Abstract: An airbag deployment control system and an airbag deployment control method are capable of handling various collision modes by optimally restraining a passenger in various seat positions, and the airbag deployment control system includes airbag cushions provided for each seat and configured to be deployed in shapes that cover a lateral surface and a front surface of the seat at left or right sides of the seat, and a controller configured to perform control to selectively deploy the left or right airbag cushions for each of the seats depending on a collision direction of a vehicle, whether a passenger is seated in the seat, and a seat direction.

Abstract: In an embodiment a shape-transformable switch apparatus includes a housing comprising an accommodating region with a high voltage electrode, a Electrorheological (ER) fluid located in the accommodating region, the ER fluid configured to change viscosity and rigidity, a switch cover shielding an upper portion of the housing, the switch cover configured to change a shape based on changes of the viscosity and of the rigidity of the ER fluid; and a controller configured to allow a voltage to be applied to the high voltage electrode such that an electrostatic attraction is generated so that the ER fluid flows and is pressed against the switch cover thereby changing a shape of the switch cover.

Abstract: In an embodiment a shape-transformable switch apparatus includes an electromagnet arranged inside a housing, wherein the electromagnet has an outer circumferential surface wound with a solenoid coil and is configured to provide a magnetic field when a power is applied to the solenoid coil, a Magnetorheological Elastomer (MRE) disposed on an upper portion of the electromagnet, wherein the MRE is configured to change from an initial soft state to a relatively hard state when the power is applied to the solenoid coil and configured to be pressed and to move upward when the electromagnet moves upward and a switch cover disposed on an upper portion of the housing, the switch cover configured to form a switch shape and to protrude outward when the MRE moves in an upward direction.

Abstract: In an embodiment a magnetorheological fluid-based haptic knob apparatus includes a housing, a solenoid coil mounted inside the housing, the solenoid coil configured to generate a magnetic field thereby providing magnetic flux, a shaft connected to the housing and including a rotational rod, wherein the shaft is configured to generate a plurality of modes and a magnetorheological fluid accommodated inside the housing, the magnetorheological fluid configured to form a magnetic chain in response of the magnetic flux.

Abstract: In an embodiment a magnetorheological fluid-based haptic knob apparatus includes a housing, a solenoid coil mounted inside the housing, the solenoid coil configured to generate a magnetic field thereby providing magnetic flux, a shaft connected to the housing and including a rotational rod, wherein the shaft is configured to generate a plurality of modes and a magnetorheological fluid accommodated inside the housing, the magnetorheological fluid configured to form a magnetic chain in response of the magnetic flux.

Abstract: In an embodiment a shape-transformable switch apparatus includes a housing comprising an accommodating region with a high voltage electrode, a Electrorheological (ER) fluid located in the accommodating region, the ER fluid configured to change viscosity and rigidity, a switch cover shielding an upper portion of the housing, the switch cover configured to change a shape based on changes of the viscosity and of the rigidity of the ER fluid; and a controller configured to allow a voltage to be applied to the high voltage electrode such that an electrostatic attraction is generated so that the ER fluid flows and is pressed against the switch cover thereby changing a shape of the switch cover.

Abstract: In an embodiment a shape-transformable switch apparatus includes an electromagnet arranged inside a housing, wherein the electromagnet has an outer circumferential surface wound with a solenoid coil and is configured to provide a magnetic field when a power is applied to the solenoid coil, a Magnetorheological Elastomer (MRE) disposed on an upper portion of the electromagnet, wherein the MRE is configured to change from an initial soft state to a relatively hard state when the power is applied to the solenoid coil and configured to be pressed and to move upward when the electromagnet moves upward and a switch cover disposed on an upper portion of the housing, the switch cover configured to form a switch shape and to protrude outward when the MRE moves in an upward direction.

Abstract: Proposed is a separately movable console structure including a first console positioned underneath an armrest cover and configured to move along a console rail, an insertion portion being formed inside the first console, and a second console positioned behind the first console and configured to move along the console rail. In particular, a protrusion is formed on the second console to be inserted into the insertion portion. The separately movable console structure further includes: a first drive unit fastened to the console rail and configured to apply a driving force to the first console, a second drive unit positioned adjacent to the first drive unit and configured to apply a driving force to the second console, and a controller connected to the first console and configured to move the first and second consoles independently of each other or to move the first and second consoles together with each other.

Abstract: A bidirectional sliding armrest includes: an armrest cover located at an upper portion of a console body provided in a vehicle body so as to be spaced apart therefrom; a power transmission unit fastened to a lower portion of the armrest cover and configured to move to correspond to operation of the armrest cover; a console fixing unit located on the console body and configured to include a plurality of fixing recesses; and a locking unit located on a lower surface of the armrest cover. The locking unit is fixed to the plurality of fixing recesses, and configured to fix the lengthwise position of the armrest cover.

Abstract: An apparatus for deploying a display unit includes: a cowl cross bar disposed inside a crash pad; a housing disposed on the cowl cross bar and fastened to a center part of the crash pad; a display unit configured to be deployed along the housing; a rotating unit configured to rotate the housing with respect to the cowl cross bar; a driving unit coupled to the cowl cross bar in order to cause sliding movement of the cowl cross bar; and a controller configured to control at least one of the extent of deployment of the display unit, the amount of sliding movement of the cowl cross bar, or the amount of rotation of the housing.

Abstract: An apparatus for deploying a display unit includes: a cowl cross bar disposed inside a crash pad; a housing disposed on the cowl cross bar and fastened to a center part of the crash pad; a display unit configured to be deployed along the housing; a rotating unit configured to rotate the housing with respect to the cowl cross bar; a driving unit coupled to the cowl cross bar in order to cause sliding movement of the cowl cross bar; and a controller configured to control at least one of the extent of deployment of the display unit, the amount of sliding movement of the cowl cross bar, or the amount of rotation of the housing.

Abstract: Dry, directly compressed tablets are provided by a blend of from 60 to 90 weight percent of acetaminophen and from 10 to 40 weight percent of non-ionizable lipid having a melting point of from 55.degree. C. to 80.degree. C. The preferred lipid is hydrogenated cotton seed oil. The tablets are characterized by a hardness of at least 5 kgs. When produced by a conventional tabletting machine using a pressure of 1.5 to 20 tons per square inch.