A vehicle seat includes: a first frame member that forms a framework of the vehicle seat and extends in a seat vertical direction or in a seat front-and-rear direction; a second frame member that extends in a seat width direction; and a component mounting bracket that allows to mount a component and is provided in an inside-seat corner portion of a connecting part of the first frame member and the second frame member, wherein the first frame member or the second frame member has a hole into which a portion of the component is inserted when the component is mounted in the component mounting bracket.

An adjustable occupant restraint system for a vehicle includes a floor bracket configured to couple to a vehicle floor, a link system rotatably coupled to the floor bracket, and a seat belt buckle coupled to the link system. The link system rotates in response to and along with the fore/aft adjustment of the vehicle seat to substantially maintain the seat belt buckle at a hip point of a seat occupant throughout the fore/aft adjustment of the vehicle seat.

A belt mount for a vehicle seat or a vehicle bench seat in a vehicle is proposed, wherein the belt mount comprises an attachment mechanism for attaching to a vehicle structure in the region of a vehicle floor such that a lower end section of the belt mount can be fixed in the region of the vehicle floor, wherein the belt mount comprises a support arrangement with a support member for supporting on the vehicle structure of the vehicle. According to the invention, the support member, protruding forward in the driving direction, is present on the belt mount such that it is spaced apart at the top from the lower end section of the belt mount and is formed in such a way that the support member can be connected in the region of the vehicle structure of the vehicle which is present above the vehicle floor.

A vehicle seat including a controller configured to, in a case where an excessive external load in a front and rear direction, by which a first back frame part is configured to be pressed and bent toward a second back frame part, is applied to the first back frame part, adjust an inclination angle of each back frame part by driving and controlling a reclining adjuster so that the first back frame part can be pressed against the second back frame part by being bent due to the excessive external load, the first back frame part being one of a front back frame part and a rear back frame part of a seat back, and the second back frame part being another of the front back frame part and the rear back frame part.

An upper-front of a seatback is cut, providing a hole at a position the occupant's shoulder may lie, and an engaging means able to engage with a shoulder webbing is fitted in the hole. The engaging means holds the shoulder webbing, which is wrapped around the occupant. The engaging means is, for example, a (second) buckle fitted in the hole. A second tongue (intermediate tongue) is mounted on a middle part of the shoulder webbing. The shoulder webbing is wrapped slantwise around the occupant's shoulder when the second tongue is engaged with the second buckle.

A vehicle has a frame, seats, front and rear suspension assemblies, front and rear wheels, a motor, a rear differential, left and right constant velocity joints operatively connected to the rear differential; and left and right half-shaft operatively connecting the constant velocity joints to the rear wheels. Each of the rear suspension assemblies has: a trailing arm having a front end pivotally connected to the frame; a knuckle pivotally connected to a rear portion of the trailing arm; lower and upper links pivotally connected between the trailing arm and the frame; and a toe link pivotally connected between the knuckle and the frame. Each of the rear suspension assemblies has an instant center axis passing through a connection between the trailing arm and the frame. Centers of the velocity joints are laterally outward of their corresponding instant center axes when viewed in a top plan view of the vehicle.

A utility vehicle is provided with a hip guard member disposed adjacent to a seat for a crew member and guarding the crew member sitting on the seat from outside in a vehicle width direction. The utility vehicle includes: a seat frame provided below the seat and supporting the seat; and a seatbelt apparatus configured to hold the crew member sitting on the seat. The seatbelt apparatus includes a retractor supporting an end of webbing so as to freely wind the webbing. The retractor is attached to the seat frame, and the retractor projects outward in the vehicle width direction from the hip guard member.

A motor vehicle seat including a sitting part including a base panel bordered at least partially by a side panel, the sitting part configured to be mounted on the vehicle floor panel in two different positions of: a first accommodating position, in which the side panel extends in a first direction, at the rear of the base panel and forms a portion of the seatback of the seat, and a second reversed position, in which the side panel extends in front of the base panel, in a second direction opposite the first. The sitting part further includes an opening configured for passage of a base for securing a safety belt when the sitting part is in the accommodating position. A motor vehicle can include the seat.

A vehicle seat having a panel arranged as a trim part on a structure of the vehicle seat by means of a panel holder so as to be fixed to the seat structure. Provision is made that the panel holder includes, in addition to a primary frame, a crash-modified auxiliary frame, which frames are made of formed wires, wherein the auxiliary frame, in the assembled state of the panel holder and the panel, is arranged in a critical region of the panel where a high crash force acts on the panel in the event of a crash.

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.