal panel and the external panel, and a second contact area extending from the first contact area and being bent to be brought into contact with the internal panel at the first contact area, and the second contact area is provided with a bonding portion at which the internal panel and the external panel are mechanically bonded to each other.

Hemming structure and hemming method for hybrid-type door

A semiconductor device including a test structure includes a semiconductor substrate and a plurality of test structures on the semiconductor substrate. The test structures include respective lower active regions extending from the semiconductor substrate in a vertical direction and having different widths, and upper active regions extending from respective lower active regions in the vertical direction. Each of the lower active regions includes first regions and second regions. The first regions overlap the upper active regions and are between the second regions, and the second regions include outer regions and inner regions between the outer regions. The outer regions, located in the lower active regions having different widths, have different widths.

Semiconductor device including test structure

A semiconductor device may include an active region extending primarily in a first direction on a substrate. A gate structure may be disposed to intersect the active region, and extend primarily in a second direction intersecting the first direction. A gate isolation pattern may contact one end of the gate structure. The gate structure may include a plurality of portions each having different widths in the first direction, and the gate isolation pattern may have a width greater than a width of at least one of the plurality of portions of the gate structure.

Semiconductor device including a gate structure with a wider end portion than a linear portion

An operating method of a memory controller to update metadata using journaling data in a short time during a booting operation, and to maintain reliability of the updated metadata. The operating method of a memory controller includes loading metadata into sub-regions of a buffer memory, updating the metadata using journaling data in a state that error correction code (ECC) functions of memory controller for the sub-regions are disabled, generating a first parity data of data stored in the first sub-region, and enabling the ECC function of the first sub-region, after the first parity data is generated.

Operating method of memory controller, memory controller, and storage device

A semiconductor device is provided. The Semiconductor device includes a substrate, a first fin type pattern and a second fin type pattern which protrude from an upper surface of the substrate and are spaced apart from each other, a first semiconductor pattern on the first fin type pattern, a second semiconductor pattern on the second tin type pattern and a blocking pattern between the first semiconductor pattern and the second semiconductor pattern, a part of the first semiconductor pattern being inserted in the blocking pattern.

Semiconductor device and method for fabricating the same

A storage device includes a non-volatile memory including a first block, a second block and a block management area that stores an initial data write time and a final data write time for each of the first block and the second block. The storage device also includes a memory controller that determines a creation time and a modification time for first data in response to a permanently delete command identifying the first data, selects at least one of the first block and the second block to be permanently deleted by comparing the initial data write time and the final data write time for each of the first block and the second block with the creation time and the modification time, and permanently deletes the selected at least one of the first block and the second block.

Memory system and storage device capable of permanently deleting data stored in a non-volatile memory

Disclosed is a structure for a hybrid-type door, which is capable of preventing deformation caused by difference in thermal expansion coefficient between an outer panel of aluminum alloy and an inner panel of iron steel. The structure for a hybrid-type door may include an inner panel and an outer panel made of different material from the inner panel. In particular, an end portion of the inner panel may be hemmed by an end portion of the outer panel with the end portions of the inner panel and the outer panel being brought into contact with each other. A sealer may be applied to a contact area at which the inner panel and the outer panel are brought into contact with each other, and the sealer may include a first sealer that may be curable at a room temperature, and a second sealer that may be curable at a temperature greater than a curing temperature of the first sealer.

Hemming structure for hybrid-type door

Front door panel for an automobile

Rear door panel for an automobile

Growing community of inventors

Yongin-si, South Korea

Ki Hyun Choi