A motor vehicle having a vehicle body with a passenger compartment, a chassis supporting the vehicle body, a vehicle axle which can be driven by a drive device, and a seat device which is arranged inside the passenger compartment and is rotatable relative to the passenger compartment about an axis of rotation. The chassis supporting the vehicle body has only one vehicle axle, about the axis of which, the vehicle body with the passenger compartment and the seat device arranged inside the passenger compartment are rotatable relative to each other.

A vehicle including a front wall to form a cabin space to accommodate passengers, communication seats for the passengers seated thereon to talk face-to-face, and front and rear wheels. Front ends of upper and lower portions of the front wall are positioned forward of a rear end of an intermediate portion of the front wall. The front wall includes a front face-up surface, of which a front end is not forward of the front end of the lower portion of the front wall, and is not rearward of front ends of the front wheels, and of which a rear end is not forward of the front end of the upper portion of the front wall, and is not rearward of the rear end of the intermediate portion of the front wall. A front end of an upper portion of the cabin space is positioned forward of a front end of the intermediate portion of the cabin space.

A communication seat-type vehicle having communication seats arranged at locations to allow the passengers seated thereon to talk face-to-face, four wheels including two front wheels and two rear wheels, a driving source configured to apply driving force to at least one of the four wheels, a steering mechanism configured to steer at least one of the four wheels, and a vehicle body frame which is at least partially provided between front ends of the two front wheels and rear ends of the two rear wheels in the vehicle front-rear direction, and in which a cabin space is provided to accommodate the passengers. The vehicle body frame has a front H-shaped frame structure including a ceiling frame, a floor frame provided directly below the ceiling frame, a front H-shaped frame including two front pillars and a front intermediate transverse frame connecting the two front pillars, and a rear frame including two rear pillars.

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.

One embodiment of an unmanned protective vehicle (UPV) includes a chassis, wheels, an engine, a barrier fixed to the chassis, and an autonomous driving system. The UPV has an opening which enables a manned vehicle to enter a space that is protected by the barrier. And the autonomous driving system is configured to drive the UPV in cooperation with the manned vehicle, while the manned vehicle is located inside the space. Having the manned vehicle inside the space of the UPV improves the survivability of the manned vehicle following a collision, while the manned vehicle is located inside the space, compared to the survivability of the manned vehicle following a collision, while the manned vehicle is not located inside the space.

The invention relates to a three-wheeled electric vehicle (10) comprising a front-axle device (22) having two steerable front wheels (24a, 24b) which are aligned substantially parallel to each other when traveling straight ahead; a rear-axle device (12) with a driven rear wheel (14); and a vehicle frame (26) on which the front-axle device (22) and the rear-axle device (12) are supported; wherein the front-axle device (22) is designed such that when the steering angle is rotated, the vehicle frame (26) and the front wheels (24a, 24b) may be tilted in the direction of the rotated steering angle. The compactness value KW, which is calculated from the ratio of the distance SP between the front wheels (24, 24B) when arranged substantially parallel to each other for a straight-ahead travel to the wheelbase RS between the front wheels (24a, 24b) and the rear wheel (14), said wheelbase being measured when the front wheels (24, 24b) are positioned for a straight-ahead travel, satisfies the following condition: KW=SP/RS 0.35≤KW≤0.80, in particular 0.62≤KW≤0.78.

The present invention relates to a personal transportation vehicle that protects riders from weather conditions and contracting or spreading airborne diseases while traveling through crowded city environments. The vehicle is comprised of a pod-like enclosure having a plurality of panels and preferably three wheels, wherein each panel is further comprised of a viewing window. Several features of the personal transportation vehicle may also be controlled by voice command such as, but not limited to, GPS navigation, vehicle direction, vehicle engine, etc. The vehicle is also comprised of at least one interior display and a virtual and/or augmented reality system

A conventional vehicle typically behaves like a single rigid body with fixed characteristics defined during the design phase of the vehicle. The rigid nature of the conventional vehicle limits their ability to interact and adapt to different environments. To overcome these limitations, an articulated vehicle may be used where one or more sections of the vehicle are reconfigurable, thus changing various aspects of the vehicle including the shape, the size, and the footprint. In one example, the articulated vehicle includes a front section and a tail section joined together by an articulated joint. The articulated joint rotates the tail section about an axis relative to the front section, thus modifying the height and the wheelbase. The vehicle also includes a morphing section to maintain continuity in the form of the vehicle and a payload positioning joint to maintain a desired orientation of a payload as the vehicle is being articulated.

A vehicle body includes a plurality of lateral units and a cross unit having a plurality of cross members for connecting the lateral units, where neighboring cross members form a closed structure together with members of the lateral units disposed at opposite sides. The vehicle body entirely surrounds the closed structure.

A vehicle body forming structure is provided. The vehicle body forming structure includes a plurality of linear members each including a bent portion in at least a portion thereof, wherein the plurality of linear members overlap each other in at least a partial section to form overlapping extending portions extending in a same direction, and a fastening member configured to fasten the overlapping extending portions to form a vehicle body frame.