The present disclosure relates to energy storage mounting system for an energy storage system of a vehicle, the mounting system comprising: a vehicle mounting member connectable to a longitudinal frame of the vehicle, the vehicle mounting member comprising an elongated portion arranged to, when the vehicle mounting member is attached to the longitudinal frame, extend away from the longitudinal frame, wherein the elongated portion comprises a recess at an outer end portion thereof; and a battery mounting member connectable to the energy storage system, the battery mounting member comprising a connecting portion, wherein the connecting portion is movable between a disconnected state, in which the connecting portion is positioned at a distance from the elongated portion of the vehicle mounting member, and a connected state, in which the connecting portion is positioned in the recess for connecting the battery mounting member to the vehicle mounting member.

A fastening apparatus for a vehicle may include: a first fastener fixed to a first structure, a second fastener coupled to a case fixed to a second structure and configured to have the first fastener inserted therein, a fixing unit movably installed in the second fastener and configured to move in a direction that intersects a direction in which the first fastener is inserted, and to selectively limit relative movements of the first fastener and the second fastener, and an elevation unit installed in the case in a way to move up and down, and configured to be moved up and down by an external force that is applied from a work tool and adjust the direction in which the fixing unit moves.

A body structure for an electrically operated vehicle has an installation space for a traction battery which is downwardly open in the vehicle vertical direction and upwardly delimited by a floor sheet-metal part forming the vehicle floor. The traction battery is inserted into the installation space from below the vehicle. A free installation gap is formed between a battery ceiling wall and the floor sheet-metal part and a spacer is supported between the battery ceiling wall and the floor sheet-metal part. The spacer is formed in two parts, namely, a buffer made from an elastic, flexible, soft component and a base made of a component-stiff hard component. In an undeformed production state, the installation height of the spacer is greater than the gap size of the installation gap. In an installation position, the spacer is supported between the floor sheet-metal part and the battery ceiling wall, elastically deforming the buffer.

The battery pack according to the present disclosure is a battery pack mounted under a floor of a vehicle. The battery pack comprises a lower case fixed under the floor and on which a battery stack is placed, an upper case attached to the lower case, and a support member extending upwardly from a rigid body provided inside the lower case to support a back surface of the upper case. The battery pack may further comprise an elastic member disposed on a surface of the upper case and sandwiched between the upper case and a lower surface of the floor. In such a configuration, it is possible to suppress the upper case of the battery pack from vibrating.

A vehicle battery pack support device applicable to various classes of vehicles and allowing weight reduction and cost reduction. The vehicle battery pack support device suspends a battery pack at a side rail constituting a ladder frame of a vehicle and includes a frame-side bracket secured by bolts to an outer side face of the side rail at a plurality of bolt fastening parts thereof arrayed in a grid arrangement. An elastic coupling part elastically couples the battery pack and the frame-side bracket. A spacer is interposed between the outer side face of the side rail and the frame-side bracket. The spacer includes a plurality of columnar members corresponding to the plurality of bolt fastening parts and a connecting part that connects the plurality of columnar members.

An energy storage underbody for a motor car body-in-white has a vehicle floor laterally delimited by side sills and reinforced by side members and/or cross members. An energy storage device is disposed on the underside of the vehicle floor. In order to obtain an energy storage device of particularly simple construction and a particularly economical, stiffened underbody, the energy storage underbody has at least one housing of the energy storage device, the housing being non-load bearing in terms of the body-in-white, and has at least one additional side member or cross member disposed on the topside of the vehicle floor to reinforce the underbody.

An energy storage underbody is provided for a motor car body-in-white in which a vehicle floor is laterally delimited by side sills and is reinforced by side members and/or cross members, and in which an energy storage device is disposed on the underside of the vehicle floor. In order to obtain an energy storage device of particularly simple construction and a particularly economical, stiffened underbody, the energy storage underbody has at least one housing of the energy storage device, the housing being non-loadbearing in terms of the body-in-white, and has at least one additional side member or cross member disposed on the topside of the vehicle floor to reinforce the underbody.

The present disclosure relates to a battery system for a hybrid or an electric vehicle. Another aspect of the present disclosure provides a battery assembly designed for easy and quick exchange of battery assemblies enabling a vehicle to resume driving much more quickly than traditional charging permits.

An electric or hybrid sport car comprising a battery pack incorporating at least one structural element of the vehicle frame, and wherein said structural element can be removed from the vehicle frame only together with the battery pack.

Disclosed herein is a quick-change universal power battery for a new energy vehicle. A battery body is provided with a quick-change connection port, a recessed structure, an independent liquid temperature-control loop and a multi-connection port structure. The battery body is provided with a recessed area, and the quick-change connection port is arranged in the recessed area. A power battery system is composed of no more than eight main models of quick-change universal power batteries to achieve battery selection and replacement of most new energy vehicles, and the power battery system is combined with charging to facilitate an electrical-energy supplement of the new energy vehicle. A vehicle and a replacement station are also disclosed.