A seat assembly, a multi-passenger vehicle, and a method for attaching seats to a floor of a vehicle that employ an electromagnetic coupling between the seats and the floor. A power supply supplies electricity to the electromagnetic coupling to secure the seats to the floor and is turned off to release the seats from the floor without tools or workers bending down below the seats to remove coupling devices. The seats can therefore be readily repositioned or rearranged to adjust the spacing between the seats. Resident induction coupling is included between the floor of the vehicle and the seats to provide wireless power to the seats.

A rail assembly may include a translatable rail, a fixed rail, a gearbox assembly, and a nut. The fixed rail may include a spindle bracket that may define an aperture and the spindle may extend through the aperture. The gearbox assembly may be disposed on the spindle and configured to carry the translatable rail along the longitudinal direction and the fixed rail. The nut may be fixed to the gearbox assembly and include a first portion and a second portion that may be integrally formed with one another. A section of the first portion may be configured to be disposed in the aperture of the spindle bracket.

The present disclosure provides one example of an easy chair in light of market trends related to health and fitness. The easy chair of the present disclosure includes a seat body configured for a user to sit thereon, and further includes a monitoring part configured to determine whether the user is performing muscle strength training on the seat body and detect the user's performance of the muscle strength training, and a notification part configured to notify the user of a detection result of the monitoring part in a form of recognizable information.

A system and method are described for controlling a vehicle interior environmental condition. A biometric sensor senses a biometric condition of a vehicle seat occupant and generates a sensed biometric condition value. A controller receives the sensed biometric condition value, a sensed interior environmental condition value, and a sensed exterior environmental condition value. Each of multiple exterior environmental condition values has an associated biometric condition value defined as optimal for the vehicle occupant. The controller determines the optimal biometric condition value associated with the sensed exterior environmental condition value, compares the optimal biometric condition value to the sensed biometric condition value, and in response to a difference between the optimal biometric condition value and the sensed biometric condition value, generates a control signal to control an actuator to control the controllable interior environmental condition to reduce the difference between sensed biometric condition value and the optimal biometric condition value.

A seat position sensor arrangement for measuring a position of a seat with respect to a fixed part of an automotive vehicle includes a driving mechanism, a pair of wheels rotatably coupled by the driving mechanism and rotating with different angular speeds upon being driven by the driving mechanism, and at least one rotation sensor subassembly corresponding to each of the wheels. Each rotation sensor subassembly measures an angle of rotation of one of the wheels.

The number of components required to restrict the movement of an operating section, when a cushion frame is moved in the height direction, and a link member, which is for moving the cushion frame, is reduced. The seat is provided with: a drive link that is rotatably attached to the cushion frame and that moves the cushion frame in the height direction according to rotation thereof; a gear part that engages with the drive link and that rotates the drive link; a link-rotation restricting member for restricting the rotation range of the drive link; an operating section that accepts an operation for adjusting the height of the cushion frame; and a rotation application section for rotating the drive link via the gear part according to the operating section. The movement of the operating section is restricted as a result of the link-rotation restricting member abutting against the rotation application section.

Disclosed are an apparatus and a method for detecting a fallen object which adjust a passenger's seat to easily pick up the fallen object in the vehicle. A fallen object detecting apparatus according to one embodiment of the present disclosure is an apparatus for detecting a fallen object in a vehicle which includes a camera configured to generate at least one image of an inside of the vehicle; an image identifier configured to identify at least one passenger and at least one object from the image, and to determine a location of the fallen object in response to a falling of the object in the vehicle; and a controller configured to provide the determined location of the fallen object via at least one component located in the vehicle and adjust a seat of the passenger based on the location of the fallen object and a condition of the passenger.

A vehicle includes: a driving seat; a pair of doors; a seat moving mechanism configured to move the driving seat between a driving state and a receiving state, the driving seat in the driving state being positioned at a vehicle width direction center and facing a vehicle front, and the receiving state satisfying at least one condition of: the driving seat being positioned closer to one door of the pair of doors than in the driving state or the driving seat facing further toward the one door than in the driving state; a detection unit configured to detect a portable device in a detection area in a vicinity of the vehicle and outside a passenger compartment; and a seat control unit that controls the seat moving mechanism so as to move the driving seat into the receiving state.

Armrest arrangement for a motor vehicle seat having a positionally fixed carrier structure, an armrest structure shiftable about a pivot axis an inclination adjustment device for the armrest structure and which has an adjustment element supported on the carrier structure, a drive device operatively connected to the adjustment element and a blocking device, operatively connected to the adjustment element. In a release state of the inclination adjustment device, the drive device brings about a driven adjustment movement of the adjustment element along an adjustment axis relative to the armrest structure, and in a blocking state of the inclination adjustment device, the blocking device brings about blocking of the adjustment element along the adjustment axis. In the blocking state, the drive device is operatively connected to the blocking device in a force- and/or torque-transmitting manner such that the drive device reinforces a blocking action of the blocking device.

Systems and methods for automatically adjusting the interior cabin of an autonomous vehicle are provided. In one example embodiment, an autonomous vehicle can include a main body including a floor and a ceiling that at least partially define an interior cabin of the autonomous vehicle. The autonomous vehicle can include a partition wall that is movable within the interior cabin of the autonomous vehicle. The partition wall can extend between the floor to the ceiling of the main body. The autonomous vehicle can include a computing system configured to receive data indicative of one or more service assignments associated with the autonomous vehicle and to adjust a position of the partition wall within the interior cabin based at least in part on the one or more service assignments.