A seating assembly of a row of seating of a vehicle comprising: (a) a seat including a frame having an inboard side; and (b) an inboard armrest assembly comprising: (i) a lower bracket attached to the inboard side of the frame of the seat; (ii) an upper bracket pivotally coupled to the lower bracket about a pivot axis extending generally forward-to-rearward; and (iii) a cushion unit mounted upon the upper bracket, the upper bracket having an inboard position and, upon application of an outboard force to the upper bracket, an outboard position further outboard than the inboard position, the upper bracket transitioning from the inboard position to the outboard position about the pivot axis. The outboard force moving the cushion unit to the outboard position removes the inboard armrest assembly from projecting into a center aisle of a vehicle.

An in-cabin convertible bed apparatus for vehicles comprising the combined, substantially flat or level surface of a trunk floor, a folded rear seat with a flat back, a parcel shelf to extend the bed surface and may comprise a container used to contain a mattress or elevate the level of the trunk floor providing elevated ergonomics for better quality relaxation or sleep is determined. A method comprises: Optionally folding down a rear seat of a vehicle; folding of a parcel shelf and placing it with one end on about the back of the rear seat of the vehicle and placing the other end on the central console or the central console armrest of the vehicle; partly securing it from sliding or tipping by the back of a seat of a subsequent seat row of the vehicle.

A method and apparatus for automatically arranging seats of an autonomous vehicle enable seats to be remotely changed between a standard arrangement mode and a final target arrangement mode. The apparatus includes a manipulation device configured to generate a signal corresponding to a target arrangement mode of seats through manipulation by a passenger, seat motors respectively provided in the seats so as to control positions and postures of the seats, seat controllers for controlling operation of the seat motors, and a vehicle controller configured to transmit a signal from the manipulation device to the seat controllers, transmit an abnormal signal indicating jamming of the seats to the manipulation device or control the seat controllers provided in the vehicle. As a result, it is possible to easily change the seats to a desired arrangement mode in an autonomous vehicle without interference with peripheral components during movement of the seats.

An armrest assembly for a passenger seat includes a moveable arm including a proximal end and a distal end, a stowed configuration wherein the moveable arm is disposed adjacent and approximately parallel to a seatback of the passenger seat, and a deployed configuration wherein the moveable arm is approximately parallel to a seat pan of the passenger seat. The moveable arm may include a first portion and a second portion. The armrest assembly may include a first rotation axis such that the moveable arm pivots about the first rotation axis when moving between the stowed configuration and the deployed configuration. The armrest assembly may include a second rotation axis such that the second portion pivots about the second rotation axis relative to the first portion.

The present invention relates to a chair for supporting a person feeding a baby. The chair includes a seat. The chair includes an armrest operatively connected to the seat. The armrest is selectively rotatable about a vertical axis, and moveable forward/rearward, laterally inward/outward and vertically relative to the seat. The armrest is shaped to receive a baby thereon.

A seat control apparatus controls a seat of a vehicle in which an occupant of the vehicle sits. The seat control apparatus includes an occupant weight recognition unit; an occupant sitting state recognition unit configured to recognize an occupant sitting state including at least either of a grip force of the occupant and a load applied to the occupant; a lateral acceleration estimation unit configured to estimate a subsequent lateral acceleration of the vehicle; and a seat controller configured to control the seat. The seat has an occupant support adjustment portion including at least one of a first adjustment portion, a second adjustment portion, and a third adjustment portion. The seat controller calculates an adjustment amount of the occupant support adjustment portion and controls the occupant support adjustment portion in response to the calculated adjustment amount.

The present invention relates to a chair for supporting a person feeding a baby. The chair includes a seat. The chair includes an armrest operatively connected to the seat. The armrest is selectively rotatable about a vertical axis, and moveable forward/rearward, laterally inward/outward and vertically relative to the seat. The armrest is shaped to receive a baby thereon.

An apparatus and a method for controlling an interior of a vehicle are disclosed. The apparatus for controlling the interior of the vehicle may include an interface configured to receive, at predetermined cycles, information on at least one of video of an inside of the vehicle collected by a camera or sound of the inside of the vehicle collected from a microphone, and a processor configured to determine a relationship between passengers in the vehicle based on the information, and control the interior of the vehicle based on the relationship between the passengers. When determining the relationship between passengers, a passenger relationship estimation algorithm used may be a neural network model generated through machine learning, and may be stored in a memory in the apparatus for controlling the interior of the vehicle, or may be provided via a server in an artificial intelligence environment through a 5G network.

The invention relates to an accessory comprising a base (11) and a sliding part (12) movable in a straight line relative to the base (11), comprising a guide device, the base (11) comprising first guide unit and the sliding part (12) comprising second guide unit, the first guide unit and second guide unit interacting and one guide unit comprising at least one first bearing (25a, 25b) and at least one second bearing (28a, 28b) and the other guide unit comprising at least one first guide bar (22a, 22b) and one second guide bar (23a and 23b).

The special feature is that the first guide bar (22a, 22b) extends in a straight line along a first longitudinal axis (m.sub.1) and the second guide bar (23a, 23b) extends in a straight line along a second longitudinal axis (m.sub.2), the first longitudinal axis (m.sub.1) and/or the second longitudinal axis (m.sub.2) being arranged at an angle (β, γ) to a straight line (m.sub.3), which extends through a first bearing point (P1) of the first bearing (25a, 25b) and a second bearing point (P2) of the second bearing (28a, 28b).

An aircraft seat armrest includes an armrest portion and two extension elements coupled to the armrest portion on opposite sides thereof. A first of the two extension elements is rotatable from a first, closed, position where it is disposed below the armrest portion to a second, open, position wherein the first extension element is adjacent to the armrest portion. The arm rest also includes a first locking mechanism disposed on the first extension element that maintains the first extension element in the open position after it has been moved from the closed position to the open position.