A electric personal mobility device may include a main body including a rider-support-platform structure and a steering column coupled to the rider-support-platform structure. The electric personal mobility device may further include a wheel arrangement, having at least one front wheel and at least one rear wheel, supporting the main body. The at least one front wheel may be steerable by the steering column. According to various embodiments, the rider-support-platform structure may include an elongate hollow housing structure enclosing an internal space partitioned to define a first and second longitudinal-internal-battery-compartments. Each longitudinal-internal-battery-compartment may be extending lengthwise along respective longitudinal side of the elongate hollow housing and having a respective rear opening at an aft portion of the elongate hollow housing structure. The rider-support-platform structure may include a rear-wheel-fork fixedly extending longitudinally from the aft portion between the rear openings. The rear-wheel-fork may be holding the at least one rear wheel.

An embodiment battery-mounting structure includes a side sill, a mounting bracket connected to the side sill, the mounting bracket being deformable by external force, a connecting member coupled to the mounting bracket and spaced apart from the side sill by a predetermined distance, and a battery assembly including a side flange coupled to the connecting member, the battery assembly being configured to receive a high-voltage battery.

The invention relates to a system for installation of traction batteries for a vehicle having a chassis comprising at least one load-carrying frame member. A front bracket member and a rear bracket member are adapted to be secured to and project from the frame member of the vehicle for receiving a traction battery between the front bracket member and the rear bracket member. The system also comprises a first and a second slider adapted to be connected to a front and a rear side, respectively, of a traction battery. The sliders are adapted to be mated with the bracket members subsequently to the sliders having been connected to the traction battery, thereby enabling the traction battery by means of the connected sliders to be received by the bracket members and be moved towards the frame member of the vehicle.

A mounting structure for a series of electric battery packs (21); such packs get mounted between the two lateral chassis rails (11, 12) of a medium or heavy-duty electric vehicle. The battery packs get inserted through either the forward-facing or rear- facing ends of the chassis frame. Such chassis frame is created by joining a set of double up frame rails (11, 12) together with U- shaped cross members (32), allowing access to the interior of the chassis frame, and allowing a simplified removal and replacement of batteries for maintenance purposes.

A battery storage device includes a battery case (42) storing a battery (62A or 62B) and a case side connection terminal (43) connected to a terminal portion (41) of the battery (62A or 62B) stored in the battery case (42). The battery storage device further includes a terminal displacement mechanism (45) and an operation member (44). The terminal displacement mechanism (45) causes the case side connection terminal (43) to be displaced between a connection position (P1) contact-connected to the terminal portion (41) of the battery (62A or 62B) and a retreat position (P2) separated from the connection position (P1). The operation member (44) is capable of operating the terminal displacement mechanism (45).

In an embodiment, a clamping bar holder component configured to be secured to an endplate of a battery module includes a plurality of clamping bar holders configured to hold a respective plurality of clamping bars and to facilitate transitions of each of the plurality of clamping bars between a parked state and an unparked state. In the parked state, each clamping bar is secured by a respective clamping bar holder inside of a respective clearance threshold so as to permit the battery module to be inserted into a battery module compartment and/or to be removed from the battery module compartment. In the unparked state, each clamping bar extends out of the clamping bar holder past the clearance threshold so as to block removal of the battery module from the battery module compartment.

An electric car provided with a battery compartment, said electric car comprising a car body (17), a chassis (19), a power drive system, a cab (16) and a control system, the power drive system comprising a battery compartment (8), the battery compartment (8) being fixed at a lower portion of the chassis (19), the battery compartment (8) being a rectangular cavity body wherein one end is a battery inlet/outlet (8.1) and the inner side of the other end is provided with a battery connection socket (14), the rectangular cavity body being internally provided with a battery automatic push-out/guide-in apparatus, the battery inlet/outlet (8.1) of the battery compartment (8) facing towards the front, the rear or the side of the electric car, the control system controlling the battery automatic push-out/guide-in apparatus inside the battery compartment (8) to move. The battery compartment can automatically push out a battery therein, and can also automatically guide in a battery, to facilitate rapid swapping with a battery of a charging device, and increase battery loading/unloading efficiency.

An electric work vehicle includes: a battery accommodating portion that is provided in the vehicle body and accommodates a battery; a first connector provided on the battery accommodating portion; a second connector provided on the battery; and an operating tool for moving the battery and the second connector, and switching from a pre-attachment orientation in which the second connector opposes the first connector to an attachment orientation in which the second connector is joined to the first connector.