A method for operating a vehicle including at least one device, in which the one device is altered from a first state to a second state by an electronic computing device of the vehicle. The electronic computing device ascertains a present time and automatically alters the device from the first state to the second state on the basis of the ascertained time. Provision is made for the second state to be ascertained automatically by the electronic computing device from the first state.

A vehicle seat includes a main part that forms a center portion of a front surface of a seatback; bolster parts that form side parts of the front surface of the seatback; and a reclining adjuster configured to adjust a backrest angle of the seatback, and to move a lower area of the main part toward a front side relative to the bolster parts as the main part is reclined.

An actuator arrangement for a seat includes a plurality of traction members and an actuator coupled to the plurality of traction members. The actuator has at least one first drive member which is rotatably supported. The actuator may include a second drive member which is supported moveably relative to the at least one first drive member. The traction members are coupled to the at least one first drive member so that rotation of the at least one first drive member gives rise to a cyclical change in the traction applied by the traction members.

An actuator arrangement for a seat includes a plurality of traction members and an actuator coupled to the plurality of traction members. The actuator has at least one first drive member which is rotatably supported. The actuator may include a second drive member which is supported moveably relative to the at least one first drive member. The traction members are coupled to the at least one first drive member so that rotation of the at least one first drive member gives rise to a cyclical change in the traction applied by the traction members.

An adjustable vehicle seat includes a seat base having a seat surface and a backrest having a backrest surface. In the seat base and/or in the backrest, sensors are provided that detect forces, pressures and/or movements effected by a person sitting on the vehicle seat and consequently issue a signal. A control device is provided that detects the signals issued by the sensors and actuates actuators provided in the vehicle seat to adjust the seat base and/or backrest, or components thereof, in order to adjust the vehicle seat.

A lordosis support for seat back rests, includes a support plate (10) held between two frame legs (14) of the back rest by tension members (12) and having on each side at least one point of attack (22) for the respective tension member (12), and an adjusting device (24) for adjusting the tension force of the tension members (12), wherein the distance between the two points of attack (22) is adjustable and the adjusting device (24) is configured to change this distance.

A lordosis support for seat back rests, includes a support plate (10) held between two frame legs (14) of the back rest by tension members (12) and having on each side at least one point of attack (22) for the respective tension member (12), and an adjusting device (24) for adjusting the tension force of the tension members (12), wherein the distance between the two points of attack (22) is adjustable and the adjusting device (24) is configured to change this distance.

A spacer (40) comprising a generally planar body portion (44) and one or more channels (42) defined by one or more unitary channel walls (48), channel wall segments (52), or both extending from the generally planar body portion (44); and one or more flexing regions (74) defined by two or more juxtaposed channel wall segments (52) separated by a gap (54) for providing flexibility to the spacer (40).

A modular monocoque backrest is provided. The modular monocoque backrest may comprise a front shroud, a back shroud, and an at least one back spar. The front shroud may be coupled to the back shroud, and the back spar may be configured as a mounting point, enabling the modular monocoque backrest to mount to an aircraft floor. The front shroud and the back shroud may comprise a carbon fiber composite material, allowing the modular monocoque backrest to be modular in nature. The carbon fiber composite material may enable the modular monocoque backrest to have a lightweight design while also maintaining resistance to dynamic crash loads.

A modular monocoque backrest is provided. The modular monocoque backrest may comprise a front shroud, a back shroud, and an at least one back spar. The front shroud may be coupled to the back shroud, and the back spar may be configured as a mounting point, enabling the modular monocoque backrest to mount to an aircraft floor. The front shroud and the back shroud may comprise a carbon fiber composite material, allowing the modular monocoque backrest to be modular in nature. The carbon fiber composite material may enable the modular monocoque backrest to have a lightweight design while also maintaining resistance to dynamic crash loads.