A seating arrangement for a vehicle having a cabin space is provided. The seating arrangement includes a vehicle, at least one front seat within the vehicle, and at least one rear seat arranged behind the at least one front seat of the vehicle. The at least one front seat is rigidly fixed to and suspended from a portion of the vehicle, thereby providing a free space underneath the at least one front seat, such that an occupant of the vehicle seated in the at least one rear seat is able to position at least a lower portion of one or both legs thereof in the free space underneath the at least one front seat. A flexible covering, such as bristles may be attached to the periphery of the vehicle floor opening, so that a driver's foot can pass from inside the vehicle cabin, to the ground outside the vehicle.

A floor structure for a vehicle includes: a center floor; a plurality of longitudinal members attachably disposed on a top surface of the center floor; a plurality of seat rails disposed in the plurality of longitudinal members, respectively; and a battery assembly arranged under the center floor.

Child restraint system in a vehicle with features to support and ensconse the head and shoulders of an occupant during lateral impact to the vehicle.

An embodiment rear vehicle body structure of a vehicle including an underbody and an upper body coupled to the underbody includes a reinforcing member coupled to an upper surface of a rear floor panel provided on the rear side of the upper body and connected to both chassis frames of the underbody through the rear floor panel.

A tapered short tunnel for use on a tracked vehicle, such as a snowmobile. The tapered short tunnel has a tapered distal end having a width less than a width of an endless track used on the snowmobile. This tapered portion reduces the snowmobile from catching or grabbing snow in a snow trench, thereby enabling the snowmobile to traverse deeper snow.

In one embodiment, a utility vehicle includes a plurality of ground-engaging members configured to contact a ground surface, and a powertrain assembly operably coupled to the ground-engaging members. The utility vehicle also includes a frame supported by the ground-engaging members and extending along a longitudinal axis of the utility vehicle. The utility vehicle further includes a tunnel member coupled to the frame and extending along the longitudinal axis. The tunnel member is positioned at a first height from the ground surface. Additionally, the utility vehicle includes a cargo portion supported by the frame and positioned generally rearward of the tunnel member. The cargo portion has a cargo surface substantially aligned with the tunnel member and positioned at a second height from the ground surface. The first height is approximately equal to the second height.

A vehicle assembly can include a frame assembly, a grab bar assembly, a vehicle seat and a crossmember. The frame assembly can define a passenger area and include a left cage side member and a right cage side member. The grab bar assembly can include a left grab bar attached to and extending from the left cage side member and a right grab bar attached to and extending from the right cage side member. The crossmember can be connected to the vehicle seat so as to support the vehicle seat. The crossmember can have a center portion. The left grab bar can be attached to the crossmember at a first location of the crossmember. The right grab bar can be attached to the crossmember at a second location of the crossmember. The first location and the second location can be equally spaced from the center portion.

The present application discloses an all-terrain vehicle and a method for powering the all-terrain vehicle. The all-terrain vehicle includes: a frame; at least one seat arranged on the frame; a first device; a second device being a micro-control unit, a required electric power of the first device being greater than a required electric power of the second device, and the first device having a lower stability requirement for a power supply voltage than the second device; and a power supply system arranged behind the at least one seat and comprising a first power source and a second power source. The first power source is configured to supply power to a first device. The second power source is configured to supply power to a second device of the all-terrain vehicle.

A vehicle includes: a partition that separates a driver cabin into which a driver climbs and a passenger cabin into which a passenger climbs and that is coupled to a roof and a floor; a driver's seat base member to which a driver's seat is fixed; and a side support member that is coupled to the partition and the driver's seat base member and partially located on a lateral side of the buttocks or the hips of the driver seated in the driver's seat. A shoulder anchor of a driver's seatbelt device and a shoulder anchor of a passenger's seatbelt device are fixed to the partition. A side support member restrains the driver from moving in a left-right direction and retains the driver in the driver's seat.

A seating arrangement for a vehicle having a cabin space is provided. The seating arrangement includes a vehicle, at least one front seat within the vehicle, and at least one rear seat arranged behind the at least one front seat of the vehicle. The at least one front seat is rigidly fixed to and suspended from a portion of the vehicle, thereby providing a free space underneath the at least one front seat, such that an occupant of the vehicle seated in the at least one rear seat is able to position at least a lower portion of one or both legs thereof in the free space underneath the at least one front seat. A flexible covering, such as bristles may be attached to the periphery of the vehicle floor opening, so that a driver's foot can pass from inside the vehicle cabin, to the ground outside the vehicle.