An embodiment running bare chassis assembly includes a front frame on which a front suspension is mounted, a rear frame assembly on which a battery carrier is mounted, wherein the rear frame assembly comprises, a first rear frame on which a rear suspension is mounted, a second rear frame coupled to the first rear frame and on which a radiator is mounted, and a battery carrier frame on which the battery carrier is mounted and which is coupled to the first rear frame through a second engagement, and a center frame coupled to the front frame and the rear frame assembly through a first engagement, wherein a stress distribution due to the first engagement is greater than a stress distribution due to the second engagement.

A platform structure for an electric vehicle is proposed. More particularly, according to the platform structure for an electric vehicle, a frame configured by coupling pipes to each other to form a lattice structure is installed to have a vertical double structure, and each pipe constituting an upper frame and each pipe constituting a lower frame intersect with each other such that rigidity of the platform structure is secured and the manufacturing period thereof due to easy manufacturing is decreased to reduce manufacturing cost. The platform structure for an electric vehicle includes a frame of the platform structure configured in such a manner that pipes are coupled to each other by brackets to form a lattice structure.

A spatial frame structure of a vehicle designed for connecting structural assemblies. The described frame construction allows the use of interchangeable high-capacity fuel tanks. As a result, most structural assemblies are mounted to the outside of the frame, thus creating additional space in which elements of alternative fuel and energy source systems (e.g. natural gas tanks, electric batteries) can be assembled. This makes it possible to increase the working time of the agricultural vehicle. The frame construction comprises rigidly interconnected longitudinal tubular beams, transverse, perpendicular and diagonally arranged structural pipes, additionally connecting stiffness elements. The structure includes fastening elements for connecting the following structural assemblies: rear wheel hubs, which are assembled with electric drives; mechanical implement coupling device; structure of replaceable fuel tanks; door platform; folding driver's cab; chassis steering axle with electric drive; side component containers; power plant; mechanical coupling device for trailers and semi-trailers.

A spatial frame structure of a vehicle designed for connecting structural assemblies. The described frame construction allows the use of interchangeable high-capacity fuel tanks. As a result, most structural assemblies are mounted to the outside of the frame, thus creating additional space in which elements of alternative fuel and energy source systems (e.g. natural gas tanks, electric batteries) can be assembled. This makes it possible to increase the working time of the agricultural vehicle. The frame construction comprises rigidly interconnected longitudinal tubular beams, transverse, perpendicular and diagonally arranged structural pipes, additionally connecting stiffness elements. The structure includes fastening elements for connecting the following structural assemblies: rear wheel hubs, which are assembled with electric drives; mechanical implement coupling device; structure of replaceable fuel tanks; door platform; folding driver's cab; chassis steering axle with electric drive; side component containers; power plant; mechanical coupling device for trailers and semi-trailers.

A mounting system for mounting a tank to a space frame comprises a side mount configured to mount the tank to a center upper frame connection of the space frame, and a bottom mount configured to mount the tank to an elongate support member of the space frame. The bottom mount and the side mount are distinct mounts and configured to be mounted to the tank in a spaced apart relationship with respect to each other. The bottom mount and the side mount are coupled to a bottom and a rear side of the tank, respectively, and together are configured to mount the tank to the space frame.

A mounting system for mounting a tank to a space frame comprises a side mount configured to mount the tank to a center upper frame connection of the space frame, and a bottom mount configured to mount the tank to an elongate support member of the space frame. The bottom mount and the side mount are distinct mounts and configured to be mounted to the tank in a spaced apart relationship with respect to each other. The bottom mount and the side mount are coupled to a bottom and a rear side of the tank, respectively, and together are configured to mount the tank to the space frame.

A connector for connecting a frame member to one or more other frame members of a space frame assembly is disclosed. The connector includes a body defining a surface and a projection extending outwardly from the surface along a main axis to define an axial end surface away from the surface. The axial end surface defines a curvature having continuity across an expanse of the axial end surface to facilitate formation of a full penetration weld joint between an end of the frame member and the axial end surface upon a contact of the end of the frame member with the axial end surface.

A vehicle chassis that can be used for more than its intended purpose where the vehicle chassis can be used to support a different vehicle body that its intended purpose or can be use to receive attachments that turn allows the vehicle to be used for a second application. The chassis includes a set of fastened cross-beams that provide support to the vehicle chassis allowing the chassis to support more weight.

A vehicle body includes a rear pillar, a roof siderail, and a side inner panel. The rear pillar is disposed to a side of a rear hatch, and extends in an up-down direction. The roof siderail extends in a vehicle body front-rear direction at a side of a roof, and a rear end thereof is linked to the rear pillar. The side inner panel is linked to the rear pillar and the roof siderail. The roof siderail has a tubular shape, and bulges further into a vehicle cabin than an upper end of the side inner panel.

The present application discloses a wheel beam type axleless vehicle frame that comprises five sections in sequence from front to back, including a front hanging rack, a front wheel carrier, an intermediate coupling rack, a rear wheel carrier, and a rear hanging rack. Every two adjacent sections amongst the five sections are manufactured and connected in a unified and standardized integrated mode; a modular combination structure is used; and the five sections, which are independent respectively, may be assembled and adjusted according to requirements, and have sufficient strength and stiffness as well as completely independent interchangeability. The vehicle frame has the advantages that match with the needs of an electric vehicle, and thus may be used as the optimum configuration frame for the electric vehicle; and the vehicle frame may be improved according to requirements to be applicable to various fuel and hybrid electric passenger vehicles and commercial vehicles.