There is provided a battery module, in which a relatively wide contact area between an end plate and a lifting device may be secured when the battery module is elevated, the rigidity of the end plate may be sufficiently secured when the battery module is elevated, while forming a relatively thin end plate. The battery module includes a cell stack provided by stacking a plurality of battery cells, a module case accommodating the cell stack, an end plate disposed on front side and rear side of the module case, and a lifting support portion disposed on the end plate and having a support surface in surface contact with a lifting device.

A nut lifting tool of an inner wear part of a cone crusher. The lifting tool has a frame to be placed around a nut to be lifted. The frame has nut lifting lugs for supporting occurring from at least three sides of the center of gravity of the nut and frame suspension brackets for suspending the frame from the nut before lifting the nut. The frame also has an open side for receiving a nut, lateral limiters, which, together with the lifting lugs and the suspension brackets, form a nut receiving space such that the frame can be slid from the open side to surround the nut, and lifting connection pieces for connecting a crane to the frame.

A nut lifting tool of an inner wear part of a cone crusher. The lifting tool has a frame to be placed around a nut to be lifted. The frame has nut lifting lugs for supporting occurring from at least three sides of the center of gravity of the nut and frame suspension brackets for suspending the frame from the nut before lifting the nut. The frame also has an open side for receiving a nut, lateral limiters, which, together with the lifting lugs and the suspension brackets, form a nut receiving space such that the frame can be slid from the open side to surround the nut, and lifting connection pieces for connecting a crane to the frame.

A deployable clasping system is configured to be deployed from a component and securely clasp and release an object. The deployable clasping system includes a cable that is deployable from the transit vehicle. A clasp assembly is coupled to the cable. The clasp assembly is configured to securely clasp the object. A propulsion sub-system is coupled to one or both of the cable and the clasp assembly. The propulsion sub-system is configured to maneuver the clasp assembly to the object.

The present invention relates to an insertion device for inserting at least one section of packing for a gas/liquid separation column into a cylindrical casing, characterized in that a deployment module comprises a main member centred about a main axis of the insertion device, and a plurality of peripheral members arranged circumferentially and uniformly around the main axis, each of the peripheral members comprising an attachment means configured to grasp hold of a packing section, the deployment module comprising a plurality of branches arranged as pairs of branches connecting the main member to one of the peripheral members, the deployment module being able to modify the dimension of the insertion device by modifying a radial distance between the main member and each of the peripheral members.

The present invention relates to an insertion device for inserting at least one packing section for a gas/liquid separation column into a cylindrical casing, comprising a base provided with retaining means which are configured to grip a packing section and which are arranged uniformly around a main axis, characterized in that the insertion device comprises at least two fastening means secured to the base, said fastening means being configured to fasten the insertion device to the casing.

The invention also covers an insertion system for inserting at least one packing section into a cylindrical casing, comprising such an insertion device, and a method for inserting at least one packing section into a cylindrical casing that is implemented by such an insertion system.

The present invention concerns a gripping device for gripping a packing section, having a support forming a chassis and retaining means connected to this support and distributed angularly so as to surround the packing section that is to be gripped, characterized in that at least one of the retaining means has movable shoes respectively intended to be in contact with a peripheral edge of the packing section and a plurality of platforms disposed in at least two stages, each platform bearing articulation means able to interact with a platform of a different stage or one of the movable shoes.

The present invention relates to a device for inserting at least one packing section into a cylindrical shell, comprising a base provided with gripping means configured to grip hold of a packing section and arranged at regular intervals around a main axis, wherein the insertion device comprises at least two telescopic devices secured to the base and at least one pushing means secured to one end of each of the two telescopic devices, the telescopic devices being configured to extend and cause the pushing means to move.

A monolithic pipe cap assembly, and method of production, is described. The monolithic pipe cap assembly comprising a unitary body, a connector integrally formed at a proximal end of the unitary body and a pipe cap integrally formed at a distal end of the unitary body. As no welds are required in the formation of the monolithic pipe cap assemblies there is a significant reduction in the associated production time and a reduced risk of imperfections being formed when compared with the fabricated pipe cap assemblies known in the art. This results in a reduced risk of failure of the monolithic pipe cap assembly when deployed in the field. Connecting the monolithic pipe cap assembly to the section of pipeline is also significantly quicker since this process only requires the employment of a single weld that can be fully inspected prior to operational use.

A monolithic pipe cap assembly, and method of production, is described. The monolithic pipe cap assembly comprising a unitary body, a connector integrally formed at a proximal end of the unitary body and a pipe cap integrally formed at a distal end of the unitary body. As no welds are required in the formation of the monolithic pipe cap assemblies there is a significant reduction in the associated production time and a reduced risk of imperfections being formed when compared with the fabricated pipe cap assemblies known in the art. This results in a reduced risk of failure of the monolithic pipe cap assembly when deployed in the field. Connecting the monolithic pipe cap assembly to the section of pipeline is also significantly quicker since this process only requires the employment of a single weld that can be fully inspected prior to operational use.